Meet Your Farmers – Part 2

 Myron

Myron
I grew up in Gaithersburg, Md and have lived in the area since 1970. I have about four years of college, but I never completed a degree, nor have I really needed one. While in college, I worked in an accounting department and discovered that working behind a desk was not for me. I worked for 14 years in the Washington DC area as a finish carpenter and cabinet maker working on high end custom homes and additions. That gave me experience to be able to restore the house on our first farm and the house on our current farm.

I am the farm manager. This year, we have made some changes since we have a lot of good help on the farm. I am freed up from some of the day to day work to put more focus on planning, taking care of the finances, feed formulation for the hens, writing the newsletter, and other management responsibilities. I am a farmer at heart and still spend a significant part of the week working with the guys on various aspects of the farm.

As you may have realized from reading my articles in the newsletter, I love to research various subjects. We have a number of websites where I have published my research. In addition to farming and health related research, I have also done considerable research on spiritual subjects and issues facing the church. I am currently writing a book exposing the rampant sexual abuse of children and other failures among Amish and conservative Mennonites. Cathy and I both grew up in the Mennonite Church, but we no longer consider ourselves “Mennonite”.

I love farming and producing high quality, health giving food. I love learning, and what I am finding about the soil, farming, and how it relates to health, is like an unexplored pioneer frontier and adventure to me. Like George Washington Carver, I keep asking God to teach me and it is amazing the things that He reveals is the oddest places. I don’t feel like I have all the answers, because the more I learn the more I realize that life and farming is not as simple as I thought it was.

Daniel

Age 18

Daniel is our third oldest son and is working full time on the farm. His responsibilities include raising the broiler (meat) chickens, and taking care of the new baby chicks. While all of us guys do mechanic work, Daniel is the one with the most intuitive knack for seeing what is wrong with a machine or motor and how to fix it. It is great to have his mechanic skills here on the farm. He bought a fixer upper tractor and has been working on it and learning a lot about diesel motors. He is also a natural at doing electrical work.

He also built a blacksmith shop that we featured several years ago in a newsletter.

Daniel is musically talented and plays the accordion and sings baritone and bass. He also follows in his father’s footsteps by being a natural tease.

Grass Fed is Best? A Horror Story From our Living Lab

To hear some people talk, you might get the impression that raising chickens and animals on grass is the secret ticket to success in farming and to health. With grassfed, there will be no more problems and the chickens and animals will excel far beyond conventional farming methods. Any grass is good. All you have to do is get the animals out on the grass, in the sunshine and fresh air.

That is not true.

Before you think I fell off my rocker, I will state that I believe that grass fed is BEST! But, as you will see, not all grass is best or even able to properly sustain life.

I was shocked and very disappointed with the large amount of weight loss that our sheep experienced after only 16 days in the new silvopasture. Two specialists from the Maryland Extension service, had visited the silvopasture just before the sheep were put into the new pasture. They were very impressed with what they called the “high dairy quality” of the grasses and clovers. They were concerned that the forage would be too lush, too rich for the sheep and that they might bloat (their stomachs fill up with gas) . On the contrary, the sheep did not bloat and we were in for a big surprise when we weighed the sheep.
The 54 Adult Sheep : lost (-345.5 lbs.) total in the 16 days between May 14 & 30, 2015. This number included rams (males), ewes (females) with lambs, and year old females that were not bred. Many of the nursing mothers lost 10 to 15 lbs!

The 48 Lambs: gained significantly less than they did the 16 days before they were turned into the Silvopasture:

Gain between 4/28/15 & 5/14/15 (16 days) = 465.5 lbs. an average of .61 lbs of gain per day before being in the silvopasture.
Gain between 5/14/15 & 5/30/15 (16 days) = 209.1 lbs. an average of .27 lbs of gain per day
Weight gain difference = -256.4 lbs.

While these weight losses were very disappointing, they showed how dramatically different pastures can be. Grass fed will not produce healthy animals and poultry if the soil is not built up properly. The main part of our farm, where the lambs gained the most, probably had the same quality of grass as the silvopasture eight years ago when we first moved here. We applied some principles that we learned from Carey Reams and some that we had developed on our own from some of his teachings and it made a dramatic improvement in the pastures. The main concept is that at least 80% of a plant’s nutritional food/energy comes from the air. By building up the soil and foliar feeding the plants with milk and honey, we were able to increase the amount that the plants were able to take out of the air. One of the main things that we did was to repeatedly mow our pastures and let the grass lay on the ground. We have explained this in some of our other articles.

I also need to add that there were also a few other things that likely contributed to the weight loss – over maturity of some of the grasses and grazing too long for the quality of the forage.

What was significant was that on the main part of our farm, the pasture alone, with no grain feeding, produced a weight gain of .61 pounds per day in the 16 days before the lambs went onto the silvopasture. That is exceptional for grassfed only and comparable to grain feeding.

Mike Neary, Ph.D., Extension Sheep Specialist at Purdue University says this about lambs in the 45 – 80 lb range, which was the size of most of the lambs that we put on the silvopasture: “Lambs with high to moderate growth potential that are fed a grain based diet with proper amounts of protein should gain from .5 to .8 pounds per day…
“If lambs are grown on high levels of forage [pasture], then one can expect slower gains than if fed diets with a high amount of grain. Gains for lambs grown on pasture will normally be from .25 to .5 pounds per day.” http://ag.ansc.purdue.edu/sheep/articles/feedlamb.html

During the 16 days in the silvopasture, the lambs averaged .27 lbs of gain per day which is at the bottom end of what Neary said is the expected gain for lambs on pasture. However, the results were actually worse than that. During the time that the sheep were in the Silvopasture, it appears that from the amount of weight that the lactating ewes lost, they gave the fat off their backs to their lambs and that is why the lambs gained and did not lose weight like their mothers.

Last week we weighed a few of the ewes and lambs when we were sorting out the lambs to take to the butcher. We were encouraged that they were gaining weight again. Those lambs had gained about .67 lbs a day in nine days. We do not have the data yet for all the lambs.

The lesson in all of this is that all pastures are not the same and will not give the same health qualities to the eggs, meat and milk that they produce. The same is true of fruits and vegetables in the store. They may look beautiful, but be lacking in the nutrition to adequately sustain life.

Sheep grazing what appeared to be very lush forage in the silvopasture demonstration plot.
Sheep grazing what appeared to be very lush forage in the silvopasture demonstration plot.

The soil in the 8 acres in the silvopasture is about as chemical free as it will get. It has been probably at least 20 years since it had any chemicals or chemical fertilizers put on it. It also had not had any animals on it or any farming activity for at least 10 years before the silvopasture was established; therefore, it did not have the immediate negative affects of chemicals or bad farming practices. The forage specialists had recommended the grasses and legumes to plant to reduce the amount of tall fescue grass that was in the pasture. Tall fescue has a toxin in it that negatively affects sheep and cattle. Those grasses and legumes had been planted and looked beautiful as you can see in the picture.

In spite of the problems, I am looking forward to what we will be able to accomplish in the silvopasture. I feel that we have a solution, by repeatedly mowing the silvopasture to build up the soil. We also will be spraying milk, honey, and egg as a foliar spray to increase the photosynthesis and brix (sugar) of the pasture grasses and legumes. In the next three years, I believe that we will see a very significant improvement in the pasture growth and nutrition in the silvopasture, and a significant growth increase in the trees over the trees planted in the adjacent fields.

For me, the silvopasture gave me a reference point that showed that we had indeed improved our pastures from when we first moved to this farm.

The Importance of Recycling Energy, Part 2: How to sequester carbon in the soil

This is a continuation of Part 1 in the September Jehovah-Jireh Farm Newsletter on the importance of recycling energy.

Note: Using organic farming methods to sequester carbon in the soil is an important subject that was presented to our government officials several weeks ago. Since I wrote part one, I found out that Mark Smallwood, the director of Rodale Institute, walked from Rodale Institute in Pennsylvania to Washington D.C. to hand deliver a White Paper detailing research proving that regenerative organic agriculture can absorb carbon from the atmosphere and reverse climate change. The White Paper is titled: Regenerative Organic Agriculture and Climate Change, A down-to-earth solution to global warming. The full text of the White Paper can be found at: http://rodaleinstitute.org/regenerative-organic-agriculture-and-climate-change/
Incidentally, Mark Smallwood used to work for MOM’S Organic Market in their main office in Rockville, MD. and also helped us one time to process chickens at our old farm.

 

We today have an important opportunity to make a significant step forward to sequester carbon, build topsoil, control erosion, and feed the world through organic farming. There are many that are greatly concerned that we have irreparably harmed the environment, are destroying life, and leaving future generations with an environmental mess because our excessive use of fossil fuels. Many feel hopeless and that too many people do not care what they are doing to the environment.

There is hope!

Plants to a large extent were the original source of our present day fossil fuels. Plants are also a key element in recycling energy and putting the CO2 gasses back into the soil where they belong.

There are a number of ways to sequester carbon in the soil. What I want to share with you is a simple, easy method that we have used here at Jehovah-Jireh Farm.

In the first seven years here on this farm we have sequestered approximately 325,570 lbs of Soil Organic Carbon on 35 acres. That represents recycling as much CO2 as the yearly output from approximately 146 cars. That was accomplished by increasing the soil organic matter on most of the farmland by almost one percentage point. That is without spreading organic matter or fertilizers other than lime. The only manure was the droppings from chickens when they are on the pasture and from the sheep and cows while they are grazing. The amount of  carbon sequestered is according to soil tests that were taken at the end of 2013. It represents the carbon sequestered in the top six inches of soil, although there has been much more carbon than that sequestered at greater depths in the soil. 

The method that we used to sequester the carbon was letting the grass grow a foot or more tall and then grazing or mowing the grass and letting it decompose into the soil. This is a method that we discovered as we mowed the grass in the American chestnut orchard located here on the farm and observed the significant increased growth of the grass and the increased growth, vigor, health, and blight resistance of the American chestnut trees. Mowing pasture grasses is one of the best, the easiest, and cheapest of fertilizers.

Grasses often have more root mass and depth than the mass and height of grass above the ground. When the grass is mowed from a height of 24″ down to 4″, the roots slough off to correspond to the amount of grass left above the surface. As these roots that sloughed off decompose, they build organic matter in the soil to the depth the roots had been. It is not just the organic matter on the surface of the ground from the mowed grass that contributes to the organic matter of the soil.

Pasture based farming, using rotational grazing and managed mowing, is an important method of sequestering carbon in the soil in a very stable manner. Rodale Institute has proved that the proper organic crop growing methods are also an important carbon sequestering method. It is my opinion from my observations and research that pastures can sequester carbon faster, easier, to a greater depth, and have it more stable in the soil than can be accomplished with organic crop farming methods. That does not mean that sequestering carbon by organic crop farming methods is unimportant; it is important. But what it means is that globally we can sequester much more carbon by raising animals on pasture in pasture based systems rather than growing grain and feeding the animals grain in confinement operations. Plus, the grass-fed meats with higher omega-3 fatty acids are much more healthy for the consumer.  

Typical response of grasses to grazing. Above ground growth is more lateral and roots “die back” to match needs of above ground biomass. Diagram C. Luke 2011 http://www.sonoma.edu/preserves/prairie/management/restoration.shtml

 


http://kansasgraziers.blogspot.com/2013_10_01_archive.html
Up to 90% of a plant’s mass is in its root system. What is below the soil is much more important for sequestering carbon than what is above the soil. The plant on the far right has much more root mass than the mass that is in the grass above the soil level. The grass clump on the far left sloughed off most of its roots when it was cut short. The roots can then decompose and build carbon deep in the soil where it will be stable and stay in the soil for a very long time.

The above illustrations show the importance of managing plant roots by grazing and mowing to build carbon in the soil. The roots below the soil are more important for sequestering carbon than the grasses above the soil. This is significant, because it allows us to utilize the grass for feeding livestock and producing an income from the land while at the same time using the roots to sequester carbon deep in the soil, making the soil more drought resistant, reducing rain run off and erosion, and making the soil more fertile.

The depth that carbon is sequestered in the soil is important. Carbon that is greater than 12″ deep (30cm) is very stable in the soil. The Rodale Institute’s White Paper points out the importance of depth in the sequestering of carbon:
“It is likely that current data sets underestimate soil organic carbon stocks in organically managed systems because soil carbon is often measured at plow depth when recent findings suggest that more than half of the soil organic carbon stocks are likely in the 20-80cm depth. Beyond 30cm in the soil profile, the age of carbon increases continuously, much of it persisting for thousands of years.  How carbon acts in this subsoil range is poorly understood, but increasing rooting depth, application of irrigated compost (compost tea), choosing deep rooted grass-legume cover crops and encouraging earthworm abundance are all promising pathways for introducing carbon to depths where it is likely to remain stable over long periods.” (p. 10)

To get the greatest depth of roots in the soil, it is important that grasses be allowed to grow at least a foot or two in height before grazing or mowing. Grasses in home lawns will not be able to contribute much to carbon sequestering because they are never allowed to grow very tall.

One more plus to mowing pastures in addition to sequestering carbon is that it creates a beautiful manicured farm landscape. Beautiful pastoral farm landscapes do a soul good like a medicine. We need to create more beauty around us.
Our charcoal/biochar kiln experiment at Jehovah-Jireh Farm.

In 2009 we experimented with making charcoal to sequester carbon and to build up our soils. Inside this charcoal kiln were five metal 55 gallon barrels filled with split firewood. We made six batches of charcoal to use in the garden and in the chicken bedding. Making charcoal/biochar is labor intensive. In half of our garden, we applied about an inch and a half of charcoal and incorporated it in the top six inches of soil in a three foot wide by 70 feet strip perpendicular across the various rows of vegetables . Unfortunately, we did not see any improvement in growth, drought resistance, or brix improvement to the plants grown in the charcoal enriched soil in any of the years since then. Five years later, there is no noticeable difference in the color of the soil where the charcoal was applied.

Our experiment with biochar was not successful. It does not mean that charcoal/biochar is an ineffective method of sequestering carbon in the soil. The Terra Preta soils in South America show otherwise. Charcoal/biochar is a method that needs more research. 

There is much more to learn about how to sequester carbon and to build topsoil using atmospheric carbon. We want to experiment with increasing the brix (sugar content) of our pasture grasses. By increasing the photosynthesis of the plant leaves, the sugar (and carbon) content of the plant can be increased. The plant sends these sugars to the roots to feed the roots and microbes in the soil. By increasing the sugars in the plant, we should be able to significantly increase the carbon sequestration in the soil.

There is much more that we would like to experiment with to improve the soil. We thank you for your support of our farm in buying our farm products. Your support is what enables us to do these experiments in our living laboratory (the farm).

The Importance of Recycling Energy, Part 1: The answer to feeding a growing world population

What you are about to read is a different perspective than what you normally hear about our use of fossil fuels. We have within our reach the ability to solve many of the environmental problems that we face today with the use of “non-renewable” energy sources — crude oil, natural gas, and coal. We get the impression from many scientists that our use of fossil fuels that we are removing from the earth is polluting our environment with unnatural toxins that should not be there and that we are creating a big environmental problem with greenhouse gases. But their field of view is too narrow and pessimistic. We have the opportunity of recycling fossil fuel energy back to it original form. In the process, not only can we solve many of these environmental problems, but we can significantly increase food production to feed a growing world population using organic methods. Chemical farming and GMO’s are not the answer for increasing food production to feed the world.

To see the solution, it is necessary to see the bigger picture of what fossil fuel energy really is and how it can be recycled. Fossil fuels are formed from the remains of dead plants and animals that were buried many years ago. In Pennsylvania, layers of coal can range from a few inches to 10 or 12 feet thick. To make coal or oil, plant and animal matter is highly compressed. Now try to imagine how many plants it would take to make a layer of coal that was only one foot thick.  What those layers of coal and oil tell us is that many years ago the soil was highly productive and produced vast amounts of vegetation that in some locations was likely much greater than anything we have seen in modern times.

In physics, The Law of Conservation of Energy states that energy cannot be created or destroyed, but it can change form. Energy is said to be conserved over time. In the case of fossil fuels, when they are burned the energy is not destroyed but rather changes form. A significant portion becomes carbon dioxide. But before we go further, we need to back up and look at where fossil fuels came from in the first place and look at the carbon cycle. First,  in very ancient times there was very fertile topsoil that was rich in carbon. That very fertile soil produced vast amounts of plant matter. The plant matter was buried and over many years was converted into fossil fuels. Today, fossil fuels are being removed from the earth and burned and vast amounts of carbon dioxide are being put into the air. What we need to do is to capture that ancient topsoil that is now floating in the air as carbon dioxide and put it back into our topsoil. If we can accomplish that we have the potential to significantly increase food production.

The bottom line is: gasoline came from topsoil, we burned it in our car and put the “topsoil” in the air. It is interesting that many of the oil rich countries, such as Iraq and Saudi Arabia, are largely desert countries. Their topsoil is buried way below the surface in the form of oil. (It is interesting to note that the Garden of Eden, with its lush vegetation, would have been in their general area.) They are pumping their topsoil out of the ground as oil and selling their topsoil to us to burn in our cars. We are burning their topsoil and using the energy for transportation. In the process we have put their topsoil into the air where it is polluting the environment. Our responsibility and opportunity now is to recycle the topsoil out of the air and put it back in the topsoil where it belongs.

Why it is important to recycle energy back into our topsoil
Why is it important that we recycle carbon out of the atmosphere and put it in the soil? We have a great opportunity to restore soil productivity back to the way it was right before fossil fuels were formed. The carbon dioxide in the air is an important resource that we need to utilize.

The main difference between topsoil and subsoil is the carbon content in the topsoil. The carbon content is usually referred  to as organic matter. By increasing the carbon content of our soils we can increase the depth of the topsoil and make the soil much more productive. Dr. Carey Reams used to say that if he knew how deep the top soil was, he could tell you what the production would be. Research at Michigan State University indicates that a 1 percent increase in organic matter offers a 12 percent increase in crop production potential. (http://www.nrcs.usda.gov/Internet/FSE_DOCUMENTS/stelprdb1083169.pdf)

Adding carbon to the soil helps make the soil more drought proof. Carbon is like a sponge and can hold about four times its weight in water. Therefore increasing the carbon content of the soil enables the soil to hold water for an extended time after it rains and makes more water available to the plants. High carbon soil can also absorb moisture from the air during times of high humidity, increasing the water available to the plants even though it doesn’t rain.

Carbon in the topsoil makes it more porous so that when it rains the water soaks into the soil and does not run off as quickly. That is important for keeping the water where the plants can use it, but it also is very important in reducing topsoil erosion and flooding. This summer here on the farm we had an inch of rain in less than a half hour. I went to a place where we have often had water running off the pasture in the past. This time there was no run off. The soil had absorbed the entire inch of rain. That was a satisfying result of the work we have done in increasing the soil carbon content of our soils.

Carbon also provides a “hotel” for the microbes and bacteria in the soil. Those microbes and bacteria in the soil are important for making nutrients and minerals available to the plants and converting decayed plant matter into soil carbon.

It is important that we complete the carbon cycle and put the “topsoil” that we burn in our cars back into the soil where it belongs. The real answer to feeding a growing world is in organic farming that sequesters carbon and builds topsoil.

To be continued.

We Have Sequestered 162 Tons of Carbon!

In the first seven years here on our farm, we have sequestered over 325,500 lbs of Soil Organic Carbon on 35 acres. We have sequestered as much carbon as the yearly CO2 output from approximately 146 cars. That was accomplished by increasing the soil organic matter on most of the farmland by almost one percentage point. That is without spreading organic matter or fertilizers other than lime. The only manure was the droppings from chickens when they are on the pasture and from the sheep and cows while they are grazing.

The method that we used to sequester the carbon was letting the grass grow a foot or more tall and then grazing or mowing the grass and letting it decompose into the soil. This is a method that we discovered as we mowed the grass in the American chestnut orchard located here on the farm and observed the significant increased growth of the grass and the increased growth, vigor, health, and blight resistance of the American chestnut trees. Grasses have approximately the same amount of root mass and depth as the mass and height of grass above the ground. When the grass is mowed from a height of 24″ down to 4″, the roots slough off from a depth of 24″ to approximately 4″. As these roots decompose, they build organic matter in the soil to the depth the roots had been. It is not just organic matter on the surface of the ground from the mowed grass.

The soil tests that we took are just of the top 6″ of soil and do not represent any increase in organic matter below 6″. It would be interesting to test the soil at a greater depth. The soil test from A&L Eastern Labs tested at the end of 2013 shows that the front pasture closest to the road had an organic matter percentage of 4.6%. A soil test from the small parcel of ungrazed fallow grassland adjacent to the road was used as a control to compare with the front pasture soil test since we do not have soil tests before we started managing the farmland. That small parcel of fallow grassland in years past had been part of the front pasture. That area had soil organic matter of 3.8%. 3% organic matter is considered good soil and 1% is not uncommon on cropland. The soil tests show an increase of .8% organic matter in the front pasture.

Our goal is to build enough organic matter in the soil to try to “drought proof” the pastures and to make the soil like a sponge so that there is very little water runoff when there is a heavy rain. Carbon acts like a sponge and holds moisture and other nutrients such as nitrogen and phosphorous and keeps them from being leached out of the soil into the Bay. The carbon then releases the water and nutrients to the plants as needed.

One method that we have experimented with to increase the carbon content of the grasses was to spray the grass with a mist of a mixture that consisted of water, raw milk from our cows, a little honey, and some eggs. The milk, honey and egg mixture increases the photosynthesis of the leaves and increases the brix/sugar (which is high carbon) content of the grasses about three percentage points. The sugar is transported from the leaves to the roots. In theory, if we can increase the sugar/carbon production in the leaves of the pasture grasses we should be able to increase the amount of carbon that we can sequester in the soil. We want to experiment with this some more. Last year we did not have enough milk.

Eating Nutrient Dense Foods – The Role of Brix is Not What We Thought

Testing fruits and vegetables for brix, the percent sugar, does not appear to be as reliable a method for testing their mineral density as previously thought. International Ag Labs released a report earlier this year in which they tested butternut squash samples for nutrient density from 29 different sources. Unfortunately, I was not able to find the explanation of the nutrient density standard that was used to rank the samples. However, the results show some interesting things:
The brix reading does not correlate with protein content.
The brix reading does not correlate with calcium content.
The brix reading does not seem to correlate with any other mineral content.

What this report shows is that testing the brix of fruits and vegetables produced by someone else, such as from the grocery store or from a farmer’s market, or even from your own garden, is not a reliable indicator of nutrient density. However, that does not mean that testing the brix content is worthless. In general, a higher brix squash tended to have a higher mineral content. Also, this test was an evaluation of only butternut squashes and not all fruits and vegetables.

Last summer, I started questioning the accuracy of testing fruits and vegetables for brix to find the mineral content. Our green beans were only 7 brix (between good and average on the brix chart with 10 being excellent), but the yield was incredible, and the taste was some of the best I had ever eaten and the beans were very tender. The leaves of the green bean plants were 15 brix. I did a little testing and found that doubling the moisture content cuts the brix reading in half. Cutting the moisture content in half doubles the brix reading. Therefore, knowing the moisture content (dry matter percent) is important if you are comparing the brix between two fruits or vegetables grown in two different locations.

But! Before you throw out your refractometer as a worthless test instrument, the refractometer is an important test instrument in your garden. If you can get the brix of the leaf of the plants above 12 brix, the bugs will pretty much leave the plants alone. You can test the plants to make sure that any nutritional spray, such as milk, honey and egg spray, is increasing the brix reading in the leaf. Also, if you have put down soft rock phosphate and high calcium limestone on your garden, you know that the minerals are there at a higher level, even if the brix reading of the vegetables does not test in the excellent range, especially if the leaves of the plant test 12 brix or higher.

This summer, it has been difficult to keep the brix reading of the leaf high because of all the rain and cloudy weather that we have had. It is the sun shining on the leaf that helps make the sugar in the leaf. We have had a lot more problems with Japanese beetles this year, and I believe it is because of all the rainy weather.

The squash study by International Ag Labs highlights the importance of growing our own food or purchasing it from someone we know who has put the minerals into the soil. Eating nutrient dense foods is not as easy to accomplish as we would like it to be, but it is vitally important for our health.

The results of the butternut squash study can be found at this link:
http://marketgardens.com/wp-content/uploads/2013/01/Compiled-Butternut-Squash-Data.pdf

Newly Revealed Dangers of Eating Roundup® Tainted Food

Most pastured poultry producers use conventionally grown feed (either GMO or non-GMO) for their chickens because it is half the cost of organic chicken feed. They are able to offer what appears to many as the same product at a much lower cost than what we can provide. We remain committed to using organic feed because in the end, when all the health care costs are figured in, it is probably at least half the cost of using conventionally grown chicken feed. Actually, a person’s health can’t be measured in dollars. Many terminally ill people would gladly give all they had just to have true health.

GMO grain is only part of the problem in causing health problems. Newly released research shows that trace amounts of glyphosate, the active ingredient in Roundup®, are slowly and silently degrading people’s health. Farmers us glyphosate to kill cover crops, grass, and weeds so that they can plant the new crop. It is an important part of no-till farming, which is the method most conventional farmers use.

I remember, back when we first started farming, that farmers were being told that Roundup was completely harmless to people. We were told it only affected plants, and when it touched the soil it was neutralized. That was false information. I believe that most farmers are totally ignorant of what they are doing to other people’s health by their use of herbicides, pesticides, and GMO’s in the food that they are producing. In addition, for many farmers, money clouds their thinking and practice; not because they are greedy, but many of them have their backs to the wall financially and do not see it as possible financially for them to produce organic food.

New research shows that trace amounts of glyphosate is found in corn, soybeans, wheat and sugar grown on ground where Roundup was applied. These trace amounts of glyphosate inhibit enzymes in the gut and prevent the body from detoxifying other chemical residues and toxins. The result is many of the modern diseases.

The abstract of the new report in Entropy reads:

“Glyphosate, the active ingredient in Roundup®, is the most popular herbicide used worldwide. The industry asserts it is minimally toxic to humans, but here we argue otherwise. Residues are found in the main foods of the Western diet, comprised primarily of sugar, corn, soy and wheat. Glyphosate’s inhibition of cytochrome P450 (CYP) enzymes is an overlooked component of its toxicity to mammals. CYP enzymes play crucial roles in biology, one of which is to detoxify xenobiotics. Thus, glyphosate enhances the damaging effects of other food borne chemical residues and environmental toxins. Negative impact on the body is insidious and manifests slowly over time as inflammation damages cellular systems throughout the body. Here, we show how interference with CYP enzymes acts synergistically with disruption of the biosynthesis of aromatic amino acids by gut bacteria, as well as impairment in serum sulfate transport. Consequences are most of the diseases and conditions associated with a Western diet, which include gastrointestinal disorders, obesity, diabetes, heart disease, depression, autism, infertility, cancer and Alzheimer’s disease. We explain the documented effects of glyphosate and its ability to induce disease, and we show that glyphosate is the “textbook example” of exogenous semiotic entropy: the disruption of homeostasis by environmental toxins.” (Emphasis added)

You can read the full report at this link: http://www.mdpi.com/1099-4300/15/4/1416

The bottom line is: if you want to get sick, eat as much food as you can that has ingredients from conventionally produced corn, soybeans, wheat, and sugar beet sugar. Eating out for lunch or dinner is a great way to get these glyphosate contaminated foods.

Our family is committed to providing you with food that will give you health. Thank you for your support by purchasing our products and making it possible.