One chemical made industry so happy. It is chemical that does all the things that excitotoxins do but unlike MSG is sweet to the taste. It is chemical known as aspartame (Nutra Sweet).
Milos Pokimica
Written By: Milos Pokimica
Medically Reviewed by: Dr. Xiùying Wáng, M.D.
Updated September 30, 2023When the industry removes fat from the product, it has to add something to make that product tasty again. What they do if they remove fat is that there is nothing in the product so the solution is to add something back to increase the taste, usually sugar. If the product is not sweet, then sugar is no option. Then what they do is they will add MSG and salt. The response in the brain from excitotoxins will compensate for missing sugar. However, then the problem arises.
What will you add back if a product needs to be sweet?
What if the product needs to be without added calories or just without added sugar but still sweet? In that case, they can add other artificial sweeteners, but that will not trigger the brain in the same manner as sugar will so they have a problem. Adding regular artificial sweeteners will lead to unsatisfying results for various reasons I already disguised here (Artificial sweeteners- Understanding the basics). They need something to truly activate dopamine signaling in the brain as sugar does so the taste is just half of the equation.
The problem that sweet-tasting excitotoxin will solve.

Think of aspartame as a sweet MSG substitute. In cases when they need to have both sugar and fat removed they can add excitotoxins to have the desired effect. That is why MSG soup is tasty without any calories. That is why diet Coke is tasty without any calories. They will add stimulants to it like caffeine and excitotoxins like aspartame that have a sweet taste and will stimulate the brain at the same time, so the response from the brain will be like you have eaten something that actually contains sugar. Drinking diet sodas can be addictive because of this simulative effect.
When we use a stimulant, we become excited. By reacting with our dopamine system, the stimulant provides us with pleasure and euphoria which motivates us to consume the same stimulant again in order to experience a repeated feeling of reward (a process identified as positive re-enforcement).

Another side of this, known as negative re-enforcement, is the sudden discontinuation of addictive stimulants that can result in cravings, which is essentially the feeling of wanting to avoid the discomfort that develops once the artificial high of the stimulant has gone.

Within both of these processes, we are left wanting more. In fact, the memory for cocaine addiction resides within the glutamate receptor (Mao et al., 2013). In response to drug exposure, these receptors in neurons show marked and dynamic changes in expression. Emerging evidence ties them to the remodeling of excitatory synapses and persistent drug seeking. The high level of expression of mGluR7 glutamate receptors in the limbic reward circuitry implies its role in drug addiction. In fact, evidence associates this receptor with the addictive effects of psychostimulants, alcohol, and opiates. It is glutamate as same as glutamate in MSG.
In response to operant administration of common addictive drugs, such as psychostimulants (cocaine and amphetamine), alcohol, and opiates, limbic group III mGluRs undergo drastic adaptations to contribute to the enduring remodeling of excitatory synapses and usually suppress drug-seeking behavior. As a result, a loss-of-function mutation (knockout) of individual group III receptor subtypes often promotes drug seeking (Mao et al., 2013).

This is exactly why aspartame, a chemical with very unique properties, is used even if it is one of the most toxic and neurotoxic chemical around. It is very unique in its form which is both sweet and has excitotoxicity characteristics at the same time so for time being it is unreplaceable. The side effects down the line that this chemical can have on our health are impossible to legally correlate to companies that use it. It has a dopamine-inducing effect on the brain and combined with caffeine that has the same effect can successfully trigger addicting behavior, especially in children. That is why coke zero used it for example and not something healthier like erythritol. All companies today know about this and they will do whatever it takes to keep aspartame around knowing very well that you or let’s say most of the population, 99% never ever read labels nonetheless read articles like this one. And this includes pregnant women, children, people with cancer, and so on. Even the history of the substance is so telling to understand what is, in reality, going on behind the marketing and propaganda.
Back in 1965 while working on an ulcer drug, James Schlatter, a chemist at G.D. Searle (a subsidiary of Pfizer), accidentally discovered aspartame, a substance that is 180 times sweeter than sugar yet has no calories. He was recrystallizing aspartame from ethanol. The compound spilled on the outside of the flask, and some of it stuck to his fingers. He forgot about it and licked his fingers to pick up a piece of paper and noticed an overpowering sweet taste.

In 1967 Searle begins the safety tests on aspartame that are necessary for applying for FDA approval of food additives. Seven infant monkeys were administered aspartame mixed in milk. One died after 300 days. Five others (out of seven total) had grand mal seizures. The results were withheld from the FDA when G.D. Searle submitted its initial applications. Why did they mix aspartame with milk? Because milk will slow down its digestion to some extent in the hope that it would not overwhelm the brain in a short time and cause damage. The bigger problem was that tried to hide the results. A couple of years later Searle Company executives had created the internal policy memo in which they were describing different psychological tactics the company should use to bring the FDA into a “subconscious spirit of participation” with them on aspartame and get FDA regulators into the “habit of saying, Yes.” By that time there were more not industry-funded studies.
Neuroscientist Dr. John Olney (that pioneering research with monosodium glutamate was responsible for having it removed from baby foods) did a couple of them and by that time already informed the Searle Company that his studies showed that aspartic acid (one of the ingredients of aspartame) is causing holes in the brains of infant mice. But by 1973 after spending tens of millions of dollars conducting safety tests, Searle Company applied for FDA approval and submitted 11 pivotal studies, and did 113 studies in support of aspartame’s safety in following years. One year later the FDA grants aspartame its first approval for restricted use in dry foods.
The same year two men Jim Turner and Dr. John Olney filed the first objections against aspartame’s approval. Two years later their petition triggered an FDA investigation of the laboratory practices of aspartame’s manufacturer, G.D. Searle. The investigation found that Searle’s testing procedures were unscientific, full of errors, and “manipulated” data. The researchers report they “had never seen anything as bad as Searle’s testing.” G.D. Searle company in the crusade to get approval conducted a line of studies on animals. When they submitted this to the FDA, there was some question about the studies.
One way they tried to manipulate the data was that they showed in the studies that there are no significantly more tumors in the test group than in the control group. When some of the neuroscientists that work for the FDA looked at the data, they saw that this is correct, but then there were other problems. Both groups had significantly higher tumor rates than the normal average, especially for brain tumors. This can happen when someone tries to manipulate data and represent some of the control rats with tumors as a part of the control group. This will lower the tumor rate in a test group, it will rise it in the control group, and at the end, they can say that it does not cause any tumor or what so ever but then both the control group and the test group will have significantly higher tumor rates than the normal average.
So they requested research to be done by the Bureau of foods which was the precursor to the FDA. Dr. Jerome Bressler was in charge of the group that looked through the research that had been done by Searle. In his report, he stated that there were misinterpretations of the data and that it was the world’s worst research. The record notices that 98 of the 196 animals died during one of Searle’s studies and weren’t autopsied until later dates. Numerous errors and discrepancies are noted. For instance, a rat was recorded alive, then dead, then alive, then dead again. They found that some of the animals that died after aspartame Searle scientists did not autopsy until a full year later. After that period the flesh was petrified, and there was no possible way to do an autopsy. However, they represented that they had done autopsies and that animals are normal. They were cutting tumors out and saying that animals are healthy. They had animal tissue that had obvious tumors in it that were reported normal. Testicular atrophy was not noted. There where an effort to cover up the negative effects to get approval. If they did normal science aspartame would not be approved.
The FDA formally requested the U.S. Attorney’s office to begin grand jury procedures to review whether charges should be filed against Searle for deliberately misleading conclusions and “concealing material facts and making false statements” in aspartame safety tests.
That was the first time in the FDA’s history that they asked for a criminal investigation of a manufacturer.
While the grand jury inquiry is undertaken, Sidley & Austin, the law firm representing Searle, had begun the job of negotiations with the U.S. Attorney in charge of the investigation, Samuel Skinner. Samuel Skinner will leave the U.S. Attorney’s office later that year and will take a job with Searle’s law firm Sidley and Ostin. At the same time, G. D. Searle is going to hire the prominent Washington insider Donald Rumsfeld as the new CEO. A former Member of Congress and Secretary of Defense in the Ford Administration. Yes, that Donald Rumsfeld. Rumsfeld was appointed Secretary of Defense for a second time in January 2001 by President George W. Bush.

The medal that Rumsfeld received in 2004 was the Presidential Medal of Freedom. “Freedom” proposes the right to use your influential associates in Washington to support your company’s hazardous substance for human consumption and make a fat bonus on the way out the door. It also means you can drop bombs on other countries. It also means you can bribe the U.S. Attorney in charge of the investigation.
After U.S. Attorney Skinner’s withdrawal and resignation, there were significant stalls in the Searle grand jury investigation for so long that the statute of limitations on the aspartame charges had run out.
Assistant US attorney William Conlon who was assigned to the grand jury investigation let the statute of limitations run out. He was hired fifteen months later by the same Searl law firm Sidley & Austin.
The grand jury investigation was dropped.
Two years later in 1979, the FDA established a Public Board of Inquiry to rule on safety issues surrounding NutraSweet. The Public Board of Inquiry’s conclusion was that aspartame should not be approved until further research is done. The board stated that:
“It has not been presented with proof of reasonable certainty that aspartame is safe for use as a food additive.”
By 1980 the FDA outlaws aspartame from use after having three autonomous scientific studies of the sweetener.
When someone wants to say that all of this is just conspiracy, remind him that FDA already outlawed the substance even with all of the lobbying behind it. That will say a lot about the toxicity of aspartame. It was concluded that one primary health effects were that it had a high chance of inducing brain tumors. We also need to keep in mind that back in that time there was no requirement for the FDA to examine the effects on the brain from food additives. There were never any studies done to examine the effect of aspartame on long-term or even short-term neurological effects. Cancer studies turned into brain tumors, but that is cancer studies, not brain studies. Cancer studies were the primary and the only ones that they ever investigated. Despite all of this at this it was clear that aspartame was not fit to be used in foods and banned stayed in place, but not for long.
In 1981 Ronald Reagan was sworn in as President of the United States. His transition team included Donald Rumsfeld, CEO of G. D. Searle. Rumsfeld appointed Dr. Arthur Hull Hayes Jr. to be the new FDA Commissioner. Even before that the first thing that Ronald Reagan did when he was sworn in as president was to suspend the authority of the FDA commissioner to take any actions.
The first thing that Regan did, not the second or third, but the first thing was to push for approval for this chemical. There was obviously a fear that Commissioner was going to do something about aspartame before he leaves office. That will make things more difficult for them so Regan suspended the authority of the FDA commissioner until they can elect a new one in a month or so.
In that month the old FDA commissioner was prevented from taking any actions. It did not take long for the new FDA Commissioner handpicked by Donald Rumsfeld, CEO of G. D. Searle to approve the chemical substance that is made by G. D. Searle.
The new FDA commissioner selected a 5-person Scientific Commission to evaluate the board of inquiry’s decision. It took just a couple of weeks when presented with all of the toxic effects of the substance for the panel to decide 3-2 in favor of supporting the ban of aspartame.
Hull then resolved to a different tactic. He appointed a 6th member to the board, which created a tie in the voting, 3-3. Then Hull himself decided to break the tie and approve aspartame for use personally. Hull later left the FDA under several allegations, served briefly at New York Medical College as a cover, and then took a position as a consultant (1000$ per day) basically to do nothing with Burston-Marsteller. Burston-Marsteller is the main public relations firm for both Monsanto and GD Searle. Since that time he disappeared and has never spoken publicly about aspartame. Seven of the key people that made decisions in this entire process that made aspartame go through the entire process ended up living and getting a new jobs for some of the Nutra Sweet using industries. In 1985, Monsanto decided to purchase the aspartame patent from G.D. Searle.
Also beginning in the middle 1980s, the FDA dissuaded and actually prevented the National Toxicology Program from doing any long-term cancer research on aspartame. What was left is hundreds of industry-founded studies that showed nothing, a 100% safe rate, and over 90 independently done studies more than 90% of them showed increased cancer risk and many other adverse effects. Scientific studies have been carried out with conclusions ranging from “safe under all conditions” to “unsafe at any dose.”

There is a well-documented increase in incident rates of brain tumors in the year 1985 that remained elevated to this day. National Cancer Institute recorded an impressive increase in the primary brain cancer rate since 1985. At that time this trend was singularly attributed to more innovative scanning and diagnostic procedures. The problem is that adequate brain scanning devices were widely available for at least ten years prior to 1985. Also, incidents of other forms of cancers outside of the brain remained the same and in some cases declined. Aspartame was fully marketed by 1983. Already by 1984, there were a 10% increase in brain cancer rate in the U.S. and the incidence of brain lymphoma, a type of aggressive brain tumor jumped by 60%.
In the gut, aspartame is broken down to release methanol and two amino acids phenylalanine, and aspartate. About 50% of it is aspartic acid, 40% of it is phenylalanine, and 10% of it is wood alcohol or methanol.
Methanol is further metabolized into formaldehyde.
You might know formaldehyde as an embalming fluid. The body cannot get rid of formaldehyde. Any amount of it the body stores. The industry has made a big deal about how there is a methyl group that is found in all fruits and vegetables. Anything that we eat has methyl groups so eating methanol in aspartame is no big deal and concentrations of formaldehyde in comparison are minuscule. The amount of formaldehyde we eat from fruit is much more than the amount we could get from aspartame. You will hear this with any doctor or research that is designed to defend the use of aspartame. But again they don’t tell the whole truth.
When the body metabolizes aspartame, you end up with a small amount of formaldehyde, but that formaldehyde is in free form.
When you eat fruit, you take more methanol, but that methanol is bound to pectin. Humans lack the enzyme to break down pectin. We are unable to split methanol from pectin. It goes through the body without doing any damage whatsoever. Even if there is more methanol in fruit and vegetables in reality that methanol is irrelevant. In aspartame, the free methanol and then free formaldehyde even in minute amounts are dangerous because of the accumulative toxic effect of it. Besides methanol, in nature, we are eating the same amount of ethanol in fruit or vegetables. There are methanol and ethanol in fruits, and they counteract each other.
When G. D. Searle did an experiment with monkeys, aspartame give those monkeys grand mal seizures. Monkeys have a higher reaction to ethanol than humans. Regular alcohol like wine. On the other hand, they have really high resistance to methanol. Much higher than humans. Even with high resistance, and even though they were fed aspartame with milk, they still had seizures, and one died from cardiac arrest caused by overstimulation of the nervous system.
Besides methanol aspartic acid is an excitotoxin and phenylalanine had been shown to cross the blood-brain barrier, and it is a precursor of norepinephrine (adrenalin in the brain).
Phenylalanine occurs naturally in the brain. It is not that bad but if we have an unnaturally high level it can be very bad. There is a medical disorder that affects 1 in 10,000 people known as PKU (Phenylketonuria). It is an overabundance of Phenylalanine in the brain because of the body’s inability to process it. If you add phenylalanine to someone that does not have PKU you can trigger a very bad response. Excess amounts of phenylalanine are linked to a reduction in serotonin production. Phenylalanine can trigger for example manic attacks in people who are suffering from manic depression.
It is being known for a long time, and there are also studies that when you take aspartame with carbohydrates, you will decrease the availability of l-tryptophan in the brain which is a building block for serotonin. It can also trigger regular depletion in susceptible individuals. In one study (Walton et al., 1993) they even had to stop the experiment. Although the protocol required the recruitment of 40 patients with unipolar depression and 40 without any psychiatric history, the project was halted by the Institutional Review Board after a total of 13 individuals had completed the study because of the severity of the reactions in a group of subjects with a history of depression. It was concluded that it was unethical to continue the study. In this case also the Nutra Sweet company refused to provide the product for testing and even refused to sell it to them. Researchers had to find it in the third-party vendors.
In one of the new studies on the effect of aspartame on mood disorders done back in 2014 (Lindseth et al., 2014) they took regular healthy people and put them on a high aspartame diet. Healthy adults who consumed a study-prepared high-aspartame diet (25 mg/kg body weight/day) for 8 days and a low-aspartame diet (10 mg/kg body weight/day) for 8 days, with a 2-week washout between the diets, were examined for within-subject differences in cognition, depression, mood, and headache. When consuming high-aspartame diets, participants had a more irritable mood, exhibited more depression, and performed worse on spatial orientation tests. These were all healthy people with no history of mental illness.
Now, how much high a dose of 25 mg/kg body weight/day in actuality is? Well FDA put the safe upper limit at 50 mg/kg body weight/day. The high consumption level examined here was well under the maximum acceptable daily intake level of 40-50 mg. And this is just eight days.

Consuming this stuff for a prolonged period can have even more severe effects. Especially in children and pregnant women. Problem is that today aspartame and other excitotoxins are added everywhere. There is no real possibility that anyone who eats anything made by the food industry would be able to avoid eating them. And these chemicals are just the tip of the iceberg.
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Milos Pokimica is a doctor of natural medicine, clinical nutritionist, medical health and nutrition writer, and nutritional science advisor. Author of the book series Go Vegan? Review of Science, he also operates the natural health website GoVeganWay.com
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Exclusive: Olympians Sign Open Letter Asking For Plant-Based Olympics
on March 11, 2025
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Demolish Foods Unveils ‘Unprecedented’ Plant-Based Whole Cuts Production Platform
on March 10, 2025
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Plant-Based Meat Market ‘To More Than Double In Value’ By 2030
on March 10, 2025
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You Can Now Buy Pepperami-Style Vegan Pepperoni Sticks
on March 10, 2025
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How To Make Vegan Yogurt At Home
on March 10, 2025
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Vast Majority Of Gen Z Cares About Animals And Nature, New Study Shows
on March 9, 2025
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Silky Butter Beans With Roasted Corn And Hazelnuts
on March 9, 2025
Top Health News — ScienceDaily
- Prostate cancer is not a death knell, study showson March 11, 2025
Prostate cancer statistics can look scary: 34,250 U.S. deaths in 2024. 1.4 million new cases worldwide in 2022.
- Study pinpoints the impact of prenatal stress across 27 weeks of pregnancyon March 11, 2025
Researchers found new insights on the timing of prenatal stress and its effect on infant stress reactivity and temperament — including differences between genders.
- Genetic mutations linked to toxin exposure found in firefighters’ brain tumorson March 10, 2025
In a study comparing the glioma tumors of firefighters and non-fighters, researchers found a mutational signature tied to exposure to haloalkanes, which are used in flame retardants, fire extinguishers, and pesticides.
- New research explores how AI can build trust in knowledge workon March 10, 2025
In a new study, researchers explored how artificial intelligence (AI) can enhance performance and trust in knowledge work environments. They found that when AI systems provided feedback in real-time, performance and trust increased.
- Compound found in common herbs inspires potential anti-inflammatory drug for Alzheimer’s diseaseon March 10, 2025
The herb rosemary has long been linked with memory: ‘There’s rosemary, that’s for remembrance,’ says Ophelia in Shakespeare’s Hamlet. So it is fitting that researchers would study a compound found in rosemary and sage — carnosic acid — for its impact on Alzheimer’s disease. In the disease, which is the leading cause of dementia and the sixth leading cause of death in the US, inflammation is one component that often leads to cognitive decline. Carnosic acid is an antioxidant and […]
- Genes combined with immune response to Epstein-Barr virus increase MS riskon March 10, 2025
In multiple sclerosis (MS), antibodies to the common Epstein-Barr virus can accidentally attack a protein in the brain and spinal cord. New research shows that the combination of certain viral antibodies and genetic risk factors can be linked to a greatly increased risk of MS.
- Robotic helper making mistakes? Just nudge it in the right directionon March 10, 2025
MIT researchers developed a framework that lets a user correct a robot’s behavior during deployment using simple interactions, such as by pointing to an item, tracing a trajectory, or nudging the robot’s arm.
PubMed, #vegan-diet –
- Nutritional knowledge, carbohydrate quality, and fat phobia: cross-sectional study on vegetarianson March 6, 2025
In contemporary society, where vegetarian diets are gaining popularity, it is imperative to develop a profound understanding of these individuals’ dietary choices and their health implications. Specifically, it is crucial to examine how the prevalence of fat phobia affects their dietary preferences, in order to promote a balanced nutritional approach. The aim of the study is to evaluate the carbohydrate quality and nutrition knowledge level of vegan and vegetarian individuals in Istanbul,…
- An updated review of popular dietary patterns during pregnancy and lactation: Trends, benefits, and challengeson March 4, 2025
This review examines nutritional needs during pregnancy and lactation, focusing on the critical nutrients required for both maternal and fetal health. Essential nutrients such as folic acid, vitamin D, iron, calcium, and omega-3 fatty acids play a significant role in supporting fetal development and minimizing the risk of complications like gestational diabetes, hypertension, and preterm birth. Various dietary patterns, including the Mediterranean, vegetarian/vegan, and gluten-free diets, […]
- Iron insight: exploring dietary patterns and iron deficiency among teenage girls in Swedenon March 4, 2025
CONCLUSION: This study highlights a higher prevalence of iron deficiency among Swedish teenage girls adhering to plant-based diets. Public health strategies should promote balanced diets that ensure adequate iron intake and absorption while considering environmental sustainability. Regular screening and targeted dietary recommendations are essential for supporting the health of this population.
- The Fecal Metabolomic Signature of a Plant-Based (Vegan) Diet Compared to an Animal-Based Diet in Healthy Adult Client-Owned Dogson March 4, 2025
Despite the rising popularity of plant-based (vegan) diets for dogs, the metabolic effects of plant-based diets in dogs have not been thoroughly investigated. Evaluating the impact of a vegan diet on the fecal metabolome in dogs could offer valuable insight into the effects on gastro-intestinal and overall health. This study evaluated the fecal metabolic signature of an experimental extruded vegan diet (PLANT) compared to a commercial extruded animal-based diet (MEAT) in healthy adult dogs….
- Effects of Vegetarian or Vegan Diets on Glycemic and Cardiometabolic Health in Type 2 Diabetes: A Systematic Review and Meta-analysison March 4, 2025
CONCLUSION: In conclusion, vegetarian or vegan diets could be utilized as a synergistic intervention in the T2DM population, contributing to cardiovascular disease prevention. In the future, the proportion of components that make up a plant-based diet should be explored.
Random Posts –
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Latest from PubMed, #plant-based diet –
- Examining the Relationship Between Consumption of a Protein-Based Diet and Hypertension Among Urban Households: A Cross-Sectional Studyby Adrino Mazenda on March 11, 2025
CONCLUSIONS: The study showed that consuming various proteins, particularly from beans, chicken, tin fish, meat, offal, and dairy, reduces hypertension health risks. It also shows that households with higher food expenditures experience lower hypertension prevalence, emphasizing the importance of dietary variety and financial resources in maintaining a healthy diet and reducing hypertension.
- A Review of Dietary and Lifestyle Management of Pre-Eclampsia and Postpartum Eclampsiaby Muhammad Nadeem on March 10, 2025
Eclampsia is a prevailing hypertensive disorder that poses more significant risks to mothers and neonates globally. This review aimed to investigate eclampsia [preeclampsia and postpartum eclampsia (posteclampsia)] and the supportive role of dietary and lifestyle management. The review was compiled by searching various engines such as Google Scholar, Research Gate, BASE, PubMed Central, National Center for Biotechnology Information, and other related search engines. Eclampsia is believed to…
- Transitioning from climate ambitions to climate actions through public health policy initiativesby George D Thurston on March 10, 2025
Policies to implement climate-forcing pollution emission reductions have often been stymied by economic and political divisiveness. However, certain uncontested nonregret public health policies that also carry climate-forcing cobenefits with them could provide more achievable policy pathways to accelerate the implementation of climate mitigation. An International Society for Environmental Epidemiology Policy Committee endorsed pre-28th Conference of the Parties climate meeting workshop […]
- Study on the pharmacodynamics and related mechanism of Tangningtongluo tablet on prediabetes mice based on the theory of “liver controlling dispersion”by Xiangka Hu on March 10, 2025
BACKGROUND AND AIM: Prediabetes is an unavoidable process and a high risk factor for developing of type 2 diabetes. Tangningtongluo (TNTL) tablet is a kind of pure plant preparation in hospital and used for the diabetes (, xiāo kě bìng) caused by deficiency of both Qi and Yin (,qì yīn liǎng xū). However, the effect of TNTL tablet on prediabetes has not been reported for now. This study was aimed to investigate the effect and related mechanism of TNTL tablet on prediabetes.
- A protocol for microRNA extraction from gastrointestinal digestaby Miguel Cifuentes Acebal on March 10, 2025
MicroRNAs (miRNAs) are non-coding RNAs that influence gene-expression via post-transcriptional regulation of target protein-coding RNAs. With literature reports indicating survival of diet-derived miRNAs following their ingestion, it is important to study their stability and concentration during gastrointestinal digestion. The unique combination of chemicals and elevated RNAse content present in the gastrointestinal matrix may be a limiting factor for studying diet-derived miRNAs. First,…
- Plant-Based Diets and Their Role in Preventive Medicine: A Systematic Review of Evidence-Based Insights for Reducing Disease Riskby Sultan A Almuntashiri on March 10, 2025
Plant-based diets have gained increasing attention for their potential role in preventive medicine, particularly in reducing the risk of chronic diseases such as type 2 diabetes, cardiovascular disease, obesity, and metabolic syndrome. This systematic review synthesizes evidence from 32 longitudinal studies to evaluate the impact of plant-based diets on disease prevention and health outcomes. The review identifies consistent patterns, including improved metabolic health, weight management,…