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A man in Iowa discovered that birds chirping before sunrise helps plants breathe by opening up their stomata. He found that this frequency is also present in classical music. So, he played classical music to his cornfields, resulting in 15-foot tall corn. When he played the music to his squash plants, they produced 5 squash per leaf instead of 1. Even his black walnut tree grew twice as fast with this method called Sonic Bloom, which combines plant vitamins and special frequencies to open up stomata.

CO2 is crucial in greenhouses for better crop quality and yield. Adding additional carbon dioxide improves efficiency and optimizes output. The current atmospheric CO2 level is around 406 parts per million (ppm), while scientists consider 350 ppm as dangerous. Interestingly, the average CO2 level since mammals existed has been over 1000 ppm.

CO2 is beneficial for the world, contrary to climate catastrophes' claims. More CO2 helps plants grow better, with improved quality of flowers and fruits. Greenhouses double or triple CO2 levels for this reason. Outside, CO2 boosts plant resistance to drought, crucial in arid regions like Australia. Australia shows significant greening, especially in Western Australia, due to CO2. The demonization of CO2 as a pollutant is unfounded. Some argue overpopulation, not CO2, is the real issue, suggesting a limit of 1 billion people globally. However, even in a room with 7-8 people, reducing the population to this level seems unfeasible.

Synthetic nitrogen fertilizer reduces vitamin C by reducing secondary metabolites. Synthetic pesticides remove stress from plants, leading to less antioxidant support, including vitamin C, which is produced by mild stress. By preventing plant stress, we reduce the plant's need for self-production of antioxidants like vitamin C, thus depleting the plant of it. This occurs regardless of soil microbial disruption and loss of soil biodiversity, which leads to micronutrient depletion, according to the United Nations. This depletion transfers to us through the plant and impacts our gut microbiome. This issue is a contributing factor to disease because you can't grow good plants without good soil, and currently, our gut microbiome is seeding disease.

AGA is driving growth in agriculture by using carbon dioxide to increase production capacity and ensure high-quality flowers and vegetables like cucumbers, tomatoes, and lettuce. Adding carbon dioxide fertilization boosts yields by up to 30%. While ambient air contains enough carbon dioxide for growing tomatoes and cucumbers, plants in greenhouses quickly deplete this supply. Maintaining a carbon dioxide concentration of 600 to 1,000 PPM in the greenhouse atmosphere ensures optimal growth rates. Adding extra carbon dioxide improves yields by 30% or more for tomatoes, cucumbers, lettuce, cut flowers, and potted plants. Additionally, carbon dioxide enhances early harvests and strengthens plants' resistance to diseases and pests.

AGA is driving growth in agriculture by adding carbon dioxide to increase production capacity and ensure larger, more attractive flowers and vegetables like cucumbers, tomatoes, and lettuce. Carbon dioxide fertilization boosts yield by up to 30%. While ambient air contains enough carbon dioxide for growing tomatoes and cucumbers, plants in greenhouses consume it quickly, slowing down or halting growth. To maintain optimal growth, carbon dioxide concentration in the greenhouse atmosphere should be kept between 600 to 1000 PPM. Adding extra carbon dioxide improves yield by up to 30% or more for tomatoes, cucumbers, lettuce, cut flowers, and potted plants. Additionally, carbon dioxide enhances early harvest, disease resistance, and pest resilience.

The secret to growing giant plants may lie in a lost farming technology called electro culture. In 1746, a Scottish doctor named Dr. Mimbray observed that electrifying trees caused them to produce new branches in October, something unprecedented. In 1902, physicist Professor Lemstrom noticed that plants grew faster under the Aurora borealis in Alaska. Today, countries like China are exploring electro culture to combat fertilizer shortages. They have achieved a remarkable 25 to 50% increase in yield while reducing fertilizer and pesticide use by 75%. Let's spread the word about electro culture farming.

AGA is driving growth in agriculture by using carbon dioxide to increase production capacity and improve the quality of flowers and vegetables like cucumbers, tomatoes, and lettuce. Carbon dioxide fertilization can boost yields by up to 30%. While ambient air contains enough carbon dioxide for growing tomatoes and cucumbers, plants in greenhouses consume it quickly, which can slow down or halt growth. To maintain optimal conditions, additional carbon dioxide needs to be added to the greenhouse atmosphere, ideally keeping the concentration between 600 to 1,000 PPM. This can lead to a 30% or higher increase in lettuce yield, as well as benefiting cut flowers and potted plants.

Bird chirps act as an alarm for plants, with frequencies waking them for photosynthesis—a phenomenon called sonic bloom. The idea of exposing plants to music led to experiments: in the 1960s, balsam plants exposed to classical music showed a growth rate 20% higher and 72% more biomass than controls. Ancient Indian classical music increased yield 25 to 60% over the national average, attributed to frequencies stimulating transportation of nutrients, proteins, and organelles in the cytoplasm. An Australian study noted plants don’t have ears but can sense sound via a body part that captures vibrations. They don’t react to all music; favorable genres include classical, jazz, meditation, singing bowls, violins, and symphonic orchestras, while metal, hard rock, hip hop, techno, or high pitched singing are not liked. You could also pop a radio on classical music to boost yield.

The transcript centers on a claim-filled comparison between organic and conventional produce, framed as a discussion about nutrient content and the broader value of organic farming. The speaker opens by referencing a public perception—that organic is overpriced and ineffective—citing a perceived lack of recent research: “This was the last study done on organic in 1995. This is why there are no more studies on this.” The speaker then uses a single food example, tomatoes, to illustrate dramatic differences in mineral content between organic and conventional farming. According to the speaker, tomatoes grown organically show substantially higher mineral levels across a range of nutrients. The stated figures are as follows: - Calcium: six times higher in organic. - Magnesium: almost 10 to 12 times higher in organic. - Potassium: three to four times higher in organic. - Sodium: six times higher in organic. - Manganese: 68 times more in organic. - Iron: 1,900 (implying a dramatic increase in organic versus conventional). Additionally, the speaker asserts a striking contrast for copper: “Zero copper in the conventional because they sprayed it with pesticides and ruined it. Meanwhile, you have 53 times.” This statement implies that organic tomatoes contain copper at a level that is 53 times that of conventional tomatoes, with the conventional crop allegedly having zero copper due to pesticide use. The overall argument presented is that organic tomatoes have markedly higher mineral content compared to conventional ones, and that conventional farming’s use of pesticides has negative consequences—specifically, eliminating copper content. The speaker uses these numerical claims to suggest a broader nutritional deficiency in populations eating conventionally produced produce, tying the data to a broader critique of conventional farming practices and referencing the supposed lack of ongoing research since 1995 as part of the narrative. Key items highlighted include the large multipliers for calcium, magnesium, potassium, sodium, and manganese, plus the extraordinary claim regarding iron (1,900) and copper (zero in conventional, 53 times higher in organic). The framing emphasizes “mineral content” as a core differentiator and uses tomatoes as the concrete example to illustrate how organic farming could impact nutrient availability. The segment combines a debunking of perceived inertia in organic research with a bold presentation of comparative mineral data to argue for the superiority of organic farming in delivering richer mineral profiles in produce.

Carbon dioxide is often labeled as a pollutant, but it is actually essential for life and serves as plant food. Despite being invisible and odorless, it can be intimidating, as we tend to fear what we cannot see. Exploiting this fear, some argue against carbon dioxide, even though it only makes up 1 molecule in 85,000 in the atmosphere and Australia's emissions account for just 1 molecule in 6,500,000. So why is this innocent molecule under attack?

My friend in Oregon let me try a hyperbaric chamber at triple normal pressure, and I felt energized. Another friend in Wyoming had a hyperbaric sleeping bag that also gave me a boost. A man in Tokyo grew a 40-foot-tall tomato tree with 15,000 tomatoes using filtered sunlight. Plants breathe through tiny holes called stomata under their leaves, which open with bird chirping or classical music. Playing classical music to cornfields made them grow 15 feet tall. The pre-flood world may have had greater air pressure, increased CO2, filtered sunlight, and celestial music, leading to phenomenal plant growth. Classical music can make walnut trees grow faster and cantaloupes as big as soccer balls.

CO2 is essential for life. Increased levels of carbon dioxide benefit the plant kingdom and overall ecology, including marine life, leading to more biodiversity. This is why it's referred to as the "gas of life." However, some people attempt to demonize CO2, claiming it contributes to global warming and extreme weather events like hurricanes, droughts, and heavy rainfall. These assertions are unfounded and misleading.

CO2 levels are often portrayed as dangerously high, but when looking at the Earth's history, they are actually quite low. The current level of 420 parts per million is only one-sixth of the average throughout history. While mainstream sources consider this level alarming, it is important to question what truly constitutes a dangerous level of CO2. OSHA sets danger levels at 8,000 parts per million, while research suggests that plant growth benefits peak at around 1,200 parts per million. In fact, during the last ice age, CO2 levels dropped to near the line of death at 182 parts per million, where plant life cannot survive. Increasing CO2 levels have led to record-breaking crop growth and thriving ecosystems.

Speaker 0 questions what climate catastrophists get wrong about CO2. Speaker 1 argues that more CO2 is good for the world and that reducing CO2 is absurd given other problems and projections of lower costs for renewable energy, which he calls clearly a lie. He explains, as a Princeton professor and climate scientist/physicist, that geological history shows we are in a CO2 famine relative to what is normal for plants. He notes that in his country, many greenhouses double or triple the amount of CO2, and though it’s not cheap, it’s worth investing in because plants grow much better, and the quality of flowers and fruits improves. Outside greenhouses, he says plants benefit as well: with more CO2, in addition to greenhouse gains, there is resistance to drought, which is particularly important in Australia’s arid regions. He claims satellites show Australia as a poster child of the greening of the world, especially Western Australia, and expresses disbelief that CO2—a gas that is fundamental to life—has been turned into a threat and described as carbon pollution. He challenges the framing of the issue by noting that humans are made of carbon and we breathe out two pounds of CO2 a day. He references the global population (about 8 billion) and suggests that some argue “people are the real problem” and that there should not be more than a billion people in the world, remarking that in the room many of them do not constitute seven out of eight to reduce the population. Overall, the speaker presents a counter-narrative: CO2 is beneficial for plant growth and drought resilience, greenhouse and agricultural practices capitalize on higher CO2 levels, and concerns about CO2 as a pollutant are misplaced given the current and historical context of atmospheric carbon and human needs.

A study in Applications in Engineering Science suggests the impact of increased CO2 on global temperatures may be less significant than portrayed. Researchers at the Military University of Technology in Poland introduce the concept of saturation mass, determining that CO2's saturation mass is about 0.6 kilograms per meter squared. The author notes that the current atmospheric CO2 is about 6 kilograms, roughly ten times the saturation mass. This implies additional CO2 emissions may have little to no further warming effect. The study aligns with Randall Carlson's argument that CO2's climate impact is overstated and its benefits ignored. Carlson contends rising CO2 levels positively affect the biosphere, citing studies showing improved plant growth, crop yields, and drought resistance with elevated CO2. He points to satellite data showing increased vegetation, attributing 70% of observed greening to CO2 fertilization. The Polish study concludes that the presented impact of increased anthropogenic CO2 on Earth's climate is a hypothesis rather than a substantiated fact.

Here are examples of electriculture antennas made from copper or brass to harness atmospheric energy for plant growth. Placing these antennas in your garden helps plants grow bigger, become frost and heat resistant, and require less water as the soil heals itself. Visit cultivateelevate.com for more information on electriculture and watch our videos to elevate your garden in 2023.

The panel discusses the percentage of CO2 in the atmosphere. One panelist guesses 5%, citing transportation as causing 49% of CO2 emissions. Other guesses include 7% and 8%. The correct answer is 0.04%, an increase from 0.03%. It is claimed that this tiny change in CO2 is the reason for current actions. It is also claimed that if CO2 levels drop below 0.02%, plant life will begin to die.

Climate catastrophes are wrong about CO2; more CO2 is beneficial. Plants thrive with increased CO2, seen in greenhouses and Australia's greening. CO2 aids in drought resistance. People exhale CO2 daily, not a pollutant. Overpopulation, not CO2, is seen as the issue by some.

A man in Iowa discovered that birds chirping before sunrise helps plants breathe by opening up their cells. He found that this frequency is also present in classical music. So, he played classical music to his cornfields, resulting in 15-foot tall corn. He also played it to his squash plants, which produced five squash per leaf instead of one. His black walnut tree grew twice as fast as normal when exposed to the music. This technique, called sonic bloom, combines vitamins and special frequencies to open up stomata in plants.

There is concern about the idea that there is too much nitrogen in the soil and water, but nitrogen is essential for life. The Netherlands is planning to reduce the number of animals and ban some nitrogen fertilizer, which could affect crop growth. The production of synthetic ammonia, which is used to make fertilizer, has allowed for increased food production and population growth. However, if countries continue to ban fertilizer, it could lead to food shortages and even mass starvation. It is important to consider the consequences of such actions and not harm ourselves in the process. Food shortages cannot be easily resolved, and without fertilizer, crop yields will decrease. This could lead to empty store shelves in some parts of the world. It is crucial to recognize the importance of carbon dioxide and nitrogen for life.

In ancient times, air bubbles trapped in amber revealed that the atmosphere had 50% more oxygen than today. This led to the idea that if the atmosphere originally had 35% oxygen and higher air pressure, breathing would be more exciting. In Japan, Dr. Ken Mori grew tomato plants using filtered sunlight, resulting in a 16-foot-tall plant that produced 900 tomatoes. When moved to a shopping center, the plant grew over 40 feet tall and yielded around 15,000 cherry tomatoes. This suggests that the Earth may have had a canopy to filter radiation, increased air pressure, richer CO2, better soil, and birds chirping, which helps plants breathe. The chirping of birds was found to open up stomata under the leaves.

The panel discusses the percentage of carbon dioxide in the atmosphere. Guesses range from 5% to 8%. The correct answer is 0.04%, which has increased from 0.03% in recent decades. One panelist claims transportation causes 49% of CO2 emissions, which is why they are working on energy transition. It is claimed that if CO2 levels drop below 0.02%, plant life will die.

The conversation centers on carbon dioxide (CO2) as a central regulator of physiology, challenging conventional bicarbonate-centric views and highlighting a broad, interconnected view of respiration, hormones, and cellular chemistry. - The speaker traces exposure to and interest in CO2 through diverse lines of thought. Early on, the guest describes encountering Russian and American literature on respiration and notes how pre-1950 Russian scientific works remained accessible in the U.S. He recounts the work of J. C. Woebes, a Hindu-physicist who studied the relation between sensory life properties and physical states, including how metals and rocks can twitch under stimulation and how nerve and muscle-like responses could be amplified and observed in non-biological systems. - A recurring theme is a shift away from membrane-centric cellular models toward the idea that sensitivity and many life-defining properties are intrinsic to complex protein interactions and electronic processes. Gilbert Ling’s perspective, which emphasizes surface effects and the idea that protein complexes govern respiration and cellular behavior without requiring membrane penetration, is highlighted as foundational to the guest’s thinking. Ling’s concept of “cardinal absorbents” (with carbon dioxide, progesterone, potassium, magnesium, and other factors stabilizing protein systems) is presented as a framework that contrasts with traditional bicarbonate-focused acid-base regulation. - The guest connects respiration to electronic control, citing W. F. Coke’s work on respiration as an electronic unit modulated by quinones, donors, and acceptors. He explains that a paired donor-acceptor input in a cell can induce contraction, while individual donors or acceptors alone may not. This electronic viewpoint is linked to Ling’s ideas and to a broader critique of purely bicarbonate-based acid-base explanations, suggesting that bicarbonate bookkeeping fails to capture cellular and tissue-level dynamics. - The discussion expands into CO2’s role in regulating pH and cellular energetics beyond Henderson-Hasselbalch. The guest argues that carbon dioxide is a fundamental regulator that can alkalinize or acidify intracellular environments through carbamino formation and protein interactions, not merely via bicarbonate in plasma. He references Stewart’s approach as an alternative framework to Henderson-Hasselbalch for understanding acid-base balance, especially at the cellular level. - Several clinical and physiological threads are explored: - CO2 as a regulator of oxygen affinity: carbon dioxide acidifies hemoglobin and cells, increasing oxygen uptake while affecting release as part of Bohr-like mechanisms, and CO2 stabilizes proteins through carbamino chemistry. - The idea that CO2 can protect against oxidative damage and support recovery: recent discussions touch on “permissive hypercapnia,” CO2’s antioxidant effects, and clinical observations that elevated CO2 levels are present in some near-death experiences. - The potential for CO2 to influence calcium, cardiac function, and bone metabolism: examples include observations about bones, osteopetrosis, and the effects of CO2-rich environments on bone density and mineral balance. - Nutritional and hormonal interactions: thyroid hormone (T3) augments respiration and cytochrome oxidase activity, increasing CO2 production and oxygen affinity; estrogen and polyunsaturated fats tend to disrupt respiratory balance; progesterone and pregnenolone can support CO2-related cellular responses. The role of endotoxins in lowering CO2 production and their interaction with stress and thyroid activity is also discussed. - The host shares anecdotes and experimental anecdotes illustrating CO2’s practical applications: - Carbonated baths and inhaled CO2 leading to rapid physiological effects. - Household or clinical use of CO2 (for instance, delivering small amounts of CO2 in controlled ways) to influence vascular tone, edema, and tissue perfusion. - Personal experiences with CO2 therapy in acute settings (e.g., stroke-like events) and in chronic conditions (arthritis, vascular issues). - The discussion references a variety of analogies and natural models: - Naked mole rats, bats, and queen bees illustrate how different organisms maintain higher CO2 environments internally, affecting longevity and metabolic regulation. - The Bohr effect, carbamino protein interactions, and the notion that CO2 can act as a context that shapes the behavior of hormones and receptors. - The closing emphasis is on viewing carbon dioxide as a unifying context for physiology across organ systems. The guest argues that understanding CO2’s role provides a framework that can explain respiratory, hormonal, and metabolic phenomena that reductionist medicine often treats in isolation, and he encourages thinking of CO2 as a central context for interpreting physiology rather than as a mere byproduct of metabolism.