The Malthus Problem
Almost everyone reading this will have had somewhere between a great grandparent or great great great grandparent who was alive when Darwin went on his legendary trip to The Galapagos Islands in 1831. Many people believe that Darwin came up with the idea for evolution on that trip, but the reality is that the theory predated his birth. What Darwin is famous for is a revolutionary new way of thinking about that idea.
In 1798, Thomas Malthus (of Malthusianism fame), figured out that the productivity of agriculture also meant a rise in the birthrate. On a finite planet, he could see no way that our food supplies would be able to keep up with our increase in population. The more we had to eat the more we had children and the math was not adding up to good news.
Humanity hitting a wall of that sort was a surprise at the time, because people back then saw the world the same way a lot of people still see it today. They believed that nature was growing toward a kind of perfection, like a tree reaching for the light –with humans, like a star, right at the top. But what did it mean if food security –humanity’s greatest success– was also our greatest threat? What did it mean to be successful if success could kill you? Just what light was this tree of nature striving toward?
It was in answering that question that Darwin had his big realization.
Most people saw evolution the same way most people today understand the idea of so-called pesticide-resistant ‘superweeds.” Most people imagine those weeds as the product of nature actively mutating around our efforts to control them. They imagine the plants intentionally changing in pursuit of survival, which means they imagined that the phrase survival of the fittest meant the ‘survival of the smartest and strongest.’
Darwin saw it for what it really was: animals and plant species sought life, but they weren’t striving to survive –they cannot imagine their future. Their subtle variances simply meant that some simply do survive. Having no foresight, all plants just do what they do, and are what they are. Sometimes their conditions are favourable to their survival and other times they are not, which is why 99.9% of species that have ever existed have gone extinct. With every species, time eventually wins.
A thirsty plant during a drought will not see its genes go forward, nor will a plant that prefers dry soils do well during rainy periods. So rather than nature being a tree, striving upward in search of ever and ever brighter light, Darwin’s big insight was that nature is simply a huge collection of lottery tickets where at least some forms of life are bound to win. And humans are not outside of that fact of nature.
While we’re all enormously alike, parents are always mixing DNA that has never been mixed before. Sometimes mutations –or the mixes themselves– create diseases or weaknesses that weaken or kill us. Other times, we are one of the few genetically lucky lottery winners to survive something like The Spanish Influenza –or, if we’re a weed, survive a farmer’s herbicide. In fact there are no super-weeds, or super-people, there are simply weeds and people that best suit the conditions they happen to be in. In the case of the aforementioned flu, the young and the old were the ones spared while often times it was those in the prime of their lives that did not survive.
Of course, winning this genetic lottery means that the surviving DNA gets to breed more of the subsequent generations. Taking that idea in the opposite direction; Darwin realized that it meant that every living thing was somehow derived from a common ancestor. This was a revolutionary idea at the time.
The churches at the time found these ideas threatening because they created a scientific form of slow-motion creation over which the church had no authority. But for science it was a slowly-evolving eureka moment. To them Darwin’s notion wasn’t dispelling creation, it was seeing it more deeply: fifty percent of the human genome is shared with bananas. That fact does feel like a miracle, and it adds a whole new meaning to the phrase, ‘we are what we eat.’
Of course none of this explained the mechanism by which nature accomplished these variations, nor could we know that the answer might resolve Malthus’s concerns about population.
The Discovery of Genes
Fortunately, in the 1840’s, not long after Darwin’s trip to the Galapagos, a meticulous scientist and monk (which was common at the time), was in the Czech Republic breeding pea plants. Mendel painstakingly crossbred tens of thousands of carefully prepared plants and then just as carefully studied the results. Over time and repetition he realized that there were both dominant and recessive traits that he could predict in subsequent generations.
Mendel was the first person to even imply the idea of genes –the mechanism by which Darwin’s lottery could be held.
By 1869 we had invented technologies that would allow us to look at living things more closely. That’s when a Swiss scientist named Miescher saw something in the nuclei of cells. He even wondered if it could explain Mendel’s heredity mechanism, but at the time no one saw much value in what would come to be known as DNA and RNA.
DNA was pretty simple stuff, made from a nucleotide alphabet of only four letters. But each of our cells contains about two meters of it and we have over ten thousand trillion cells. That’s literally about 20 million kilometers or 12½ million miles of DNA in each of us! If nature’s bothering to create all of that, there’s a reason. But what? It’s only made of four nucleotides. What could you possibly create with a four letter alphabet?
The Colour of Chromosomes
Chromosomes were discovered in 1888, primarily by a German named, Boveri. They got their name because they were really good at absorbing dyes, which makes them easy to see under a microscope (when a cell is dividing). Boveri linked them to the idea of heredity but it was the 1900’s before anyone else really studied them in an effective way.
Thomas Morgan is the reason why so many people associate fruit flies with science experiments. The flies bred so quickly that they were perfect for studying how chromosomes might be affecting heredity. Morgan did for the flies what Mendel did for the peas. And thanks to a mutated fly with the wrong coloured eyes, he was able to track inheritance to the point where many scientists were prepared to work from the assumption that chromosomes and DNA were in fact somehow involved in heredity.
Morgan won a Nobel Prize for his work with the flies, but even 30 years later there were still a lot of people who did not believe genes existed, or that DNA was all that important.
It was about 110 years after Darwin’s voyage on the Beagle, near the end of WWII in the 1940’s, before a brilliant Canadian named Oswald Avery managed to change a bacterium by intentionally introducing a trait from a different bacteria’s DNA. It was that experiment that very cleverly proved to everyone that DNA did in fact explain heredity –and it was so ingenious that there were many who felt Avery deserved two Nobel’s for proving it.
The Shape of Things to Come
With Avery’s discovery made, the race was on to explain DNA’s structure and to understand how it does what it does. If they could figure out the shape of a DNA molecule then science had a better chance of figuring out what it was doing. At the time, it was like trying to figure out how the pieces bolted together to make a bio-machine that made…us.
Many expected the brilliant Linus Pauling to be first the one to figure it out, but maybe knowledge acted as a form of blindness in that case. The people who did find it were fairly unlikely –they had come from a background of working on military weapons. Crick of the famous Watson and Crick didn’t even have a doctorate at the time, although his effort to get one would play a key role in their discovery.
Watson was like a Doogie Howser character –a child genius who had played a role on a popular radio game show. The problem was, he wasn’t very familiar with chemistry. Yet he and Watson’s found themselves trying to figure out how that little four-letter alphabet could be assembled into life. It’s why their discovery was as surprising as it was incredible.
Maurice Wilkins shares the Nobel Prize with Watson and Crick. He is the often-forgotten New Zealander who did a lot of the less glamorous work in developing X-Ray Crystallography that lead to the ability to take images of DNA. That was clearly going to help because, at the time, everyone was following Pauling’s lead –so they were working from the assumption that the DNA molecule’s shape was a triple helix.
The Woman Who Saw Things Clearly
Rosalind Franklin was the woman who figured how to actually take the pictures that Wilkins had theorized, but it was actually a student of hers (named Ray Gosling) who took the now-famous Photo 51. Gosling ended up being moved to work with Wilkins, who many feel shouldn’t have unilaterally showed Franklin’s images to Watson and Crick. But, having seen the image, they could now get their G’s C’s T’s and A’s into a double helix that led Watson and Crick to entirely re-think what they were doing.
Soon after, Franklin wrote a report on an even more detailed photo. That got passed from group leader to group leader at Cambridge until it eventually found its way to Watson and Crick. Using some impressively complex math developed for Crick’s PhD thesis, the two men now used Franklin’s measurements (without her knowledge), and they got the ‘ladder’ of the DNA lined up in such a way that it did produce the proteins that combine to form every living thing. This was an enormous eureka moment, as they say.
(You can actually help science by playing an on-line game called Fold it where you fold those resulting proteins in ways that can help science and humanity. The gamers who do so even get their work into respectable Journals like Nature.)
The reason Franklin went unmentioned for the Nobel was because applying complex math to a photo is easier than creating the complex math to apply to a photo. But had Watson, Crick and Wilkins not beat her to the solution she would have got the answer shortly thereafter, and she was the first person to realize that our DNA forms the subtle variances required to ensure our unique genetic codes.
There was a lot of sexism at the time and that likely played a role Franklin being overlooked but, in the end, even Watson –who had treated her quite badly– admitted so, and regretted that she had died shortly thereafter, preventing him from making proper amends. And of course the Nobel Prize is not given posthumously….
As for the DNA itself, once it was solved it looked easy. The verticals on the DNA ladder are a sugar, and the rungs are the nucleobases we need to make the proteins that fold together to make us. (Drug-based gene therapy is when a drug re-folds an improperly folded protein.) The rungs always have G with C, and T is always with A (unless it’s RNA, then the T is replaced with a U). It’s quite simple chemistry –if you’re a chemist.
In a much more recent development, in the spring of 2018 science was able to confirm a 1990’s theoretical discovery, meaning we also now know there is also i-motif DNA, which is a four strand knot or loop of (C)ytosine to (C)ytosine rungs. (There’s also A, Z, Triplex, Cruciform and G4 DNA shapes, but even scientists don’t know much about what’s going on with those yet, so if you can’t comprehend those you’re in extremely good company.)
After Crick, Watson, Wilkins and Franklin, the next most significant person in our understanding of DNA was the South African, Brenner. In 1960 he figured out that gene DNA is transcribed into messenger RNA in a process called transcription. The translated mRNA transports the genetic information from the cell nucleus into the cytoplasm, where it guides the production of the proteins.
By 1972 a Belgian named Walter Fiers figured out that the parts of our DNA that make the proteins are the genes, and the genes are the sections that organize the proteins to combine into everything a human being is. Shortly thereafter, Herbert Boyer, Stanley Norman Cohen and Paul Berg were the first people to intentionally transfer a gene. Their process got a bacteria to create foreign protein, essentially proving that genetic engineering was possible.
Soon after that, Marc Van Montagu and Jeff Schell found a little circular piece of DNA outside the chromosome of Agrobacterium tumefaciens. In nature it’s a bacteria that put tumors on trees, but they suspected it could also facilitate gene transfer between species in nature. By the early 80’s they had worked the Americans and the French to create the first genetically engineered plant –a variety of tobacco.
In 1974 Rudolph Jaenisch had engineered a mammal, creating the first mouse. That in turn incited a huge shift in medical research because that discovery made it possible to do experiments on exactly the same mouse over and over, which is obviously very helpful in scientific research.
Then, almost miraculously, in 1977, Carl Woese (and George E. Fox) made possibly the least-known yet most important discovery since Darwin himself, when they disproved Darwin’s notion of nature as a ‘tree of life.’ This later set Woese on a path that demonstrated the significance of Horizontal Gene Transfer. That discovery effectively saw Darwin’s ‘tree’ suddenly evolve into a bush –which demonstrated that, just as modern GMOs do, nature did and does move genes from one species to another, with the Sweet potato being a popular example. (Later, our human genome was found to be 8% virus.)
Enter Craig Venter in 2000. He and his team are the first to map the entire human genome. That same technology is now being used to map the genomes of countless plants and animals. It is through these processes that some diseases are discovered that relate to mistakes in copying the DNA code, and that lead to things like cancers.
By 2012, Jennifer Doudna and Emmanuelle Charpentier, only the second and third woman in the bunch, make maybe the most practical discovery in genetics when they figure out how to use a technology called CRISPR to get nature itself to edit or patch genetic code. This process is so natural that if we use it to create a new food it isn’t even considered genetically modified because it comes about the very same way that nature does it.
That takes us to where science is today. But this begs the question, how does DNA actually work?
Cell Splits, DNA Snips and Cancer
When our cells split our 2 meters of DNA comes unzipped down the middle of the ‘ladder.’ But because it’s a code where Cs always link to G’s and T’s always link to A’s, it only takes about a second and nature has made a new piece of matching DNA and you have a whole new ‘ladder.’
We do this unzipping and recreating a lot with our colon cells because they only survive a few days; skin cells maybe a month; and like pretty much all cells, the liver cells get replaced constantly. But each individual one only replicates about once every 11-17 months. This explains why we’re often tired when we’re recovering from surgery. On top of any damage we have to repair, we have about 50-100 trillion cells and about 300 million die every minute, so it’s easy to see that our bodies are very busy.
For the most part these processes go extremely well, but it is possible to have a split go slightly wrong –that’s when a wrong letter gets in the wrong place. Biochemists call that a snip. Snips are how we get mutations that can sometimes give us cancer, and that’s why older people get more cancer. They’ve simply had more cell divisions –or more time for more splits and snips. This also explains why cancers will grow much faster in some parts of the body than in others –it depends on the rate of cell replacement.
Despite the fact that they sometimes can lead to cancer, snips are also what makes each of us just unique enough that some of us survive The Spanish Influenza pandemic while others do not. If you saw the film GATTACA, (so-named for the four nucleotides in DNA), a snip was Ethan Hawke’s advantage in the film.
Too much snipping and we die. Too little and we never evolve. Our existence literally balances between those two opposing concepts, hence our interest in genetic engineering –it’s like tipping the balance in our favour. And now we also tip it in nature’s favour too, which is why we don’t need baby cows for rennet, horseshoe crabs for the antibodies in their blood, or pigs for insulin. And, as an example, if we can get more ears of corn on a single plant, then we can leave more wild spaces for nature.
Once we understood that the genes were made of chunks of DNA that simply coded for proteins, we realized that the Natives who turned teosinte grass into modern corn –about 10,000 years ago– were actually doing a valuable yet blindfolded form of genetic engineering.
On a modern level, despite the fact that Darwin had pointed out that we are all descended from one species (about 3.8 billion years ago), scientists were still surprised when they started noticing that the genes that made a mouse eye for a mouse would amazingly make a fly’s eye on a fly. Before they knew it the scientists realized they –and we– share about 60% of our code with flies! We even have the genes for a tail, that gene just isn’t switched on. It’s both unifying and humbling in a way. All life shares the same interchangeable LEGO, we just build different things with it.
Today, with the help of supercomputers, we can map out the genome of things very quickly. We can also imagine what would be created if you mixed things that haven’t mixed yet because we know what the codes actually do in the plants we improve. This means the beneficial changes created by genetic engineering could have happened in nature, but our advantage is that we do it intentionally, when otherwise a growing population could easily starve while waiting for nature to stumble onto the answers that will feed a future world.
Today’s accurate computer models also allow scientists to avoid wasting time on crops that they can figure out won’t survive, or that may be allergenic, etc. That gives them more time to develop the plants that are fit to be food. If any of these changes seems unnatural, remember, Darwin didn’t actually use the term survival of the fittest to describe evolutionary success –he simply described it as, descent through modification. Genetic engineering is merely conscious, intentional modification.
Working With Nature
When a scientist makes a crop that has an insecticide ‘inside it,’ the insecticide is BT, or bacillus thuringiensis. Much like a bacteria created a sweet potato by inserting its genes into a potato, BT is a bacteria commonly found in soil that is deadly to certain bugs. It’s the very same BT that organic farmers spray on their crops because their rules mean they are barred from using the GMO BT strains that have the DNA coding to create the BT within the plant itself.
The BT in a GMO is still normal BT, but it’s a part of nature that makes very specific bug’s guts –which are alkaline, not acidic like ours– explode. That’s not dangerous for mammals for much the same reason that your mother doesn’t have to be afraid of Tiger Lilies but she should keep them away from her cat. As with dogs and chocolate, what can kill one species can be irrelevant to another. But both the BT and Tiger Lillies are natural, and BT is a great example of how science can use genetic engineering to protect beneficial insects.
Can humans make mistakes? Yes. They do so quite regularly. But on important things we do a lot of double checking, and our food has never undergone more testing, whereas nature creates random things like poisonous mushrooms etc. Fortunately, genetic engineering has been precise enough for long enough that it is now proving it can generate substantial gains for humans and our environment.
Far from being afraid of the manipulation of DNA, we should see nature as Darwin’s lottery, where nature produces mostly losing tickets. In contrast, genetic engineering permits the wildness of nature to exist while also allowing us to recognize and define the traits that farmers will need when it comes to growing the crops that will sustainably feed a growing world.
Which brings us back to Malthus and his math problem.
Malthus Meets the Green Revolution
What Malthus could or did not include in his calculations were human things like genetically precise plant breeding, mechanization, The Green Revolution (created by plant hybrids and nitrogen fertilizer), as well as advances in soil science, genetic engineering, and satellite-aided precision agriculture. He also didn’t know that education would lower birthrates, which means the population will actually start dropping to a sustainable level starting somewhere between 2050 and 2100.
As recently as 1968 people like Paul Ehrlich were writing best-selling books that made Malthusian predictions that hundreds of millions of people would be starving every year by the 1980’s. That obviously didn’t happen, thanks in large part to genetic science. In fact, there are fewer starving people today than ever before, and most of those are due to war, not any failings of agriculture.
A Rationally Optimistic Future
Humans cannot move forward using ignorance and fear. Our future depends on us proceeding forward with the inventiveness implied by Rational Optimism. We must be realistic, and yet at the same time we must take what we learn about nature and use it to help both ourselves and nature.
We cannot do our best for the environment, for our nutrition, or for feeding the world if we don’t use all of the tools that science has discovered on its march through time. That can be as simple as a Native American putting a fish for nitrogen on a corn seed 5,000 years ago, or a geneticist helping a plant develop drought tolerance in a lab.
In agriculture, and in life in general, humans are simply using what we know in the most productive ways we can find. Our knowledge of DNA, coupled with the love of nature that lead to the existence of the sciences, will be absolutely key to us succeeding in sustainably feeding a growing planet.
Note: If you would like a short shareable video version of this article it can be found here.
No farmers, no freedom: Why globalists want to control the world’s food supply
Ultimately, the war against farmers is a war on the whole of humanity, one that threatens what it means to be free
- A war against farmers has emerged, threatening to push them off the land they’ve farmed for generations.
- As small and mid-sized farms close their doors, governments and corporate entities can scoop up the land.
- Those in control of the land control the food supply and, along with it, the people.
- Much of this threat is cloaked under Agenda 2030, which includes 17 sustainable development goals with 169 specific targets to be imposed across the globe, in every country, by 2030.
- The push to eat insects is part of this plan; in 2021, the European Commission authorized mealworms as food, releasing a news release touting “the growing role that insects will play as part of a healthier, more sustainable diet”
Are green policies around the world, targeting everything from too much nitrogen to protection of endangered species, all part of a plan to get small farmers off the land, paving the way for totalitarian control of the food supply – and insects as part of your daily diet?
[Find the full documentary here.]
The people in charge of some of the most powerful organizations on the planet have determined that agriculture, specifically animal agriculture, is to blame for global warming, and global warming is to blame for the high prices of food as well as food shortages.
And so by switching our diets from beef, chicken and pork, to crickets and mealworms, we’ll be able to stop temperatures from rising, lower the price of food and possibly to even save the planet.
But in interviews with farmers around the world, including in Holland and Sri Lanka, a very different story is told, one that began with a decades-old environmental policy.
Agenda 2030 threatens farmers
In 1972, a United Nations meeting about climate change was held to come up with a plan to manage the planet in a sustainable manner. This led to the creation of Agenda 21 (Agenda for the 21st Century) – the inventory and control plan for all land, water, minerals, plants, animals, construction, means of production, food, energy, information, education, and all human beings in the world.
Agenda 21 is now more commonly referred to as Agenda 2030, the year the plan’s goals are slated to be met. In 2019, the World Economic Forum (WEF) entered into a strategic alliance with the United Nations, which called for the U.N. to “use public-private partnerships as the model for nearly all policies that it implements, most specifically the implementation of the 17 sustainable development goals.”
Agenda 2030 is composed of these 17 sustainable development goals with 169 specific targets, including ending poverty and achieving gender equality, to be imposed across the globe, in every country, by 2030.
“Very comprehensive document if you read it,” says international journalist Alex Newman. “We’re talking hundreds of pages governing really every facet of life, everything from education to land use policy to economics to law. Every area of life was found there.” But hidden underneath these green-sounding initiatives, Newman says, may be a more sinister motive:
There is absolutely no way for the sustainable development goals to be implemented, to be tracked, to be monitored, without the total obliteration of individual freedom. Some of the goals sound nice – ending hunger, who could possibly be against ending hunger? The problem is, when you set a nebulous goal like that, it requires total power from the state to be able to accomplish that.
And of course, they will never accomplish that, right? There is no way to literally eradicate all poverty from the face of the Earth, but it gives government and global institutions, like the U.N., an easy excuse to basically do whatever they want under the guise of meeting these goals.
Is the nitrogen crisis real?
Dutch farmers are in crisis as their government has stepped up plans to move them off the land. You can hear about this in-depth via Dutch investigative journalist Elze van Hamelen’s report and podcast for The Solari Report– Dutch Farmers and Fishermen: The People Who Feed Us.
“In 2021, the European Union’s Natura 2000 network released a map of areas in the Netherlands that are now protected against nitrogen emissions. Any Dutch farmer who operates their farm within 5 kilometers of a Natura 2000 protected area would now need to severely curtail their nitrogen output, which in turn would limit their production,” Balmakov explains.
Dutch dairy farmer Nynke Koopmans with the Forum for Democracy believes the nitrogen problem is made up. “It’s one big lie,” she says. “The nitrogen has nothing to do with environmental. It’s just getting rid of farmers.” Another farmer said if new nitrogen rules go into effect, he’d have to reduce his herd of 58 milking cows down to six.
Nitrogen scientist Jaap C. Hanekamp was working for a government committee to study nitrogen, tasked with analyzing the government’s nitrogen model. He told Balmakov:
The whole policy is based on the deposition model about how to deal with nitrogen emissions on nature areas. And I looked at the validation studies and show that the model is actually crap. It doesn’t work. And doesn’t matter. They still continue using it, which is, in a sense, unsettling. I mean, really, can we do such a thing in terms of policy? Use a model which doesn’t work? It’s never about innovation, it’s always about getting rid of farmers.
The ultimate agenda: no land ownership for the people
As farmers shut down, the government can swoop in and take the land, which may be what the agenda is really about. According to Eva Vlaardingerbroek, former member of Forum for Democracy and a political commentator:
I’ve always said that the nitrogen crisis is, first of all, a made-up crisis. It’s manufactured, and the only solution that has ever been proposed is forced expropriation. So, it is the government that will take hold of their land… We have a housing crisis in the Netherlands, as you know, this is a very tiny country. We have a lot of people, and we have a growing population because of immigration. And we need places to house those immigrants.
And I think that that’s partly why the government wants that land. They need houses, and they need to build houses, which is funny, because apparently building houses is also what emits nitrogen. But that’s not the people they’re coming after. They’re coming, specifically, after the farmers because they want the land. So that is the ultimate goal.
But it’s not only farmers in the Netherlands who are being affected. In 2020, California became the first U.S. state to commit to a 30 by 30 goal, pledging to put 30 percent of its land and water under government control by 2030. But as Margaret Byfield, executive director of American Stewards of Liberty, says, this paves the way for private land ownership to disappear:
The concept in America is self-rule. We the People will rule our government and our Founding Fathers understood that the small landholder is the most important part of the state. The idea was that the land would be distributed among the people so they could always control their government. California has developed a 30 by 30 plan. They’re pushing 30 by 30 in the state…
The ultimate agenda is that there is no ownership of land so that we don’t own anything. We either own property, or we are property. That’s really what we’re fighting from the global governance perspective. They have to eliminate our ability to control our government, which means they have to take our land.
Other seemingly sustainable government regulations may also be wrapped up in this plan. Rep. Doug LaMalfa, farmer and California representative, explains:
A lot of this came about in the early ‘70s Clean Water Act, Clean Air Act, which were good things, you know, the Endangered Species Act, but it’s been abused from what the original intent was. Congress did not intend for it to be abused the way it is and manipulated. The way it is these days, when they wrote those bills, they would have never passed them.
The globalists have it all planned out
Much of the new world order’s plans are based on crisis management, and the idea that a great crisis will occur that will lead to the great transition, where globalists will swoop in to save the day, transforming society into the promised paradise. “At some point down the line, the narrative changed to be around climate,” Balmakov says.
Prior to this, it was the Cold War, but this changed after a 1991 Club of Rome meeting. Both the Rockefellers and early WEF affiliations can be tied back to the Club of Rome, a think tank that aligned with neo-Malthusianism – the idea that an overly large population would decimate resources – and was intending to implement a global depopulation agenda.
“They came up with this incredible document where they actually said, We need a new justification for this all-powerful state,” Newman says. “So, the new excuse is going to be because the environment is going to be harmed and because climate is going to hurt us.” Balmakov continues:
I could not believe what I just heard, that world leaders really laid out this globalist plan in plain English in a physical book, way back in 1991.
I went on Amazon. And there it was. ‘The First Global Revolution,’ which states, and I quote, ‘In searching for a common enemy to unite us, we came up with the idea that pollution, the threat of global warming, water shortages, famine, and the like, would fit the bill. And therefore, the real enemy is humanity itself.’
Reading between the lines, the key players in this globalist agenda become clear. Newman says:
The World Economic Forum was actually a critical part of implementing this U.N. agenda. Some years ago, they became a strategic partner of the U.N. in the implementation of agenda 2030. And then you start looking at the connections between the World Economic Forum and China. Klaus Schwab and Xi Jinping, they’re like old buddies.
They put out press releases about how much they love each other. So, you’ve got the super capitalists, represented by the World Economic Forum, and then on the government side, you have communists. after Agenda 2030 was adopted, become the Party of China, put out through all their propaganda organs.
… you had Javier Solana, the head of NATO, saying this was going to be the next great leap forward, right? The last great leap forward in China killed millions of people. Why would we want another one of those? That’s crazy.
So, you have communists and super capitalists all coming together and working on this one, sustainable development agenda. And that should make us all pause and say, ‘Wait a minute, that doesn’t make sense on the surface. What’s going on here?’
Bring on the bugs
Globalists suggest eating bugs will protect the planet by eliminating the need for livestock, cutting down on agricultural land use and protecting the environment. The U.N.’s Food and Agriculture Organization also encourages the consumption of insects and insect-based foods.
In June 2021, WEF also published an article, categorized under “food security,” in which they promote the use of insects, writing we “need to give insects the role they deserve in our food systems.” They justify this proposal by saying it will address an impending food crisis.
In 2021, the European Commission authorized mealworms as food, releasing a news release touting “the growing role that insects will play as part of a healthier, more sustainable diet, as well as the benefits for the environment for years to come.” Victor Davis Hanson, a military historian and almond farmer, notes:
There’s this top-down globalist idea that certain Western countries have diets that they do not approve of. In other words, they’re more meat-based. And they feel that humans don’t need meat-based protein. And they want to either force people to follow their paradigms, or they want to buy or accumulate farmland. And that’s how they’re going to farm it. It’s sort of like the Soviet Union or Mao’s Cultural Revolution. It’s top down. And it results in disasters.
Without farmers, there’s no food
If government and corporate entities are able to take control of the land, they can control the food supply and, with it, the people.
“Everywhere you look small and medium sized farms being gobbled up by these corporate mega farms, because they can’t keep up anymore. They can’t comply with these endless streams of regulations that are coming down,” Newman says.
“We’re seeing that in China now where these giant mechanized corporate, big government-controlled mega farms are displacing all these little small family farms that families have been farming for hundreds of years – in some cases longer.” Without land, people lose their autonomy, freedom and independence. Hanson says:
When the American nation was founded, 95% of the people were homestead citizens. They had their own land, and they were completely independent, autonomous. They raised their own food. They were outspoken, they were economically viable. Farming serves two purposes. It doesn’t just produce food, but it produces citizens.
Ultimately, the war against farmers is a war on the whole of humanity, one that threatens what it means to be free. “We are headed into, I think, a time of very significant food shortages. Can we expect to see massive increases in food prices next year? Oh, no question about it,” Newman says, adding:
I think the end goal of the war on farmers that we’re seeing, which is guided at every step by the sustainable development goals and Agenda 2030, is going to be a total consolidation of agriculture, a total consolidation of the food supply. And as every communist tyrant of the last 100 years understood, if you control the food, you control the people. That’s ultimately the end goal.
Reprinted with permission from Mercola.
Diesel won’t be easily replaced on the farm
From the Frontier Centre for Public Policy
By Brian Zinchuk, contributor to the Frontier Centre for Public Policy.
I was out at the cabin, trying to trim the reeds and weeds along the water, when I came across a stark reminder of how good we have it because of fossil fuels.
I was using the electric whipper snipper when the reel head decided to disassemble itself. But I still had a lot of weeds that needed to be cut.
So I went into the shed and dug out the old scythe Uncle Larry, the previous owner, put in there some time in the preceding 40 years. That scythe likely dates back to the 1930s, making it somewhere around 90 years old. A blacksmith hand-made that scythe.
I took a palm sander to it and put a usable edge on it.
My late grandfather, Harry Zinchuk, showed me how to use a scythe some 30 years ago, when I was around 18. I think he used one when he was 18, around 1935, twisting right to left. My technique was awful, my tool old and probably too dull. But I was able cut down about 40 square feet of reeds in a few sweat soaked minutes.
And with each stroke, I kept wondering how entire teams of men would go into the fields, slicing down crops entirely by hand. It would take days for them to do 160 acres.
It made me think of farming today. A few years ago I was hired to video and photograph a year on the farm for Jason and Sherrill LeBlanc of Estevan. They had their then 14-year-old daughter driving a mammoth Case combine, and doing so well. I wonder how much more productive one girl driving a combine was compared to teams of men with scythes, then stookers (a person who bends over and picks up the loose wheat that had been cut down), then threshing crews.
That same farm now continuously crops over 100 quarters (16,000 acres) of land, harvesting with a crew of around 20 people. They usually accomplish all of that in just a few weeks.
My grandfather worked on those threshing crews, from sun up to sun down. Lard sandwiches were his fuel. Hay fed the horses. How much more efficient are diesel combines now?
For some real-world explanations of this, I strongly encourage reading some of the books by Vaclav Smil, the University of Manitoba distinguished professor emeritus whose prolific writings on energy are a true wake-up call. Last summer I got through How the World Really Works: The Science Behind How We Got Here and Where We’re Going. Other titles of his I hope to get through are Energy and Civilization: A History, Invention and Innovation: A Brief History of Hype and Failure and Power Density: A Key to Understanding Energy Sources and Uses. The general thrust is how mankind’s mastery of energy supplies have allowed us to live the lives we currently enjoy.
Some people seem to think we can easily replace diesel with electric when it comes to farm equipment. One of those people is Canada’s Minister of Natural Resources Jonathan Wilkinson. I was present when he was in Kipling, Saskatchewan, on June 29, to announced $50 million for a wind power project. A local reporter asked him about electric tractors.
Focusing on cost of operations for farmers with regards to the Clean Fuel Regulations, the reporter noted, “That’s going to make life harder for them because, you know, the bottom line is there is no such thing in Saskatchewan right now as an [electric] tractor. You know, it’s just not feasible. And so, as they’re making this transition, what sort of investment is the federal government prepared to get to that?”
Wilkinson replied, “I think the first thing that you said about it’s just not feasible, people would have said exactly the same thing about an electric vehicle 10 years ago, and they would have said the same thing about an electric pickup truck. And now those are available to buy them. There are companies that are working on large scale equipment, including equipment for farming, that will be electric on a go-forward basis. So those kinds of solutions are actually driven by regulations like this. But what I would say is, and I do say, that this will create jobs and economic opportunity, including in the agricultural sector, because you use canola, and soy, and often agricultural residuals to make the products that are going to be driven by this whole thing. So, there are benefits associated with it.”
Electric tractors, eh? Just how large batteries will they require? Will they be the size of an air seeder tank, and pulled behind like a coal tender from locomotives of old? Do you need two, with someone towing one out to the field after charging, to allow continual operations?
Because that’s what farmers do these days. Jason’s seeding crew has their turnarounds to fuel, service, and refill the seeder with seed and fertilizer down to 18 minutes. They run shifts around the clock, many miles from home. And they have two mammoth Case 620 Quadtrac tractors doing so, plus an older tractor pulling a land roller, as well as two sprayers. Where and when are they supposed to charge up? How long will that take their equipment out of operation?
Are they just supposed to find the nearest power pole and hook up some big booster cables?
Farming requires enormous amounts of energy – a lot more than a lard sandwich or EV charger. And diesel is the answer, and will be for a long time to come. Sorry, Mr. Minister. Electric tractors won’t be cutting it anytime soon.
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