Good fences make good neighbors.
Intro: I’m related to the people who built his
castle, so while reading this you may get an idea of what poor Queen Elizabeth
went through with the Irishman named Blarney.
No intent was made to ruffle people’s hackles, it’s just my stream of
consciousness stuff.
US-Mexico Boundary
Nations
are something like our collective political houses.
To Americans, the US is our home.
To Mexicans, Mexico is their home.
Basically, both Mexicans and Americans treat each other as they themselves
want to be treated. Our agreements should
also be reciprocal. If you let us come visit
your home we let you visit ours. We never
ask anyone to use the back entrance. In our
lives, we have never seen servants’ entrances.
All are to use the front entrance unless they, of their own volition, wish
to come to the rear entrance. People who
use the rear entrance are usually well known to us and as a kindness to us they
expect to save us the time and steps otherwise required to answer the front door. When we invite you into our home we treat you
as respected guests and see to your comfort and needs. If there is work expected to be done, it is only
after the pleasantries have been accorded that the subject is broached. Accustomed friends will fetch for themselves that
which is habitually offered them as guests, again as a kindness saving the host
time and steps.
We usually
bring a gift when we visit friends and relatives. Unless expected, we don’t go into each other’s
homes uninvited. It is not only rude, it
is criminal, and sometimes dangerous. And
we don’t overstay our welcome. When we come
to our friend’s or relative’s homes we stay long enough to catch up on events in
each other’s lives, but not too long or it overtaxes our host. Being a host is tiring to most, so there is a
limit to the length of time one stays before the host starts to feel “put upon” and enjoy
seeing our backsides so they can relax. Tourist
strangers are more tiring than family and friends, probably because they are more
exciting, with stories we had never heard before.
Experimental Greenhouse BC/C2
Baja California Tecate California Riverside
Experimental Greenhouse BC/C3
Baja California Mexicali California Imperial
Experimental Greenhouse S/A1
Sonora San Luis Arizona Yuma
Puerto Peñasco La Paz
Experimental Greenhouse S/A2
Sonora Plutarco Elías Calles Arizona Pima
Caborca Maricopa
Altar Pinal
Experimental Greenhouse S/A3
Sonora Sáric Arizona Santa Cruz
Nogales (open)
Santa Cruz (open)
Experimental Greenhouse S/A4
Sonora Cananea Arizona Cochise
Naco (open)
Agua Prieta (open)
Experimental Greenhouse C/NM2
Chihuahua Ascensión New Mexico Luna
(open) Sierra
(open) Donna Ana
(open) Otero
If we
have a valid passport, aren’t carrying contraband, don’t plan to make money working,
and don’t stay long, then US citizens are welcomed into Mexico and Mexican citizens are welcomed
into the US. There is a difference in the way the two countries
treat each other’s citizenry. An American
can stay in Mexico up to 180 days on a Visitor Permit. If Americans want to stay longer than that then
they apply for a Temporary Resident Visa[K1] (FMM). Today, if you have a Visitor Permit and want a
Temporary Resident Visa that means leaving Mexico first and then applying. Things are different[K2]
for
Mexicans wishing to visit the US[K3]. Mexicans might apply
for the Visa Waiver Program (VWP) if they meet certain requirements. Otherwise Mexicans apply for B visas, and must
demonstrate their intention to enter the US for a temporary period, solely for the
purpose of tourism and/or short-term business.
Applicants must also demonstrate sufficient funds to cover travel expenses
during their stay in the US; as well as sufficient social, economic, and other ties
to their home country to compel the applicant to return after a temporary and lawful
visit. There is also a difference in the
length of time a Mexican can stay in the US.
VWPs allow them to stay 90 days, instead of 180. A B2 visa allows Mexicans to stay 180 days, but
that is a visa. Mexicans staying within the
US on B-visas may apply for 6 month extensions to their stay.
Political
boundaries[K4]
can
be defined by comparing them to ethnic/cultural boundaries. Political boundaries utilize both natural geological
features such as rivers, lakes, seas, oceans, mountain ranges, deserts, and even
dense forests or “hedgerows” as well as manmade borders, such as the Maginot Line
which separated France from Germany between WW’s I and II[K5]. Such borders are usually fixed and today are rarely
changed. Even when a political boundary is
militarily enforced upon a weaker nation, its physical existence is mostly beneficial to both sides[K6].
Secure
political boundaries allow for more domestic stability within both nations, and
with reduced border stress comes reduced resource expenditure and an improvement
in each nations’ ability to plan their economic system’s operations without worry
of disruptions (such as Pancho Villa’s Columbus Raid of 1916.) Weak borders invite military overthrow [K7] and
destruction by a neighboring nation. Such
barriers are critical when needing to prevent catastrophic defeat from 2nd
& 3rd generation warfare (GW), but need help to be useful against 4GW.
The
distinction between political and ethnic boundaries comes from when political boundaries
cross-sect an ethnic region where that ethnicity is an ethnic minority in at least
one of the respective countries, but the dominant ethnic group within the border
region. The Sunni Kurds are an example of
this in SE Turkey, northern Syria, northern Iraq and NW Iran. It would seem best for domestic stability to have
political boundaries that are set according to ethnic boundaries. But none of the governments of Turkey, Syria,
Iraq nor Iran are keen on redrawing their boundaries to create a Kurdistan. As proxies for the US fighting IS in Syria and
Iraq, the Kurds are being armed. What could go wrong?
Another
example is that of the Palestinians residing in Israel[K8]. In 1947, the UN partitioned
Palestine to give Israel a home, which caused the 1948 Palestine War, which resulted in a Jewish state for the winners,
but no Palestinian state for the losers.
Israel did nothing when Jordan annexed
the West Bank (of the Jordan River) in 1950, but Jordan then lost the West Bank
(WB) to Israel, just as Egypt lost the Gaza Strip (GS) and Syria lost the Golan
Heights (GH), after the 1967 War. After[K9]
the
first intifada (uprising[K10]) by the WB Palestinian PLO
in 1987 against Israeli occupation there, Jordan gave up all claims to the WB in
1988.
In 1993,
in secret meetings between the PLO and Israel, the WB and GS Palestinians were to
be extended self-government over a 5-year period. Israel’s implementation began in May 1994, leaving
Jericho and surroundings. But by 2000, the
Palestinian Authority still only controlled 1/6th
of the WB. By September, after an affront
to the WB Arabs at Jerusalem’s Temple Mount by an Israeli government representative,
the Palestinians started their second intifada.
They lost this one. The 2nd intifada[K11] ended
in 2005, but by 2002 Israel had already approached the UN who agreed with their
plan to build a wall separating the WB from Israel to protect themselves from the
PLO’s suicide bombers.
To date,
the WB wall is still 36% unfinished. Palestinians
have broken some holes in completed sections in a few places, and although Palestinian
terrorist attacks have increased recently, such as knife-wielding suicide slashers
most Israelis believe the wall is already finished and proceed with their daily
lives with little fret. The faith in their
government, that it is doing everything it can to protect and provide a stable environment
for them is the main benefit to their nation’s people of their border wall. For the Palestinians, the border wall keeps the
Israelis mostly on their own side, leaving them to organize the WB for themselves.
Facing
the situation of the combination of undocumented Mexicans residing amongst the ethnic
Hispanic US population, the US is in a somewhat similar situation to that which
the Turkish and Israeli governments face with the Kurds and Palestinians. Facing a physical barrier, some terrorists may
be deterred from spreading their efforts to control an adjacent territory until
they have consolidated the political areas they are in. The ease of choking off a supply line with an
effective physical barrier to work with requires another level of logistical support
planning by terrorist insurgents, which somewhat deters their insurgency[K12].
A solid
physical wall can provide some degree of defilade for Americans from sniper attack,
but it mostly provides a psychological feeling of security to the border community. Overall, it helps the societies on both sides
of the wall to function independently.
US Border Patrol
Prior
to the temperance movement and prohibition, the borders of the US were not regularly
patrolled. US Immigration Service occasionally patrolled the border in an effort
to prevent illegal crossings as early as 1904.
The inspectors, called “Mounted
Guards”, operated out of El Paso
and totaled as many as 75. They patrolled as
far west as California, restricting the flow of illegal Chinese. Congress authorized a separate group referred
to as “Mounted Inspectors[K13]” in 1915. Most rode
horseback, but a few operated cars and boats.
Military troops stationed along the southwest border performed intermittent
border patrols, but this was secondary to their work of military training. Militarily encountered illegal aliens in the US
were directed to the immigration inspection stations. Texas Rangers were sporadically assigned patrol
duties by the State of Texas. Their patrols
were noted as “singularly effective.”
By the
20th century, customs violations and catching “enemy communications”
were higher priority than enforcing immigration laws. Agencies charged with inspecting people and goods
entering and leaving the US found their efforts ineffective without border enforcement
between inspection stations. After 1917,
higher head tax and literacy requirement imposed for entry prompted more people
to try to enter illegally.
With
prohibition in 1920 and numerical limits placed on immigration to the US by the
Immigration Acts of 1921 and 1924[K14], border enforcement received increased attention from the
US government. Numerical limitations resulted
in people from around the world to try illegal entry if attempts to enter legally
failed. Congress passed the Labor Appropriation
Act of 1924, officially establishing the US Border Patrol (BP) for the purpose of
securing the borders between inspection stations. In 1925 its duties were expanded to patrol the
seacoast.
In 1932
the BP was placed under the authority of two directors, one in charge of the Mexican
border office in El Paso, the other in charge of the Canadian border office in Detroit. Liquor smuggling was a major concern because it
too often accompanied alien smuggling. The
majority of the BP was assigned to the Canadian border. Smuggling was commonplace along the Mexican border
also. Whiskey bootleggers avoided the bridges
and slipped across the Rio Grande by way of pack mules.
In 1933, FDR combined
Bureau of Immigration and Bureau of Naturalization into the Immigration and Naturalization
Service. From[K15] 1935
until 1940 the work of the BP remained constant.
In 1940,
the Immigration Service moved from Department of Labor to Department of Justice. Aircraft[K16] proved
extremely effective and became an integral part of operations.
The Immigration and Nationality
Act of 1952, also known as the McCarran–Walter Act, restricted immigration into
the US. Since[K17] then,
illegal entrants traveling anywhere within the country are subject to arrest.
As illegal
immigration continued along the Mexican border, 62 Canadian border units were transferred
south for a large-scale repatriation effort.
In 1952, the government airlifted 52,000 illegal immigrants back to the Mexican
interior. Program was terminated after it
ran out of funds during its first year. Mexican
government provided train rides into the Mexican interior for nationals returned
from the San Antonio and Los Angeles districts, but that program ended after only
five months.
Throughout
the early 1950s, a taskforce of 800 BP agents was assigned by the US Attorney General
(AG) to round up and ship home[K18] thousands
of illegal immigrants residing in southern California. The task force moved to the lower Rio Grande valley,
then to Chicago and other interior cities.
Lots
of illegal aliens entered the US on private aircraft in the late 1950s. In cooperation with other federal services, the
BP began tracking suspect flights[K19].
By the early
1960s the business of alien smuggling began to involve drug smuggling also. BP assisted other Federal agencies in intercepting
illegal drugs from Mexico.
LBJ’s Immigration and Nationality
Act of 1965, also known as the Hart–Celler Act[K20], changed the way quotas were allocated by ending the National Origins
Formula that had been in place in the US since the Emergency Quota Act of 1921. Representative Emanuel Celler of New York proposed
the bill, Senator Philip Hart of Michigan co-sponsored it, and Senator Ted Kennedy
of Massachusetts who was out-front promoting it.
The
1980s and 1990s saw an increase of illegal migration into America. BP responded
with increases in manpower and with the implementation of modern technology.[K21]
In an
effort to better control the border, Operation "Hold the Line" was established
in 1993 in El Paso, and proved an immediate success[K22]. The drastic reduction in apprehensions prompted
the BP to undertake a full-scale effort in San Diego, California, which accounted
for more than half of illegal entries.
Operation
"Gatekeeper[K23]" was implemented in 1994,
and reduced illegal entries in San Diego by >75% over the next few years. Border Safety Initiative (BSI) was created in
1998 with commitment by BP and the promised cooperation of the Mexican government.
Security
within our nation became a primary concern of the government after the “terrorist”
attacks of September 11, 2001. Border security
became a topic of increased interest[K24] in DC. In 2003 the Department of Homeland Security (DHS)
was established, and the BP became part of Customs and Border Protection (CBP),
a component of DHS.
CBP
continues controlling our nation's borders.
The US-Mexico border is the most heavily crossed – both legally and illegally
– international boundary in the world (about 350M legal crossings per year). Improvements in technology can be put to good
use by border enforcers on both sides of the international borderline.
CBP
retains BP's 1924 motto: “Honor First.”
Mexico-US Physical Barrier
The total length of the continental
border between Mexico and the US is said to be 1,989 miles[K25]. By treaty, the Mexican-US maritime
(not continental) border projects out into the Gulf of Mexico 12 miles from the
Rio Grande’s mouth, so it should not be included in the length of the continental
border. The border then loops back and forth
along the middle of Rio Grande at its deepest channel for a distance of 1,255 miles
to a point just upstream of El Paso/Ciudad Juárez. The Rio Grande continues northward, but the border
goes overland westward, marked by monuments, for a distance of 534 miles until it
gets to the Colorado River at San Luis Rio Colorado, Sonora, where the border reaches
its highest elevation at the intersection with the Continental Divide. Then the treaty border meanders along the middle
of the Colorado River northward for 24 miles to just past Algadones, and then makes
a sharp bend to the left and goes overland westward again, marked by monuments a
distance of 141 miles to the Pacific Ocean at Tijuana/San Diego. The treaty’s[K26] maritime boundary then extends
the border 18 miles out into the Pacific, (not included in the continental border).
The majority of the overland Mexico–US
border is provided with a series of walls and fences aimed at preventing illegal
crossings from Mexico into the US and vice versa. Also, there is a fence along that 24 mile stretch
of the border along the banks of the Colorado River. The built barrier[K27] is not one continuous structure, but
a grouping of fairly short physical walls and fences, secured in between with a
"virtual fence" which includes a system of sensors and cameras monitored
by the CBP.
The
most obvious type of barrier is a physical boundary. A physical boundary is a naturally occurring barrier
between two areas. Rivers, mountain ranges,
oceans, and deserts can all serve as physical boundaries. Many times political boundaries between countries
form along physical boundaries[K28]. There are some natural
boundaries between Mexico and the US, like the Rio Grande/Bravo del Norte, Sonoran
desert, and many rocky, mountainous, desert and other difficult to traverse and
inhospitable places along their border.
The
existing border barrier includes physical boundaries as well as stretches of steel
and barbed wire, fortified with infrared cameras, watchtowers and floodlights, patrolled
by over twenty thousand guards. Justification
for the government’s existence is for the protection of the people it serves, their
common good. That is, control of undocumented
immigration is the main impetus for the modernization of the border[K29].
The
earliest precursor to the construction of a border fence was surveying of lines
between the nations of Mexico and the US.
The area was acquired after the Mexican-American War in 1848[K30] and
the Gadsden Purchase in 1853, which ceded 30K square miles of northern Mexico into
Arizona and New Mexico. After the line between
the two nations was surveyed and officially demarcated, there was still easy movement
among people on both sides of the border.
The violent phase of the Mexican Revolution 1910-1920 pushed many of Mexicans
north into the US for asylum. Those migrants
sheltering in the US due to the Mexican civil war were welcomed by farmers and businesses
for their labor in field and factory to aid in the domestic efforts of WWI. Business profits increased because the low cost
of the labor force before and after the WWI boom.
Late
1920s through the 1930s had a reduction in Mexican immigration across the border
with the Great Depression and lack of jobs.
Mexicans were exempted from quotas imposed by the immigration acts of 1921
and 1924 and continued to move unimpeded across the border, mainly as a result of
their value as a source of low cost labor.
WWII’s
demand for labor increased as the US labor force was inducted into the military. At about that time it was not human migration,
but rather environmental concerns that required making the border less permeable.
NPS
fencing promoted the efficacy of the idea of a border fence. Modernization of the border barrier was increased
during the “War on Drugs” in the late 1960’s.
Increased criminalization of marijuana resulted in criminal prosecutions
at the border. In 1969, 37th POTUS
RMN launched Operation Intercept, mandating surprise inspections of any and all
border crossings, whether they were by plane, car, or foot. Thousands of additional BP, Customs, and Immigration
agents were dispatched to the Mexico border to carry out the mission. Measures[K31] to fortify
the border fence taken by RMN was increased by subsequent administrations.
1994’s
NAFTA agreement devastated many individual Mexican farmers by depreciating crop
prices, which spurred large numbers of illegal migrants into the US. This caused another expansion of the border barrier
and border control regulations. Geographically
specific “operations” to better control the most frequently traversed urban centers
in the 1990s was undertaken. Increased modernization
of the barrier reduced the flow of illegal migrants through major ports of entry
like San Diego and El Paso, but redirected crossings into more remote and inhospitable areas[K32].
After
the attacks of 9/11 the push to improve border security nationwide increased the
scope and modernization of the border barrier.
In 2006, 43rd POTUS GWB signed the Secure Fence Act, which mandated
constructing 850 miles of two separate layers of “reinforced fencing” that included
patrol roads along stretches of the border.
Building up of border security carried a price of from $2M to $3M per mile
depending on topography, materials, and price of lands.
Innovations,
like the “virtual fence” or SBINet[K33]
might
still be implemented to better detect any insurgencies. SBInet was initiated in 2006 as an integrated system of personnel,
infrastructure, technology, and rapid response to secure the northern and southern
land borders of the US. It was a part of
the Secure Border Initiative (SBI), a DHS program to better integrate the operating
components of border security: Customs and Border Protection (CBP), Immigration
and Customs Enforcement (ICE), US Citizenship and Immigration Services (USCIS),
and the Coast Guard (USCG).
Components of SBInet:
Tower Systems: were to be set up along the border, with various surveillance and communications equipment depending on the climate, terrain, population density, and other factors. Towers were slated to include radar, long-range cameras, broadband wireless access points, thermal imaging capabilities, and motion detectors. SBInet was to include ground sensors for seismic detection as well.
Command Centers: Information from sensors went to command centers, where a "common operating picture" was compiled by CBP and shared with the other agencies. The common operating picture appeared on computer screens as a geospatial map, where border entries were tracked in real time. Command center personnel were to be able to click on a given entry, view the entry, and assess the threat using long-range cameras on the towers. They then dispatched CBP agents to interdict.
CBP Response: CBP agents would carry PDAs[K34] with GPS capability, to allow command center to track their location while interdicting illegal entries and watch the encounter in real time on the common operating picture.
Airborne Sensors on UAVs were to fill in gaps in the "virtual fence" in remote areas where building and maintaining towers was impractical. The small UAV that a lone person could launch called Skylark, made by Elbit Systems was proposed for that use.
Construction Strategy: Boeing would use 1,800 towers to create its virtual fence along both the northern and southern borders, (about one tower per 3-1/3 miles of border.) The southern border would have about 600 towers. The first towers placed would be special purpose mobile ones, so that they could be relocated to obtain optimal placement. Once that was found, the mobile towers would be replaced with permanent ones, with the mobile towers taken to be reused at the next proposed tower location of the SBInet. In addition to towers and technology systems, SBInet was to include the construction of additional fences, vehicle barriers and border roads. BHO’s DHS announced the program's cancellation in early 2011[K35].
Tower Systems: were to be set up along the border, with various surveillance and communications equipment depending on the climate, terrain, population density, and other factors. Towers were slated to include radar, long-range cameras, broadband wireless access points, thermal imaging capabilities, and motion detectors. SBInet was to include ground sensors for seismic detection as well.
Command Centers: Information from sensors went to command centers, where a "common operating picture" was compiled by CBP and shared with the other agencies. The common operating picture appeared on computer screens as a geospatial map, where border entries were tracked in real time. Command center personnel were to be able to click on a given entry, view the entry, and assess the threat using long-range cameras on the towers. They then dispatched CBP agents to interdict.
CBP Response: CBP agents would carry PDAs[K34] with GPS capability, to allow command center to track their location while interdicting illegal entries and watch the encounter in real time on the common operating picture.
Airborne Sensors on UAVs were to fill in gaps in the "virtual fence" in remote areas where building and maintaining towers was impractical. The small UAV that a lone person could launch called Skylark, made by Elbit Systems was proposed for that use.
Construction Strategy: Boeing would use 1,800 towers to create its virtual fence along both the northern and southern borders, (about one tower per 3-1/3 miles of border.) The southern border would have about 600 towers. The first towers placed would be special purpose mobile ones, so that they could be relocated to obtain optimal placement. Once that was found, the mobile towers would be replaced with permanent ones, with the mobile towers taken to be reused at the next proposed tower location of the SBInet. In addition to towers and technology systems, SBInet was to include the construction of additional fences, vehicle barriers and border roads. BHO’s DHS announced the program's cancellation in early 2011[K35].
Mexico-US Ethnic Barrier
1845 to 1900 – Texas annexed. Mexicans from Texas migrated south across the
re-laid borders of Mexico. Surveyed boundary
markers of piled rocks had been moved or removed by “persons unknown” and the boundary
continued changing with the changed banks of the Rio Grande/Bravo del Norte.
1924
– Mexico was exempted from the Immigration Act that restricted newcomers from other
countries.
1929
– After the Great Depression started, thousands of Mexicans were unofficially “repatriated”
by city, state and federal governments of the US and sent back to Mexico.
1965
– LBJ changed the preference of immigration law from country of origin – therefore
European ethnicity – to family ties inside the US, acknowledging large numbers of
Mexicans with family members who were already residents, acknowledging the close
relationship with Mexico.
1969
– RMN launched “Operation Intercept” and mandated surprise individual inspections[K38]
of any
and all border crossings, plane, car, or foot.
1980′s
– Lacked strict border enforcement. Pedestrians
and cars were stopped intermittently.
1993
– WJC mandated construction of a 13-mile “Border Wall[K39]” along the border between San
Diego and Tijuana. Illegal immigrants found
unfenced places to cross.
1994
– NAFTA passed. Large agricultural areas
in Mexico were devastated by low-cost competition with US industrial agriculture. Surge of illegal immigration into the US, swamped
the CBP.
1996
– WC signed the Illegal Immigration Reform and Responsibility Act, increasing fines
for illegal entry and approving funding for more patrols and fences[K40].
2000
– Tohono O’odham Native Americans[K41] whose
reservation is divided between the US and Mexico, needed passport documents to move
between their reservation lands on either side of the border.
2001
– 9/11. Border security became a national
security issue.
2004
– CBP found remains of 325 illegal border crossers that year.
2005
– In anticipation of expected amnesty, over 1M arrested crossed illegally into the
US from Mexico. Over 500 died in their attempts.
2006
– GWB signed the Secure Fences act, for 700 miles of fencing on the border, plus
the virtual wall across the entire border.
2007
– GWB’s DHS argued that it was impossible to construct the same type of fencing
– i.e. a wall – across the border’s diverse terrain, and got an amendment allowing
a variety of barriers including “fencing, physical barriers, roads, lighting, cameras,”
with another $12B in funding.
2008
– GWB increased[K42]
CBP
staff from 10K to 20K. Congress approved
DHS to avoid some EPA red tape to get the fencing constructed by year’s end.
2009
– GWB/BHO’s Great Recession caused outflow of Mexicans from the US.
2010
– From 2006-2010, 51 tunnels running under the border were found extending from
Nogales in Sonora to Nogales in Arizona.
They were used for illegal drug trafficking.
2011
– BHO’s DHS completed 649 miles of barriers, including 350 miles of pedestrian fencing,
at an estimated $6.5M per mile, and 299 miles of vehicle barriers at approximately
$1.7M per mile.
2012
– Washington Office on Latin America estimated that the number of border crossing
fatalities doubled since the 2011. CBP found
remains of 463 illegal border crossers.
2014
– Large numbers of migrants from Central and South America crossed Mexico headed
for the US. Non-Mexican illegal crossings
exceeded the number of illegal Mexican crossings. Many unaccompanied illegal migrant children crossed
the US border.
2016
– More Americans migrated into Mexico than Mexicans into the US. Scott Walker, Wisconsin Governor, reported concerns
about security along the US’s northern border.
He said he would support the building of a wall between the US and Canada.
2017
– DJT has vowed to build a great, great wall across the rest of the border. EO calls for an increase of 5,000 CBP agents and
an undetermined number of additional ICE officers.
There
are reportedly anywhere from 11M to over 40M undocumented aliens currently residing
within US borders. The majority have come
from Mexico. 25% of the population of Mexico
has moved to the US. Many undocumented migrants
are hardworking salt-of-the-earth people who try to avoid drawing attention to their
resident status. There are many though, who
have come to the US only to climb aboard the welfare system. Undocumented migrants percentage on US welfare[K43]
= 62%. Cost
to US taxpayers for providing welfare benefits to them is $133B per year. Also an undetermined number of undocumented migrants
are members of criminal gangs[K44] involved
in such things as human trafficking, arms dealing, extortion, assaults, murder,
torture, etc. Their main enterprise is the
importation and distribution of illicit drugs, either cooperating with or competing
against legal US residents in the same business. Undocumented aliens are also reported to commit
3M violent crimes/year (murder, rapes, brutal beatings, etc.)
Crime
is the most urgent concern facing Mexico today, as Mexican drug trafficking rings
play a major role in bringing cocaine, heroin, and marijuana from Mexico and the
rest of Latin America into the US. Drug trafficking
has led to corruption, which has had a bad effect on Mexico's Federal Representative
Republic. Drug trafficking and organized
crime have also been a major source of violent crime in Mexico. Mexico has experienced big increases
in their crime rate over the past decade, especially in major urban centers. The country's large economic polarization has
stimulated criminal activity mainly in the lower socioeconomic strata, which includes
the majority of Mexico's people. It has not
helped the border region’s stability that caught criminal illegal aliens are being
deposited just over the border of Mexico instead of dispersing them across the interior
of Mexico. The concentration of criminals
has caused war-like conflicts between the Mexican government and the criminal drug
gangs.
If the
Mexican government improved its protection of all its peoples’ property rights,
the socioeconomic status of all would improve, reducing the incentive of the lower
socioeconomic class to cross the border into the US. NAFTA moved US industry to Mexico, but it increased
the profits to the relocated US corporations more than it improved the prosperity
of the poorest Mexicans. Without Mexico’s
political will to protect the majority of their peoples’ property, labor organizing
and other rights[K45]; and willingness to provide
good education, healthcare, law enforcement and a social welfare security net, etc.;
NAFTA cannot live up to its billing.
If the
US decriminalized drugs whose use is deemed illegal, treating addiction as a health
issue instead, and sought to control the use and flow of drugs by supplying (thus
controlling) them themselves, it could eliminate most of the criminal gang profits.
That would decrease the motive of narco-terrorist
drug-gangs to further infiltrate and remain within the US illicit drug market. The use of such drugs amongst the general population
may temporarily increase, but if the accounting of drug use in Amsterdam[K46]
can
be taken as an example of what might happen in the US, then maybe the total number
of users would not increase much beyond those currently using. Possibly decrease[K47], as drug gangs would not feel
the need to advertise illicit drug use as being “cool” to our children.
The
founders’ admonition that the republic they created was only suitable for a moral
people - is a warning for us today[K48]. The US peoples’ own
acceptance of profligate tastes (excessive power, expropriation/theft/ redistribution,
excessive mind-numbing alcohol use, conscientiousness-reducing drug use, brain chemicals secreted by amoral sexual
practices, etc.) causes the imported competition from our enemies who sneak across
our own internal moral boundaries as well as international borders to cooperate with or compete against
those criminals already profitably satisfying the existing market for such immoral
and illegal tastes. By allowing, even promoting,
such tastes to flourish within us and within the US (to avoid offending those of differing morals?), those values said by our
founders to be necessary for our free society to be sustained are diminished – even
extinguished.
The
founders’ idea for the US was to create more freedom for the descendants
of those who suffered great hardships to get here, not less. It was to create a federal government which ensured
that States protected the rights of their people. That was the giant magnet in the past which drew
people to here from all over the world. Non-criminal
illegal migrants faced nearly as great hardships getting here and creating a life
for themselves as our pilgrim settlers. Still,
the greatness of the US is founded on the universality of its laws. Laws, until repealed are to be uniformly enforced. But by creating a pathway for citizenship for
undocumented migrants who voluntarily expatriate themselves back to whichever country
they came from, increasing the number of legal permanent residents (LPRs) allowed
into the US, increasing the number of agents and speeding the work of the USCIS
to verify and grant such LPRs based on US family ties and lack of past criminal
involvement (besides the initial illegal entry and possible failure to pay all taxes)
seems workable[K49] .
The
border barrier started by DJT’s EO is mostly a sort of people weir, to help us screen,
catch and remove those criminal elements seeking to cooperate or compete with those
criminal elements already within our borders whose business is sating Americans’ wanton lusts[K50]. The border wall is needed, but it is only part
of what needs to be done for the salvation of both our nations and cultures. We Mexicans and Americans as members of societies
striving to not only survive but thrive, need to step back from the current invasive
cultures of polymorphous perversity, which are at the core of the harm being done
to our societies and which create the need for our shared border’s barrier.
Executive Order 13767
In early 2017, DJT issued an EO[K51]
called “Border Security and Immigration Enforcement Improvements” stating the reasons for providing better control of immigration
along the border between Mexico and the US, as well as the primary goals which are
to “prevent
further illegal immigration into the US, and to repatriate illegal aliens swiftly,
consistently, and humanely.”
As a
means to reach these goals, and in accord with his stated policies, DJT ordered
the Secretary of DHS to use allocated funds to plan, design and construct a wall
along the southern border. DHS is also supposed
to figure out the current and long-term funding for the wall to give to Congress. DHS was also supposed to have done a thorough
study on the security of the southern border by now, including the current situation,
resources available, geophysical and topographical aspects, and plans for operational
control of that border going forward into the future.
DHS
is supposed to acquire detention facilities for detaining aliens at or near the
land border with Mexico. DHS will assign
asylum officers to these facilities to accept referrals and conduct reasonable fear
determinations. The AG assigns immigration
judges to these facilities to figure out what to do with the immigrants according
to federal immigration law. DHS is to detain
illegal aliens pending the outcome of their removal proceedings. DHS is to issue policy guidance for detention
of illegal aliens, ending "catch and release." DHS is to ensure that illegal aliens failing to
follow their legal instructions are returned to the territory from which they came,
pending formal removal proceeding. DHS, through
the Commissioner of CBP, is going to hire 5,000 additional CBP agents, and ensure
that they are assigned ASAP.
Besides
Federal performance of immigration control duties, DHS was to make agreements[K52]
with
the Governors of the States as well as local officials to perform the functions
of immigration officers to investigate, apprehend, and detain illegal migrants within
the US. These individual agreements are to
be tailored to the effectiveness of their meeting the immigration control goals
of the EO within each of the State and local jurisdictions.
DHS
with other agencies[K53], will permit US officers and
employees as well as State and local officers, to access all Federal lands to implement
the EO. Federal prosecutors will accord a
high priority to prosecutions of offenses having a nexus to the southern border.
Legal Implications of EO
Prior
to the Mexican US War of 1846, the US sent delegations to Mexico City to work out
some border disputes between the two nations.
The Texas province of Mexico had already revolted in 1835 when English speaking
colonists, mostly from the US set about to become an independent nation, rather
than to try to force a return of the whole of Mexico to the Mexican Constitutional
Republic government of 1824, where citizens’ rights were better protected. By 1844, the leaders of the Republic of Texas
were seeking to become part of the US, to protect their Republic from a Mexican
counter-revolution. The Mexican government
told the US that if Texas should become part of the US it would be considered an
act of war. In 1845, under 10th
POTUS JT, the US accepted Texas into the US.
An increasingly centralized government of Mexico refused to see the delegates
from the US sent there by then 11th POTUS JP to offer upwards of $50M
for the northern and north-western Mexican provinces. Winfield Scott and the other delegates reported
back to JP that negotiating with Mexico would be better accomplished after the conclusion
of the expected upcoming war.
February
1848, at the conclusion of the two year long war between Mexico and the US, the
peace was accorded by the execution of the Treaty of Guadalupe Hidalgo (GH[K54]). GH’s Article VIII[K55] guaranteed
that Mexicans who remained more than one year in the ceded (US) lands would automatically
become full-fledged US citizens (or they could declare their intention to remain
Mexican citizens). Over 90% chose to become US citizens.
About
80,000 Mexicans lived in the areas of California, New Mexico, Arizona, and Texas
before the treaty. So if almost 10% moved
to Mexico immediately after, the remaining 72,000+ became US citizens[K56]. Those Mexicans who chose to stay and become US
citizens were also to be accorded their same legal property rights after the treaty
that they had had before the treaty. Hundreds
of complaints, cases of property takings, were filed with the US government but
nothing has ever been done to satisfy the claimants, whose claims persist to this
day.
To them,
the war was seen as an aggressive war of choice by the USA. The greater crime of the USA was forcing the Treaty
of GH upon the Mexican people through their rulers, and the subsequent breach of
its terms and conditions as to freedom of movement rights of the conquered people. Articles VIII and IX of the Treaty of GH gave
the Hispanics who were living in the US at the time of ratification, and their descendants,
US citizenship unless they renounced it affirmatively.
The
GH treaty has also been interpreted by some to say that they and their descendants
can cross and re-cross the border as often as they want, and live on either side
of the border without losing their US citizenship. How many left the US, who they are and who their
descendants are is not known[K57].
For
over these last hundred years (except during the dust bowl days) Mexicans - who may have been US citizens[K58]
- crossed
and recrossed a relatively porous border to provide labor on US farms. With the end of slavery coming at the end of 1865,
they were cheap labor.
After
the GH Treaty came the Treaty of Mesilla (M), which concluded the Gadsden Purchase
of 1854, and had implications for the GH Treaty. Article II of the M Treaty annulled article XI
of GH, and article IV of M further annulled articles VI and VII of GH. Article V of M however reaffirmed the property
guarantees of GH, specifically those contained within articles VIII and IX. The M Treaty extended the choice of US citizenship
to Mexicans in the Gadsden Purchase territories (mostly southern Arizona). If they chose to, they had to declare to the US
government that they “would be US citizens” within a year from when the Treaty was
signed; otherwise, they could remain Mexican citizens, but then they would have
to relocate to within the new borders of Mexico. If the M treaty superseded the GH treaty regarding
US vs Mexican citizenship, then that point and its effect on the status of undocumented
migrants should be clearly resolved.
Per
DHS, 1.05M migrants were granted permanent residence in the US in 2015, up from
1.02M in 2014. 33M immigrants receiving a
green card, or Lawful Permanent Resident (LPR) status, in the last ten years, about
2/3 family related and 1/3 employment based.
Green cards today are good for 10 years of LPR, then they have to be renewed. There is a backlog of about 10M people awaiting
new green cards. Per the USCIS, green cards
from 1946 to 1964 need to be renewed with current green cards for LPR. Green cards issued from 1964 to 1989 had no expiration
date and are still good, but USCIS recommends getting the new ones to help prevent
fraud. BHO's EO allowed almost half of the
11M (40M?) illegal migrants to legally stay and work in the US, although it offered
no path for citizenship. The biggest blip
in the number of LPRs occurred around 1986 when 40th POTUS RR gave amnesty
to 3M undocumented migrants[K59].
The
mainstream media’s (MSM) public relations spin[K60] of the
current residence status of many undocumented migrants in many State and local jurisdictions
affirms that those jurisdictions are against being prejudicial to their undocumented
migrant residents, most of whom are of Hispanic descent. The main push-back to the IRCA was not from US
citizens objecting to amnesty for illegals due to racial prejudice, but from employers
who continued knowingly hiring illegals and did not want formal sanctions made against
the practice.
Where do immigrants to the US come from?
Given
its proximity to the US, it isn't surprising that Mexico has sent more migrants
to America every year than any other country in the world. Of the over 1M migrants given LPRs, 157,227 were
Mexicans in 2015, up from 133,107 in 2014.
The
undocumented resident migrant vs undocumented US citizen status[K61]
question
is a legal and technical mess and an unfortunate situation for those with inadequate
documentation of their family tree and status.
DJT’s Border Barrier
DJT
set out to fulfill one of his key campaign promises, with his EO to finish the US-Mexico
border wall. To restrict illegal migration,
DJT has promised to finish the wall on the southern US border and to deport criminal
illegal migrants living inside the US.
How
long will it be?
The
border between the US and Mexico is said to be 1,989 miles long[K62]
and
spans four US states: California, Arizona, New Mexico and Texas. There is already roughly 700 miles of
existing fence along the US-Mexico border - the remainder is either open,
nearly impossible to actually build upon or fairly impassable. DJT said[K63] his
wall will cover 1,000 miles, with natural physical boundaries protecting the
rest of the border.
How much will it cost?
Estimates
vary. Estimates for the border wall have
ranged from $12B to $15B by Senate Majority Leader Mitch McConnell. In early 2016, DJT told MSNBC he could finish
the wall for $8B[K64]. “Of the 2,000, we don’t
need 2,000, we need 1,000 because we have natural barriers … and I’m taking it
price per square foot and price per mile,” he said.
Who
will pay for it?
Mexicans,
according to DJT. No chance, says
Mexico's ruling elite. During his
campaign, DJT said he would “make Mexico pay” for the wall by taxing
remittances from illegal migrants from the country and increasing fees on entry
visas to the US for Mexican citizens.
DJT has said the building project would initially be paid for with a
congressionally approved spending bill - as early as April - and Mexico would
eventually reimburse the US, though he has not specified how he would guarantee
payment. Few Democrats, if any, will
support the bill, so the support of GOP budget hawks
is critical[K65]. DJT later met
with Nieto at the White House with the POM seemingly more conciliatory. Especially after DJT reportedly considered
pulling the US out of NAFTA.
Does
DJT need approval from Congress?
No. DJT’s authority to build a wall has already
been determined, DJT may rely on a 2006 law that authorized several hundred
miles of fencing along the frontier.
That bill led to the construction of about 700 miles of various kinds of
fencing designed to block both vehicles and pedestrians. The Secure Fence Act was signed by GWB, with
the majority of the fencing built before he left office. The last remnants[K66] were
completed after 44th POTUS BHO took office in 2009.
Is it actually a wall?
"A
wall is better than fencing and it's much more powerful. It’s more secure. It’s taller," DJT said, as he described
the barrier he has in mind. Plans have
evolved since then. DJT said that it may
be part wall and part fence.
Solar-Powered Border Wall:
DJT's
vision was a US-Mexico border wall 40 to 50 ft high and covered with solar panels[K67] so
they’d be “beautiful structures.” The
president said that most walls you hear about are 14 or 15 feet tall but this
would be nothing like those walls.
Barrier solar power could be coordinated with the border municipality of
Agua Prieta, whose Agua Prieta II is the first integrated solar combined cycle
(ISCC) power plant in Mexico – one of the first power plants of its type in the
world – and its being equipped with the SPPA-E3000 low-voltage switchgear
solution from Siemens Mexico Energy.
Agua Prieta II is a combined-cycle power plant (CCPP) that has been
extended with a solar field and parabolic trough collectors. In this plant type, steam generated by solar
field is fed into water-steam cycle of CCPP to increase steam turbine output
and reduce CO2 emissions.
Power plant in Mexico is supposed to have an output of approximately 465
MW with a contribution from the solar field of 12 MW, and supplies electricity
to northwest Mexico. End customer is the
Mexican state power provider Comisión Federal de Electricidad, which also
operates two plants of the same type in Morocco and Algeria. Agua Prieta is also home to several
maquiladoras, including Levolor, Commercial Vehicle Group, Takata, Velcro, and
Standex.
Where
will criminally-charged illegal immigrants be detained?
DJT's
policies will increase the number of undocumented immigrants held in detention[K68]
being
processed for deportation. Congress
previously appropriated funding for about 34,000 beds for criminal migrant
detention across the country. 542,000
cases are pending in immigration court.
ICE said it has increased capacity by roughly 1,100 beds since DJT's EO.
How
fast will cases be heard?
Cases
pending in the backlogged US immigration courts were said to be a factor in
previous US policies to release individuals pending court dates that could be
years in the future. DHS guidance orders
the agencies now to "surge immigration judges and asylum officers" to
reduce that backlog. DHS may use video
conferencing systems to make more judges available across the country in
underserved areas. Hiring immigration
judges will involve the Justice Department, which runs US immigration
courts. Perhaps JAG military justices
and lawyers could be shared with DHS to help clear the backlog? DJT will require that agency, and others, to
improve their efficiency. The glacial
pace of government agencies needs to end.
How do you find new immigration agents?
A
difficult task might be the hiring of 5,000 CBP plus the needed number of new
ICE agents. CBP and ICE[K69] have
faced difficulties hiring applicants in the past.
Will
Mexico cooperate?
CBP
policies require cooperation from Mexico.
In addition to those Mexican citizens seeking to cross into the US
illegally, migrants from Central America and all over the world also make their
way through Mexico to reach the US each year.
It is a cottage industry in places like Naco, Sonora, which charges both
Mexican and those foreign migrants from further south, high food and provision
prices and over 200 pesos/night to stay in their run-down accommodations while
waiting to illegally sneak across into the US.
The federal government of Mexico in the past has worked with the US to
cut back on smuggling and illegal migrant numbers, but Mexico’s current efforts
to combat drug cartels and gang violence that contributes to people fleeing
north has been very inadequate, to the point that the stability of the Mexican
government itself comes seriously into question.
What will the courts do?
Some
courts have been critical of DJT's actions on this front. A federal district court judge issued a
nationwide block on DJT's travel ban[K70] . Illegal immigration advocacy groups have
vowed to mount numerous legal challenges to DJT's orders on other fronts as
well. DHS memos explain how it will
carry out DJT's EOs regarding illegal immigration. These memos deal with the practicalities of
how DJT's EOs can best be carried out.
Meanwhile,
Back into Mexico:
DHS
said it will return immigrants who are in the process of removal proceedings to
the “foreign contiguous territory from which they arrived.” This will free up resources[K71]
for
the agency to deal with higher-priority immigrants in the US.
Some Suggestions for the
Border Barrier:
The
border property for the border barrier, detention and other facilities, utilities,
roads, airstrips and rail transportation adjacent to the border barrier should be
owned by the federal governments of the US and Mexico. Rather than having ownership of the border barrier
land be by individuals whose property goes right up to the border and then having
each property owner furnish an easement to the federal government for construction
and maintenance of the border infrastructure, have the US government own a 60 ft
strip of land from the border measured perpendicular to the border projecting into
the US, plus additional properties as needed.
The Mexican government would do likewise on their side. Ownership by the federal government would include
all air rights, restricting[K72] non-commercial,
non-government fly-overs.
To save
lives from narco-terrorist insurgents, we need to see the need for border security
and accomplish it ASAP. DJT and his staff
will consider the complete set of problems the EO is meant to resolve from the stability
and good will of the neighboring nations to the south; to the needs of the individual
states, counties, municipalities and local communities on either side of the border,
to the individual people whose daily lives are impacted by the physical existence
of a secured border, to the effects on the hydrology and biology of each region
through which the barrier passes. A secured
border will benefit both nations, but the result of the EO on the secured border
must primarily be to help protect the lives of US citizens from narco-terrorism
and other criminal activities being imported into the US from south of the border. DJT et al will work to incorporate the most benefit
to the biggest number of people on both sides of the border, but that primary goal
must be accomplished. Maybe other challenges
to the peoples on both sides of the border can also be addressed simultaneously
with the transnational migration barrier?
Spin-off Solutions
Costs:
Gleason Partners solar panel barrier construction cost estimate of $7.5M/mile = $1,420/lf. That’s an economical solution! DJT’s estimate of $8B for the 1,000 mile barrier = $1,515/lf. Rosenblum’s[K73] estimate of $15B ($2,841/lf) to $25B ($4,735/lf) for the 1,000 mile barrier construction might be based on quite different assumptions than Gleason and DJT. Solar panels are probably over half the cost of Gleason’s barrier(?)
Using Horizontally Stacked
ISO Cargo Containers (CC):
Each
year nearly 8M equivalent 20 ft long shipping containers[K74]
enter
the Port of Los Angeles alone. Standard[K75]
(most
common) cargo containers are 8 ft wide by 8.5 ft tall by 40 ft long. About 1M new cargo containers of various sizes
and types are made each year (in China) with costs between $2K and $7K depending
on size and function. Most of that number
or even more are also retired from service every year, with many only having made
one ocean voyage. Used/refurbished individual
standard 40 ft long cargo containers can be bought for from between about $1.4K
and $2.5K.
If 5
rows or layers high of 40 ft long cargo containers were used along the entire 1,989
mile border (from San Diego to the Gulf of Mexico at the Lower Rio Grande Valley
National Wildlife Refuge) it would currently require a little over 1.3M containers. To place 5-high CCs over the overland border (including
alongside the Colorado River,) would take 461K CCs[K76]. Twist lock anchors can be bought for from about
$30 (China + shipping) to $135 each (US retail) and are also in good supply.
To estimate
such a barrier cost, take a one mile long barrier made of stacked (5 CCs tall =
43’-4”) standard cargo containers. Each cargo
container is held in place with 4 vertical twistlock anchors[K77] and
connected end to end with two horizontal twistlock anchors or bridge anchors at
the top of each CC.
132 std 40 ft long CCs end-end = 5,280 ft = 1 mile
@5 high = 660 CCs @$1,700 ea =............. $1.122M
5-8 high lifting equipment rental, hauling & labor =.......................................... $0.594M
660 CCs w/ 6 twist anchors ea @$70 ea = ... $0.277M
3 CY concrete/40 ft @ 132 @ 3 @$100 ea =... $0.118M
4 helical earth anchors @ 132 @$400 ea = .. $0.211M
Solar panels 3MW at $2 / watt = ........... $6.000M
Subtotal for 1 mile = ..................... $8.322M
@ 1 / 5,280 = .......................... $1,576 plf
@5 high = 660 CCs @$1,700 ea =............. $1.122M
5-8 high lifting equipment rental, hauling & labor =.......................................... $0.594M
660 CCs w/ 6 twist anchors ea @$70 ea = ... $0.277M
3 CY concrete/40 ft @ 132 @ 3 @$100 ea =... $0.118M
4 helical earth anchors @ 132 @$400 ea = .. $0.211M
Solar panels 3MW at $2 / watt = ........... $6.000M
Subtotal for 1 mile = ..................... $8.322M
@ 1 / 5,280 = .......................... $1,576 plf
Largest
cost component noted above is the PV solar panel system, but as noted above, the
PV system not only ought to pay for itself, but also pay for the remaining cost
of the barrier, the debt service, plus some left over[K78]. As for maintenance, international cargo containers
use Corten steel, so maintenance[K79] should
not be required on them. Solar panels also
need to be kept clean from dust and damage, as well as the maintenance of electronic
equipment used to feed into the electrical grids to ensure a compatible electrical
supply with the local utilities.
Besides
PV solar panels, gravity based solar water heaters may be added by using tank containers placed at or near the top of
the wall, and used in conjunction with water-based solar panels beneath them as
well as check valves to prevent nighttime backflow, and heat exchangers where required
by plumbing codes to either prevent potable water from being run through solar collectors
or where glycol systems are required to prevent their possible freezing, to provide
heated water which could be piped into and sold to local communities to reduce their
residential, institutional and commercial water heating and AC costs. Cost of a used 20 ft ISO tank containers is about $10K each, holding
20-30K gallons and having a useful life of 30-35 yrs.
The
main advantage of a CC based border barrier[K80] is the
more than adequate existing supply of CCs, resulting in a faster and more certain
completion schedule.
Tare
weight of one 40 ft long standard CC is about 8.5 kips (1 kip = 1,000 lbs). Five empty CCs stacked vertically equals about
42 kips. CCs might be less movable in place
already than a wall or fence, but it is also possible to use cut site material from
the required reshaping of existing topography to fill at least the bottom rows of
containers to make them even less susceptible to others’ possible attempts to move
them. Depending on the manufacturer, each
40 ft long standard container may hold about 2,400 cf or about 89 cy with a maximum
payload of about 59 kips or nearly 30 tons.
With the number of CCs per row which could be filled, that’s nearly 4.5M
10 cy dump truck loads of barrier CC space available for filling. Spoil piles[K81] from
cuts made for the barrier could be used to help remediate nearby existing abandoned open pit mines if done
correctly…
Filling
the bottom layers of CCs (which can be tilted up, filled with sand and rock,)
before setting them in place on border barrier foundations also protects the barriers
from planned or accidental vehicle crash damage. Possibly fill the bottom layers of CCs with compacted
solid waste from landfill sites approaching their maximum capacity. Municipalities might pay for emptying their landfill
sites so they could be reused, at least into those CCs in the more remote stretches
of barrier (in case of odor.)
Landfill
site operators might also direct placement of organic materials, especially those
coming from individual and corporate growers in the region, but including other
sources such as too old produce from stores or markets, into bins feeding chippers. After chipping, the landfill site operators use
the chipped organic material mixed with dirt[K82] from
other sources, and microorganisms to break down the soil and organics mix into humus. After sufficient decomposition of the compost
has occurred, place that material into large shallow bins which would then be covered
with plastic film to allow heat from sunlight to eliminate disease organisms and
weed seeds. This topsoil or planting material
if bagged and sold in stores retails for roughly between $2 - $5/cf. Bulk goes for about $15-$30/cy.
Where
considered to be visually objectionable by adjacent local communities on either
side of the barrier - besides solar panels, the stacked CCs could be clad with nearly
any type of building material[K83], in case the aesthetics could help the existence of the wall
to be less objectionable to those who object to the idea of the wall itself.
Something
like a child’s gigantic toy ant farm, there is also the potential to utilize CCs
within the barrier for guard stations, electronic surveillance command and control
rooms, detention facilities, and other accessory uses[K84].
For
patrol/chase vehicle storage within the barrier, change one first level 40’CC to
a 20’CC, provide whatever added supports are needed for the CCs above, and add remote-controlled
motorized gates or coil-up doors, etc. The
gates or doors would be interconnected as in a sally port. Provide an abutting 40’ CC and fork lift in lieu
of the gate/door to control access and prevent outside vehicles from being used
to crash through the barrier. To make gateways
sized to allow big trucks and trailer rigs to pass through, switch out the bottom
40’CC plus the 40’CC directly above it with two stacked 20’CCs. Provide additional supports as required, crash-through
prevention and gates or coiling doors as needed.
Provide
proper guardrails and ladders where needed and the CBP can patrol [K85] the top of the border barrier from one end to
the other. Also possible, by adding stacks
of (5) 20’ CCs one stack to each side of border barrier, plus whatever additional
internal reinforcing as needed, is to construct helipads atop the barrier at spacings
required to suit DHS, CBP and other using agencies’ needs, including Mexican agencies.
To reduce
or offset the costs of protecting our mutual border, it might be feasible for CBP
and other government agencies utilizing space within the barrier to review plans,
vet potential apartment customers, and issue RFPs for creating small rentable residential
apartments, where feasible to be incorporated within adjacent communities, (especially
where there are good views?) Designs would
incorporate prefabricated turnkey facilities with fabrication and placement of units
scheduled to be incorporated into the wall, timed to coincide with wall construction. Designs incorporate border security agencies review
to adequately maintain border security.
What
if the current fence that extends out into the ocean from Tijuana and San Diego
could be multi-level housing leasable to vetted residents of both nations instead
of just a fence? Concrete-filled bottom CCs bridging between concrete pilings might require
annual corrosion resistance work, but with adequate corrosion
protection, a utilidor[K86] and
people-mover to elevators to parking and mass transit facilities on the US and Mexican
sides, an enhanced border barrier ocean extension might just be able to pay for
itself? Remodel to retain the fence from
the bottom of the lowest CC to the seafloor (or wherever the current fence bottom
extends to?) and use less-invasive technology to ensure the border barrier[K87]
remains
secure.
Another
income flow might be available by reviewing commercial or retail shop plans and
designing the interior of the border barrier into shops integrated into a mall or
marketplace to serve the local communities on either side of the border. US and Mexican governments might joint venture
such malls and markets integral with their barrier. Unchecked pedestrian passage of people from one
side of the border to the other would be prevented by design.
Except
for the Texas border barrier which is the Rio Grande/Rio Bravo del Norte from about
El Paso onwards to the east-south-east (whose main problems as a barrier in the
past were mostly caused by low flow,) the regions that the border barriers pass
through lack rainfall generally, and the rainfall they have is inconsistent. The flow of the Rio Grande comes mostly from the
waters of the Rio Concho which flows from Mexico. With the increased amount of land under cultivation
and irrigation in Mexico, growers have been depleting the aquifers feeding the Rio
Concho, which in turn decreases waterflow[K88] into
the Rio Grande. These border areas mostly
get good sunshine, but not a lot of rain.
Hundreds, maybe thousands of undocumented migrants trying to pass undetected
have been found dead from thirst in these border regions. A horrible, terrible, outrageous, but unintended
consequence of border control efforts needing to be resolved. The obvious need is for better control, not less.
Also,
dryland (unirrigated) farming is not practical when you average less than 10 inches
of rainfall per year or vary between less than 3 inches and just under 40 inches
from year to year. Drought or flood. Some dryland farming is done where rainfall is
more consistent where rainfall averages about 27 inches per year, but those places
don’t seem to exist much in the border region.
Considering that evaporation from the ground in the high temperatures of
the border regions is mostly over 100 inches, the amount of water needed to irrigate[K89] and traditionally farm is very
high on both sides of the border.
What If:
OK,
what if a border barrier could be used to help work out solutions not only to the
need to control transnational migration, but also to develop ways and means to help
alleviate existing and future water shortages, and to test potential solutions[K90]
to the
effects of possible climate change on the future of the region? Climate change would be transformational to all
people and industries living and operating not only within the border region, not
only in adjacent regions, but globally.
The leading concern facing the
future of agricultural production in the border region is the availability of water. Climate change is expected to cause more extreme
droughts and floods and shifts in plant growing zones. As populations grow, more efficient use of water
for growing food will become more important.
Past and current overuse of aquifers make it necessary to improve the efficiency
of irrigation and dryland agriculture methods to grow tomorrow’s food. The increasing competition for water in urban
areas and for energy uses will decrease what is now available for agriculture, estimated
to be 70 – 80% of global fresh water use.
As other interests gain a share of the fresh water supply, the production
of food will need to increase at the same time that the water used to grow it decreases[K91]. Many methods to conserve water and use it efficiently
have been practiced for thousands of years in some very arid regions of the world
with great success. The best systems require
little maintenance while yielding maximum results. The ability to add water during crucial growth
periods can greatly increase crop yields.
Government activity can speed the conversion of agricultural practices to
avert future food shortages.
(1) Climate Change
Facility:
Start
with a climate change facility sited with its center aligned and coinciding with the line of the border[K92]
and
collaboratively owned and operated by both the Mexican and US Federal governments
for sharing of information and performing the work of planning for climate change
regulations for their nations. Whichever
existing departments of Mexican and US governments are effected by the potential
problems of climate change would be given time and facilities there to work and
to liaise with the other government departments of either nation[K93]. People from around the world who’ve done work
on climate change as well as people from nations already facing climate change problems
and especially those offering solutions would be prompted to share their findings
here. Colleges, corporations and individuals
from both Mexico and the US would be invited to attend speeches and lectures, as
well as share climate change findings and concerns. Another part of the operation of this facility
would be to collect data from both our border region and other regions worldwide
to share with those working on solutions on the border and worldwide.
The
success of the operation of the climate change facility is based not only on the
creation of laws that take into account the economic, environmental, infrastructure,
political, legal, religious and ethnic considerations of the whole border region
facing the effects of climate change, but the creation of solutions for the common good between our nations[K94]
and
not creating solutions which are at odds with each other (like two groups of ants
from the same colony pulling a foodstuff in opposite directions.)
One
proposal which might be put forth in the form of a treaty between the US and Mexico
might be that all contracts made between growers and buyers for foodstuffs produced
by means of irrigation methods which over-draft aquifers would be considered null
and void.
Another
proposal might be to add a tax to those water users where excessive water use causes
the aquifer water level to decrease long term.
A third
proposal might be to reevaluate (or perhaps in Mexico’s case, to initiate) water
use permits, such that the permits will have time limits, and that ranchers and
farmers using water conserving techniques and who prove that they are supplying
more food with less water will be given a preference in obtaining water use permits
over those ranchers and farmers whose relative water use is higher[K95].
A fourth
proposal would be for the Mexican and US governments’ commitment to the lives and
well-being of their citizens, to establish a continuously cycled national food reserve
in case of a temporary collapse in the ability of their farmers to supply the food
needs of their nations’ people, as when the existing aquifers can no longer be used
to water the industrial farms, and the flows of the Rio Concho and Rio Grande have
simultaneously stopped[K96]. Or when drought conditions ruin food crops where
inadequate water is available to meet irrigation needs.
One
common aspect of proposals created in this facility would be to assess proposals
in terms of their effect on the optimum efficiency of water use rather than maximum
profitability and resultant maximum taxes collected.
The
40-50 ft tall climate change facility[K97] would
include a surveillance system tower similar to one of the SBInet system towers on
its roof. CBP and their Mexican counterpart (vetted to ensure no corruption,
criminal backgrounds or connections) and security system component manufacturer
representatives would be provided access to the facility and tower as required for
their proper operation. Employees and visitors
would receive passes allowing access to and egress from their own side of the border,
unless other arrangements are made between departments and CBP. Personnel are vetted - checked for criminal associations
and background. Personnel objected to by
the joint venture partner nation would be barred, unless the objection was found
unwarranted by investigation and joint mediation panel review.
(13) Experiment Stations:
Next,
build some joint venture government owned and operated experiment stations centered
along the US-Mexico border[K98].
The
Rio Grande border could be re-created
with two rivers out of one by connecting curved arcs along tangents to the northern
and southern extreme arcs of their existing loops, filling the segments in-between,
creating a new border along the in-between space of the Rio Grande River within
the US and the Rio Bravo del Norte within Mexico. Property values would be equitably adjusted where
property owners would otherwise lose agricultural lands which become river bottom. Provide weirs in El Paso or otherwise adjust water
flow to divide the total water flow evenly between the two rivers. Also work out a way to share the incoming water
from the Rio Concho. This would create a
long island in-between the two rivers which would be provided with a tall continuous
border barrier including experiment stations, experimental greenhouses, border barns
and border walls. This would preclude the
transnational border from becoming dry riverbed walk-across in the summer, kind
of like the Phoenix River is now. Also, the
USCE could reinforce the river banks with large rock revetments where needed to
ensure the new rivers do not stray from within their newly established banks. At the same time the existing salinity issues
of the Rio Grande banks could be addressed.
The
function of these experiment station facilities would be applied science, to develop
and test hypothesizes about the effects of reduced water, temperature changes and
other climate change effects on the natural landscape and ecosystems of the border
and other adjacent regions, and to supply their findings to the workers in the climate
change facility, experimental greenhouses, federal departments of both nations,
and others[K99]. Also, by working and living with the students
and teachers from the adjacent nation, all can broaden their view of the commonalities
and differences of those living in their neighboring nation.
These
experiment stations are jointly managed by the Mexican and US versions of EPA, and
are run by state versions of EPA, Fish and Wildlife, environmental studies colleges
and all NGO environmental organizations such as the Sierra Club, Nature Conservancy,
Friends of the Earth Int’l, etc. who desire access. Their work here needs to be transparent and shared. Those deliberately providing false data or hiding
their data would not be tolerated and asked to leave. These facilities continuously monitor, record
and report their particular region’s pollution and toxin levels, flora and fauna
numbers and stress levels, natural landscape plant conditions and plant microbiology,
soil conditions and soil microbiology, and closely monitor conditions as far as the
success and adaptation limits of native species and naturally occurring variations,
invasive species and their effects, measure quantities of water and other particles
in the atmosphere, water, organisms and nutrients in the soil, water-table monitoring,
verification of aquifer conditions over time, presence of impurities, prevalence
and types of plant and animal diseases and predictions of ecosystem change, etc[K100].
These
would be working laboratories solving problems and sharing their findings over the
internet as well as teaching classrooms for both college students and local growers. They also collect climate and ecological data
from satellite, field work and sensors located in their region. These facilities are intended to review feasible
techniques for growers in their region to become more compatible with and less destructive
to the existing natural landscapes of their region. Those working in these facilities are to apply
the latest, most accurate modelling to study those practices promoted for farmers
and ranchers to incorporate into their farming and ranching operations to reduce
or prevent destruction to existing grazing lands, and other habitats facing potential
climate change, and to report all findings to the climate change facility for incorporation
into proposed legislation or voluntary guidelines. This facility should also study remediation of existing ecosystems[K101]
previously
damaged through human activities within their region for the time when climate change
would make such activities untenable.
Through
the help of the climate change facility staff to acquire the temporary use of USAF
planes equipped with LiDAR, ground penetration radar, or other desired technology,
the experiment station might be able to continuously monitor the conditions and
decline of existing natural landscapes, aquifers being drafted for irrigation, manufacturing,
municipal water supplies, and other human uses - studied in the US and Mexico over
time, or used to fly over other areas to collect other needed or useful data. Sharing of equipment between government departments
has historically been resisted, but facing potential ecological and economic crises,
perhaps they can find the ways and means needed to become more adaptive and cooperative.
As appropriate
to the specific region of each experiment station[K102], studies should include the relationship between the genetics,
spatial distribution, symbiotic relationships, etc. of the flora and fauna of the
region as to how plants, insects and other organisms have evolved mechanisms to
cope with reduced water availability compared to the water needs of agricultural
monoculture plants and animals grown for food.
On its
roof, each 40-50 ft tall experiment station facility would include a surveillance
system tower similar to the one on the climate change facility. CBP would have constant access to the towers as
they may require. Access to and egress from
the facility could be recorded via computer and controlled via card key with biodata. Personnel using the facility would be checked
for criminal associations and backgrounds.
Personnel objected to may be barred by people of other departments of either
nation with their cases reviewed by joint nation independent mediation panels.
(13) Experimental
Greenhouses:
These
are joint government owned and operated experimental greenhouses which are managed
at the level of both country’s national, state, county, and municipality agricultural departments[K103], extension services, and agricultural colleges and universities. Where the numbers of species of plants diminishes
due to climate change, it may be useful to revise some restrictions where current
technology may provide for much more thorough disease control.
Experimental
greenhouse personnel[K104]
function
as intermediaries between the applied scientists of the experiment stations and
their region’s growers, and act as a feedback mechanism between them both. Their job is to take the stations’ proposals and
adapt them to the conditions of their region, to help make them useful and profitable
for their growers to implement. Experimental
greenhouses are to test and develop agricultural growing techniques and to test
plant and animal species and varieties to help growers select and develop those
best suited for coping with increased drought and temperatures caused by anticipated
climate change. To aid in sustaining their
resident municipal and county individual and corporate growers’ profits and to prevent
future food shortages as well as further destruction of native landscapes. These facilities test experiment station proposals
and work out their practical implementation.
These facilities propose growing techniques found to offer water savings
and possibly increased yields to growers, and also send those proposed solutions
back to experiment stations for further review and feedback.
These
are mostly working greenhouses/farms, with traditional and aquaculture facilities
as well as any other proposed technologies to respond to water shortages and other
effects of climate change. They are also
intended to serve as classrooms for college students and growers interested in learning
first hand, how to improve yields while using less water. Those working in these facilities would interface
with and do some testing work in conjunction with work the experiment stations might
be doing for the FDA[K105]
and
agricultural corporations regarding their safety concerns of GMOs, pesticides, herbicides,
fertilizers, on the consumer as well as the natural landscape.
Some
of the proposed water saving practices which experimental greehouses might seek
to further develop for their border region growers include:
Drip Irrigation: delivers water (and fertilizer)
either on the soil surface or directly to the roots of plants through systems of
plastic tubing with small holes and other restrictive outlets. By distributing these inputs slowly and regularly,
drip irrigation conserves 50 - 70% more water than traditional methods while increasing
crop production by 20 - 90%. The water and
fertilizer are also more easily absorbed by the soil and plants, reducing the risks
of erosion and nutrient depletion. Usually
operated by gravity, drip irrigation saves both the time and labor that would otherwise
be needed to water crops, leading to larger harvest yields. Small systems on timers can easily be set up by
a home gardener, too. This technology must
be innovated and tailored to the crop and conditions[K106]. Instead of using plastic tubing,
ceramic can be used as it is more porous.
Small
Stream Diversions: Water collection tanks, or holding ponds can be used to provide a gravity
water supply for drip irrigation systems.
Hand or peddle powered pumps or elevated buckets can also be used[K107]. The adoption of drip irrigation in more areas
holds much hope for growing more food with less water.
Growing
the Right Crop for the Growing Region: Regions
which suffer water shortages plant crops which are more tolerant to drought. These include finger millet, pearl millet, Guinea
millet, cowpea, teff, lentils, amaranth, fonio, emmer, various sorghums, African
rice, Ethiopian oats, irregular barley, mung beans and many grasses. Ideally, researchers would be working with all
of the crops on this list to improve the seeds for our crop requirements of tomorrow. Having the right, reliable, and quality seeds[K108]
in hand
for a new planting season is of utmost importance.
As a
corollary solution to this, work with both the experiment stations and the food
labs of major corporations producing food products consumed by the people of the
Mexican and US nations, and examine the types of plants which already thrive in
the dryland regions which are generally seen as “weeds” to typical growers. Such plants which are also seen as invasive, like
“cheat grass” might be experimented on to see if they might be able to be changed
into a productive crop form, provided that they can be made into something marketable
to the consumer, and that their enhancements do not negatively affect consumers’
and the natural landscape’s health.
SCI
& SRI: Millions
of smallholder farmers worldwide have found that by using System of Crop Intensification
(SCI) or System of Root Intensification (SRI) methods of farming, they can get higher
yields with fewer inputs through setting up an environment with optimal conditions
for the plant. The effect is to get crop
plants to grow larger, healthier, longer-lived root systems, accompanied by increases
in the abundance, diversity and activity of soil organisms. These organisms constitute a beneficial microbiome
for plants that enhances their growth and health. These principles are being successfully applied
to growing vegetables, legumes, wheat, corn, finger millet, and sugarcane. These methods use 25 - 40% less water, and make
crops more resilient to temperature and precipitation stresses. Crops can be productive with less irrigation water
or rainfall because SRI[K109]
or SCI
conditions enhance the capacity of soil systems to absorb and provide water.
Ripper-furrower: In northern Namibia, farmers
are using a ripper-furrower to rip 2 ft deep and form furrows which function to
harvest rainfall. The crop seeds are planted
into the rip lines with fertilizer and manure.
When it rains, the water is funneled by the furrows to the crop roots. Tractors are used the first year to start the
ripped furrow system. After the first year,
farmers plant crops directly into the rip lines using an animal drawn direct seeder. This practice[K110] is being
used to plant drought tolerant millet, sorghum, and maize.
Aqueducts: Near Las Trampas, New Mexico
on the High Road to Taos, there is a wooden aqueduct that spans a deep gorge at
an approximate elevation of 8,000 ft above sea level. This is an example of an acequia, which is a historical
engineered canal that carries snow runoff or river water to a distant field. Acequias are commonly ditches, and need to be
planned, maintained, and overseen by groups of cooperative farmers. Acequia water law requires that all persons with
irrigation rights participate in the annual maintenance of the community ditch including
the annual spring time ditch cleanup. Acequias
originated in Spain and were built later in the Spanish-American colonies.
Subsurface Irrigation Systems: Where drip lines are buried near the plants’
roots, advantages include:
• water savings
• improved crop yields
• low surface evaporation
• low soil and nutrient run-off
• nutrients can be applied at the root
• less disease and fewer weeds
• less labor
• produces uniform moisture at the root zone
• reduced amount of energy required for pumping
• water savings
• improved crop yields
• low surface evaporation
• low soil and nutrient run-off
• nutrients can be applied at the root
• less disease and fewer weeds
• less labor
• produces uniform moisture at the root zone
• reduced amount of energy required for pumping
Subsurface
irrigation is especially suitable for hot, windy regions. Disadvantages include the high initial cost, clogging
and leaking problems, and potential rodent damage. Problems[K111] can’t
be seen since they are below the ground.
Maintenance[K112]
requirements
are chemical injections, an annual clean-up flush, and draining the pipes before
it freezes each fall.
Excavated
Water Holding Reservoirs: Can be dug to collect water during heavy rains. If built lower than the remaining field, gravity
could do the collecting. A drip irrigation
system with some type of pump might be added, and the small pond can also be lined
with plastic. Holding ponds or small storage
tanks on small farms can also be fed through canal irrigation. They can collect the water when it is available
to be used by the farmer — when needed or when it is a convenient time to irrigate. There are many kinds of tanks: steel rimmed tanks,
plastered concrete tanks, cisterns which are covered storage tanks either above
or below ground, and birkahs which are open reservoirs. For both the cisterns and birkahs, channels, dykes,
or (stone) walls constructed as wings can be used to aid in collecting water for
the reservoir.
Black Plastic Mulch: And organic mulches can save
25% in water use. Organic vegetable producers
in drier, cooler climates, like to use black polyethylene plastic film as mulch
on vegetable row crops for many reasons.
When drip irrigation is lain underneath the plastic film, it delivers water
and fertilizer to the plants and evaporation is reduced. But, because there is no surface evaporation of
water, it is easy to over-irrigate crops.
So, a moisture probe should be used to check root zone moisture levels. In addition to providing water conservation, this
synthetic mulch controls weeds and warms the soil, making for an earlier crop. The black plastic mulch is covered with hay or
straw to protect crops from excessive heat later in the summer[K113].
Sand
Dams: Were
developed by the Romans in 400 BC. Africa
is especially well-suited to benefit from this fairly simple concept, but maybe
it can be tried in the Mexican-US border regions[K114]. One sand dam can
provide clean drinking water and enough water for gardening and farming for a thousand
people, lasting several months after the rains have fallen. As a rain water collection system, they create
a life generating spring where there was none before, by storing wet season water
in sand, which filters the water and keeps it from evaporating. This technique has been used in India, Africa,
and South America for the past fifty years, but remains underutilized.
Plastic
Buckets: A
time-saver for irrigating newly planted trees is to use recycled 5-gallon plastic
buckets[K115]. The idea may be adapted to irrigate berry shrubs
and tomatoes, too.
LEPA
Pivots: As
compared to the old days when center pivot irrigation lost an enormous amount of
water through evaporation by spraying the water high into the air during hot weather,
today’s systems are much more efficient.
This efficiency comes from putting sprinkler heads, or nozzles on hose drops
to minimize water drift and evaporation.
The systems can be customized with many available options. These newer Low Energy Precision Application (LEPA)
center-pivot systems also use less electricity.
Soil sensors can be employed to monitor soil moisture levels for center pivot
irrigation which can report results directly to the owner’s computer. This helps to prevent over-irrigating.
Pasture
Management: Although
livestock can get the majority of their water from lush forage which is 70 to 90%
water, they still need to have a supply of drinking water. (Cattle can require 15-20 gallons of water per
day, yearlings 10-15 gallons, and sheep 2-3 gallons per day.) With good grazing management, decreased water
runoff and increased soil organic matter keeps pastures more resistant to droughts. During hard rains, pastures can absorb water better
due to organic matter in the soils and better forage cover as compared to industrial
farm fields. Reduced erosion rates preserve
these fertile soils with higher water holding capacity for future crop production. Do not to overgraze the land[K116].
Bucket
Gardens: Are
a simple technology that is gaining a foothold for subsistence farmers in Africa,
India, and at least 150 other nations. Utilizing plastic buckets or larger containers,
and drip irrigation tape, these systems enhance food security. Buckets need to be elevated on stands that are
at least three ft above the ground — on the high end of the garden, if it is not
flat. Beds should be prepared with compost
or organic material and manure and then leveled. The drip tape can then be set up, and with care,
the system should last 5-7 years.
Organic
Farming: In
the Rodale Institute’s 30 year farming systems trial, they found that organic outperforms
conventional farming in years of drought.
Organic fields increased groundwater recharge and reduced runoff as compared
to industrial farming. The organic farm fields
had 15 – 20% higher water volumes “percolating” through their soils[K117].
Drought
Tolerant Critters: Nelore cattle breed is of the Zebu species from India and is raised extensively
in Brazil. It does better than most other
cattle breeds in conditions of heat, poor range quality, and drought. Its hallmark is the prominent hump behind its
neck. Other breeds of the drought tolerant
zebu are found in Africa. In the US, the
Texas longhorn is gentle, provides lean meat, and is heat and drought-tolerant. Australians have developed their Droughtmaster
breed, and Texans have also developed their Beefmaster cattle breed, which like
the Droughtmaster is a cross with the Brahman breed. Virgin Islands’ Senepol cattle are also known
for their heat tolerance[K118].
Suitable
Menus: To
conserve water, diets could be regionally appropriate and in season. Water use is embedded in our food processing,
packaging, and distribution systems, so eating locally, unprocessed food saves both
water and energy. Drought tolerant crops
should be consumed in drier regions, such as dried beans, lentils, wheat, millet,
and squash. Dryland or drip irrigated fruit
and nut trees produce water efficient food.
Some tuber crops and root vegetables are also water efficient. Water use can be reduced by taking care to reduce
food waste. Don’t buy more than needed, store
food appropriately, and compost the waste to recycle it into future food.
Deficit
Irrigation: In
deficit irrigation, the goal is to obtain maximum crop water productivity rather
than maximum yield. By irrigating less than
a crop’s optimal full requirement, you might reduce the yield by 10%, but save 50%
of the water. With supplemental irrigation
to rainfed crops in dry lands, a little irrigation is selectively applied during
rainfall shortages and during the drought-sensitive growth stages of a crop. (These important stages are the vegetative stages
and the late ripening period.) The end goal
is to maximize irrigation water productivity[K119], even if it means some loss of production.
Mycorrhiza: Which means “root-fungus”
grows in healthy soils and functions symbiotically with plants by enhancing the
uptake of phosphorus and other nutrients.
The fungus attaches to plant roots, increasing the root surface area which
comes in contact with the soil. It excretes
enzymes which allow it to dissolve soil nutrients, and extends the life of the root. This fungus increases the drought tolerance of
plants and can reduce water needs by 25%.
It increases the fruit and flowering of plants while reducing the need for
water and fertilizer. It also enables plants
to grow in salty or contaminated soils and increases the temperature stress tolerance
for plants. It helps protect plants from
disease, and helps store carbon in the soil[K120].
Soil
Moisture Sensors: Incorporating soil moisture sensors into an irrigation system is an important
tool for water conservation. It not only
prevents over-watering, but saves unnecessary pumping costs and helps prevent leaching
of fertilizers. By monitoring soil moisture
conditions, yield increases can be dramatic through careful water applications during
the most critical plant growth stages. By
watering less, plant roots grow deeper and there is less disease. Moisture sensors can be used for commodity crop
farming, vegetable farming, or orchards.
The probes are made up of multiple soil moisture sensors. They range in price, with the higher priced models
generally more accurate.
Other
Practice Studies: In conservation agriculture or natural farming systems, zero tillage, crop
rotations, manure fertilizer, cover crops, and residues help to protect the soil
and increase organic matter. During rains,
healthy organic soils absorb water and store it better. Good soil structure with macropores allow water
to go deep into the soil where it can be accessed by roots and is less prone to
evaporation.
Findings: from the above studies are
reported to any and all interested parties over the internet and by hands-on seminars
taught in the facility, which show the apparatus and means of data collection as
well as the results. One seminar taught in
Spanish and the next in English.
Experimental
greenhouses are paired up between US counties and Mexican municipalities along the
border.
Kind
of like:
Mexican US
State Municipality State County
State Municipality State County
Experimental Greenhouse BC/C1
Baja California Tijuana California San Diego
Baja California Tijuana California San Diego
Experimental Greenhouse BC/C2
Baja California Tecate California Riverside
Experimental Greenhouse BC/C3
Baja California Mexicali California Imperial
Experimental Greenhouse S/A1
Sonora San Luis Arizona Yuma
Puerto Peñasco La Paz
Experimental Greenhouse S/A2
Sonora Plutarco Elías Calles Arizona Pima
Caborca Maricopa
Altar Pinal
Experimental Greenhouse S/A3
Sonora Sáric Arizona Santa Cruz
Nogales (open)
Santa Cruz (open)
Experimental Greenhouse S/A4
Sonora Cananea Arizona Cochise
Naco (open)
Agua Prieta (open)
Experimental Greenhouse C/NM1
Chihuahua Janos New Mexico Hidalgo
(open) Grant
Chihuahua Janos New Mexico Hidalgo
(open) Grant
Experimental Greenhouse C/NM2
Chihuahua Ascensión New Mexico Luna
(open) Sierra
(open) Donna Ana
(open) Otero
In addition
to the above, estimate four more experimental greenhouses for Texas[K121] and
the Mexican Municipalities on the opposite side of the border. The “open” references noted are where counties
or municipalities which do not have an edge along the international border may join
with those who do (like Riverside County in California pairing up with Tecata Municipality).
Check
the region’s existing corporate and individual growing practices right off, to see
if there are any common ones which could feasibly be revised immediately to reduce
wasteful water consumption in the region[K122].
If border
region agriculture corporations don’t, then help those who do to develop new varieties
of more drought tolerant plants within the greenhouse/test plots tested for the
nutritional benefit and safety of human use as well as for animal forage and for
the safety of natural landscapes from unintended consequences of invasive species
displacing native ones, etc. Look at the
feasibility of amending soils as well as finding and using products and techniques
to significantly reduce evaporative water loss from the soil to aid growers whose
traditional farm lands will endeavor to remain in continuous production.
Where
funding can be organized so that the testing can be done with no economic interests
coming between the ag-corporations and the greenhouses, then greenhouses may work
directly with ag-corporations to test their GMO, pesticide, fertilizer, & other
proprietary products for successfully growing within the region[K123]. Whether grown inside experiment greenhouses, or
outside on adjacent test plots, cooperate with and provide all needed feedback to
these ag-corporations so that they may identify and correct product problems prior
to marketing, or afterward in those cases where they may have already been distributed
into the market.
The
purpose of these experimental greenhouses is only fulfilled[K124] when
natural landscapes remain intact while corporate and individual growers within their
border regions continue profitably producing the foodstuffs needed for their growing
markets, even under the stress of climate change.
ASAP,
the experimental greenhouse staff shall have provided all criteria needed for the
design and development of optimal alternative growing systems, in order that core
and shell border barns may begin construction to become part of the border barrier,
so joint Mexico-US reduced water usage and increased food production may begin[K125].
On its
roof, each 40-50 ft tall experimental greenhouse facility would include a surveillance
system tower similar to the ones on each of the experiment station facilities. CBP and equipment manufacturer representatives
would have constant access to the towers as they may require. Access to and egress from the facility would be
recorded via computer and controlled via card key with biodata. Personnel using the facility would be checked
for criminal associations and backgrounds.
Experimental greenhouse personnel objected to may be barred by people of
either nation with their cases reviewed by joint nation independent mediation or
resolution panels.
(573)
Border Barns:
Vertical
Cargo Containers (CC):
Orient CCs by placing them vertically[K126]. 40 ft height would be adequate for a border barrier, but perhaps the south facing wall may be 20 ft CCs on the lower end and the rest 20 ft sheets of vandal-resistant transparent polycarbonate surfacing. Rotated about their axis 45 degrees they can meet along their edges so that their upper receivers can be joined together with a twistlock anchor leaving a 2 inch gap[K127] between adjacent CCs. Then to cover 40 ft of barrier wall, 5 standard horizontal CCs can be replaced with 3.5 vertical CCs.
Orient CCs by placing them vertically[K126]. 40 ft height would be adequate for a border barrier, but perhaps the south facing wall may be 20 ft CCs on the lower end and the rest 20 ft sheets of vandal-resistant transparent polycarbonate surfacing. Rotated about their axis 45 degrees they can meet along their edges so that their upper receivers can be joined together with a twistlock anchor leaving a 2 inch gap[K127] between adjacent CCs. Then to cover 40 ft of barrier wall, 5 standard horizontal CCs can be replaced with 3.5 vertical CCs.
Prefabricated
Scaffold Towers:
In addition, vertical CCs are placed so that their doors face upwards so that at any time after the CCs are placed, by opening the doors, a scaffold tower[K128], factory prefabricated and containing all the equipment, spiral stairs or ships ladders, floors, insulation, plumbing, water tanks, material hoists, etc., can be hauled to the site raised and lowered into position by crane into each CC. The south wall scaffold towers will be prefabricated with the 20 ft sheets of polycarbonate surfacing and flashings, and those CCs will have their doors permanently removed.
In addition, vertical CCs are placed so that their doors face upwards so that at any time after the CCs are placed, by opening the doors, a scaffold tower[K128], factory prefabricated and containing all the equipment, spiral stairs or ships ladders, floors, insulation, plumbing, water tanks, material hoists, etc., can be hauled to the site raised and lowered into position by crane into each CC. The south wall scaffold towers will be prefabricated with the 20 ft sheets of polycarbonate surfacing and flashings, and those CCs will have their doors permanently removed.
Customizing
Scaffold Towers:
Owners of the barns first purchase scaffold towers needed for vertical circulation for the barns which are installed by the fabricating factory. Then when their growers determine which towers their operations need, the barn owners purchase and have them installed. After these scaffold towers are inserted, the owners of the barn then hire contractors to make the proper cutouts and connections in the CCs as directed by the factory fabricators of the scaffold tower inserts. Growers lease their tower inserts[K129] from the barn owners as part of their monthly payments.
Owners of the barns first purchase scaffold towers needed for vertical circulation for the barns which are installed by the fabricating factory. Then when their growers determine which towers their operations need, the barn owners purchase and have them installed. After these scaffold towers are inserted, the owners of the barn then hire contractors to make the proper cutouts and connections in the CCs as directed by the factory fabricators of the scaffold tower inserts. Growers lease their tower inserts[K129] from the barn owners as part of their monthly payments.
Hoistway
CCs:
Two of the vertical CCs of each barn are not 20 or 40, but 48 ft long[K130] CCs. These CCs are also placed vertically and they are used within the barns as material hoistways to accommodate the hoists used to transport the vertical growing tubes from where they have had seedlings installed within the barn, up to the level where they are incorporated back into the vertical growing tube manifolds[K131].
Two of the vertical CCs of each barn are not 20 or 40, but 48 ft long[K130] CCs. These CCs are also placed vertically and they are used within the barns as material hoistways to accommodate the hoists used to transport the vertical growing tubes from where they have had seedlings installed within the barn, up to the level where they are incorporated back into the vertical growing tube manifolds[K131].
Horizontal
Truss Braces/Walkway Sections:
After the scaffold towers have been installed, the CC doors are shut again and locked, and the inside surface of the doors insulated where required. Horizontal truss sections are lifted via crane over the top of the vertical CCs, and rigidly secured to them. These horizontal truss sections serve to brace the tops of the vertical CCs against lateral displacement, and are also designed to incorporate small ponds used to grow water plants which are fed to the fish below, as well as help cool the barns, incorporate twistlock anchors for attachment of horizontal CCs used as quarters as well as bracing across the top of the barn vertical CCs, and the horizontal trusses also serve as walkways for both growers, CBP agents and others needing access to solar and security equipment.
After the scaffold towers have been installed, the CC doors are shut again and locked, and the inside surface of the doors insulated where required. Horizontal truss sections are lifted via crane over the top of the vertical CCs, and rigidly secured to them. These horizontal truss sections serve to brace the tops of the vertical CCs against lateral displacement, and are also designed to incorporate small ponds used to grow water plants which are fed to the fish below, as well as help cool the barns, incorporate twistlock anchors for attachment of horizontal CCs used as quarters as well as bracing across the top of the barn vertical CCs, and the horizontal trusses also serve as walkways for both growers, CBP agents and others needing access to solar and security equipment.
Spreader-Growers
Quarters and Basic Furnishings:
Ten 40 ft CCs placed via crane atop the barn lateral brace truss sections help to brace the tops of the barn vertical CCs. They act as spreaders and work in combination with internal cross bracing noted below. These CCs also incorporate rudimentary quarters for growers and their workers not wanting to commute to work and back home each day. These growers’ quarters[K132] contain a unit kitchen, a WC, shower and wash basin, and a desk or table and file cabinet for business records used to schedule and track sales and costs, orders placed, filled and pending, receipts, quarterly income taxes, working budget and targets, equipment, utilities and insurance records, small safe and about three beds. One or more beds may fold up to fit desk/table/file space under for day use, or the table may fold up and the bed fold down for sleeping.
Ten 40 ft CCs placed via crane atop the barn lateral brace truss sections help to brace the tops of the barn vertical CCs. They act as spreaders and work in combination with internal cross bracing noted below. These CCs also incorporate rudimentary quarters for growers and their workers not wanting to commute to work and back home each day. These growers’ quarters[K132] contain a unit kitchen, a WC, shower and wash basin, and a desk or table and file cabinet for business records used to schedule and track sales and costs, orders placed, filled and pending, receipts, quarterly income taxes, working budget and targets, equipment, utilities and insurance records, small safe and about three beds. One or more beds may fold up to fit desk/table/file space under for day use, or the table may fold up and the bed fold down for sleeping.
Guards
Quarters:
CBP[K133] employees needing to patrol, monitor and control the border area of and adjacent to the barn may work in shifts and have most of the same furnishings as the growers, plus individual gun safes. The 10th CC would serve as quarters for the owner’s superintendent as well as for 2-3 Mexican Border Guard agents.
CBP[K133] employees needing to patrol, monitor and control the border area of and adjacent to the barn may work in shifts and have most of the same furnishings as the growers, plus individual gun safes. The 10th CC would serve as quarters for the owner’s superintendent as well as for 2-3 Mexican Border Guard agents.
Solar
Collectors:
The rooftop PV system is used to capture electricity for use by the barn equipment, lights and power. Maintenance[K134] of solar panels and associated electronic equipment used to feed into electrical grids is required of professionals to ensure a clean, compatible electrical supply with the local utilities.
The rooftop PV system is used to capture electricity for use by the barn equipment, lights and power. Maintenance[K134] of solar panels and associated electronic equipment used to feed into electrical grids is required of professionals to ensure a clean, compatible electrical supply with the local utilities.
Joint
Barn Ownership and Leasing:
The percentage of joint ownership of each barn should always be 50-50 between Mexican and US governments. Core and shell barns might be owned and developed by agencies of the federal governments, like the CBP and their Mexican counterpart, and leased out by them to growers in order to offset their agencies’ operational expenses, and be initially paid for by the issuance of bonds purchased by individuals, corporations and jurisdictions of the US and Mexico (and other nations?) Where ownership of barns is by federal government agencies, they would not include payments of leases on the land to the federal government, but revenues collected above the cost of operations go to the costs of running their agencies. Short term startup and operational costs might also be covered with short term government bonds, sort of like bridge loans. Transnational border security operational costs[K135] are then at least partially paid for by the individual, corporation or cooperatives’ facility lease payments to the US and Mexican governments.
The percentage of joint ownership of each barn should always be 50-50 between Mexican and US governments. Core and shell barns might be owned and developed by agencies of the federal governments, like the CBP and their Mexican counterpart, and leased out by them to growers in order to offset their agencies’ operational expenses, and be initially paid for by the issuance of bonds purchased by individuals, corporations and jurisdictions of the US and Mexico (and other nations?) Where ownership of barns is by federal government agencies, they would not include payments of leases on the land to the federal government, but revenues collected above the cost of operations go to the costs of running their agencies. Short term startup and operational costs might also be covered with short term government bonds, sort of like bridge loans. Transnational border security operational costs[K135] are then at least partially paid for by the individual, corporation or cooperatives’ facility lease payments to the US and Mexican governments.
Leases
to Previous Border Property (60 ft Wide Strip) Owners:
Core and shell barns might be leased by individuals, corporations or cooperatives upon whose (previously owned) land the barn would be sited. To reduce the federal governments’ initial land purchasing costs, where the previous US owner of the border property opted to lease a core and shell barn with a Mexican counterpart, (and vice-versa) the US government’s monthly land lease cost could be waived[K136]. If the barn leasee is an existing rancher or farmer who joint ventures with a Mexican counterpart, they could then grow produce or silage and fish (and other aquatic life such as eels, fresh water shrimp, crawdads, snails, etc.) within the aquaculture system barn, integrating it (or them) with their modified traditional farming and ranching practices on their adjacent property[K137]. Or they could choose to sublet parts or all of their barn(s) to other individual growers (acceptable to CBP) who make lease payments or pay rents to the prior landowners.
Core and shell barns might be leased by individuals, corporations or cooperatives upon whose (previously owned) land the barn would be sited. To reduce the federal governments’ initial land purchasing costs, where the previous US owner of the border property opted to lease a core and shell barn with a Mexican counterpart, (and vice-versa) the US government’s monthly land lease cost could be waived[K136]. If the barn leasee is an existing rancher or farmer who joint ventures with a Mexican counterpart, they could then grow produce or silage and fish (and other aquatic life such as eels, fresh water shrimp, crawdads, snails, etc.) within the aquaculture system barn, integrating it (or them) with their modified traditional farming and ranching practices on their adjacent property[K137]. Or they could choose to sublet parts or all of their barn(s) to other individual growers (acceptable to CBP) who make lease payments or pay rents to the prior landowners.
Special
Cases:
Some barn leasers may be special cases, where a single entity owns both sides of the border, or at least their land sits on both sides, such as the Tohono O’odham Native American tribe[K138] in Pima County, Arizona near Saguaro National Park and opposite Puerto, Peñasco Municipality and Sonoyta, Sonora, Mexico. Instead of being owned fee-simple, their reservation land is already owned by the US federal government and held in trust for the tribe. Not sure how their land holding is handled by the Mexican government…
Some barn leasers may be special cases, where a single entity owns both sides of the border, or at least their land sits on both sides, such as the Tohono O’odham Native American tribe[K138] in Pima County, Arizona near Saguaro National Park and opposite Puerto, Peñasco Municipality and Sonoyta, Sonora, Mexico. Instead of being owned fee-simple, their reservation land is already owned by the US federal government and held in trust for the tribe. Not sure how their land holding is handled by the Mexican government…
Other
Joint Government Leaseholders:
Border States and Municipalities (and their counties and cities and towns[K139]) upon whose prior land the barns sit, may joint venture with a counterpart across the border and jointly invest in leasehold of core and shell barns where increased returns might better support their retirement and other HR programs. They may wish to increase current returns on their investment capital through lease or rental incomes, or they may simply want to diversify their portfolios. Provided that the CBP regulates the security aspects of their construction and operations, institutional owners might rely on their management companies and superintendents to run their leased barns and to keep a watchful eye on the growers’ operations and payments. Other non-border States and Municipalities[K140] from outside the state could buy bonds covering the construction of several barns built on land owned by the federal government and whose barns are leased from them by border joint venture partnerships.
Border States and Municipalities (and their counties and cities and towns[K139]) upon whose prior land the barns sit, may joint venture with a counterpart across the border and jointly invest in leasehold of core and shell barns where increased returns might better support their retirement and other HR programs. They may wish to increase current returns on their investment capital through lease or rental incomes, or they may simply want to diversify their portfolios. Provided that the CBP regulates the security aspects of their construction and operations, institutional owners might rely on their management companies and superintendents to run their leased barns and to keep a watchful eye on the growers’ operations and payments. Other non-border States and Municipalities[K140] from outside the state could buy bonds covering the construction of several barns built on land owned by the federal government and whose barns are leased from them by border joint venture partnerships.
Joint
Nation Leaseholders:
In all cases, ownership of core and shell barns is by the joint federal governments, and leasing should also be by joint nation individuals (partnerships), joint venture corporations or cooperatives, and formed to provide several individual aquaculture facilities within each barn to be used either by themselves or leased to other individual growers of both nations[K141]. Joint venture partner leaseholders from either nation may be publicly owned corporations which are bought and sold in the stock market, so although the corporation may be Mexico based, it could be held by US stockholders who might own more than half of their stock. Mexican owners might more easily obtain investment capital needed to form joint ventures, or vice versa.
In all cases, ownership of core and shell barns is by the joint federal governments, and leasing should also be by joint nation individuals (partnerships), joint venture corporations or cooperatives, and formed to provide several individual aquaculture facilities within each barn to be used either by themselves or leased to other individual growers of both nations[K141]. Joint venture partner leaseholders from either nation may be publicly owned corporations which are bought and sold in the stock market, so although the corporation may be Mexico based, it could be held by US stockholders who might own more than half of their stock. Mexican owners might more easily obtain investment capital needed to form joint ventures, or vice versa.
Payments:
Each joint venture lease partner pays their own monthly lease to their own country. If one partner defaults in these lease payments, their assets are turned over to their nation or designated holding company to be released to another joint venture partner who is acceptable to the remaining original joint venture partner[K142]. Barn lease-holders are paid by individual growers through monthly rental and utility payments plus fee. Growers earn income through their harvests which they sell through pooled contracts made with restaurants and markets on their side of the border. Contracts stipulate that the growers use water conservation techniques. Individual growers with poor crop quality (per the customers), or who overuse water resources and reduce the value and income of the cooperative may be asked to leave, to be replaced by other individual growers.
Each joint venture lease partner pays their own monthly lease to their own country. If one partner defaults in these lease payments, their assets are turned over to their nation or designated holding company to be released to another joint venture partner who is acceptable to the remaining original joint venture partner[K142]. Barn lease-holders are paid by individual growers through monthly rental and utility payments plus fee. Growers earn income through their harvests which they sell through pooled contracts made with restaurants and markets on their side of the border. Contracts stipulate that the growers use water conservation techniques. Individual growers with poor crop quality (per the customers), or who overuse water resources and reduce the value and income of the cooperative may be asked to leave, to be replaced by other individual growers.
Common
Environmental Conditions:
Where the group of growers strive to grow produce or fish within common environmental conditions within the barn, but one or some growers desire to grow different produce better suited to different environmental conditions, those growers may seek to relocate to another barn better suited to their optimum environmental conditions for their produce and/or fish. Barn environmental conditions may be modified to suit the growers, but utility and modification costs are born by the group.
Where the group of growers strive to grow produce or fish within common environmental conditions within the barn, but one or some growers desire to grow different produce better suited to different environmental conditions, those growers may seek to relocate to another barn better suited to their optimum environmental conditions for their produce and/or fish. Barn environmental conditions may be modified to suit the growers, but utility and modification costs are born by the group.
Core and Shell Barn
Construction:
Obtaining
Barn Components:
Barn components which end up sitting within their nation’s political boundary line in the finished construction might be required to be purchased from suppliers of that nation only, and constructed by contractors from that nation only. Or, purchasing may be from suppliers of either nation, providing competition to help lower the overall barn cost. But, the actual total costs of the products sold for the projects may need adjustment to make a more even playing field between the competitive bidders from the two nations. If US federal purchasing rules require Davis Bacon wages, or union contracts, which Mexican contractors are not required to match (or vice versa), then some reasonable way of comparing bids should be developed.
Barn components which end up sitting within their nation’s political boundary line in the finished construction might be required to be purchased from suppliers of that nation only, and constructed by contractors from that nation only. Or, purchasing may be from suppliers of either nation, providing competition to help lower the overall barn cost. But, the actual total costs of the products sold for the projects may need adjustment to make a more even playing field between the competitive bidders from the two nations. If US federal purchasing rules require Davis Bacon wages, or union contracts, which Mexican contractors are not required to match (or vice versa), then some reasonable way of comparing bids should be developed.
Site
Preparation and general CC Height and Orientation:
Clear, strip, level, compact, and build the foundations for the vertical CCs and grade the bottoms of the fish ponds. Except for two 48 ft long standard height CC units, all CCs are either 20 or 40 ft long, standard height. Place all vertical CCs with their doors at the top and the plywood surface of the units always faces into the center of the barn enclosure[K143]. Remove the doors of 20 ft tall CCs.
Clear, strip, level, compact, and build the foundations for the vertical CCs and grade the bottoms of the fish ponds. Except for two 48 ft long standard height CC units, all CCs are either 20 or 40 ft long, standard height. Place all vertical CCs with their doors at the top and the plywood surface of the units always faces into the center of the barn enclosure[K143]. Remove the doors of 20 ft tall CCs.
Composting
Soil Bins:
Note that four of the 40 ft vertical CCs would contain composted planting soil for use in planting rootcrop tables, outside planters, and possibly the vertical tube planters. These CCs are designed to be able to be swapped out on an as-needed basis and taken to and from the solid waste landfill sites to be refilled with composted, mixed and sterilized planting soil.
Note that four of the 40 ft vertical CCs would contain composted planting soil for use in planting rootcrop tables, outside planters, and possibly the vertical tube planters. These CCs are designed to be able to be swapped out on an as-needed basis and taken to and from the solid waste landfill sites to be refilled with composted, mixed and sterilized planting soil.
Once
the soil is taken from these CCs, fertilizer, mycorrhiza and bio-carbon or other
moisture retention products are added. The
bottom twistlock anchors should be eliminated and the unit supported on rollers
allowing, after unlatching the top and bottom twistlock side anchors, the CC to
be rolled out, turned horizontal and mounted onto a flatbed for hauling the empty
CCs back to the solid waste landfill sites to be refilled. Each barn may also be able to make its own compost
to refill these planting soil dispensers.
These CCs also probably need to be equipped with doors, chutes, and an auger
to meter soil out of them without spills.
Sprouting
CCs:
Prior to, or as the vertical CCs are being placed, set the (9) bottom level diagonal horizontally oriented and reinforced CCs creating the sidewall structure of the fish and settling ponds.
Prior to, or as the vertical CCs are being placed, set the (9) bottom level diagonal horizontally oriented and reinforced CCs creating the sidewall structure of the fish and settling ponds.
Finish
Out Barn Interior:
Once all the vertical CCs are in place, cut out and place surrounds for the vertical CC passageway openings, install the triangular landings, wind generator/evaporative cooling screens and guardrails around the interior of the barn and install the walkway planks between the triangular landings and adjacent to the vertical growing tubes for inspecting and working with them. On the underside of each walkway plank provide a secure and sturdy pipe which is anchored to the plank and end supports to use by the growers and their helpers who will wear a harness with a snap-on clevis secured to the pipe to prevent falling accidents. No-one “walks the plank” without wearing their connected safety harness. Insert[K144] the prefabricated scaffold towers for vertical circulation first, including hoists and ships ladders.
Once all the vertical CCs are in place, cut out and place surrounds for the vertical CC passageway openings, install the triangular landings, wind generator/evaporative cooling screens and guardrails around the interior of the barn and install the walkway planks between the triangular landings and adjacent to the vertical growing tubes for inspecting and working with them. On the underside of each walkway plank provide a secure and sturdy pipe which is anchored to the plank and end supports to use by the growers and their helpers who will wear a harness with a snap-on clevis secured to the pipe to prevent falling accidents. No-one “walks the plank” without wearing their connected safety harness. Insert[K144] the prefabricated scaffold towers for vertical circulation first, including hoists and ships ladders.
Fish
Pond Construction:
Place the framing, plywood and cement board wall substrates and cover with protective fabric to receive the EPDM. Place the sumps, and the unreinforced EPDM for the ponds, the low wattage bilge pumps, waterproof wiring and piping into the pond sumps, and cover all with clean washed pea gravel to 2-3 inches deep[K145] [K146].
Place the framing, plywood and cement board wall substrates and cover with protective fabric to receive the EPDM. Place the sumps, and the unreinforced EPDM for the ponds, the low wattage bilge pumps, waterproof wiring and piping into the pond sumps, and cover all with clean washed pea gravel to 2-3 inches deep[K145] [K146].
Spreader-Quarter CCs & Greenhouses:
Once the scaffold towers are installed, the horizontal truss pieces are installed, and then the 10 horizontal CC spreader-quarters are hoisted onto the top. After the spreaders are installed, tension cross brace the verticals on either end of each spreader on their inner edges.
Once the scaffold towers are installed, the horizontal truss pieces are installed, and then the 10 horizontal CC spreader-quarters are hoisted onto the top. After the spreaders are installed, tension cross brace the verticals on either end of each spreader on their inner edges.
Install prefabricated galvanized tube greenhouses
spanning from the Mexican facing side horizontal trusses to the US side facing horizontal
trusses (spanning in the north-south direction), with a height that clears the tops
of the vertical growing tubes but also fits under the solar arrays. At the center peaks above the spreader-quarters
CCs in the middle, provide temperature controlled ventilation fans for use if needed
when there is no wind.
Provide for rainwater on the greenhouse film to drain
into the fish food ponds. The greenhouse
roof film ends wrap around and attach to long pipes on the north and south sidewalls
of the greenhouses. These pipes have manual
or motorized crank-lifts so they may be rolled up to allow air to flow across the
fish food ponds and through the upper layer of the barn to cool the barn, and/or
rolled down at night to reduce heat loss.
Scupper and pipe the rainwater from the spreader-quarters roofs into the
settling ponds[K147], or into the fish food ponds.
Rootcrop Growing Tables:
Construct the rootcrop growing tables over the tops of the nine diagonal CCs, and reinforce the CC tops if needed to support the loads. Most of the rootcrop growing beds will be 7-10 inch deep 2 ft by 4 ft trays grown using grow lights. Check about using some 3-4 inch diameter x 2 ft long vertical food grade plastic tubes that can be placed vertically into the table and filled with a lightweight material that both holds water and nutrients, can hold the rootcrop in place while it grows, and whose media can also be readily squeezed out of the rootcrop’s way as it grows[K148].
Construct the rootcrop growing tables over the tops of the nine diagonal CCs, and reinforce the CC tops if needed to support the loads. Most of the rootcrop growing beds will be 7-10 inch deep 2 ft by 4 ft trays grown using grow lights. Check about using some 3-4 inch diameter x 2 ft long vertical food grade plastic tubes that can be placed vertically into the table and filled with a lightweight material that both holds water and nutrients, can hold the rootcrop in place while it grows, and whose media can also be readily squeezed out of the rootcrop’s way as it grows[K148].
Removing
the tubes to the processing and packaging rooms inside the diagonal CCs, the tubes
are strap-held, while the rootcrop is carefully pushed and/or pulled out of the
tube, the filler material is cleaned and reinserted into the tube as it is replanted
and reinstalled into the rootcrop growing table again.
Plant
Nutrition System:
There are 2-3 nutrient water supply tanks[K149] which are kept agitated by internal sump pumps to prevent settling out of any suspended but less than totally dissolved nutrients. Water from the sump of grower’s own fish pond is pumped up to one tank at the level of the grow tables. The pumped fish pond water is measured for nutrients. A second tank holds nutrients in excess of the plants requirements. The third tank combines and mixes the nutrient water from the fish pond with that of the enriched plant nutrient tank to make up the optimum amount of nutrients[K150] for the plants being grown. The third tank is installed an elevation that allows gravity or siphonic action piping supply to each grow table.
There are 2-3 nutrient water supply tanks[K149] which are kept agitated by internal sump pumps to prevent settling out of any suspended but less than totally dissolved nutrients. Water from the sump of grower’s own fish pond is pumped up to one tank at the level of the grow tables. The pumped fish pond water is measured for nutrients. A second tank holds nutrients in excess of the plants requirements. The third tank combines and mixes the nutrient water from the fish pond with that of the enriched plant nutrient tank to make up the optimum amount of nutrients[K150] for the plants being grown. The third tank is installed an elevation that allows gravity or siphonic action piping supply to each grow table.
Overflow
water from each grow table is fed to a fourth tank which is measured again for nutrient
content. If the recycle water contains more
nutrients than the fish pond it is re-sent to the first fish pond water receiving
tank above to be re-amended by the nutrient make-up tank within the mixing tank
and fed again to the growing tables. When
the return water tank water contains less nutrients than the fish pond water it
is sent to the settling pond.
Fish
Pond Operation:
Each grower has his own pond for the raising of edible varieties of fish (tilapia, trout, perch, catfish, barramundi, bass, koi, and goldfish) and other fresh-water critters (crustaceans) and for the growing of water plants. In addition to the food fish, include Gambusia affinis or mosquitofish to control any infestations of mosquitos. Mature fish are marketed, but the purpose of the fish is also to provide nutrients for the plants, so they need to be sustained healthy with a diet that produces not only marketable fish meat, but also wastes with good plant food nutrients. Fish waste is recycled into plants via the solar powered sump pumps in the bottom of the ponds (and other pumps are added as required to meet the flow and head height requirements for the aquaponic system.)
Each grower has his own pond for the raising of edible varieties of fish (tilapia, trout, perch, catfish, barramundi, bass, koi, and goldfish) and other fresh-water critters (crustaceans) and for the growing of water plants. In addition to the food fish, include Gambusia affinis or mosquitofish to control any infestations of mosquitos. Mature fish are marketed, but the purpose of the fish is also to provide nutrients for the plants, so they need to be sustained healthy with a diet that produces not only marketable fish meat, but also wastes with good plant food nutrients. Fish waste is recycled into plants via the solar powered sump pumps in the bottom of the ponds (and other pumps are added as required to meet the flow and head height requirements for the aquaponic system.)
The
ponds are each individually monitored as to temperature, pH, and ppm nutrients. The fish ponds (and fish food ponds) are refilled
from the settling ponds which have filtered outside air pumped into them[K151]. In addition, provide filtered air to be pumped
into the bottom of the fish pond to aerate the water to reduce anaerobic problems
with the water. Also, outdoor fish ponds may use a fast spinning paddlewheel on
the surface which helps increase oxygen content of the water in the ponds. The waves created on the surface of the water
also prevents mosquitos from laying their eggs in the water. Paddlewheels could also be used in these ponds
possibly with screening between the fan blades and inquisitive fish.
Rough Estimate of Fish
Revenue for Grower’s Budget:
In the
border region, Tilapia raised indoors should be harvested[K152] continually,
at about 2+ lb size which would take maybe 9 months in these ponds. Tilapia are killed in a few minutes by placing
them in a container of icy temperature water.
Tilapia can’t take temperatures below 50oF or 10oC. Left over fish parts and pieces from filleting
at the barn would be composted. If every
9 months each grower markets 3,600 lb of fish, then each month each grower can estimate
that they each market 400 lb of fish. Growers
should be able to sell tilapia fillets retail for $10/lb and gross about $4K/mn
from harvesting fish.
Fish
Food Ponds:
Rather[K153] than growing the fish food in with the fish in their pond, raise the food on the top walking surface of the barn within shallow ponds used for the growing of duckweed and/or other plants used to feed the fish. If half the duckweed is harvested each day and spread out again, the tank will likely be re-filled with duckweed the next day. Evaporation from these ponds also help cool the greenhouses. Use the most practical way to control mosquitos.
Rather[K153] than growing the fish food in with the fish in their pond, raise the food on the top walking surface of the barn within shallow ponds used for the growing of duckweed and/or other plants used to feed the fish. If half the duckweed is harvested each day and spread out again, the tank will likely be re-filled with duckweed the next day. Evaporation from these ponds also help cool the greenhouses. Use the most practical way to control mosquitos.
Cool
Rooms:
Each grower has one or two cool room(s) to store his harvested and boxed produce in until he has sufficient to move all into the vehicle to transport to market. The growers could pool their resources and marketing chores and have one or two vehicles between them to make all their deliveries as well as picking up of supplies. Each grower has his own coiling overhead door and loading ramp for moving out produce and bringing in supplies.
Each grower has one or two cool room(s) to store his harvested and boxed produce in until he has sufficient to move all into the vehicle to transport to market. The growers could pool their resources and marketing chores and have one or two vehicles between them to make all their deliveries as well as picking up of supplies. Each grower has his own coiling overhead door and loading ramp for moving out produce and bringing in supplies.
Vertical
Growing Tubes (VGT):
Construct the VGT system[K154] from a few feet above the head height at the rootcrop growing tables to the top of the greenhouse roof structures adjacent to the quarters CCs. Vertical growing tubes are based on the 7 ft Zipgrow tubes of BrightAgroTech. Their connection at top and bottom of each tube would use 6 inch diameter soil pipe with 6 inch diameter cross and tee fittings. Each VGT squeezes into the soil pipe fittings above and below and prior to inserting them the ¼ inch water supply valve is opened. Provided they are within proper nutrient ranges the water pumped out of the ponds are used to supply the growing plants in the rootcrop tables and the vertical growing tubes above[K155]. However, since the nutrient level may not be optimum, and the requirements may vary by the particular type of plant being grown, one tank with water from the pond and another tank with water supplemented with additional nutrients may be metered together to create the proper balance of nutrients for the rootcrops, and again metered differently from the two tanks for the particular plant types grown in each continuous column of the VGT in the upper levels.
Construct the VGT system[K154] from a few feet above the head height at the rootcrop growing tables to the top of the greenhouse roof structures adjacent to the quarters CCs. Vertical growing tubes are based on the 7 ft Zipgrow tubes of BrightAgroTech. Their connection at top and bottom of each tube would use 6 inch diameter soil pipe with 6 inch diameter cross and tee fittings. Each VGT squeezes into the soil pipe fittings above and below and prior to inserting them the ¼ inch water supply valve is opened. Provided they are within proper nutrient ranges the water pumped out of the ponds are used to supply the growing plants in the rootcrop tables and the vertical growing tubes above[K155]. However, since the nutrient level may not be optimum, and the requirements may vary by the particular type of plant being grown, one tank with water from the pond and another tank with water supplemented with additional nutrients may be metered together to create the proper balance of nutrients for the rootcrops, and again metered differently from the two tanks for the particular plant types grown in each continuous column of the VGT in the upper levels.
Border
Security:
Assuming they are spaced 3.33 miles apart, atop the CBP’s quarter’s roof, each 40-50 ft tall barn facility would include a surveillance system tower similar to the ones on each of the experimental greenhouse facilities. CBP and equipment manufacturer representatives would have constant access to the towers as they may require. Access to and egress from the facility would be recorded via computer and controlled via card key with biodata. Personnel using the facility would be checked for criminal associations and backgrounds. Barn personnel objected to may be barred by people of either nation with their cases reviewed by joint nation independent mediation or resolution panels.
Assuming they are spaced 3.33 miles apart, atop the CBP’s quarter’s roof, each 40-50 ft tall barn facility would include a surveillance system tower similar to the ones on each of the experimental greenhouse facilities. CBP and equipment manufacturer representatives would have constant access to the towers as they may require. Access to and egress from the facility would be recorded via computer and controlled via card key with biodata. Personnel using the facility would be checked for criminal associations and backgrounds. Barn personnel objected to may be barred by people of either nation with their cases reviewed by joint nation independent mediation or resolution panels.
Aquaponics and Water Use
Aquaponic
systems reduce water loss, increase water use efficiency, and use water more sustainably. In aquaponic farming systems, water is recirculated[K156]. Run-off water that is not taken up by the plants
is recaptured. Nutrients are constantly added
by fish waste or fertilizer, and water returns to the plants. Water loss occurs in two main ways:
1) Transpiration: Transpiration is the use and evaporation
of water through the plants. There is no
way to eliminate transpiration; it is a necessary function of living plants. Keep it as efficient[K157]
as biologically
possible by making sure that the temperature range is suitable for the crops being
grown.
2) Leaks: Leaks sometimes form in the greenhouse
irrigation system. This might be a broken
pipe or split tubing, but it's most likely that a dripper has been displaced or
a leaf is redirecting the water flow. Careful
and frequent monitoring of the system is the best way to identify leaks. Walk through the barn three times a day to check
for leaks, and make repairs as quickly as possible[K158].
Water
loss in aquaponic systems is about 2% to 7% per day of that lost in most traditionally
irrigated farms. Traditional gardening requires
20 times the water used by a recirculating system. Agricultural flood irrigation in large fields
loses water to simple evaporation, run-off, and dispersion beyond the reach of plant
roots. The agricultural industry is changing
its practices to be more water-wise, but even the best drip irrigation only cuts
flood irrigation losses by about 25%, nothing close to aquaponics[K159]. New techniques promise as much as 40% water use
improvements, but none are yet in widespread commercial practice.
For
an aquaponic system, plan that for each pound of mature fish, allow 8-10 gallons
of water. Each linear ft of vertical growing
tube requires 0.3 - 0.5 lbs of fish[K160]. Each 7-ft tube in
the system, requires about 3.5 lbs of fish and 20-25 gallons of water. If fish ponds are full height, the aquaponic system
proposed on the attached drawings includes eight 32,600 gallon fish ponds. Each grower’s fish pond would be adequate for
about 3,600 lb of fish, and would allow for (1,035) 7 ft VGTs.
Vertical Growing Tubes,
Grow Lights and Plant Numbers:
Vertical
growing tubes (VGT) shown in attached drawings indicate rows going in the west-east
direction, and columns going in the south-north direction. Barn sections show four levels of VGT. Assuming there are (8) growers/barn, and the VGT
will be divided evenly between them:
Each
grower has (6) columns of (11) VGT in each of the lower three levels for (198) VGT.
Since these are located under the spreader-quarter CCs, these will not be
available in the topmost level, and will also require grow lights (GL): (198) VGT
w/GL, none without. There are (4) columns
of (11) GL for each of three levels for (132)
8 ft GL supplying added light for the (198) VGTs under the spreader-quarters CCs.
Growers
also each have (16) columns of (11) VGT in each of the four levels for (704) VGT.
Assume the bottom 3 layers also require GL. (528) VGT w/GL, (176) without. There are (8) columns of (11) GL for each of three
lower levels for (264) 8 ft GL. There are (2) additional columns of (11) VGT in
each of the four levels of VGT for each grower on the end of the barn (88) VGT. Bottom
three layers may also require GL. (66) VGT
w/GL, (22) without. One column of 11 lights
for each of three levels (33) 8 ft GL. So, each grower has (990) 7 ft total VGT, (792) VGT with GL, (198)
VGT without, so with (429) total 8
ft 75W GL.
Each
7 ft long VGT holds from 8 to 17 plants, depending on their spacing within the tube. Each grower’s VGT planters hold a total of between
nearly 8K and 17K plants, based on plant spacing within the VGT.
The
main difference between traditional and aquaponics growing is how the plants’ roots
are treated. Plants have small “hair-roots”
which can dry out and die in somewhere between a half a minute to a few minutes. In traditional in-soil growing, the moisture content
at the plants’ root level is mostly observed by how much the plants’ leaves and
stems droop, and then start to yellow.
Gas
bubbles may form in the xylem water-transfer channels that allow the water to get
from the roots to the leaves before required water may be delivered to the roots. It is possible to install moisture sensors to
provide continuous readings of moisture content of the subsurface root zone soil
to control watering cycles, but it takes time for the water to get to the hair roots,
so overwatering may be required.
Also,
at night, the photosynthesis stops and so does transpiration, so water added in
the late afternoon, evening or at night may not have any effect on the plant until
the next day’s sunshine begins. Meanwhile,
much of the irrigation water may have percolated below the plants’ root zone. When transpiration stops for the night, for the
most part, no more water is needed by plants until leaves start transpiration again
the next day.
In an
aquaponics or hydroponics system water and nutrients are continuously flowed across
the plants’ roots during transpiration (daylight) times and stop during the night. Since pump failure or other potential problems
during the day could be critical to the plants’ hair roots, a safeguard of media
around these roots to help prevent their drying out is needed. Water used by each grower’s VGTs lost to transpiration
and evaporation should be just under (350) gallons per day[K161] in the barns.
If heirloom
or heritage seed is used, row 11 (the northernmost row) of every column will be
used for plants grown for seed. Seeds will
be collected and the plants either chopped and composted or, if suitable, used for
fish food. New germinated seed plants will
be transplanted into the VGT and re-inserted into row 11. The other ten rows are expected to be grown using
a “conveyor system”, but could be batch harvested where conditions warrant.
Rows
1 & 2 (the southernmost two rows of VGTs in each column) include plants which
have just been sprouted in the sprouting CCs and placed into the previous two VGTs
from that column which had been harvested last.
The length of time they stay in rows 1 & 2 before moving to rows 3 &
4 will be based on the optimum cycle for the time of year, roughly between 1 and
2 weeks.
Rows
3 & 4 will move to rows 5 & 6, then 7 & 8, and finally 9 & 10, then
harvested. When the plants are ready for
harvest they are taken via nearest hoist to the lower level sprouting CC, removed
from the VGT, packaged and taken to the cold storage room awaiting delivery to market. The VGTs are replanted with sprouted plants grown
in that CC, hoisted back up to their level and reinstalled in rows 1 & 2.
To try
to even out the sunlight received by each VGT, the 1st row VGT may be
next moved to the 4th row, while the 2nd row VGT is next in
the 3rd row, etc. Depending on
time of year and cycle time, from their VGTs each grower should be harvesting and
taking to market roughly between 1,500 and 3,000 plants every week. That is, there are 164 VGTs either fully harvested
about every week, or some number of the VGTs are growing herbs on longer cycles
to take cuttings from and deliver to market every week.
Plant Growing Nutrients,
Temperature Ranges & Cycles:
Nutrients:
Ratios of nitrogen, phosphorus, and potassium (NKP) recommended for fertilizing of plants listed below for their optimum growth. Sulfur is also recommended for some plants and will be noted where included in listed ratios.
Ratios of nitrogen, phosphorus, and potassium (NKP) recommended for fertilizing of plants listed below for their optimum growth. Sulfur is also recommended for some plants and will be noted where included in listed ratios.
Nitrogen (N) is essential to the
cellular structure of plants, is a building block of chlorophyll, DNA, enzymes and
amino acids critical to plant development, and stimulates reproduction and leaf
and foliage growth. N is vital to chlorophyll,
which allows plants to carry out photosynthesis ~ the process by which they take
in sunlight to produce sugars from carbon dioxide and water. N is also a significant component in amino acids,
the basis of proteins. N also aids in the
compounds that allow for storage and use of energy. US cereal yields were studied as to how they would
be affected by omitting N fertilizer. The
study estimated that without N, average yields for corn declined by 41%, rice by
37%, barley by 19%, and wheat by 16%. While
nitrogen can be taken in and converted into a usable nutrient from the atmosphere
(during a lightning storm, a ton of nitrogen may be added to the soil per acre),
and may be naturally present in soils, it is almost always desirable to supplement
nitrogen to ensure plants have the optimum amount available to them. Some common inorganic nitrogen-containing products
used to provide N in fertilizer are urea, urea ammonium nitrate, and anhydrous ammonia. Common organic sources of N are manure, compost,
blood meal, and feather meal.
Phosphorus
(P) is necessary for photosynthesis, encourages root growth, seed production, the
plant’s structural strength and fruit formation. P also promotes blooming (when you look at commercial fertilizers
such as “Bloom Busters” or bloom promoters, it is the higher second number – the
P - that is essential), and P is essential in DNA. The transformation of solar energy into usable
compounds is also largely possible because of P. The common inorganic source of P comes from crushed
phosphate rock, which can be applied to the soils directly, but is more effective
if processed to be more readily available for plant uptake. Common organic sources of P are manure, compost,
biosolids, blood meal, and bone meal.
Potassium
(K) is important for the growth of flowers and fruit and disease resistance. It aids photosynthesis, activates plant enzymes
and is essential for building proteins. K is often referred to as the “quality element,”
because of its contribution to many of the characteristics we associate with quality,
such as size, shape, color, and even taste, among others. Plants low in K are stunted in growth and provide
lower yields. The primary inorganic source
of K for use in NPK fertilizers is potash.
Like phosphate rock, potash is mined all over the world and processed into
a more refined product. K can also come from
potassium sulfate, langbeinite, and granite dust. Common organic sources of K are manure, compost,
and wood ash.
Secondary macronutrients and micronutrients
included in fertilizer in small amounts include magnesium, sulfur, calcium, boron
and chloride. The Acid Rain Act reduced the
amount of atmospheric sulphur dioxide which reduced many growers’ crop size. Commercial fertilizer manufacturers have been
selling NPKS with added sulphur (S) to counteract the amount lost due to environmental
regulations.
Other ingredients include copper
and iron. Plants take small molecules such as carbon, hydrogen,
oxygen, nitrogen, phosphorus, potassium and dozens of other minor nutrients, and
use them to build large molecules such as sugars, carbohydrates, oils, protein,
and DNA. These large molecules are used for
everything that happens in the plant. Carbohydrates
build cell walls, which in trees, eventually turn into wood. Enzymes are proteins that make all of the chemical
reactions in a plant work. Sugars and carbohydrates
are the energy source that allows the plant to grow. Production of flowers and fruit require many different
types of large molecules and all of these are made by the plant using the small
molecule nutrients.
Temperature
Ranges:
The internal barn temperature will not be significantly different from the ambient outdoor temperature unless the growers decide they need to meet temperature needs of the plants they intend to grow. The growers need to come together with the plant types they each want to grow. Some barns may install jet stoves[K162] burning organics and transferring as much heat as possible into the barn where winter conditions warrant. If some growers want to grow plants to cycle schedules more suited to the outdoor ambient temperature but other growers want to grow plant types needing higher (or lower) than ambient temperatures, then the growers must reach consensus. Or, growers may seek to relocate to within other barns whose agreed climate control is more suited to their temperature needs.
The internal barn temperature will not be significantly different from the ambient outdoor temperature unless the growers decide they need to meet temperature needs of the plants they intend to grow. The growers need to come together with the plant types they each want to grow. Some barns may install jet stoves[K162] burning organics and transferring as much heat as possible into the barn where winter conditions warrant. If some growers want to grow plants to cycle schedules more suited to the outdoor ambient temperature but other growers want to grow plant types needing higher (or lower) than ambient temperatures, then the growers must reach consensus. Or, growers may seek to relocate to within other barns whose agreed climate control is more suited to their temperature needs.
Cycles:
In Yuma, AZ[K163], growers grow plants in their fields all year round. The length of time[K164] between planting a seed and harvest varies with the plant, its variety, the season and the weather. The cycle time in the VGTs is that between sprouted seedlings and harvest. The number of days given for the seed types below (first numbers given) are optimal from planting the seed to harvest. The 4 months of summer is the fastest cycle rate (100% rate of production.) Growing times will increase in the 4 months of winter to double that of summer (50% production rate.) The two months each of spring and fall production will be the average of summer and winter production rates. For budgeting, use 75% production rate for the number of cycles expected annually and use that figure (divided by 12) to use for a monthly average (knowing that actual summer production cycles need to be much better than those of winter, etc. Divide the optimum growing time by 75%, then subtract sprouting times of 18-21 days (but add 7 days back for transplant shock setback) = days for average cycle time, providing budgeting cycles per year (cpy) and cycles per month (cpm):
In Yuma, AZ[K163], growers grow plants in their fields all year round. The length of time[K164] between planting a seed and harvest varies with the plant, its variety, the season and the weather. The cycle time in the VGTs is that between sprouted seedlings and harvest. The number of days given for the seed types below (first numbers given) are optimal from planting the seed to harvest. The 4 months of summer is the fastest cycle rate (100% rate of production.) Growing times will increase in the 4 months of winter to double that of summer (50% production rate.) The two months each of spring and fall production will be the average of summer and winter production rates. For budgeting, use 75% production rate for the number of cycles expected annually and use that figure (divided by 12) to use for a monthly average (knowing that actual summer production cycles need to be much better than those of winter, etc. Divide the optimum growing time by 75%, then subtract sprouting times of 18-21 days (but add 7 days back for transplant shock setback) = days for average cycle time, providing budgeting cycles per year (cpy) and cycles per month (cpm):
Vegetable
Environmental Conditions and Cycles:
Lettuce. 45-70oF; NKP 8-15-36;
5wk= 7 lb/VGT; 6wk= 10 lb/VGT
Green Leaf:
Grand Rapids ((45/.75)-14 = 46); 365/46 = 7.9 cpy = .66 cpm
Green Ice ((45/.75)-14 = 46); 365/46 = 7.9 cpy = .66 cpm
Oak Leaf ((50/.75)-14 = 53); 365/53 = 6.9 cpy = .58 cpm
Salad Bowl ((45/.75)-14 = 46); 365/46 = 7.9 cpy = .66 cpm
Simpson ((45/.75)-14 = 46). 365/46 = 7.9 cpy = .66 cpm
Butterhead: 55-60oF;
Bibb ((70/.75)-14 = 79); 365/79 = 4.6 cpy = .38 cpm
Buttercrunch ((70/.75)-14 = 79); 365/79 = 4.6 cpy = .38 cpm
Summer Bibb ((62/.75)-14 = 69). 365/69 = 5.3 cpy = .44 cpm
Loose-Leaf:
Black-Seeded Simpson ((45/.75)-14 = 46); 365/46 = 7.9 cpy = .66 cpm
Lollo Rossa ((56/.75)-14 = 61); 365/61 = 6 cpy = .5 cpm
Oak Leaf ((50/.75)-14 = 53); 365/53 = 6.9 cpy = .58 cpm
Red Sails ((45/.75)-14 = 46). 365/46 = 7.9 cpy = .66 cpm
Chinese lettuce 生菜 (sheng cai) Chinese lettuce is known as sang choy in Cantonese and (sheng cai) in mandarin 生菜. In Taiwan it is known as 莴苣 (wo ju). Assume ((45/.75)-14 = 46). 365/46 = 7.9 cpy = .66 cpm
Green Leaf:
Grand Rapids ((45/.75)-14 = 46); 365/46 = 7.9 cpy = .66 cpm
Green Ice ((45/.75)-14 = 46); 365/46 = 7.9 cpy = .66 cpm
Oak Leaf ((50/.75)-14 = 53); 365/53 = 6.9 cpy = .58 cpm
Salad Bowl ((45/.75)-14 = 46); 365/46 = 7.9 cpy = .66 cpm
Simpson ((45/.75)-14 = 46). 365/46 = 7.9 cpy = .66 cpm
Butterhead: 55-60oF;
Bibb ((70/.75)-14 = 79); 365/79 = 4.6 cpy = .38 cpm
Buttercrunch ((70/.75)-14 = 79); 365/79 = 4.6 cpy = .38 cpm
Summer Bibb ((62/.75)-14 = 69). 365/69 = 5.3 cpy = .44 cpm
Loose-Leaf:
Black-Seeded Simpson ((45/.75)-14 = 46); 365/46 = 7.9 cpy = .66 cpm
Lollo Rossa ((56/.75)-14 = 61); 365/61 = 6 cpy = .5 cpm
Oak Leaf ((50/.75)-14 = 53); 365/53 = 6.9 cpy = .58 cpm
Red Sails ((45/.75)-14 = 46). 365/46 = 7.9 cpy = .66 cpm
Chinese lettuce 生菜 (sheng cai) Chinese lettuce is known as sang choy in Cantonese and (sheng cai) in mandarin 生菜. In Taiwan it is known as 莴苣 (wo ju). Assume ((45/.75)-14 = 46). 365/46 = 7.9 cpy = .66 cpm
Spinach. 35-70oF; pH of
6; NKP 8-15-36
America ((45/.75)-14 = 46); 365/46 = 7.9 cpy = .66 cpm
Bloomsdale Long-Standing ((45/.75)-14 = 46); 365/46 = 7.9 cpy = .66 cpm
Winter Bloomsdale ((45/.75)-14 = 46); 365/46 = 7.9 cpy = .66 cpm
New Zealand Spinach ((65/.75)-14 = 73); 365/73 = 5 cpy = .42 cpm
Bloomsdale ((38/.75)-14 = 37); 365/37 = 9.9 cpy = .83 cpm
Seaside ((42/.75)-14 = 42); 365/42 = 8.7 cpy = .73 cpm
Space ((39/.75)-14 = 38); 365/38 = 9.6 cpy = .8 cpm
Kookaburra ((37/.75)-14 = 35); 365/35 = 10.4 cpy = .87 cpm
Corvair ((39/.75)-14 = 38); 365/38 = 9.6 cpy = .8 cpm
Woodpecker ((37/.75)-14 = 35); 365/35 = 10.4 cpy = .87 cpm
Emperor ((37/.75)-14 = 35); 365/35 = 10.4 cpy = .87 cpm
Gazelle ((36/.75)-14 = 34); 365/34 = 10.7 cpy = .89 cpm
Red Kitten ((34/.75)-14 = 31); 365/31 = 11.8 cpy = .98 cpm
Flamingo ((37/.75)-14 = 35); 365/36 = 10.1 cpy = .84 cpm
Reflect ((38/.75)-14 = 37); 365/37 = 9.9 cpy = .83 cpm
Water spinach 空心菜 (kong xin cai). Water spinach 空心菜 (kong xin cai) is also known as ong choy, kang kong, water convolvulus, swamp cabbage and water morning glory.
Horenso (spinach); Komatsuna (Japanese mustard spinach). Seed directly in VGT & thin because of difficulty to transplant. Chinese spinach 苋菜 (xian cai) Also known as yeen choy (Cantonese), 苋菜 (xian cai).
America ((45/.75)-14 = 46); 365/46 = 7.9 cpy = .66 cpm
Bloomsdale Long-Standing ((45/.75)-14 = 46); 365/46 = 7.9 cpy = .66 cpm
Winter Bloomsdale ((45/.75)-14 = 46); 365/46 = 7.9 cpy = .66 cpm
New Zealand Spinach ((65/.75)-14 = 73); 365/73 = 5 cpy = .42 cpm
Bloomsdale ((38/.75)-14 = 37); 365/37 = 9.9 cpy = .83 cpm
Seaside ((42/.75)-14 = 42); 365/42 = 8.7 cpy = .73 cpm
Space ((39/.75)-14 = 38); 365/38 = 9.6 cpy = .8 cpm
Kookaburra ((37/.75)-14 = 35); 365/35 = 10.4 cpy = .87 cpm
Corvair ((39/.75)-14 = 38); 365/38 = 9.6 cpy = .8 cpm
Woodpecker ((37/.75)-14 = 35); 365/35 = 10.4 cpy = .87 cpm
Emperor ((37/.75)-14 = 35); 365/35 = 10.4 cpy = .87 cpm
Gazelle ((36/.75)-14 = 34); 365/34 = 10.7 cpy = .89 cpm
Red Kitten ((34/.75)-14 = 31); 365/31 = 11.8 cpy = .98 cpm
Flamingo ((37/.75)-14 = 35); 365/36 = 10.1 cpy = .84 cpm
Reflect ((38/.75)-14 = 37); 365/37 = 9.9 cpy = .83 cpm
Water spinach 空心菜 (kong xin cai). Water spinach 空心菜 (kong xin cai) is also known as ong choy, kang kong, water convolvulus, swamp cabbage and water morning glory.
Horenso (spinach); Komatsuna (Japanese mustard spinach). Seed directly in VGT & thin because of difficulty to transplant. Chinese spinach 苋菜 (xian cai) Also known as yeen choy (Cantonese), 苋菜 (xian cai).
Bok
Choy. 55-75oF;
NKP 8-15-36; 5wk = 9 lb/VGT; 6wk = 12 lb/VGT
Bok Choy ((45/.75)-14 = 46); 365/46 = 7.9 cpy = .66 cpm
Canton Dwarf Flat Cabbage ((40/.75)-14 = 39); 365/39 = 9.4 cpy = .78 cpm
Gai Choy ((45/.75)-14 = 46); 365/46 = 7.9 cpy = .66 cpm
Green-In-Snow ((45/.75)-14 = 46); 365/46 = 7.9 cpy = .66 cpm
Mitsuba ((60/.75)-14 = 66); 365/66 = 5.5 cpy = .46 cpm
Mizuna ((36/.75)-14 = 34); 365/34 = 10.7 cpy = .89 cpm
Pak Choy ((42/.75)-14 = 42); 365/42 = 8.7 cpy = .73 cpm
Tatsoi ((45/.75)-14 = 46). 365/46 = 7.9 cpy = .66 cpm
5wk = 4.2 lb/VGT; 6wk = 5.6 lb/VGT
Bok choy or pak choy 小白菜 (xiao bai cai), also known as Chinese white cabbage, pak choy (transliteration of the Cantonese), 白菜 (bai cai) and Chinese chard. Mizuna (Japanese mustard, spider mustard)
Bok Choy ((45/.75)-14 = 46); 365/46 = 7.9 cpy = .66 cpm
Canton Dwarf Flat Cabbage ((40/.75)-14 = 39); 365/39 = 9.4 cpy = .78 cpm
Gai Choy ((45/.75)-14 = 46); 365/46 = 7.9 cpy = .66 cpm
Green-In-Snow ((45/.75)-14 = 46); 365/46 = 7.9 cpy = .66 cpm
Mitsuba ((60/.75)-14 = 66); 365/66 = 5.5 cpy = .46 cpm
Mizuna ((36/.75)-14 = 34); 365/34 = 10.7 cpy = .89 cpm
Pak Choy ((42/.75)-14 = 42); 365/42 = 8.7 cpy = .73 cpm
Tatsoi ((45/.75)-14 = 46). 365/46 = 7.9 cpy = .66 cpm
5wk = 4.2 lb/VGT; 6wk = 5.6 lb/VGT
Bok choy or pak choy 小白菜 (xiao bai cai), also known as Chinese white cabbage, pak choy (transliteration of the Cantonese), 白菜 (bai cai) and Chinese chard. Mizuna (Japanese mustard, spider mustard)
Mustard
Greens. 50-75oF;
NKP 8-15-36; 5wk = 4.2 lb/VGT; 6wk = 5.6 lb/VGT
Curled:
Fordhook Fancy ((40/.75)-14 = 39); 365/39 = 9.4 cpy = .78 cpm
Giant Red ((23/.75)-14 = 17); 365/17 = 21.5 cpy = 1.8 cpm
Green Wave ((45/.75)-14 = 46); 365/46 = 7.9 cpy = .66 cpm
Kyona ((40/.75)-14 = 39). 365/39 = 9.4 cpy = .78 cpm
Plain Leaf:
Komatsuna ((30/.75-14 = 26); 365/26 = 14 cpy = 1.2 cpm
Tendergreen ((34/.75)-14 = 31). 365/31 = 11.8 cpy = .98 cpm
Curled:
Fordhook Fancy ((40/.75)-14 = 39); 365/39 = 9.4 cpy = .78 cpm
Giant Red ((23/.75)-14 = 17); 365/17 = 21.5 cpy = 1.8 cpm
Green Wave ((45/.75)-14 = 46); 365/46 = 7.9 cpy = .66 cpm
Kyona ((40/.75)-14 = 39). 365/39 = 9.4 cpy = .78 cpm
Plain Leaf:
Komatsuna ((30/.75-14 = 26); 365/26 = 14 cpy = 1.2 cpm
Tendergreen ((34/.75)-14 = 31). 365/31 = 11.8 cpy = .98 cpm
Chard. 55-75oF; NKP 8-15-36;
5wk = 5.6 lb/VGT; 7.7 lb/VGT
Burgundy ((60/.75)-14 = 66); 365/66 = 5.5 cpy = .46 cpm
Rhubarb ((60/.75)-14 = 66); 365/66 = 5.5 cpy = .46 cpm
Fordhook Giant ((57/.75)-14 = 62); 365/62 = 5.9 cpy = .49 cpm
Lucullus ((50/.75)-14 = 53); 365/53 = 6.9 cpy = .58 cpm
Rainbow ((55/.75)-14 = 59). 365/59 = 6.2 cpy = .52 cpm
Burgundy ((60/.75)-14 = 66); 365/66 = 5.5 cpy = .46 cpm
Rhubarb ((60/.75)-14 = 66); 365/66 = 5.5 cpy = .46 cpm
Fordhook Giant ((57/.75)-14 = 62); 365/62 = 5.9 cpy = .49 cpm
Lucullus ((50/.75)-14 = 53); 365/53 = 6.9 cpy = .58 cpm
Rainbow ((55/.75)-14 = 59). 365/59 = 6.2 cpy = .52 cpm
Kale. 45-85oF; NKP 8-15-36;
5wk = 4.2 lb/VGT; 6wk = 5.6 lb/VGT
Dwarf Blue Curled Vates ((55/.75)-14 = 59); 365/59 = 6.2 cpy = .52 cpm
Russian Red ((40/.75)-14 = 39), 365/39 = 9.4 cpy = .78 cpm
Siberian ((60/.75)-14 = 66); 365/66 = 5.5 cpy = .46 cpm
Verdura ((60/.75)-14 = 66). 365/66 = 5.5 cpy = .46 cpm
Dwarf Blue Curled Vates ((55/.75)-14 = 59); 365/59 = 6.2 cpy = .52 cpm
Russian Red ((40/.75)-14 = 39), 365/39 = 9.4 cpy = .78 cpm
Siberian ((60/.75)-14 = 66); 365/66 = 5.5 cpy = .46 cpm
Verdura ((60/.75)-14 = 66). 365/66 = 5.5 cpy = .46 cpm
Cabbage. 40-70oF; NKP 8-15-36
Charmant ((52/.75)-14 = 55); 365/55 = 6.6 cpy = .55 cpm
Earliana ((60/.75)-14 = 66); 365/66 = 5.5 cpy = .46 cpm
Early Jersey Wakefield ((63/.75-14 = 70); 365/70 = 5.2 cpy = .43 cpm
Golden Acre ((58/.75)-14 = 63); 365/63 = 5.8 cpy = .48 cpm
Ruby Ball ((70/.75)-14 = 79); 365/79 = 4.6 cpy = .38 cpm
Hakusai (Chinese cabbage).
Charmant ((52/.75)-14 = 55); 365/55 = 6.6 cpy = .55 cpm
Earliana ((60/.75)-14 = 66); 365/66 = 5.5 cpy = .46 cpm
Early Jersey Wakefield ((63/.75-14 = 70); 365/70 = 5.2 cpy = .43 cpm
Golden Acre ((58/.75)-14 = 63); 365/63 = 5.8 cpy = .48 cpm
Ruby Ball ((70/.75)-14 = 79); 365/79 = 4.6 cpy = .38 cpm
Hakusai (Chinese cabbage).
Choy sum 菜心 (cai xin) Choy sum is also known as the Chinese flowering cabbage,
菜心 (cai xin), yow choy, and yow choy sum (those with yellow flowers).
Napa cabbage 北京白菜 (bei jing bai cai). Napa cabbage
is also known as the celery cabbage and the peking cabbage 北京白菜 (bei jing bai cai). The scientific
name is brassica pekinensis. So named as
it is grown in Peking (the old name of Beijing, the capital of China). It should not be mistaken with the common green
cabbage (Brassica oleracea) which is round.
Peppers. 70-95oF; NKP 8-15-36
Sweet:
Bell Boy ((70/.75)-14 = 79); 365/79 = 4.6 cpy = .38 cpm
Camelot ((67/.75)-14 = 75); 365/75 = 4.9 cpy = .41 cpm
Cardinal ((70/.75)-14 = 79); 365/79 = 4.6 cpy = .38 cpm
Early California ((65/.75)-14 = 73); 365/73 = 5 cpy = .42 cpm
Sweet Banana ((70/.75)-14 = 79); 365/79 = 4.6 cpy = .38 cpm
Piman (Green pepper); Shishito (Small Japanese green pepper).
Sweet:
Bell Boy ((70/.75)-14 = 79); 365/79 = 4.6 cpy = .38 cpm
Camelot ((67/.75)-14 = 75); 365/75 = 4.9 cpy = .41 cpm
Cardinal ((70/.75)-14 = 79); 365/79 = 4.6 cpy = .38 cpm
Early California ((65/.75)-14 = 73); 365/73 = 5 cpy = .42 cpm
Sweet Banana ((70/.75)-14 = 79); 365/79 = 4.6 cpy = .38 cpm
Piman (Green pepper); Shishito (Small Japanese green pepper).
Hot:
Cayenne ((70/.75)-14 = 79)); 365/79 = 4.6 cpy = .38 cpm
Hungarian Wax ((70/.75)-14 = 79); 365/79 = 4.6 cpy = .38 cpm
Mexibell ((70/.75)-14 = 79). 365/79 = 4.6 cpy = .38 cpm
Cayenne ((70/.75)-14 = 79)); 365/79 = 4.6 cpy = .38 cpm
Hungarian Wax ((70/.75)-14 = 79); 365/79 = 4.6 cpy = .38 cpm
Mexibell ((70/.75)-14 = 79). 365/79 = 4.6 cpy = .38 cpm
Strawberries. 65-75oF; NPK: 2-9-19
Tomato. Day 68-85oF, Night
59-72oF; NPK: 2-9-19
Herb
Environmental Conditions and Cycles:
The
harvest weights for the following are based on the expected plant growth within
each 7 ft VGT.
Arugula. 50-65oF; pH 6.0-7.0;
NKP 2-3-8
Oregano. 55-70oF; NKP 2-3-8
cuttings: 5wk = 1.4 lb/VGT; 8wk = 3.5 lb/VGT; 11 wk = 3.5 lb/VGT; …
Chives. 65-80oF; NKP 2-3-8
Mint. 55-70oF; NKP 2-3-8
Fennel. 60-70oF; NKP 2-3-8
cuttings: wk8 = 8.5 lb/VGT; wk11 = cycle
Basil, Sweet. 65-95oF; NKP 2-3-8
cuttings: 5wk = 5 lb/VGT; 8wk = 6.3 lb/VGT; 11wk = 7.7 lb/VGT; 14wk cycle
Cilantro. 50-95oF; NKP 2-3-8
cuttings: wk5 = 5 lb/VGT;
Rosemary. 75-85oF; NKP 2-3-8
cuttings: wk14 = .7 lb/VGT; wk17 = 1.4 lb/VGT; wk20 = 1.4 lb/VGT, wk23 = 1.4 lb/VGT; wk26 = 2.8 lb/VGT…
Parsley. 60-75oF; NKP 2-3-8
cuttings: wk5 = 5 lb/VGT; wk8 = 5 lb/VGT; 8wk = 3.5 lb/VGT; wk11 = cycle
Sage.
cuttings: wk14 = .7 lb/VGT; wk17 = 1.4 lb/VGT; wk20 = 1.4 lb/VGT, …
Oregano. 55-70oF; NKP 2-3-8
cuttings: 5wk = 1.4 lb/VGT; 8wk = 3.5 lb/VGT; 11 wk = 3.5 lb/VGT; …
Chives. 65-80oF; NKP 2-3-8
Mint. 55-70oF; NKP 2-3-8
Fennel. 60-70oF; NKP 2-3-8
cuttings: wk8 = 8.5 lb/VGT; wk11 = cycle
Basil, Sweet. 65-95oF; NKP 2-3-8
cuttings: 5wk = 5 lb/VGT; 8wk = 6.3 lb/VGT; 11wk = 7.7 lb/VGT; 14wk cycle
Cilantro. 50-95oF; NKP 2-3-8
cuttings: wk5 = 5 lb/VGT;
Rosemary. 75-85oF; NKP 2-3-8
cuttings: wk14 = .7 lb/VGT; wk17 = 1.4 lb/VGT; wk20 = 1.4 lb/VGT, wk23 = 1.4 lb/VGT; wk26 = 2.8 lb/VGT…
Parsley. 60-75oF; NKP 2-3-8
cuttings: wk5 = 5 lb/VGT; wk8 = 5 lb/VGT; 8wk = 3.5 lb/VGT; wk11 = cycle
Sage.
cuttings: wk14 = .7 lb/VGT; wk17 = 1.4 lb/VGT; wk20 = 1.4 lb/VGT, …
Slow
growing crops like oregano, rosemary, and sage often are cultured for 9-12 months
with increasing harvests. Replant when production
of the VGT decreases.
Plant
Prices (Advertised Retail):
Iceberg: $2.14/lb $2.99/ea
Green Leaf: $1.17/lb $1.79/ea
Red Leaf: $1.26/lb $1.88/ea
Romaine: $1.15/lb $1.38/lb
Spinach. $3.99/lb $8.85/lb
Bok Choy. $0.33/lb $1.25/lb
Mustard Greens. $0.99/lb $2.17/bunch
Chard. $0.99/bunch $2.07/bunch
Kale. $0.74/bunch $1.77/bunch
Cabbage, Red. $0.75/lb $1.15/lb
Cabbage, Green. $0.43/lb $0.92/lb
Chinese Cabbage. $0.33/lb $1.44/lb
Peppers, Green Bell. $0.79/lb $0.98/ea
Strawberries. $3.68/lb $3.95/lb
Tomato. $1.08/lb $1.58/lb
Eggplant. $2.00/ea $2.49/lb
Cilantro. $0.43/bunch $1.38/lb
Arugula. $0.81/bunch $8.91/lb
Oregano. $65/lb
Chives. $2.65/bunch
Mint. $1.42/bunch
Fennel. $2.63/bunch $2.66/bunch
Basil. $1.65/bunch
Cilantro. $1.53/bunch
Rosemary. $62/lb
Parsley. $0.43/bunch $1.58/bunch
Green Leaf: $1.17/lb $1.79/ea
Red Leaf: $1.26/lb $1.88/ea
Romaine: $1.15/lb $1.38/lb
Spinach. $3.99/lb $8.85/lb
Bok Choy. $0.33/lb $1.25/lb
Mustard Greens. $0.99/lb $2.17/bunch
Chard. $0.99/bunch $2.07/bunch
Kale. $0.74/bunch $1.77/bunch
Cabbage, Red. $0.75/lb $1.15/lb
Cabbage, Green. $0.43/lb $0.92/lb
Chinese Cabbage. $0.33/lb $1.44/lb
Peppers, Green Bell. $0.79/lb $0.98/ea
Strawberries. $3.68/lb $3.95/lb
Tomato. $1.08/lb $1.58/lb
Eggplant. $2.00/ea $2.49/lb
Cilantro. $0.43/bunch $1.38/lb
Arugula. $0.81/bunch $8.91/lb
Oregano. $65/lb
Chives. $2.65/bunch
Mint. $1.42/bunch
Fennel. $2.63/bunch $2.66/bunch
Basil. $1.65/bunch
Cilantro. $1.53/bunch
Rosemary. $62/lb
Parsley. $0.43/bunch $1.58/bunch
Rough Estimate of VGT
Revenue for Grower’s Budget:
Assume
that one out of every 11 VGTs is growing seeds for replanting, that is, 90 of the
grower’s 990 VGTs are out of production for crop revenues. Assuming a 5 week cycle, (2) VGTs from each column
will be harvested each week. Assuming that
the (900) VGTs are split 50-50 between growing basil and lettuce, (450) VGTs each. Also, half of the basil harvested each week and
half of the harvested lettuce are sold retail and the other halves are sold wholesale.
Weekly VGT Harvest Revenues:
Retail:
Lettuce: 45 VGTs, @ 6.33#/VGT, = 285# @ $2.10 = $600
Basil: 45 VGTs, @ 6.33#/VGT, = 285# @ $24/lb = $6,840
Retail:
Lettuce: 45 VGTs, @ 6.33#/VGT, = 285# @ $2.10 = $600
Basil: 45 VGTs, @ 6.33#/VGT, = 285# @ $24/lb = $6,840
Wholesale:
Lettuce: 45 VGTs, @ 6.33#/VGT, = 285# @ $1.05/lb = $300
Basil: 45 VGTs, @ 6.33#/VGT, = 285# @ $16/lb = $4,560
VGT Weekly Revenues: $12,300
VGT Monthly Revenues: $53,300
Lettuce: 45 VGTs, @ 6.33#/VGT, = 285# @ $1.05/lb = $300
Basil: 45 VGTs, @ 6.33#/VGT, = 285# @ $16/lb = $4,560
VGT Weekly Revenues: $12,300
VGT Monthly Revenues: $53,300
Sprouts:
Growing
sprouts for sale to health food stores and direct to customers would be one of the
grower’s quickest turn-arounds or cycles.
Generally no more than two weeks from planting a seed to harvesting, packaging
(cold-pack) and shipping (overnight) to the store or customer. The anti-fungicides on commercial seeds would
probably not be a good thing for seeds grown for sprouts, so sources of seed may
have to be developed and certified as food-grade. Seeds vary in their original weight vs weight
of their sprouts, so yields vary from 5:1 for radish sprouts (one lb of seed yields
5 lbs of sprouts), 7:1 for alfalfa sprouts, etc, but generally one ounce of seed
makes a cup of sprouts. For an idea of on-line
retail prices (prices do not including shipping):
Broccoli Sprouts: $4/lb
- $10/5
oz
(Broccoli seeds cost $13.56/lb, yield probably similar to radishes)
Radish Sprouts: $4/lb - $10/5 oz
(Radish seeds cost $1.99/lb, 1 lb of seed will make 5 lb of sprouts)
Buckwheat Lettuce: $10/lb
(Lettuce seeds cost $13.56/lb, yield probably similar to radishes)
Wheatgrass Sprouts (juicing): $10/lb - $20/lb
(Wheatgrass seeds cost $12/lb, yield probably similar to alfalfa)
Pea Greens: (Pea seeds cost $7.96/lb) $10/lb - $20/lb
Bean Sprouts: (Bean seeds cost $7.96/lb) $10/lb
Sunflower Sprouts: (Sunflower seeds cost $4/lb) $12/lb - $20/lb
Sprout Mix (alfalfa, radish…) $10/5 oz
(Alfalfa seeds cost $3.90/lb)
Clover, arugula, radish and fenugreek sprout mix: (Clover seeds cost $3.12/lb) $20/lb
Arugula Greens: Arugula seeds cost $35.40/lb) $8/2 oz
Onion Shoots: (Onion seeds cost $29.56/lb) $5/oz
Cilantro Microgreens: $8/oz
Red Cabbage Sprouts: $12/3 oz
(Broccoli seeds cost $13.56/lb, yield probably similar to radishes)
Radish Sprouts: $4/lb - $10/5 oz
(Radish seeds cost $1.99/lb, 1 lb of seed will make 5 lb of sprouts)
Buckwheat Lettuce: $10/lb
(Lettuce seeds cost $13.56/lb, yield probably similar to radishes)
Wheatgrass Sprouts (juicing): $10/lb - $20/lb
(Wheatgrass seeds cost $12/lb, yield probably similar to alfalfa)
Pea Greens: (Pea seeds cost $7.96/lb) $10/lb - $20/lb
Bean Sprouts: (Bean seeds cost $7.96/lb) $10/lb
Sunflower Sprouts: (Sunflower seeds cost $4/lb) $12/lb - $20/lb
Sprout Mix (alfalfa, radish…) $10/5 oz
(Alfalfa seeds cost $3.90/lb)
Clover, arugula, radish and fenugreek sprout mix: (Clover seeds cost $3.12/lb) $20/lb
Arugula Greens: Arugula seeds cost $35.40/lb) $8/2 oz
Onion Shoots: (Onion seeds cost $29.56/lb) $5/oz
Cilantro Microgreens: $8/oz
Red Cabbage Sprouts: $12/3 oz
In the
barn example, sprouts would be grown in the harvesting and packaging room, in trays
on the wire racks along with the sprouting plants used to replant the VGTs and rootcrop
tubes, or in mobile carts. Provide germination
“dressers” in this same barn space for growing sprouts which have pull-out drawers,
see-through plastic covers, controlled temperature, automatic misting, lighting,
etc. The most critical thing about this market
is timely delivery. Once harvested, sprouts
can last 7-10 days. Since turn-around is
2-3 weeks, each grower can get 17-26 harvests of sprouts per year per growing tray.
Rough Estimate of Sprout
Revenues for Grower’s Budget:
Assuming
(10) “dressers” with (10) 2 ft x 2 ft trays each, each converting about (2) lb of
seeds into (12) lb of sprouts per harvest with (2) harvests per month and an average
sale price of $6/lb yields revenue of $14,400 per month (gross) per grower.
Market
Plants:
Growing
plants from seed until they can be brought to stores for others to buy, take home
and continue to grow until harvest would be the next quickest turn-around. Good looking plants taken from the germinated
plants at one week old, should be ready for marketing by another 3 weeks growing
in the vertical growing tubes, driven to stores or markets and placed in stands
for shoppers to purchase. Common plants that
retail for about $5 to customers might gross $2 to the grower. Provided there is a continuous local market for
such plants, a grower could have 14 harvests of 3,000 food-type plants per year,
grossing about $7,000/mn. Bare root plants
would be potted, fertilized and watered before delivery to the retail outlets.
Basil
grows well aquaponically, and this system may increase its flavor. Chives also grow well aquaponically and can be
planted quite densely. Mint and chives thrive
in an aquaponic greenhouse as well. Numerous
other herbs can also be grown aquaponically, including oregano, rosemary, watercress,
dill, parsley and sweet marjoram. Aquaponic
growers will experience the most success with herbs that grow in wet conditions,
instead of those that thrive in dryer environments, like sage.
In these
barns, one of the grower’s top objectives for best success is to obtain contracts
to supply fresh produce to top-end restaurants who demand best quality ingredients. Obtaining these contracts will take proving a
consistent supply of better produce than these clients can obtain from other sources. Use the time until then, while selling to other
outlets, to fully understand the produce to be supplied.
Research
the produce, how it is used, what nutrients it provides the consumer, and try to
understand what happens to the produce as it is incorporated and processed, how
it is incorporated into the cuisine. How
long does the chef keep the food on hand?
What does the method of growing the produce do to effect its quality? What can the grower do to improve the produce
characteristics, which in turn improves the quality of the meal served using that
produce? Try the different meals served by
the restaurant(s) using the competitor’s produce. Also, ask the chefs to learn the qualities of
the produce most valued by them.
Discover
where potential clients obtain their produce and examine the quality, and cost if
possible. Also, if possible, see if their
current produce supplier has supply limits.
If there is a time in their existing schedule when the competition can’t
furnish the produce, offer your produce to fill that gap for the restaurant. Possibly, sell the best produce within the local
markets where the restaurant may purchase other ingredients. Generally, learn to grow and know the produce
you grow better than other competing growers.
Provide the best quality and service and find customers who have an affinity
themselves for quality and whose customers have an affinity for high quality. Do not try to speed or simplify the process by
undercutting the prices of other growers – that way will not lead to success.
If there
are no suppliers furnishing desired fresh produce to these restaurants, investigate
the possibility of filling that niche, budget the profitability of growing these
ingredients properly and timely delivering them. Find as many other restaurants who desire this
produce who can timely be delivered to. There
are many ethnic restaurants whose menu repertoire
is limited by the availability of fresh produce and having to substitute frozen
or canned products which change the taste and nutritional quality of their menu
items served to their customers. Barn produce which does not
meet the competition’s market quality should be sold to the canneries.
A product which would be great for the region around
Yuma is dragon fruit. The border climate
is good for growing this product, except for the amount of average rainfall. If the water output from the packaged wastewater
treatment plants was truly suitable for growing crops, this one could provide one
of the best paybacks. These fruits are sold
in markets in the north for about $6-$8 apiece.
Plant them on the Mexican side of the barn in boxes in the triangular spaces
formed between the CCs and train them against the CCs. The flowers for sale in markets would be grown
beneath the large Dragon Fruit cactus trunks.
Before
planting, aquaponic growers will create a calendar detailing the days to harvest
of each crop they want to plant. They'll
also have to know the date of the last and first frosts of the season (if any). Succession gardening and crop rotating throughout
the growing season help them get the most out of their garden plot. For example, they may plant quick-maturing lettuce
a few weeks before their warm-season vegetables. After they harvest the lettuce, they have enough
space and time to plant a warm-season quick crop such as snap beans.
Outside Flowers/Decorative
Plants (OFD):
There
will be two packaged wastewater treatment plants (not septic tanks) within this
facility, each with the capability of serving a community of 15 people, and discharging
very clean water, which is supposedly clean enough to recycle into the aquaponic
system. Instead, the maximum combined 3,000
gallons per day discharge from these package plants due to the human use of potable
water should be recycled into a separate hydroponic or subsoil irrigation system
used solely for growing decorative flower starts for selling to customers in retail
outlets. These started flowers should have
a similar turn-around time to the produce plants noted above. These could be kept separate, outside the barn
with shade loving plants on the US side and sun-lovers on the Mexican side. These flowers could be raised outside within the
triangular niches of the barn so they are out of the way, plus add some color to
the barn.
The
outside-raised nursery flowers could be simultaneously taken to sell in stores and
markets by each grower based on the number of plants each grower’s 250 gallons of
water per day will irrigate. Transpiration rates vary between plants, so a
grower may grow more cactus, succulents and aloe-vera than bamboo and decorative
grasses using the same quantity of water.
Rough Estimate of OFD
Revenue for Grower’s Budget:
Each
grower has 6 niches on the outside of the barn with (3) movable 4 ft x 4 ft planters
in each. Each planter may be filled with
4 inch pots, gallon containers, 2.5 gallon containers or 7 gallon containers. If (50) 1-gallon container plants are raised in
each planter, and ready to market in 2 months, and grosses $8 each to the grower,
grossing $3,600/mn to each grower. If there
can be found some additional outside space to grow things, each grower should have
enough water left over to grow 48 decorative landscaping trees every year. Decorative landscaping trees may sell for over
$100 each, so selling one per week might just cover a grower’s weekly fuel bill
for transportation.
Root Crop Tables (RCT):
Each
separate section of the rootstock growing table holds 66 planting tubes. There are 9 diagonal CCs on grade, each with 18
growing table sections.
9 @ 18 = 162. 162 / 8 = 20.25 sections for each grower.
66 tubes fit into each rootstock growing table section.
20.25 @ 66 = 1,336 rootstock planting tubes for each grower.
The approximate amount of daily water used by each grower for growing the rootstock plants should be 30 to 40 gallons per day.
9 @ 18 = 162. 162 / 8 = 20.25 sections for each grower.
66 tubes fit into each rootstock growing table section.
20.25 @ 66 = 1,336 rootstock planting tubes for each grower.
The approximate amount of daily water used by each grower for growing the rootstock plants should be 30 to 40 gallons per day.
Root
crops can thrive in an aquaponic greenhouse, and they tend to grow best in a large
container crossed by deep channels that allow the roots room to grow. For larger crops such as potatoes, channels must
be 8 inches deep, while for smaller carrots, 3 inches deep may suffice. I would guess that only about 32 or so plants
should be growing in each rootcrop growing table before becoming too overcrowded.
Beets.
Detroit Dark Red ((58/.75)-14 = 63); 365/63 = 5.8 cpy = .48 cpm
Early Wonder ((52/.75)-14 = 55); 365/55 = 6.6 cpy = .55 cpm
Lutz Green Leaf ((70/.75)-14 = 79); 365/79 = 4.6 cpy = .38 cpm
Ruby Queen ((60/.75)-14 = 66); 365/66 = 5.5 cpy = .46 cpm
Sweetheart ((58/.75)-14 = 63). 365/63 = 5.8 cpy = .48 cpm
Detroit Dark Red ((58/.75)-14 = 63); 365/63 = 5.8 cpy = .48 cpm
Early Wonder ((52/.75)-14 = 55); 365/55 = 6.6 cpy = .55 cpm
Lutz Green Leaf ((70/.75)-14 = 79); 365/79 = 4.6 cpy = .38 cpm
Ruby Queen ((60/.75)-14 = 66); 365/66 = 5.5 cpy = .46 cpm
Sweetheart ((58/.75)-14 = 63). 365/63 = 5.8 cpy = .48 cpm
Turnips.
Golden Ball ((60/.75)-14 = 66); 365/66 = 5.5 cpy = .46 cpm
Just Right ((60/.75)-14 = 66); 365/66 = 5.5 cpy = .46 cpm
Market Express ((38/.75)-14 = 37); 365/37 = 9.9 cpy = .83 cpm
Purple Top White Globe ((55/.75)-14 = 59); 365/59 = 6.2 cpy = .52 cpm
Royal Crown ((52/.75)-14 = 55); 365/55 = 6.6 cpy = .55 cpm
Tokyo Cross ((35/.75)-14 = 33); 365/33 = 11 cpy = .92 cpm
Kabu (turnip).
Golden Ball ((60/.75)-14 = 66); 365/66 = 5.5 cpy = .46 cpm
Just Right ((60/.75)-14 = 66); 365/66 = 5.5 cpy = .46 cpm
Market Express ((38/.75)-14 = 37); 365/37 = 9.9 cpy = .83 cpm
Purple Top White Globe ((55/.75)-14 = 59); 365/59 = 6.2 cpy = .52 cpm
Royal Crown ((52/.75)-14 = 55); 365/55 = 6.6 cpy = .55 cpm
Tokyo Cross ((35/.75)-14 = 33); 365/33 = 11 cpy = .92 cpm
Kabu (turnip).
Radishes.
Burpee White ((23/.75)-14 = 17); 365/17 = 21.5 cpy = 1.8 cpm
Champion ((28/.75)-14 = 23); 365/23 = 15.9 cpy = 1.33 cpm
Cherry Belle ((22/.75)-14 = 15); 365/15 = 24.3 cpy = 2 cpm
Comet ((25/.75)-14 = 19); 365/19 = 19.2 cpy = 1.6 cpm
Early Scarlet Globe ((23/.75)-14 = 17); 365/17 = 21.5 cpy = 1.8 cpm
Easter Egg ((25/.75)-14 = 19). 365/19 = 19.2 cpy = 1.6 cpm
Burpee White ((23/.75)-14 = 17); 365/17 = 21.5 cpy = 1.8 cpm
Champion ((28/.75)-14 = 23); 365/23 = 15.9 cpy = 1.33 cpm
Cherry Belle ((22/.75)-14 = 15); 365/15 = 24.3 cpy = 2 cpm
Comet ((25/.75)-14 = 19); 365/19 = 19.2 cpy = 1.6 cpm
Early Scarlet Globe ((23/.75)-14 = 17); 365/17 = 21.5 cpy = 1.8 cpm
Easter Egg ((25/.75)-14 = 19). 365/19 = 19.2 cpy = 1.6 cpm
Onions.
Bunching: Beltsville Bunching ((65/.75)-14 = 73); 365/73 = 5 cpy = .42 cpm
Southport White Globe ((65/.75)-14 = 73); 365/73 = 5 cpy = .42 cpm
White Buching ((40/.75)-14 = 39); 365/39 = 9.4 cpy = .78 cpm
White Lisbon ((60/.75)-14 = 66). 365/66 = 5.5 cpy = .46 cpm
Bunching: Beltsville Bunching ((65/.75)-14 = 73); 365/73 = 5 cpy = .42 cpm
Southport White Globe ((65/.75)-14 = 73); 365/73 = 5 cpy = .42 cpm
White Buching ((40/.75)-14 = 39); 365/39 = 9.4 cpy = .78 cpm
White Lisbon ((60/.75)-14 = 66). 365/66 = 5.5 cpy = .46 cpm
Carrots.
Baby Finger ((50/.75)-14 = 53); 365/53 = 6.9 cpy = .58 cpm
Danvers ((65/.75)-14 = 73); 365/73 = 5 cpy = .42 cpm
Imperator ((64/.75)-14 = 71); 365/71 = 5.1 cpy = .43 cpm
Lady Finger ((60/.75)-14 = 66); 365/66 = 5.5 cpy = .46 cpm
Scarlet Nantes ((70/.75)-14 = 79); 365/79 = 4.6 cpy = .38 cpm
Tendersweet ((60/.75)-14 = 66). 365/66 = 5.5 cpy = .46 cpm
Baby Finger ((50/.75)-14 = 53); 365/53 = 6.9 cpy = .58 cpm
Danvers ((65/.75)-14 = 73); 365/73 = 5 cpy = .42 cpm
Imperator ((64/.75)-14 = 71); 365/71 = 5.1 cpy = .43 cpm
Lady Finger ((60/.75)-14 = 66); 365/66 = 5.5 cpy = .46 cpm
Scarlet Nantes ((70/.75)-14 = 79); 365/79 = 4.6 cpy = .38 cpm
Tendersweet ((60/.75)-14 = 66). 365/66 = 5.5 cpy = .46 cpm
Parsnips.
Hollow Crown ((105/.75)-14 = 126); 365/126 = 2.9 cpy = .24 cpm
All America ((120/.75)-14 = 146); 365/146 = 2.5 cpy = .21 cpm
Harris Model ((120/.75)-14 = 146). 365/146 = 2.5 cpy = .21 cpm
Hollow Crown ((105/.75)-14 = 126); 365/126 = 2.9 cpy = .24 cpm
All America ((120/.75)-14 = 146); 365/146 = 2.5 cpy = .21 cpm
Harris Model ((120/.75)-14 = 146). 365/146 = 2.5 cpy = .21 cpm
Lotus root.
莲藕 (lian ou) Lotus root 莲藕 (lian ou) is the root portion of the lotus plant. These might be better grown in the fish and settling ponds.
莲藕 (lian ou) Lotus root 莲藕 (lian ou) is the root portion of the lotus plant. These might be better grown in the fish and settling ponds.
Taro root.
芋头 (yu tou) Taro root [K165] is a starchy tuber. It is a vegetable as well as a staple. There are other ways to use taro root, only limited by the chef’s imagination; Satoimo (taro root).
芋头 (yu tou) Taro root [K165] is a starchy tuber. It is a vegetable as well as a staple. There are other ways to use taro root, only limited by the chef’s imagination; Satoimo (taro root).
Gobo
(burdock root).
Nagaimo
(yam).
Satsumaimo
(sweet potato).
Ginseng.
A slow growing rootcrop which might be grown in the end rootcrop table without requiring grow-lights. Fresh ginseng roots are very expensive to US customers, if found. The plants are 3 years old. What is currently being sold are small pills filled with a dried ginseng powder purchased from health food stores. Half gram capsules, 60 per bottle are sold over the internet for $17/bottle, or $15/bottle if purchased in quantities of 4 or more. A half lb bottle of ginseng powder is sold for $85. A half lb plastic bag of whole ginseng roots sells for $66. A 1 lb plastic bag of whole ginseng roots sells for $128. Shipping costs are not included. The growing of ginseng is controlled by the USDA.
A slow growing rootcrop which might be grown in the end rootcrop table without requiring grow-lights. Fresh ginseng roots are very expensive to US customers, if found. The plants are 3 years old. What is currently being sold are small pills filled with a dried ginseng powder purchased from health food stores. Half gram capsules, 60 per bottle are sold over the internet for $17/bottle, or $15/bottle if purchased in quantities of 4 or more. A half lb bottle of ginseng powder is sold for $85. A half lb plastic bag of whole ginseng roots sells for $66. A 1 lb plastic bag of whole ginseng roots sells for $128. Shipping costs are not included. The growing of ginseng is controlled by the USDA.
Rough Estimate of RCT
Revenues for Grower’s Budget:
A 10 lb bag of satsumaimo (sweet potatoes) sells online for from $18 to $37, depending on the variety, and not including
shipping. Developing a method of producing
root crops hydroponically/aquaponically which increases the size of the roots or
tubers would make them more desirable.
Assuming that the satsumaimo are sold retail, (3) crops per year, @ 32 plants per
table, @ 18 tables = 1,728 plants/yr = 144 plants/mn, and 4 pounds of satsumaimo per plant @ $2.51/lb = $1,444/mn.
Assuming that the ginseng are sold
retail, if 32 plants per table, @ 2.25 tables = 72 plants, 1/3 harvested per year
= 24 plants harvested per year, harvesting 2 per month @ 16 oz per plant @ $128/lb
= $256/mn.
Barn Water Budget:
30 people work in each barn, so the packaged
wastewater treatment plants are each required to process up to 1,500 gallons of
potable water or 100 gallons per person per day. The processed water exiting these package
plants will be then used to water outdoor flowers and possibly fruit trees via
subsurface drip irrigation systems. They
may only process a small percentage of that quantity, so the minimum outflow
should be used to calculate the amount of plants grown.
Uses: Gallons
/ Day
Human Use, 3
CBP, superintendent + 2 guests ............... 600
Evaporative cooler/generators (240 @ 1 gal/hr @ 8 hr).... 1,920
Settling Ponds ............................................. 40
Each Grower (3 people):
Human Use (showers, drinking, washing, cooking) .......... 300
Vertical Growing Tubes (transpiration and evaporation)... 350
Rootcrop Tables (transpiration and evaporation) ........... 50
Germination Shelves (transpiration and evaporation) ....... 25
Fish Pond (miscellaneous leaks and evaporation) ........... 25
Fish Food Ponds ........................................... 25
Miscellaneous Tanks (nutrient mixing, replacement fish) ... 25
subtotal per grower: ..................................... 800
@ 8 growers: ........................................... 6,400
Barn total daily water use (gallons): ................... 8,960
Evaporative cooler/generators (240 @ 1 gal/hr @ 8 hr).... 1,920
Settling Ponds ............................................. 40
Each Grower (3 people):
Human Use (showers, drinking, washing, cooking) .......... 300
Vertical Growing Tubes (transpiration and evaporation)... 350
Rootcrop Tables (transpiration and evaporation) ........... 50
Germination Shelves (transpiration and evaporation) ....... 25
Fish Pond (miscellaneous leaks and evaporation) ........... 25
Fish Food Ponds ........................................... 25
Miscellaneous Tanks (nutrient mixing, replacement fish) ... 25
subtotal per grower: ..................................... 800
@ 8 growers: ........................................... 6,400
Barn total daily water use (gallons): ................... 8,960
That’s about
1,200 cubic feet (cf) or 12 hundred cubic feet (hcf) of water per day generally
going back into the atmosphere from each barn, not leaching salts into ground
water or runoff. For the Yuma area, for commercial and
irrigation use outside of the city, they charge $2.18/hcf which would amount to
less than $26.12 / day for total water usage per barn. If the growers picked up the water cost and
divided it among the 8 growers, that would be a little less than $3.27/day for
each. By 2019 the charge for Yuma water
will increase to 2.29/hcf. The daily
water cost would then be $27.50 per day or about $3.44 per grower.
Another way of
looking at this is that in Yuma, the average daily per capita customer demand
for water in 2015 was 25.6 cf. For 30 average Yuma customers taken together,
their average daily per capita water use would have been 7.68 hcf. The barn’s growers, CBP, staff and guests,
each would use (@ their maximum use) 0.14 hcf more than what was typically used
by each of Yuma’s average customers.
That is a much more efficient use of irrigation water when compared to
any traditional irrigation growers in the border region.
Although the
barns might be sited anywhere and everywhere along the border, (total number of
barns which could be squeezed within the 1,959 mile long Mexico-US border
length = 32K ~ providing agri-business & CBP employment and housing for
770K people.) Barns would first be
spaced out (directly centered on the line of the border) to accommodate the DHS
surveillance towers, at about 3.33 miles apart.
There would need to be about 600 towers along the entire Mexican-US
border. If 27 of these were placed on
the Climate Change, Experiment Station, and Experimental Greenhouse facilities,
each of which were spaced at a minimum of 6 miles apart, that would leave 573
border barns spaced at about 3.33 miles apart to provide the necessary tower
locations.
Barn/Grower Operations:
Expenses:
Land under barns and outside as required for
security, transport, access and maintenance functions is owned by the federal governments
of Mexico and US. US should pay for about
a 60 ft wide strip of private property along the border something like $131K per
mile. For 322’x60’ area along US side of
barn length it would be about $8K for land cost. To pay off the land cost in 8 years, the US barn
owners might be charged a lease of something like $1400 per year, which would be
redistributed to each of the 4 US growers at something like $30/month.
Ownership of the barns constructed half on US and
half on Mexican property would be 50% Mexican and 50% American based on whose property
the portion of the barn sits on. Their construction
costs should be equally shared. Following
does not include earthwork and surveillance equipment estimates:
(66) std ht 40 ft long CCs vertical @ $2,500 ea ............ $165.K
(15) std ht 20 ft long CCs vertical @ $1,750 ea .............. 26.K
(56) insert towers with plastic & equipt @ $3,500 ea ........ 200.K
(2) std ht 48 ft long CCs vertical @ $2,500 ea ................ 5.K
(2) hoistway lifts @ $10,000 ea............................... 20.K
(4) soil CCs @ $10K........................................... 40.K
(18) horizontal trusses, ponds, walkways @ $5K ............... 90.K
crane lifting equipment rental, hauling & labor .............. 80.K
(56) sets 5 twist anchors ea @$70 ea ......................... 20.K
(50) CY concrete @ 3 @ $100 ea + prep......................... 25.K
(112) helical earth anchors @ $400 ea ........................ 45.K
Solar panels 80KWH @ $2 / watt .............................. 160.K
(2) Battery storage banks @ $20K ............................. 40.K
Prefab interior 10 CCs @ $30K ............................... 300.K
Prefab interior 9 CCs @ $20K ................................ 180.K
(10) ponds, pumps, liners, aerators, tanks.................... 20.K
(400) vertical growing tubes @ $300.......................... 120.K
(324) rootcrop tables @ $300................................. 100.K
(1) LS planks, triangle walking surfaces .................... 100.K
(9) greenhouse roof @ $8K..................................... 72.K
(60) outside planters @ $1K................................... 60.K
Total: ...................................................... $1.9M
US half: .................................................... $1M
(15) std ht 20 ft long CCs vertical @ $1,750 ea .............. 26.K
(56) insert towers with plastic & equipt @ $3,500 ea ........ 200.K
(2) std ht 48 ft long CCs vertical @ $2,500 ea ................ 5.K
(2) hoistway lifts @ $10,000 ea............................... 20.K
(4) soil CCs @ $10K........................................... 40.K
(18) horizontal trusses, ponds, walkways @ $5K ............... 90.K
crane lifting equipment rental, hauling & labor .............. 80.K
(56) sets 5 twist anchors ea @$70 ea ......................... 20.K
(50) CY concrete @ 3 @ $100 ea + prep......................... 25.K
(112) helical earth anchors @ $400 ea ........................ 45.K
Solar panels 80KWH @ $2 / watt .............................. 160.K
(2) Battery storage banks @ $20K ............................. 40.K
Prefab interior 10 CCs @ $30K ............................... 300.K
Prefab interior 9 CCs @ $20K ................................ 180.K
(10) ponds, pumps, liners, aerators, tanks.................... 20.K
(400) vertical growing tubes @ $300.......................... 120.K
(324) rootcrop tables @ $300................................. 100.K
(1) LS planks, triangle walking surfaces .................... 100.K
(9) greenhouse roof @ $8K..................................... 72.K
(60) outside planters @ $1K................................... 60.K
Total: ...................................................... $1.9M
US half: .................................................... $1M
If their
half of the barn was a US government investment property, which they leased to 4
US growers, they would want each of the 4 US growers to try to pay off their part
of the US barn cost (of say $250K) over about 100 months. The government would need to replace things that
break or wear out, as well as hire a superintendent – not to mention the CBP agents,
so their payback at that rate might end up being much longer than 100 months. If you make the interest rate 4.5% and a payback
of 100 months, the monthly payment becomes about $3,000. Adding the $30 for leasing the land, and the $105
for the water, the cost comes to $3,135 per month for each grower.
Operating
costs will also be higher because the 80KWH from the barn solar panels is divided
among the 8 growers in the facility and of the 10 KWH to each grower, (and that
amount will become more like 7.5KWH due to the fixed positions of the solar panels)
might only be adequate for running water pumps, condenser pumps, and maybe some
low voltage task lighting, walkway lights, and kitchen use. Add an additional average $5K/mn for each grower
for additional electrical needs for pumps, heating, fans, and cooling. That makes $8,135 per month per grower paid to
the governments.
The
border region generally gets lots of sunshine, but for optimal growth, plants want
about 18 hours of light every day and 6 hours of darkness. To increase the light to the plants, provide one
8 ft GL behind each two VGT, above the rootcrop tables and within the diagonal CCs
for the starter plants and sprouts. The lights
for the starter plants and sprouts will run 18 hours per day, the lights for the
rootcrop tables will average about 6 hours per day, and the lights for the vertical
growing tubes will be on for an average of about 4 hours per day.
Each
8 ft T5 tube burns 75 watts per hour.
Each grower has 500 GLs for VGTs, Rootcrops, and sprouting, and will run each 75W light for an average of 8 hours, = 300 KWH, costing about 10.22 cents per kWh or $30/day for $930/mn, say $1,000/mn.
Each grower has 500 GLs for VGTs, Rootcrops, and sprouting, and will run each 75W light for an average of 8 hours, = 300 KWH, costing about 10.22 cents per kWh or $30/day for $930/mn, say $1,000/mn.
(paid to governments for their solar energy generated on the border wall.) Added to the $7,835 above = $9,135 facility lease
and utility expense per month per grower paid to their government.
Labor expense:
Each
grower’s VGTs and fish tanks together should average 185 hours of work needed per
week combined. The RCTs should take 10 hours
of work and the sprouts 15 hours of work per week. Besides the full time grower, two full time hands
are needed to accomplish the work of each grower’s system, each paid $15/hr for
12 hours work per day for 6 days per week, amounting to $180/day each including
one paid day off per week plus room and board.
The full time grower works for profits.
So monthly labor expense for each grower is $10,920 plus cost of meals. Produce which is good to eat but doesn’t meet
the eye-test for market can be used for the grower’s and hands’ food needs, but
an additional $345/mn for food and other incidental costs should be added, bringing
monthly expense subtotal to $20.4K/grower.
Cost of Goods Sold (COGS):
Including
seeds, fertilizer, plugs, packaging, all of the direct inputs, estimate $15K per
month per grower.
Costs for Regulatory Fees,
Insurance, Transport and Misc:
Estimate
another $5K per month per grower to cover costs for licenses, fees, transportation
of goods to market, marketing, accounting, Legal, etc. Any services needed to help run each grower’s
business. Transport is based on fuel costs
for 2 trips @ 200 miles round trip twice a week.
Estimated per Grower Total Monthly
Expenses:
$40.4K.
Estimated per Grower’s
Gross Monthly Receipts:
From VGTs: ........................................... $53.3K
From RCTs: ............................................ $1.7K
From Sprouts: ........................................ $14.4K
From OFDs:............................................. $4.K
From fish: ............................................ $4.K
Total estimated gross receipts per month per grower: . $77.4K
From RCTs: ............................................ $1.7K
From Sprouts: ........................................ $14.4K
From OFDs:............................................. $4.K
From fish: ............................................ $4.K
Total estimated gross receipts per month per grower: . $77.4K
Estimated per Grower Monthly Profit:
$77.4K - $40.4K = $37K.
It is
hoped that each grower can figure out ways to increase their monthly receipts by
finding more lucrative specialty markets such as ginseng and dragon fruit. With good marketing the ratio of expenses to profit
for growers could achieve 40% (expenses) to 60% (profit).
Barn Ownership:
Federally Owned and
Operated:
The barns could be owned directly by the two federal
governments. Like the Climate Change facility,
the Experiment Stations and the Experimental Greenhouses, the barns could be joint
ventures between Mexico and the US who would jointly operate them, pay their expenses,
and collect and share revenues (if any) from their operation. The federal governments could use them to produce
non-commercially available plants for use in land reclamation and other projects
where plant materials needed to fit into the natural landscape are not available
from other sources. Another possibility would
be to operate them by prison trustees, and possibly undocumented migrants awaiting
their case reviews, in order to furnish fresh produce and fish to military commissaries,
remote fire fighters, federal prisons and detention camps, academies, naval ships,
food stamp recipients, and to furnish to contracting producers of MREs for overseas
soldiers. The facilities may be sited on
lands already held in trust by the Federal government and the barns turned over
to the tribe there to grow some of their own ethnic foods. Finally, the federal government may replenish
warehoused emergency food rations for use at a time when a national emergency might
be declared. Part of the operation of each
barn is to provide border security, patrolled by 3 CBP agents and 3 Mexican border
guard agents who are to have access throughout the entire barn.
Federally Owned and State and Municipality
Operated:
The barns would be owned directly by the two federal
governments. The (Mexican) Municipal and
the (US) State governments whose land the federal governments acquired would operate
them without making lease payments to the federal governments, provided their initial
cost to the federal government was pretty reasonable. The Municipalities and States, like the federal
governments, have needs for food for their State prisons, for schools, and for State
programs like meals on wheels, fight hunger, feeding the homeless, etc. Prison trustees, or those entrusted by the State
or Municipality to work under minimal supervision might work in the facility. Part of the operation of each barn is still to
provide federal border security, patrolled by 3 CBP agents and 2-3 Mexican border
guard agents who are to have access throughout the entire barn to verify and maintain
its effectiveness in controlling transnational border migration. Since the facility would be on federal land, federal
laws would take precedence.
Federally Owned and Individual Grower Operated:
The barns could be owned directly by the two federal
governments but leased to growers (50% Mexican and 50% American) who would operate
and collect revenues from their own operations.
Individual growers could be 4 Mexican, 4 American individual growers, to
1 Mexican and 1 American corporation, or any combination in between, provided the
50-50 ratio is kept. Where the grower was
the previous owner of the property the lease amount could be reduced appropriately,
provided the sale price of their property to the government is also appropriately
reduced. If the grower is a corporation,
say like a pharmaceutical, they may require secrecy in some of their operations
as far as patented processes, GMOs, etc.
Although part of the operation of each barn is to provide border security,
patrolled by 3 CBP agents and 2-3 Mexican border guard agents whose access throughout
the barn may be required for border security, care would need to be exercised not
to infringe on corporate rights to control their legal proprietary data (secrets.)
Vetting of Immigrants:
Applicants for immigration to the US might be asked
to spend some time working in one of the border barns, where they may be studied
and vetted over time. This may improve the
accuracy of the vetting process.
Footnote comments:
[K1] Mexico operates what is known as a Temporary Resident Visa, intended for people who wish to live in Mexico for more than 6 months and not longer than 4 years. The Temporary Resident Visa is a renewable, long-term (>6 months) permit which gives non-immigrant temporary residency status to the holder. The visa is issued for one year, and can then be renewed for a further 1, 2, or 3 years (i.e. 1+3 = 4 years max); this visa can optionally give work permissions, and allows unlimited entries to, and exits from, Mexico. This means that it gives a person holding the permit the right to live in Mexico for up to 4 years under terms as set out in the visa.
[K1] Mexico operates what is known as a Temporary Resident Visa, intended for people who wish to live in Mexico for more than 6 months and not longer than 4 years. The Temporary Resident Visa is a renewable, long-term (>6 months) permit which gives non-immigrant temporary residency status to the holder. The visa is issued for one year, and can then be renewed for a further 1, 2, or 3 years (i.e. 1+3 = 4 years max); this visa can optionally give work permissions, and allows unlimited entries to, and exits from, Mexico. This means that it gives a person holding the permit the right to live in Mexico for up to 4 years under terms as set out in the visa.
[K2] A few decades ago, early, on a weekday morning
on the Mexico-US border of San Luis, just south of Yuma, I witnessed about a dozen
or more yellow school busses parked in the lot to the west of the border crossing
station, with loads of Mexican children climbing aboard. Doubtless, these children were brought back to
the parking lot every afternoon at the end of school. None of these children went through a CBP check. There was a substantial fence there, two layers
deep now? There was a small gap between the
guard station and the fence, presumably to let the guard station get re-sided, or
maybe washed, where I saw a couple Mexican lads squeeze through just to avoid the
waiting line inside the guard station. They
must have had low body fat because that gap was not big. They were laughing out loud together like “no
big thing” and also were not bringing in anything noticeable with them. Pedestrians and cars from south of the border
were crossing daily into the US there also, maybe to work in Yuma as day laborers? San Luis Rio Colorado was (is?) a bedroom community
of Yuma, just as other bedroom communities exist across the rest of the US. Some daily commutes within the US take much longer
than the border crossing there, like the train ride from Connecticut or even Albany,
NY into the city, or the LA freeway commute.
[K3] Most applicants applying for a non-immigrant visa
are temporary visitors coming to the United States for business or pleasure. “B-1”
visas are issued to temporary visitors for business and short-term training; “B-2”
visas are issued to temporary visitors for pleasure. Most Mexican nationals are
issued a combined Border Crossing Card and B-1/B-2 visa either in the form of a
card (BCC/Laser Visa) or a foil affixed to their Mexican passport (BBBCV).
[K4] Political boundaries are boundaries that have
been set through conquest, earlier partition of an older state or kingdom or empire,
or any number of man-caused events that ended with a settlement in which the various
parties involved came together and agreed upon a settled border or area of demarcation
between two or more states.
[K5] France did not extend the Maginot line to
the English Channel because it did not want to offend neutral Belgium. If France had extended the line it might have
taken Hitler more than 6 weeks to defeat them.
[K6] The political boundary belongs to the nations
on both sides of the boundary. Boundaries
are shared resources, whether imaginary lines, natural barriers, or man made out
of concrete and steel. The boundary serves
both nations.
[K7]It took about three weeks for the USSR to halt
Hitler’s armies outside Moscow at great cost.
Hitler’s blitzkrieg was stopped by 300,000 women and children of Moscow who
dug the necessary physical barriers by hand (tank traps and redoubts) capable of
halting Hitler’s mechanized armored spear point and providing effective defilade
for Stalin’s artillery.
[K8] In 1882 not many Jews lived in Palestine. Five waves of Jewish immigration between 1882
and 1939 changed their cohabitation of Palestine from friendly to angry on the part
of the Palestinian Arabs, whose absentee Arab landlords sold their properties to
the Jews. The Palestinian Arabs who were paid less and had fewer employment opportunities
than the illegal Jewish immigrants, grew in their resentment as Jewish numbers increased.
[K9] Israel maintained military control over the WB
and took unused lands to make settlements for more and more Jews coming to Israel
from around the world. 1/6th of
the settlers in the WB were illegal immigrant Americans.
[K10] Up until then, Israel was seen as a tiny, brave
nation surrounded by hostile Arab nations. Palestinians
won the first intifada because they carefully presented themselves as victims of
a vastly superior Israeli military. Avoiding the use of weapons
other than the stone, and taking full advantage of the television camera, the Palestinians
transformed Israel's image into that of an oppressive state that condoned the murder
of little children in the street.
[K11] This time PLO resorted
to violence, including suicide bombers, and gave up their power of weakness. This time Arafat and the radical elements in the PLO “supported”
Israel’s effort because their suicide bombing campaign gave Israel the moral authority
for complete freedom of action. In 4GW, what
seems weak is strong and what seems strong is weak.
[K12] Some people who may be under more stress in their
daily lives than they can handle (young men with no work, and no perceived future,
seeking to impress women and each other?), can be triggered by perceived ethnic
slights into cruel vengeful acts of violence, even while knowing they will receive
severe punishment. A good barrier can slow
the spread of such inclinations towards violence currently found in Mexico from
spilling over into the US. Some Mexicans
from concealed positions inside of Mexico have been reportedly shooting at US police,
CBP, and ranchers, knowing they (the snipers) are politically immune from punishment
by the US. Maybe it is a planned attack aimed
at triggering a violent response by us in order to fan it into a PR incident, counting
coup for the MSM?
The
same seems true of many of the efforts of the Soros-funded activists such as La
Raza, and those black-hooded vandals of the college campuses and downtown riots,
the BLM rioters, the violence-professing college professors, the leftist-leaning
MSM.
BO’s
arming of the Mexican drug cartels with “fast and furious” and the democratic politicians
currently encouraging their base to “resist” are two other examples tied to the
wicked incitement of ethnic instability for political gain.
Brain-washed
(or paid off) communist minions hoping to incite a general insurrection amongst
the majority Hispanics for political instability and their own gain. Inciting angst and division amongst the ethnicities
to destabilize society is the beginning of 4GW.
Saul Alinsky, who learned from his one-time employer Al Capone’s “Enforcer”
Frank Nitti, how to use violence to obtain political ends, was the mentor of the
current DNC’s leadership.
[K13] These inspectors had broader arrest authority. They mostly pursued Chinese immigrants who tried
to avoid the US “Chinese exclusion” laws.
These patrolmen were “Immigrant Inspectors”, assigned to inspection stations. They could not watch the border at all times.
[K14] Officers were quickly recruited for the new positions,
and the BP expanded to 450 officers. The
US provided the agents with a badge and revolver. Recruits furnished their own horse and saddle. The US supplied oats and hay for the horses and
a $1,680 annual salary for the agents. Agents
got uniforms in 1928.
[K15] The
first BP Academy opened as a training school at Camp Chigas, El Paso, in 1934. Although horses remained the transportation of choice for
many years, by 1935, the BP began using motorized vehicles with radios. Rugged terrain and the need for quick, quiet transportation
guaranteed that horses would remain essential transportation to the BP even to the
present day.
[K16] An added 712 agents and 57 auxiliary personnel
brought the force to 1,531 officers. Over
1,400 people were employed by the BP in law enforcement and civilian positions by
the end of WWII. During the war, the BP provided
tighter control of the border, manned alien detention camps, guarded diplomats,
and assisted the Coast Guard searching for Axis saboteurs.
[K17] The Act governed
primarily immigration to and citizenship in the US. This Act unified statutes of the 1917 and 1924
Acts governing immigration law and organized them into one body. BP agents could then board and search any conveyance
for illegal immigrants anywhere in the US.
[K18] BP began expelling adult Mexican males by boatlift
from Port Isabel, Texas, to Vera Cruz in late 1954. Repatriation programs proved expensive and were
ended because of cost.
[K19] During
the Cuban missile crisis of the early 1960s, Cuban defectors living in Florida flew
aircraft out over the ocean in an effort to harass their former homeland. US made this harassment illegal, and assigned
BP to prevent unauthorized flights. BP added
155 officers, but discharged 122 of them when the missile crisis ended in 1963.
[K20] The Hart–Celler Act abolished the quota system
based on national origins that had been American immigration policy since the 1920s. This Act was to change the US immigration policy
conform to the immigration policies set out by the UN. The 1965 Act marked a change from past US policy which had
preferred northern European immigrants who were more easily assimilated into, and
who were more compatible with the cultural values of the US (Western Christian cultural
values ~ equality before the law, innocent until proven guilty, government of laws
and not of men, property rights, the sanctity of contract, personal honor, respect
for women, etc.)
In removing
racial and national barriers the Act significantly altered the demographic mix in
the US. Hart–Celler maintained the per-country limits, but also created preference
visa categories that focused on immigrants' skills and family relationships with
citizens or US residents. The bill set numerical
restrictions on visas at 170,000 per year, with a per-country-of-origin quota. However, immediate relatives of US citizens and
"special immigrants" had no restrictions.
[K21] Infrared night-vision scopes, seismic sensors,
and a modern computer processing system helped the BP locate, apprehend, and process
those crossing into the US illegally.
[K22] Agents and technology were concentrated in specific
areas, providing a "show of force" to potential illegal border crossers.
[K23] A defined national strategic plan was introduced
alongside Operation Gatekeeper and set out a plan of action for the BP into the
future. With illegal entries at a more manageable
level, BP was able to concentrate on other areas, such as establishing anti-smuggling
units and search and rescue teams such as BORSTAR.
[K24] Funding requests and enforcement proposals were
reconsidered as lawmakers began reassessing how our nation's borders must be monitored
and protected.
[K25] That 1989
mile number does not make sense when you just count up the individual sections. 1,255 + 534 + 24 + 141 = 1,954, not 1,989. Where did the other 35 miles go? Also of interest was the 1933-1938 Rio Grande
Rectification Project which straightened a stretch of the river, reducing its length
from 155.2 miles to 85.6 miles. If such a
reduction ratio could hold for the rest of the Rio, then the existing stretch of
1,255 miles could be reduced to about 692 miles. That would reduce the total Mexican-US continental
border to about 1,391 miles.
[K26] This treaty’s “border region” extends 37 miles
to the north, 37 miles south, 37 miles east out into the Gulf of Mexico and 37 miles
west out into the Pacific.
[K27] By 2009, CBP
reported that it had over 580 miles of man-made barriers in place. Existing constructed physical barrier inventory
is said by DHS to be over 700 miles today, and is expected to be both increased
and improved by DJT’s Administration, if funded.
[K28] For example, the boundary between France and Spain
follows the peaks of the Pyrenees, the boundary between Chile and Argentina - the
peaks of the Andes, while the Alps separate France from Italy.
[K29] The initial cause for the barrier’s development
was to protect the fragile environment and wildlife of the NPS from the damage and
disease brought by migrating animals into the Organ Cactus Reserve east of Yuma. Later US policy expanded border fencing for human
migration and national security.
[K30] The US Army called for volunteers for their
expedition. My family’s relative was 106
years old at the time, and according to a newspaper report of the day tried to sign
up to serve in the US Army for the expedition.
They thanked him but were sorry that the old timer was past their upper age
limit. The newspaper said he was suffering
from dementia. He lived another 3 years.
[K31] Mexico’s failure to match the US level of effort
to enforce the border may have been because of the drug gangs and organized crime
which are so prevalent throughout Mexico today, were already corrupting the Mexican
government by the late 1960s - early 1970s.
[K32] The state of the existing barriers caused both
ranchers and public institutions problems with protecting their properties from
the ravages of illegal border crossers, to also defending their very lives against
increasingly militarized coyotes and narco-terrorist insurgents, not to mention
providing humanitarian aid to undocumented migrants when left stranded to die in
the desert by Mexico’s human trafficking coyotes.
[K33] SBInet replaced two former programs, America’s Shield Initiative and the Integrated Surveillance Intelligence System. Both of
these programs had similar goals, but were scrapped due to bad management and the
failure of equipment performance. DHS decided
instead to have development of SBInet managed by a single private contractor. Boeing
was required to design, develop,
test, integrate, deploy, document and maintain the optimum mix of personnel, technology,
infrastructure, and response capability to defend the northern and southern borders.
Boeing was to manage every aspect
of the implementation of SBInet; their job even included such things as recommending
new paradigms for the way CBP agents operate, training maintenance personnel to
repair their products, and guiding construction of facilities to house additional
CBP offices required for SBInet. Additionally,
Boeing was required to integrate their program into existing infrastructure and
equipment systems wherever possible. A pilot
section of SBInet was required to be completed and operating within 8 months after
contract signing, but Boeing missed its deadline for delivery. Boeing had subcontracted out most of the design,
development, implementation, and maintenance of the program, while handling the
management themselves. Some subcontractors
missed their target deadlines, delaying the overall pilot program completion date.
[K34] PDAs were to have finger print identification
technology, allowing CBP agents to identify an individual at the interdiction site
immediately and view and control tower cameras from their PDA. In addition, CBP agents were given laptops in
the patrol car that would provide them information needed to safely approach any
given threat.
[K35] Janice Kephart of the Center for Immigration Studies
defended SBINet, writing, "SBInet is still operational where it was deployed,
despite the widespread notion that the light switch was turned off on both the Tucson
and Ajo sectors due to cancellation. The
reason SBInet is still operating is because it works."
SBInet
might have also been cancelled because its efficacy might have had a negative impact
on democratic~party voting block numbers.
[K36] Spanish language speakers of the period heard
a lot of US people singing a popular song of the day “green grows the lilacs…” which
was just nonsense sounds to them. “Green-grows”
or “gringos” stuck as a mild racial epithet.
[K37] A cotton company executive wrote then 28th
POTUS WW, “Personally, I believe that the Mexican laborers are the solution to our
common labor problem in this country. Many
of their people are here, this was once part of their country, and they can and
they will do the work.”
[K38] Thousands of agents were dispatched to the Mexican
border, stopping illegal immigration by car for the first time.
[K39] It was projected to cost $39M and reduce border
apprehensions from 100,000 per day to 5,000 per day for those 13 miles.
[K40] Illegal immigrants shifted away from traditional
crossings into privately held land, causing landowners to fence their property.
[K41] 34-year old Faustino Romero Zepeda, from Mexico,
was arrested and “deported” for illegally doing business on tribal land in the US
and was barred from entering the US for five years.
[K42] Everyone now shows international travel documents
when crossing by car or plane. US announced
that a section of the barrier had been wrongly sited and had to be removed and relocated.
[K43] If the US welfare state did not provide “free
stuff” to undocumented migrants coming for welfare instead of work, the numbers
of illegal migrant welfare cases would decrease. Those who enter the US to do major criminal activities
hide among the much larger number of border crossers. Decreasing the total number would make spotting
and arresting the organized criminal gang members much easier.
[K44]
To take
marketplaces within the US from their competition, Hispanic (as well as all other
ethnicities) drug gangs advertise their competitive strength by being as vicious
as possible. Their targeting of police shows
rival gangs they are not to be ‘messed with’.
[K45] … such as the right to expect that the US
corporations to care for their air and water – that they not be polluted or overused…
[K46] It would be interesting to determine the
success vs amount of money the Netherlands spends on their narcotics “treatment”
programs and compare that to the US methadone programs…
[K47] Or, if the US had the political will to further
increase the surveillance state, to occasionally surprise blood test (or hair sample
or breath test) all US residents and to quickly and efficiently execute recreational
and habitual illicit drug users, the demand for illicit drugs would decrease.
[K48] The CIA has been alleged to
be involved in the importation and distribution of illicit drugs into the US. They allegedly used the drug profits to fund their
black ops. The drug war was also allegedly
used to eliminate competition to the CIA’s own distribution network. US military involvement in Afghanistan was also
reported to be in order to return the farmers there to growing the poppies for the
international heroin trade of which the CIA is allegedly a part. After Russia left, the Taliban stopped poppy production. To re-establish the opium supply the US military
invaded to overthrow the Taliban in favor of the rule of northern Afghani drug lords. The US Military is currently protecting and guarding
the farmers’ growing poppy fields for harvest.
The Taliban now compete because it is morally OK for them to sell the opium
to hurt the nation of the American invaders.
[K50] Just a thought, but the protection of the culture
of our founders is the real “wall” needing to be built throughout our nation, separating
us from our enemy which works against both the greatness of America and the greatness
of God. Each of us need to keep – or rebuild
- that moral wall within us. We are each
the restrainer of God’s enemy who seeks to reside within us. Where our own walls need rebuilding, that is where
we must start. MAGA cannot happen until a
better morality among our people is promoted and successfully returns. Psychologists may pooh-pooh it all they want,
but eliminating the kakistocracy from positions of leadership in our nation is the
greatest benefit of all DJT is doing for us.
[K51] The stated policy of DJT's executive branch is
to:
“(a) secure the southern border of the United States through the immediate construction of a physical wall on the southern border, monitored and supported by adequate personnel so as to prevent illegal immigration, drug and human trafficking, and acts of terrorism;
“(a) secure the southern border of the United States through the immediate construction of a physical wall on the southern border, monitored and supported by adequate personnel so as to prevent illegal immigration, drug and human trafficking, and acts of terrorism;
“(b)
detain individuals apprehended on suspicion of violating Federal or State law, including
Federal immigration law, pending further proceedings regarding those violations;
“(c)
expedite determinations of apprehended individuals' claims of eligibility to remain
in the United States;
“(d)
remove promptly those individuals whose legal claims to remain in the United States
have been lawfully rejected, after any appropriate civil or criminal sanctions have
been imposed;
“(e)
cooperate fully with States and local law enforcement in enacting Federal-State
partnerships to enforce Federal immigration priorities, as well as State monitoring
and detention programs that are consistent with Federal law and do not undermine
Federal immigration priorities.”
[K52] The "parole and asylum" provisions used
to prevent the removal of illegal aliens is to be discontinued. DHS will ensure that Federal immigration laws
are not exploited to prevent the removal of illegal aliens. DHS will ensure that credible and reasonable fear
determinations are consistent with plain language. DHS will parole illegal immigrants, on a case-by-case
basis and in accordance with the plain language of the statute, and only when the
individual demonstrates good reasons for such parole. DHS will ensure that illegal alien children are
processed, receive care and placement while in custody, and safely repatriated.
[K53] Federal foreign aid (bilateral and multilateral
development, economic assistance, humanitarian, and military aid) to Mexico for
the past 5 years was supposed to be reported by the heads of all the federal agencies
and departments to the State Department by now, who were to report to DJT.
[K54] The treaty made the US pay $15M to Mexico and
the US also paid off claims of US citizens against Mexico of up to $3.25M. It made the Rio Grande as a boundary for Texas,
and gave the US ownership of California and a large area comprising roughly half
of New Mexico, most of Arizona, Nevada, and Utah, and parts of Wyoming and Colorado.
[K55] The Senate modified Article IX, changing the first paragraph and
excluding the last two. Among the changes was that Mexican citizens would "be
admitted at the proper time (to be judged of by the Congress of the United States)"
instead of "admitted as soon as possible", as negotiated between Trist
and the Mexican delegation.
[K56] After February of 1849, many of the ill-treated,
dispossessed new US citizens then crossed the new border back into Mexico. Assuming Congress acted in a timely manner, under
the treaty of GH, they would still have the status of US citizens, because they
did not formally renounce their US citizenship.
[K57] If half of the 72,000, or 36,000 people moved
back and forth between Mexico and the US, 169 years = 8 generations and with the
average fertility rate of 7.3 children to Hispanic mothers in 1960 which did not
slow much until these last few years…. If
everything was optimal, the population rate would increase at about 2.5 times the
initial number per generation, so the total effected number could be up to about
55M people.
[K58] What is the real (DNA and genealogy) status of
the 11M to 40M illegal migrant Mexicans in the US whose ancestors may well have
lived here at the time of the GH Treaty, giving them US citizenship under the Treaty
terms, as well as another 20M to 40M Mexicans in Mexican border states whose ancestors
also may well have lived here at the time of the GH Treaty, also giving them US
citizenship too? How many migrants really
are illegal, and how many have legal US citizenship under the terms of the GH Treaty? The US government really should work together
with the government of Mexico to get their peoples’ citizenship status right, rather
than assume that the NAU will eventually make the point moot point.
[K59] The Immigration Reform and Control Act (IRCA),
enacted November 6, 1986, required employers attest to their employees' immigration
status; made it illegal for them to hire illegal immigrants knowingly; legalized
certain seasonal agricultural illegal immigrants, and; gave green cards to 3M illegal
immigrants who entered the US before January 1, 1982 and had resided in the US continuously
with the penalty of a fine, back taxes due, and admission of guilt; candidates were
required to prove that they were not guilty of crimes, and that they possessed some
knowledge of US history, government, and English language.
[K60] Being “sanctuary” States and localities is also
about political pandering to special interest groups by the local political elitists,
and to businesses and industries continuing to abuse the illegal immigrants’ residence
status against them, to increase their own business profits, at least enough to
keep from going broke within such fiscally irresponsible jurisdictions.
[K61] US treatment of undocumented resident Mexicans
must be considered prejudicial until the US determines whether they have a legal
right to be here, or not.
[K62] The Great Wall of China is 13,000 miles long and
the Berlin Wall was 96 miles long. The 440
mile long Israeli West Bank barrier is also a security barrier against terrorism.
"You
know, the Great Wall of China, built a long time ago, is 13,000 miles. I mean, you're talking about big stuff. We're talking about peanuts, by comparison to
that."
[K64] Other estimates are higher. The existing border fence cost about $2.4B. Building the rest of it would cost between $15B
and $25B, with an annual maintenance cost of $700M, according to an estimate by
Marc Rosenblum, deputy director of US Immigration Policy Program at the Migration
Policy Institute, cited in a report in 2016.
[K65] Lawmakers will consider a supplemental funding
package that will contain some combination of defense and border security funds. GOP leaders have been told that the spending has
to have a way to pay for it.
[K66] DJT administration will have to deal with the
border treaty with Mexico that limits where and how structures
may be built along the border. The 1970 treaty
required that structures cannot disrupt the flow of the rivers, which define the
US-Mexican border along Texas and 24 miles in Arizona.
[K67] During the government’s call for proposals, Gleason
Partners, a small, Las Vegas-based construction-supply firm proposed building a
wall of cement, steel, and solar panels.
Each mile of wall would cost $7.5M, with each mile generating 2 Megawatts
(MW) of electricity. This power could then
be sold and fed into the electrical grid on both sides of the border. The cost of electricity to Yuma, AZ customers
is between 11 and 12¢ per kWh, making the mile of solar paneled wall able to earn
about $1,750 to $2,000 per day, if it received retail value.
Ignoring
overcast sky losses, debt service and maintenance, the mile of wall would earn a
little over $57K per month. If the cost of
the fence quoted above ($7.5M) is borrowed at a 4.5% loan rate for a 30 year loan
the required monthly payment would be $38K.
The $19K per mile of fence left over per month after paying debt service,
could be used to pay towards the maintenance of the fence as well as towards the
added cost of border agents, detention facilities, etc.
[K68] One of DJT's key focuses has been ending "catch and release,"
where undocumented migrant criminals who are apprehended and processed are released
back into the US on parole pending further court proceedings. Released criminals then often commit more crime
within the communities. DJT vowed to end
that policy, needing more places to securely detain these criminals.
[K69] DJT may introduce business acumen to government
hiring practices to reduce some of the problems existing in the big government culture
there. The slow rate of hiring border agents
has been a problem of the agency. Anti-corruption
laws require border agents to pass polygraph tests to find the less corruptible
of candidates. Even the entrance exam is
a barrier, as 40% of applicants failed to show up or schedule one. It has been difficult finding qualified people
who want to work in remote border regions.
Perhaps they might ask past Maricopa County Sheriff Joe Arpaio to help find suitable candidates?
[K70] The 9th Circuit Court of Appeals upheld the block,
but the SCOTUS unanimously overturned the lower courts blockade of DJT's EOs while
they have also agreed to try those cases involving his EOs.
[K71] DHS memo says that there may be some kind of facility
set up south of the border so that the proceedings could be carried out remotely
via teleconference. In a Q&A on the new
policy, DHS said it was working with the Mexican government. The memo addressed legal and practical caveats,
saying the policy will be applied “consistent with the law and US international
treaty obligations” and “to the extent appropriate and reasonably practicable.”
[K72] Only those personal plane fly-overs which not
only file flight plans with the FAA but also receive written permission from DHS,
allowing the private plane owners to fly across the border following the specific
time and place of the approved border crossing.
As would occur in overflights of highly restricted top secret military bases,
violators such as smugglers attempting to fly across the US border without permission
could be given radio warnings in several languages to turn back first, then covered
by search lights as a secondary warning, and then shot down.
[K73] It is probable that Mr Rosenblum was not looking
at just the construction cost from lowest price solutions. The Gleason and DJT estimates may not have included
land acquisition cost and legal battle costs.
Also, building a 40-50 ft tall continuous wall out of concrete, bricks or
CMU and mortar in some of the most inhospitable building sites, plus add enough
solar panels to provide 2 MW per mile (380 watts/lf) at $2/watt or more, perhaps
construction costs estimated by Rosenblum make sense.
[K74] In school my friends and I used to play a “what
else could this be used for?” game, laughing and holding up anything at hand and
saying all the adaptive reuse possibilities…
Maybe if we all look about we can find other elements which might be useful
to constructing a border barrier?
[K75] These containers are being replaced by shippers
with high cube containers which are 9.5 ft high. Now there are lots of 8.5 ft high CCs for sale
at very good prices. Also, if the US brings
back manufacturing into the US there ought to be additional CCs which would otherwise
only be clogging up the ports storage yards.
With their corrugated sides they do not provide good aerodynamics for use
as trucking containers (increasing drag and fuel consumption over smooth sided containers
by 10%.)
[K76] Assuming the number of cargo containers sitting
unused in American ports are in the neighborhood of 45M, there are many times the
number of shipping containers needed that are existing and sitting available to
construct a 40-50 ft tall southern border barrier.
[K77] Cargo container twistlock anchors are designed
to hold loaded cargo containers steady on board container ships in rough seas and
weather, so they should be adequate for land-based applications bolted into concrete
footings…
[K78] I ignored the required dirtwork as figuring the
topography, lengths and cost differences between solid rock and sand, goes beyond
my meager abilities…
[K79] If the barrier gets covered with graffiti, maybe
that could be a good place for people who receive government welfare and are now
required to work for it may provide the labor to remove the graffiti or paint over
it?
[K80] Tops of CCs need to be placed to level. That limits their applicability to those areas
which have not previously been fenced. Solid
and discontinuous rock with very steep topography costs too much to create the stepped
foundations needed. Where occasionally needed,
stepped foundations may provide for grade changes when it is more economical than
cutting or filling the existing grade. Where
horizontally adjacent CCs offset vertically, add welded-on twistlock anchors and
receivers for horizontal attachments. To
reduce the size of individual foundation steps at grade changes reduce the length
of CCs from 40 to 20 or 10 ft.
[K81] Removal of portions of mountains
without having to worry about finding places to put spoil piles nor having to make
environmental impact statements about placing such spoil piles on fragile natural
landscapes, and instead filling CCs would be limited by the weight limit of CCs
rather than volume, but would still be beneficial.
[K82] Place resulting material that has been turned
into compost-planting mix within modified CCs and delivered back to growers’ barns.
[K83] For example, an EIFS system adding insulation
and stucco or adobe appearance could be done for about $500/lf of full barrier height
per side.
[K84] CCs would be secure hard-wired with interconnected
video, video conferencing, computer, telecom and other equipment as needed. Tower systems could be mounted atop a stacked
CC wall, similar to those proposed for SBInet system towers. CCs used
for security personnel space could be tipped up and a scaffold construction lowered
in which would contain all insulation, room finishes, dividers, doors, plumbing,
equipment, wiring, etc. before CC placement in the wall.
[K85] If adequate ramps were provided atop the border
barrier at level changes, CBP agents would be able to use motorized vehicles to
quickly move along the top of the barrier to nab those attempting to scale their
way across it. Otherwise, if welfare recipients
could be used as additional eyes atop the wall, then even wheelchairs or mobility
scooters could transit along the top of the wall when using ramps at vertical offsets.
[K86] The security wiring and solar panel electrical
wiring along the border barrier needs to accessible to the CBP security staff and
solar power electrical engineers. These utilities,
as well as water pipelines could be placed within a continuous utilidor running
the length of the border.
[K87] Federal property not subject to State and local
community property and other taxes might also make it possible to provide rudimentary
housing for the otherwise homeless? The DHS
border facility might also be able to provide benefits to other agencies’ clients
as well. CBP could inspect premises on demand
to ensure that the security of the border is maintained, or less-invasive technology might be used as noted above.
[K88] Just as the salinity of the Colorado required
the US to provide many water treatment and desalination facilities (some of which are currently reaching
the end of their useful life while some sit idle) in order to ensure
the water quality of the Colorado flowing into Mexico per treaty requirements, so
the Rio Concho is increasing in salinity.
Together with the salinity from the Pecos river the bank salinity of the
Rio Grande downstream of El Paso has become extremely high.
[K89] Water availability is getting more and more critical
and portends big problems not only for the future of food production by the corporate
and individual growers in this region, but also for fragile natural landscape ecosystems here. And climate change problems are certainly not
going to be limited to only the border regions…
[K90] Solutions are needed by both Mexico and the US
now, even if climate change does not cause the expected devastation by itself, since
the region’s existing aquifers have already been heavily over-drafted. And, even though Mexico is much more centrally
planned, and the US is supposed to be less so, there should be interest in collaborating
on joint ventures working towards solutions to our shared problems. Not only between the central governments of the
two nations, but between the individual States, adjacent cities, towns, local communities,
businesses and individual ranches and farms on either side of the border.
[K91] About 80% percent of globally cultivated land
is done by dryland farming, amounting to 60% of world food production. Using methods to enhance efficient and creative
water use in dryland agriculture has the potential to increase production. Productivity of irrigated land is more than three
times that of unirrigated land. Around 40%
of the world’s food is produced on the 20% of land which is irrigated. The monetary value of the yield of irrigated crops
is more than 6 times that of unirrigated crops because crops with higher market
values tend to be grown on irrigated land.
[K92] Today, when a person straddles a political
borderline, part of their body is in one nation or state and the other part of their
body is in another. There is an infinitesimal
part of their body that is in both nations at once. What if that width was slightly widened? Where people within a wider borderline could be
considered to be in both nations at the same time. The political borderline would still bisect a
wider borderline, but being within the borderline facility would be like being within
an embassy within another nation, for both nations.
[K93] Two nations’ heads are better than one. Another truism might be that just as with human
health, the earth’s biosystems require proper hydration.
[K94] Those US people working in this facility will
be required to learn conversational Spanish, while those from Mexico would learn
conversational English prior to their being stationed here. By working and living together the common concerns
of the bordering nations as well and their differences can be better appreciated
by those making laws and regulations for their own nations but which effect the
success on the operations of each other’s nation.
[K95] Growers with better water conserving techniques
must be given the opportunity to compete with existing growers (with water use permits)
since water resources are already tight.
[K96] Where border barns, using highly water conserving
practices, are starting up and need the assurance of a steady market, the federal
governments will provide a floor, or base, market price for the growers, so they
can have a period of time to gradually develop their own markets. Products purchased from the growers can be processed
for long term storage, as well as delivered for feeding prisoners, food stamp recipients
and others.
[K97] All of the joint venture facilities, as well as
all commercial facilities designed to serve both the Mexican and US border regions
would be built directly on the border, and would thus also serve as part of the
border barrier.
[K98] Three on the border between California and Baja
California, spread out but centered on distinct climate regions/ecosystems along
the border; four on the border between Sonora and Arizona, similarly spread out;
and locate two on the border of Chihuahua and New Mexico. Assume four facilities would also be placed in
Texas, Coahuila and Tamaulipas on either side of the river with immigration controlled
bridges to the adjacent country (as long as they don’t interfere with the flow or
quality of the river).
[K99]Study, classroom, and sleeping facilities would
be provided for boarding of vetted professional scientists, department staff, political
science and environmental major college students and professors, from both Mexico
and US, especially those from the border region, who do volunteer or minimum wage
work in the facilities. Unless grant-funded
for doing specific projects within specific regions, educational staff and students
might be rotated through all experiment stations to get a better idea of the commonalities
and specificities of climate change effects on each border region by hands-on experience
in them.
[K100] Silvaculture, including the analysis of climate
change on aquatic life as well as the microbiology of sediments would be part of
all experiment station studies, but more so for those stations along the Rio Grande/Rio
Bravo del Norte. Modification of raw data
to suit model predictions would not be allowed.
Sensors will be laboratory calibrated annually in accordance with their manufacturers’
instructions to reflect temperatures or other intended data as accurately as possible.
[K101] Example, after testing in the lab, if the experiment
station wished to distribute a proposed soil microorganism over a native habitat
test area of a previously damaged ecosystem to see if it could improve or restore
it as modelled and shown in the lab, and provided a workable method to again remove
that microorganism without further damage to the other biota of the test area, it
would then propose the procedure to the proper department personnel within the climate
change facility who would make arrangements perhaps for a USAF, NPS or NFS spray
plane to undergo thorough cleaning of its tanks, loading with the microorganism
mixture, and oversee its application to the test area. The experiment station lab would then carefully
monitor and examine the results for unexpected consequences. An airport runway would be a good thing to have
adjacent to each facility.
[K102] Study H+-ATP processing in native
plants vs market crops. Look at differences
in how guard cells respond to environmental cues; stoma density; stoma diameter
during transpiration H2O vapor drive out & CO2 intake;
cuticle thickness; boundary air films and hairiness of leaves and stems; differences
in photosynthesis; differences in structures of typical tissues involved in transporting
H2O from roots to the leaves, etc.
If plants typically transpire 99% of water for cooling without incorporating
nutrients to grow the plant, can that ratio be changed? If plants were cooled by other means could water
use become more efficient?
[K103] Also, these facilities should work with the FDA,
Fish & Wildlife, and other Federal, state and municipal departments responsible
for vector control, who may control what growers are allowed to plant as well as
import and export, or which ranchers may raise as well as import and export.
[K104] Prior to working within experimental greenhouses,
personnel whose first language is English will learn conversational as well as written
Spanish and personnel whose native language is Spanish will learn conversational
as well as written English. Part of the functioning
of these experimental greenhouses is to share as many findings with our nation’s
neighbors as practicable. Also, to function
as smoothly as practicable, it will be important for personnel to cooperate with
each other in the operations of the facility.
It is also hoped that the people from each nation might acquire consciousness
and concern for the ethnic backgrounds of each other and gain appreciation and understanding
for the lives of those from the other side of the border.
[K105]
Also,
the experimental greenhouses may do work for other agencies such as BREC, BLM, NPS,
etc., whose remediation procedures for work done on and adjacent to natural landscapes
require updating to account for climate change.
[K106] For example, some systems are now solar powered
and tubing materials have changed. There
are many styles of drip inserts which can be incorporated into the hoses and soaker
hose segments can also be used.
[K107] Drip systems are more suitable for high value
vegetable gardens than for grain crops. Care
needs to be taken to avoid build-up of salts in drip-system soils. Within the last two decades, the area irrigated
using drip and other micro-irrigation methods has increased more than six-fold,
to over 10M hectares.
[K108] As an example, researchers have improved cassava
varieties over the past four decades which can increase yields two to four-fold
over traditional varieties. Traditional millets
require little water and can grow in poor soils without any synthetic fertilizers. Millet is a heat resistant crop which has high
calcium and fiber content as well as essential amino acids. In addition, drought tolerant crop seeds are available
both through biotechnology and from native seed varieties. Examples of drought tolerant seeds available today
include corn, rice, and cotton. Just as importantly,
there are flood resistant rice seeds available.
[K109] SRI methodology is based on four principles:
● Establish healthy plants early and carefully, nurturing their root potential.
● Reduce plant populations, giving each plant more room to grow above and below ground and room to capture sunlight and obtain nutrients.
● Enrich the soil with organic matter, keeping it well-aerated to support better growth of roots and more aerobic soil biota.
● Apply water purposefully in ways that favor plant-root and soil-microbial growth, avoiding flooded (anaerobic) soil conditions.
● Establish healthy plants early and carefully, nurturing their root potential.
● Reduce plant populations, giving each plant more room to grow above and below ground and room to capture sunlight and obtain nutrients.
● Enrich the soil with organic matter, keeping it well-aerated to support better growth of roots and more aerobic soil biota.
● Apply water purposefully in ways that favor plant-root and soil-microbial growth, avoiding flooded (anaerobic) soil conditions.
[K110] Farmers using the system are encouraged to practice
crop rotation with legumes. These practices
together lengthen the growing season and improve the soil’s structure, fertility,
and moisture retention. They improve crop
growing in both droughts and floods. Average
maize yields have increased five-fold in Namibia since using this system. This method of rainwater harvesting especially
aids in regions where soil is dry, solid, and crusty. Whereas the rain previously
ran off, now it soaks into the ground right where it is needed to grow the crop.
[K112] If a subsurface drip irrigation system costs $1,000
to $2,000 per acre and lasts 12 - 15 years, or up to 20 years with good maintenance,
so if the currently prevalent center pivots last 20 to 25 years, these subsurface
systems must last 10 - 15 years to be economically competitive.
[K113] Other than black plastic film, which can only
be used one season, black woven landscape cloth is often used, which can be reused
up to seven years. Organic mulches such as
straw, hay, grass clippings, pine needles, and leaves also conserve moisture. These
organic mulches add organic matter to the soil after they decompose. One needs to
pay attention how different organic mulches can change the soil chemistry, however. Finally, green living mulches, or cover crops,
can help to conserve moisture -if the right cover crop is used for the right agricultural
crop- given its soil and climate conditions.
[K114] A hand pump can be installed in sand dams to access
the deeper, stored, clean water. Fruit and
other trees can be planted near the dams and grass can be added for erosion control. To construct the dams, workers line up to dig
a deep trench which is filled with concrete and the rainy season backfills the new
wall with sand over several rainy seasons.
These walls might be 90 meters long and 2-4 meters high. Located across small rivers which stop flowing
in the dry season, the sand becomes about 40% saturated with water and can hold
2 to 10 million liters.
[K115] These are often discarded at construction sites. You first need to drill one or two 1/32 inch or
smaller holes towards one side of the bottom of the bucket. Set it next to your small tree and fill with water
every 1 to 2 weeks. You may move it to the
opposite side of the tree each time you refill it. Or, you can connect a small tube from the bucket
into the soil to slowly irrigate. Gravity
does the remainder of the work for you. If
you have a row of seedling trees for a new windbreak, you can refill your water
buckets from a tractor water tank if you have one.
[K116] Pastures have reduced soil and fertilizer run
off compared to cropped fields and barnyard herds. The animals hooves help break up the soil surface
allowing better water penetration and their manure fertilizes the plants and makes
healthy microbial life in the pasture soils.
The input costs for the farmer are low and he or she sells “grass” in the
form of meat on the hoof.
[K117] When rain falls, the organic soils absorb the
water instead of running off the surface and taking soil with it. During periods of drought, healthy crop roots
can access the stored water present in the organic field soils. And by practicing crop rotation, soil retains
more water, reducing erosion and the need for irrigation.
[K118] Sheep are drought tolerant. During the cooler season sheep require little
or no supplemental water beyond their forage intake. Navajo-Churro Sheep are a drought-resistant breed
which is tolerant of temperature extremes and can subsist on marginal forage with
minimal grain. Dorper sheep (see photo above)
is a hardy, popular breed in South Africa.
Originating in arid conditions, it is highly adaptable to many environments. Dorper’s have been popular in the US since 1995. Free range chickens are also efficient meat producers
requiring a small amount of water.
[K119] As an example, results from use of deficit irrigation
have been dramatic for wheat production in Turkey.
[K120] Mycorrhiza has the potential to bring poor and
degraded lands back into cultivation. It
is possible to encourage mycorrhiza growth in soils by adding compost to your garden
soil, by not using synthetic chemicals, using minimum tillage, rotating crops, and
growing cover crops. By cold composting,
or mulching your garden with shredded leaves each fall, you can promote optimal
Mycorrhizal fungi growth. Or, it can be purchased
and added directly to sterile potting soils, or degraded soil.
[K121] Since these experimental greenhouses will
do a lot of work on water quality and desalinization of the Rio Grande, they should
coordinate closely with BRec’s Water Quality Improvement Center in Yuma.
[K122] In addition to growing within the greenhouse facility,
develop more efficient traditional farming practices on test plots for more arid
regions. Where shown to be successful, demonstrate
practices to local corporate and individual growers and ranchers in the region.
[K123] Since there is no economic incentive for the experimental
greenhouses to give corporations a pass, or not thoroughly verify the safety of
the corporations’ products, the consumers purchasing the products in the marketplace
would be less inclined to doubt their findings.
[K124] Since the 13 experiment stations and 13
experimental greenhouses each house security towers they need to be about 3.33 miles
apart. If CCs were used for the border barrier
between them and each CC held 8 sets of bunk beds, housing for the 542,000 cases
backlogged could be fit within the border barriers between these 13 sets of facilities.
[K125] Where CCs and anchors are already installed as
part of the border barrier and barns are to subsequently replace a section of the
barrier, the appropriate amount of CCs and anchors would be removed, the foundations
redone, and the barn constructed. Additional
fencing may be required to maintain border security during construction operations.
[K126] In lieu of setting CCs horizontally as they are
designed to be used on board cargo ships, 5-units stacked, one atop of the other,
creates a 43.5 ft tall barrier.
[K127] The gaps can be filled with foam insulation
like crawlspace plugs if temperatures need to be artificially maintained.
[K128] Once the barn core and shells are sold to a particular
owner, with land rights leased from the governments with monthly payments from the
barn owners to the governments (which are then distributed by the federal government
directly to the States and counties or individual landowners to ease land acquisition
costs or other issues) then the barn owner and their growers consult with experimental
greenhouse staff, choose from the several options of insert towers available at
the factory, or have the towers customized to fit their particular needs. Different factories compete to provide different
towers.
[K129] This allows the CCs to be pre-placed, forming
a barrier wall quickly, while internal construction is fabricated more efficiently,
and easily installed, making only the necessary cutout CC openings other interior
platforms, and plug-in equipment and utility connections to be made on site.
[K130] These were originally designed to be used for
transporting things over the Great Lakes instead of over the oceans
[K131] Hoists bring vertical growing tubes with their
fully grown plants to the place within the barn where their plants are harvested
and packaged, ready for shipment to market.
The tubes are checked over, cleaned, replanted with new seedlings, hoisted
back up to the appropriate level and reinserted into the vertical growing tubes
system. The 48 ft long hoistway CCs are fitted
with additional receivers and connected to the adjacent 40 ft CCs with twist anchors.
[K133] Overnight stays by guests, surveillance or barn
equipment manufacturer’s representatives or repair men, or produce delivery truckers
awaiting morning loading help can be provided via bunks above the CBP beds. The CBP quarters may also be used as a room for
sick or injured growers as well as CBP agents awaiting paramedics for transport
to a medical facility. Remote facilities
might have airstrips or helipads suitable for both border patrol activities and
lifeflights. Helicopters may also be used
with infrared sensors to scan remote regions for dehydrated undocumented migrants
needing water, food, emergency medical and other assistance.
[K134] House cleaning of the solar panels from dust might
be done by people who receive government welfare and are required to work for it.
[K135] CBP staffing requirements would be set by
DHS & CBP, but I imagined 3 people, one in each of 3 shifts providing border
and facility security around the clock. Possibly
overlap shifts when deliveries arrive and depart so there would be “eyes on” on
both sides of the facility, and checking outgoing vans for stowaways.
[K136] As federally owned land, State and county taxes
on the land would not apply. And, payments
by the federal government to previous landowners could include non-taxed interest
provided the purchase principle cost is lowered. Or, maybe the original landowner (or the government)
would prefer the prior landowner to sell their property and barn to the federal
government and then lease it back? That way
the land and the improvements would not be owned by the prior landowner and would
not be subject to State, county and local property or inventory taxes.
[K138] If it was possible for them to afford to buy them,
it might be a good investment for them to develop barns. One might supply all the produce needed for their
own tribe’s use, to produce foodstuffs for their individual tribal members’ daily
meals. Additionally it might also furnish
produce for special occasions, such as Elder meals, meals for those in assisted
living, meals on wheels for those living in their own place but needing some help
to cope with everyday activities, pow-wow and other special event meals, such as
Elder honor days - where they host and celebrate tribal Elders of other tribes. And, if they own a casino, a second barn to furnish
produce for their casino’s associated restaurants.
[K139] They could sell tax-free municipal bonds to other
jurisdictions within their state to build core and shell barns offering better returns
than other investments.
[K140] The non-border State and Municipal investors would
receive dividends from their investment based on the given rate, which would come
from lease payments from individual growers to the border region barn owners. This way the opportunity for improving the financial
conditions of other jurisdictions’ retirement, healthcare and other HR programs
could be shared with non-border jurisdictions.
[K141] Absentee owners of the barns would probably need
to hire a bilingual superintendent or couple whose job would be to ensure the proper
and continual operation of the equipment of the barn to the grower tenants, whose
rents or lease payments would cover the superintendent’s salary as well as government
debt service payments. The superintendent
could also be someone who previously worked at an experimental greenhouse. Use of the 10th CC Quarters unit could
be included as part of this superintendent’s salary.
[K142] However, if that remaining joint venture partner
objects to that governments proposed backup partner, they have to continue to acquire
whatever labor is needed to run their previous partner’s operations to the satisfaction
of their prior partner’s customers, billing the government for the provable costs
and turning over the proceeds to the government.
[K143] The proposed core and shell barn pattern, starts
at the SE corner unit and is 26 vertical CCs installed parallel with the border
and located inside Mexico as diagrammed, one vertical 48 ft CC attached to and aligned
with the previous 26, then the SW corner vertical CC attached to and aligned with
the 48 ft CC. Place another vertical CC to
the north and attached to the northernmost edge of the SW corner unit and whose
own northernmost corner falls on the border line. Then two more verticals to the north attached
to and aligned with the previous two, with the last one being the NW corner unit. Repeating this arrangement along the northern
side (except that it is installed inside the US border) will get one back to the
starting point of the SE corner.
[K144] Also install the prefabricated scaffold towers
for the sinks, toilet rooms, small sized packaged or fabricated sewage waste treatment
plants and grower’s cold rooms in the bottom layer.
[K145] The remainder of the barn construction awaits
the finding and leasing of spaces to individual growers, unless the barn owners
choose to select them themselves and make any in-place modifications to existing
scaffold towers later on, on an as needed basis, and provide generally suitable
towers to better ensure a non-delayed construction schedule.
[K146] Bilge pumps are placed within removable
heavy duty 5 gallon plastic buckets within slightly larger buckets which will stay
in place. The bilge-pump housing buckets
will have non-corrosive bird screen to allow the fish pooh to pass, but block the. Both buckets will have numerous 5/16” holes drilled
in their sides for drainage. Water plants
will also be in removable buckets inside other stationary buckets which allow the
water plants to be harvested by hooking and pulling on the nylon ropes attached
to the buckets. Pea gravel is to prevent
fish from disturbing plants growing medium.
[K149] In lieu of three tanks, it would also be
possible to use two tanks and meter the water from the two to provide the calculated
nutrient output desired.
[K150] Note that each grower has control of their
own NKP mixture, but not the temperature range of the facility, unless control of
temperature is agreed between all growers.
The barn cannot be individually controlled for optimum temperature.
[K151] If raising say tilapia and catfish together, provide
a screen with an opening size required to keep them separated, but large enough
for water plants to grow through. Catfish
below and tilapia above. Also note that the
raising of some fish (e.g. tilapia) is regulated by some States F&W Departments.
[K152] One lb fresh tilapia fillets are sold for
just under $9 online, with a minimum order of $40, and a shipping charge of $7. Another online store sells frozen tilapia for $14/lb with free shipping on orders
over $200 to certain states. Amazon shows prices from $8/lb to
$15/lb depending on quantity purchased. Growers
who could deliver to restaurants within a few hours packed in ice should probably
be able to sell the freshly killed fish for $7/lb gutted and scaled.
[K153] Water plants can be grown for marketable produce,
for sales as decorative pond plants, and for feeding the fish. The lotus plant seed pod as well as the root is
prized in Asian cooking as are others. Some
water plants also provide a very good food source for the fish.
[K154] Each 7 ft tall (inclined 22.5” at the top to the
north) ‘vertical’ tube has to be individually removable and hoisted down to the
inside of the diagonal CCs, which will have mobile growing units for starting plants
(from seeds) with grow lights and misting, and tables for the harvesting, packaging,
replanting, hoisting back up to the proper level and reinserting into the system
of vertical growing tubes.
[K155] The water and nutrients from the tube directly
above flows into the tube below by gravity, except that by removing the tube below
the water and nutrient flow is stopped, until that tube is re-inserted. Water returning from the plant growing systems
are returned to the settling ponds which, like the fish ponds and the water fed
to the plants are also oxygenated by pumping air through them.
[K156] Every bit of water is reused over and over again,
an impossibility in traditional, soil-based agriculture. Since it is recirculated and recycled, water is
never discharged in aquaponics.
[K157] To reduce losses through evaporation, cover all
water tanks except the fish ponds. Covers
of plastic film held on with bonji cords will also reduce the chances of mosquitos
laying eggs in the tanks.
[K158] In the barns proposed above,
most water leaks would simply go back into the fish and settling ponds and be recaptured. However, the increased nutrients provided to the
plants may not be a good thing for the fish, so it is still a good idea to constantly
monitor for leaks.
[K159] Aquaponic farms can run a 4,000 gallon system
with a little over (200) 5 ft vertical growing tubes, replacing only 40 - 60 gallons
of water each day due to loss.
[K161] That relates to an evaporation plus transpiration
of from 5/8th cup of water to less than a third of a cup of water used
by each plant per day.
[K163] Yuma/San Luis is near the highest elevation
along the border, so they have close to the coolest winters there, but also summers. Check all climate variables.
[K164] Note that the vertical growing tubes grow
sprouted plants (4 good leaves = 3 weeks in the mobile cart) rather than insert
seeds directly into the vertical tubes.
[K165] There are so many ways to use this root. It can be roasted, sliced and fried, boiled and
mashed or grated and shaped. It is also known
as cocoyam or dasheen. There is a popular
dish in Singapore Chinese restaurants where mashed taro is shaped into a ring and
deep-fried. It is then used to hold stir-fried
bell peppers, pork nuggets and cashew nuts.
It is yummy. It is also a key ingredient
in sweet dessert known as bubur chacha. Another
popular dessert is what we commonly call the yam paste. It is a traditional Teochew festive dish. Lots
of lard mixed with ground taro and sugar.
For soups, it is best to be cut into cubes or thin slices and fried before
adding to the soup. There is a substance
just below the skin of the taro root which can cause skin irritation. Use a glove when peeling the taro root and wash
the peeled flesh well. Taro root must be
cooked thoroughly. It can be boiled or steamed
or microwaved.