Archive for the ‘diet and nutrition’ Category

Who Decides What Counts As Medicine? How To Fix the Food-Drug Divide

https://anh-usa.org/who-decides-what-counts-as-medicine-rob-verkerk-explains-how-to-fix-the-food-drug-divide/

Who Decides What Counts as Medicine? Rob Verkerk Explains How to Fix the Food-Drug Divide

By The ANH Team On 09/10/20260

Who Decides What Counts as Medicine? Rob Verkerk Explains How to Fix the Food-Drug Divide

ANH founder Rob Verkerk explains why outdated food-drug definitions restrict consumer access to natural health options—and how a more proportionate system could better protect both choice and safety.

Listen to the audio version of this article:

The following is a transcript of an interview with Rob Verkerk, PhD, and ANH-USA’s Editorial Director, Michael Ames-Sikora.

Today I’m speaking with ANH founder and executive director Rob Verkerk about Beyond Binary Food-Drug Definitions: A Case for US and EU Modernization. Accepted for publication on July 20, 2026, and expected to appear in spring 2027, the paper was written by Rob as lead author and principal investigator, ANH legal researcher Chimnonso Onyekwelu, and our general counsel, Jonathan W. Emord—the “FDA Dragon Slayer,” who holds the record for the most legal victories against the agency. At its heart, the paper asks whether laws that force products into either a food or drug category still make sense when modern science shows that foods and natural compounds can have meaningful effects on health. In the conversation that follows, Rob and I discuss the paper’s key ideas, what they mean for consumers, and how we can build a better regulatory system.

Mike Ames-Sikora: Rob, you’re the founder and executive director of ANH. What made you want to tackle the way foods and drugs are defined?

Rob Verkerk: Mike, it’s really been over 25 years that I have seen that definitions are the mechanisms that Big Pharma and Big Food use to control what you can buy, what you can say. Particularly in the drug area, the drug definition controls the therapeutic space. It also really impacts what someone can buy, what you can be told about a product, and also whether or not it’s going to actually be found in a practitioner’s toolkit.

Ames-Sikora: Your paper argues that the law draws on increasingly artificial lines between foods and drugs. Why should anyone outside the legal profession care? And why should the average consumer care?

Verkerk: Well, our paper goes back over 100 years, looking at 18 different jurisdictions around the world, but focuses especially on the US and the European system. And when you take that kind of bird’s-eye view of what has been going on for over a century, you see that the initial justification for having regulation around foods and drugs was extremely laudable. It was very well-meaning. It really was about protecting consumers from dangerous goods, mis-sold goods, mislabeled goods, and whether they were drugs or of foods. What you see over the passage of time is this sleight of hand in which essentially the definitions have now become mechanisms to control specific categories of products for the benefit of those corporations. So we now have a rather ridiculous situation where essentially foods and drugs, fast foods, and ultra-processed foods are amongst the most dangerous foods that we consume, yet they’re perfectly legal. They fit those definitions. They can be unsafe. And we’ve got a situation where drugs that are licensed, that can carry claims like safe and effective, are amongst the leading causes of death in industrialized societies. Peter Gøtzsche’s work suggests that the that drugs may in fact be the 3rd leading cause of death in industrialized societies like the US or Europe.

Ames-Sikora: Yeah, and my understanding of that statistic too is that these are not abused drugs. These are properly prescribed medications that are used as intended.

Verkerk: 100%. Yeah, properly prescribed medications. The 3rd or 4th leading cause of death in industrialized countries.

Ames-Sikora: So you argue that these definitions can protect the pharmaceutical industry’s hold on the therapeutic market. How does that work?

Verkerk: Essentially, if you want to make any kind of disease treatment, disease prevention claim, you have to be channeled down the drug pathway. So it doesn’t matter how much science you’ve got to show that turmeric or rosemary or black cohosh, name any botanical or nutrient out there, it doesn’t matter how much science says this might reduce your risk of disease, you are disallowed from making that claim. Yet if you’ve gone through the drug pathway, you’ve essentially paid to play in order to get your license. You can shout your claim from the rooftop. And in fact, what’s even more interesting, you can shout claims that the science that got you the license never made at all, given that you can also make off-label claims. So generally speaking, drug companies will get a specific claim, that’s their pay-to-play license, but then medical doctors will often use the products off-label. Now, if you’re selling a nutrient, even if it has similar effects, even if the science is comparable, even if the science is stronger than the drug with little or no side effects, you cannot make the claim because you cannot discuss the product in any way in relation to the diagnosis, treatment, or prevention of disease.

Ames-Sikora: Yeah, we saw this with the cherry and walnut growers. I remember covering that for ANH over the years. So what does this mean for prevention and for people who already live with chronic disease?

Verkerk: Well, the biggest problem is that it means they can’t get the products that are most likely to be effective. The reality is that if we talk about prevention, primary prevention is actually trying to stop a disease happening in the first place. And we know the science around primary prevention is primarily around non-pharmaceutical interventions. So things like getting people to eat the right food at the right time in the right place in the right way, getting people to move in the right way or to respond to stress in a way that doesn’t harm them, or to spend less time sitting. These are all non-pharmaceutical interventions, and there’s very, very good science around them. Yet what’s happened is that the primary prevention space increasingly is dominated by pharmaceutical interests. So, you know, the use of vaccines to prevent disease, putting people on lifelong drug use, for the use of statins amongst those over 50, for example, which is a fantastic money spinner if you’re a statin manufacturer. The evidence is relatively weak in the sense that it doesn’t work for everyone, and for some people the side effects can be atrocious. Yet that’s viewed as a standard approach, either as primary or secondary prevention.

So if you look at the incredible science that shows how micronutrients and botanical substances and other substances taken from nature’s treasure trove can be used to bring our body into balance–let’s remember that it’s not usually the drug or even the botanical, the nutrient that itself is creating the shift. What it does is change the environment or the pathway in order to allow the body to self-heal. We sometimes forget how much work our body, our immune system, our neurological system, our endocrine system is doing to get things back into order. And that’s one of the ways in which non-pharmaceutical interventions can be really, really critical for prevention. for lifelong prevention that would have a massive impact on reducing chronic and degenerative disease. But these definitions prevent anyone from talking about it, so it doesn’t find its way into the mainstream approach or vocabulary.

Ames-Sikora: What has modern nutrition science revealed that these legal categories struggle to accommodate?

Verkerk: Well, nutrition science has moved on a great deal. That’s one of our primary arguments in the paper, that essentially there’s a whole catalogue of science that shows that nutrients can have a profound effect on disease. Governments recognize this. Mike, you’ll know in our FDA Modernization Act challenge that is running currently, where basically we presented the FDA and the Department of Health and Human Services with over 100 different nutrient disease claims that government agencies themselves are making. There’s a specific clause in the FDA Modernization Act that was written by none other than Jonathan Emord in the 1990s that basically said, look, you’ve reserved any kind of disease claim to the category of drugs. But because there are nutrients out there, how about a system that if you, as the authoritative agency, determines that the science says that there is a nutrient-disease relationship, then everyone can use that. That would avoid companies having to do lots of research on nutrients and disease, and then at the end of that, possibly after having spent hundreds of thousands of dollars, to be told, sorry guys, you’re a drug, you can’t sell the product.

So this is a fantastic pathway. Now there are— we found over 400 of these claims that the National Center for Complementary and Integrative Health, the Office of Dietary Supplements, the CDC, even the FDA are making. And we presented these to the HHS and said, look, we believe that these should be able to be used as authoritative statements under the clause in the FDA Modernization Act. And they’ve said, sorry, we have a little disclaimer that says these cannot be regarded as authoritative statements under the FDA Modernization Act. So it’s a crazy situation that says we are authorities that are making authoritative statements, but in this case, we’re not going to regard these as authoritative statements. So at the moment, they’re making none. And there’s still censorship of any nutrient disease claims. So we’ve got to push that particular roadblock over.

Ames-Sikora: You know, Rob, critics might hear this and assume that you’re calling for less regulation, which could expose them to unsafe supplements or even false hope. How would your proposed approach continue to protect consumers from unsafe products and exaggerated claims?

Verkerk: Well, basically, you’ve got to match the regulatory burden to the risk and the strength of the claim to the evidence. So there’s nothing that we’re doing in terms of modernizing definitions. That’s what we’re proposing—the definitions now are outdated and they don’t match the rapid development of nutritional science and health sciences. So essentially, what we would argue is that there is no additional risk at all. In fact, quite the reverse. It would reduce the risk because more people would be encouraged to take safer products that would essentially have a big impact on reducing their health risks, as well as ensuring that that there are adequate regulations already available that prevent companies from selling unsafe products. So yeah, unfortunately, that argument doesn’t hold a lot of water. And I think another part of our argument generally around some of the other initiatives that we have is that there’s always going to be a degree of uncertainty around any claim. And we strongly advocate this idea of communicating the amount of uncertainty clearly. And of course, Jonathan Emord was central in developing the qualified health claim regimen in the United States, and that’s what it’s all about.

So it’s about accurate communication of the science, and at the moment the definitions prevent that.

Ames-Sikora: What would a more sensible system look like? And if policymakers adopted one central recommendation from your paper, what should it be?

Verkerk: It should be: modernize the definitions. We need to see the food definition broadened. We’ve known since the time of Hippocrates that foods can have medicinal effects. There is copious amounts of evidence for that. And of course, the drug definition massively overlaps the food definition with the exception of very specific exemptions. So the Dietary Supplement Health and Education Act obviously gives an exemption for dietary supplements to make structure-function claims, but they cannot in any way relate to disease. Now, we need to have a system that allows claims about effects that will also be related to disease, but the system needs to be about proportionality. So you need proportionate assessment and not just an automatic push for products that are therapeutic in action to only be forced down the drug pathway.

Ames-Sikora: Well, great. Well, I look forward to seeing this paper finally see the light of day and for it to get a reaction from the public and the scientific community.

Verkerk: Yes. In essence, Mike, what the paper is about is laying down the intellectual academic foundation for why we need to change definitions. You’re going to be very involved, as I am, as all of us will be, in the advocacy program that actually works with Congress and with senators in order to change these definitions. And the interesting thing, we’ve done a lot of work in terms of what modifications may need to be made to bring them in line with the science. And it doesn’t involve a complete rewrite of the definitions. In fact, sometimes it involves only very small changes, but they can have profound effects, and they will work for millions of Americans. And that’s the solution.


ANH-USA will launch a major advocacy program once the paper is published—and we’ll be looking for your support to push through amendments to various food and drug related definitions. Stay tuned!

The Hidden Drivers of Inflammatory Bowel Disease (Lyme Disease is One)

https://imahealth.substack.com/p/the-hidden-drivers-of-inflammatory? Video Here

The Hidden Drivers of Inflammatory Bowel Disease

Crohn’s and colitis are called genetic, autoimmune, and idiopathic. What if all three labels are wrong? A new paper tests each against current evidence.

Independent Medical Alliance

Aug 02, 2026

Host: Dr. JP Saleeby | Guest: Josh Dech

What if Crohn’s disease and ulcerative colitis are caused by more than genetics alone?

Dr. Yusuf “JP” Saleeby, IMA Senior Fellow in Functional and Integrative Medicine, and gut health specialist Josh Dech take a closer look at what may contribute to inflammatory bowel disease, also known as IBD. The two recently co-authored a new paper published in the Journal of Independent Medicine. Their conversation traces how genetics, diet, gut health, and the environment may work together to shape both diseases.

Inflammatory bowel disease affects more than 7 million people worldwide and ranks among the fastest-growing chronic diseases globally. Nearly everyone diagnosed with Crohn’s disease or ulcerative colitis hears some version of the same three things: the disease is genetic, the immune system is attacking its own tissue, and the underlying cause is unknown. Those three explanations leave two treatments on the table, drugs and surgery, and they leave a patient nothing to investigate.

A new paper in the Journal of Independent Medicine argues that all three explanations fail against current evidence. Josh Dech and Dr. JP Saleeby, its co-authors, point out that each has been contested separately in the literature for two decades without anyone testing them as a set. Taken together, they conclude, the conventional model does not hold.

What replaces it is a disease that is partially heritable, environmentally activated, and immune-mediated, and the distinction is not academic for anyone living with one. If exposures determine whether susceptibility becomes disease, exposures can be found and changed. (See link for article, research paper and video)

_____________

SUMMARY:

  • The authors found that genetics only explain about a quarter of disease risk for irritable bowel (IBD).
  • The authors argue that the autoimmune label, despite holding for decades, is based on the weakest evidence and that pathogenic transfer has never been demonstrated.
  • The serologic markers long cited as evidence for autoimmunity turn out to recognize microbial and fungal targets but are not autoantibodies in the classical sense.
  • A review of 53 meta-analyses across 71 risk factors shows the following exposures for IBD that are quantified and modifiable:
    • antibiotic exposure
    • oral contraceptives
    • breast-feeding was protective for Crohn’s and colitis
    • ultra-processed food
    • air pollution
    • psychological stress
    • mold
    • mycotoxins
  • The authors state current treatments complement but ignore the environmental exposures.
  • The authors give the following issues that should be questioned alongside a standard work-up:
    • Birth mode and feeding history
    • Early antibiotic courses, particularly before age 5
    • Water damage & mold exposure at home, work and in vehicles.
    • Adolescent diet, stressors, and infections

At this point in the article, they described a case report on a 14 year old whose Crohn’s progressed far enough that surgeons planned to remove most of his intestines & place a colostomy. Testing pointed to chronic Lyme disease and three months into treatment a repeated scope test found no lesions.

In short, they conclude the following answers for IBS: antibiotic stewardship, breastfeeding support, reducing ultra-processed food, and remediating indoor mold.

After reading the comments after the article, I would be remiss if I did not mention the ‘vaccine’ issue due to the fact they all introduce foreign substances the body recognizes as foe, priming it for later potential problems such as life-threatening allergies to many things including food, which many are also linking to Alpha Gal Syndrome (AGS), an allergy to animal products supposedly caused by ticks – with no solid proof, as well as the fact some get AGS without any known tick involvement. So while ticks play a part, they are obviously not the only ingredient required to get AGS.

Pathogenic priming was shown clearly with the COVID gene therapy injections.

For more:

Weedkillers: Unexpected Breeding Ground for ‘Superbugs’

https://phys.org/news/2026-03-agricultural-soils-exposed-controversial-weedkiller.

Agricultural soils exposed to controversial weedkiller may be unexpected breeding ground for hospital ‘superbugs’

Each year, antimicrobial resistance (AMR) is responsible for an estimated 1.1 to 1.4 million deaths worldwide. Now, scientists have found evidence that the spread of AMR isn’t always driven by bacteria evolving to resist the antibiotics themselves: rather, certain weedkillers can have the same effect.

“Here we show that the most common species of multidrug-resistant bacteria from hospitals are not only resistant to multiple antibiotic classes, but also to high concentrations of the weedkiller glyphosate,” said Dr. Daniela Centrón, a researcher at the Institute of Medical Microbiology and Parasitology in Buenos Aires and the senior author of the study in Frontiers in Microbiology.

“These results suggest that weedkillers—which, unlike antibiotics, are widely applied in agricultural environments—may have the unintended side effect of selecting for AMR among bacterial communities within the soil.”  (See link for article)

https://www.frontiersin.org/journals/microbiology/articles/10.3389/fmicb.2026.1740431/full

Glyphosate resistance as a potential driver for the dissemination of multidrug-resistant clinical strains

Camila A. Knecht 1,2 Barbara Prack McCormick 1,2,3 Verónica E. Álvarez 1,2 Adrián Gonzales Machuca 1,2 Fernanda Buzzola 3,4 Julio Fuchs 5 Pablo Salgado 6 Josefina Campos 7,8 Daniela Centrón 1,2*

  • 1. Departamento de Microbiología, Parasitología e Inmunología, Facultad de Medicina. Universidad de Buenos Aires, Buenos Aires, Argentina

  • 2. Laboratorio de Investigaciones en Mecanismos de Resistencia a Antibióticos (LIMRA), Instituto de Investigaciones en Microbiología y Parasitología Médica (IMPaM), CONICET – Universidad de Buenos Aires, Buenos Aires, Argentina

Abstract

The rise of antimicrobial resistance (AMR) constitutes a serious threat to global health. Environmental bacterial communities are a key reservoir of AMR genes (ARGs) that can spread to clinical pathogens. Biocides, which include broad-spectrum herbicides, can co-select for ARGs, posing a potential driver for AMR spread. Glyphosate, the world’s most widely used herbicide with known bactericidal properties, targets the shikimate pathway and may thus exert selective pressure favoring resistant bacteria, potentially elevating clinical AMR risk from a One Health perspective. We assessed glyphosate resistance in multidrug-resistant (MDR) species isolated from nosocomial infections. Furthermore, we investigated the relationship between glyphosate-resistant environmental species and clinically relevant MDR pathogens using whole-genome sequencing of environmental and clinical strains. Multidrug-resistant species from hospital-acquired infections exhibited high levels of glyphosate resistance. We established a link between glyphosate-resistant environmental species and typically MDR species common in nosocomial settings. Genomic analysis revealed that glyphosate resistance is partially independent of mutations in the target enzyme (5-enolpyruvylshikimate-3-phosphate synthase), suggesting the contribution of alternative mechanisms, such as efflux pumps. Our findings indicate that glyphosate exposure could favor the prevalence of bacteria associated with nosocomial infections and the rise of MDR clinical strains. This suggests that intensive glyphosate use may accelerate the dissemination of AMR. Consequently, the AMR dimension should be incorporated into the environmental risk assessment of biocidal products that are not used as antimicrobial agents.

GMO Risk – Who’s Watching?

https://regenerationinternational.org/2026/03/16/genetically-modified-microorganisms-what-are-the-risks-and-whos-watching/

Genetically Modified Microorganisms: What Are the Risks, and Who’s Watching?

A summary of: Lerner et al., “Genetically Modified Microorganisms: Risks and Regulatory Considerations for Human and Environmental Health,” Microorganisms, 2026. https://doi.org/10.3390/microorganisms14020467

This summary is based on a peer-reviewed paper co-authored by Andre Leu, International Director of Regeneration International, a global nonprofit network dedicated to promoting regenerative agriculture and land management practices. Leu is a longtime advocate for organic farming and soil health, and has written extensively on the risks of pesticides and industrial agriculture. His involvement in this paper reflects Regeneration International’s broader mission to protect the biological integrity of soils and ecosystems, concerns that are central to the study’s findings on GMMs and the soil microbiome.

The Big Picture

When most people hear “GMO,” they think of crops – corn or soybeans engineered to resist pests. But scientists have been quietly engineering something far smaller and potentially far more consequential: microorganisms. Bacteria, yeasts, and fungi have been genetically modified and, in some cases, released into the environment on a massive scale, sometimes without the public even knowing.

A new review article published in the journal Microorganisms by a team of eight scientists and physicians argues that we are moving too fast. The technology to create genetically modified microorganisms (GMMs) has outpaced the regulations designed to keep them in check, and the potential consequences, for human health, for soil, and for the climate, deserve urgent attention.

What Is a Genetically Modified Microorganism?

A microorganism (or “microbe”) is any living thing too small to see with the naked eye: bacteria, viruses, fungi, and more. A genetically modified microorganism is one whose DNA has been intentionally altered in a lab, often using tools like CRISPR-Cas9, a kind of molecular “cut and paste” that can add, remove, or rewrite genetic instructions.

GMMs are not new. Since the 1980s, engineered bacteria have been used to produce human insulin, which transformed diabetes treatment. But the technology has become dramatically cheaper and more accessible. Today, CRISPR kits are available online, and high school students are creating novel microbes in classroom experiments.

The global market for GMMs used in agriculture alone was valued at over $10 billion in 2021 and is expected to nearly triple by 2029.

Why Microbes Are Different, and Potentially More Risky

The authors point out five features of microbes that make them uniquely challenging to regulate compared to genetically modified plants or animals:

  1. They reproduce extremely fast. Under ideal conditions, a single bacterium can double its numbers every 20 minutes. An engineered trait can spread through billions of organisms in hours.
  2. They’re nearly impossible to contain. Microbes travel on wind, water, animals, and people, reaching distant ecosystems and hosts.
  3. They share genes with each other. Through a process called horizontal gene transfer, microbes can pass genetic material to other, completely unrelated, microbes. An engineered gene could end up in microbes that were never modified in the first place.
  4. Microbiomes are essential to life. The communities of microbes living in and around humans, animals, plants, and soils are not just passengers, they are vital to health, immunity, and ecological balance.
  5. We know very little about them. Scientists estimate there are roughly one trillion different microbial species on Earth. We’ve only identified and characterized about 1% of them.

What Could Go Wrong? Key Risk Scenarios

The paper walks through several concrete scenarios where GMMs could cause harm.

Your Baby’s First Microbiome

The first three years of a child’s life are a critical window for establishing the gut microbiome, the community of microbes that shapes immune development, brain development, and lifelong health. A baby’s microbiome is seeded from the mother: through vaginal birth, breastfeeding, and skin contact.

The authors raise concern that GMMs could interfere with this delicate transfer. A genetically modified microbe could colonize a mother’s gut, mouth, vagina, or breast tissue, and then pass to her infant. The authors note that babies born by C-section, who miss out on vaginal microbiome transfer,  already face higher rates of asthma, allergies, celiac disease, and diabetes. Anything that further disrupts microbial inheritance could have lasting consequences. Yet there is currently no research on how GMMs might affect breast milk, pregnancy outcomes, or infant microbiome development.

Your Mouth: A Highway for Gene Transfer

The oral microbiome, the 770-plus species of microbes living in your mouth, plays a surprising role in whole-body health. Friendly oral bacteria contribute up to 25% of your daily production of nitric oxide, a molecule essential for healthy blood pressure. An imbalanced oral microbiome has been linked to increased risk of heart attack, brain inflammation, diabetes, lung infections, and even preterm birth.

The mouth is also a prime location for horizontal gene transfer, meaning it’s a place where engineered genes could easily spread to other microbes. If a GMM displaced beneficial bacteria or shared genes with harmful ones, the downstream effects could be significant and very difficult to reverse.

An Industrial Yeast That Could Trigger Gut Infections

One of the more detailed examples in the paper involves a yeast called Yarrowia lipolytica, which has been widely engineered in industrial settings to produce various compounds. In one application, it was modified to consume a common sugar (xylose, found in fruits, bread, and many processed foods) and produce large amounts of succinate, a chemical normally present only in small quantities in the gut.

The problem: high succinate levels are known to trigger overgrowth of Clostridium difficile (C. diff), a bacterium responsible for severe, potentially life-threatening diarrhea. If engineered Y. lipolytica were to accidentally escape containment and colonize the human gut, particularly in vulnerable people like newborns, premature infants, or immunocompromised patients — it could set the stage for dangerous infections.

A Food Additive Enzyme That May Trigger Autoimmune Disease

An enzyme called microbial transglutaminase (mTg) is widely used in the food industry to improve the texture of processed meats, dairy, and baked goods, essentially acting as a “protein glue.” It’s produced using genetically modified bacteria and is present in countless processed foods worldwide. The global market for mTg was valued at $136 million in 2024, growing rapidly.

The authors argue the safety status of this enzyme deserves serious reconsideration. Unlike the human body’s own transglutaminase enzyme, mTg lacks the usual biological “off switches.” It can operate across a wider range of conditions, penetrate tissue more readily, and form chemical bonds that are highly resistant to the body’s normal breakdown processes.

Research has linked mTg to increased intestinal permeability (sometimes called “leaky gut”), celiac disease, autoimmune conditions, and potentially neurodegenerative diseases. Regulatory bodies in Switzerland, Germany, and Canada have already issued warnings, yet mTg continues to be used in processed foods globally with limited oversight.

Soil Microbes: The Foundation of All Life, and Climate Stability

Perhaps the most sweeping concern in the paper is about soil. One teaspoon of healthy soil contains billions of microbes. These microbes break down organic matter, cycle nutrients, and, critically, sequester carbon dioxide from the atmosphere. Soils hold more carbon than all plants and the atmosphere combined.

GMMs are already being released into agricultural soils at enormous scale. One company has spread its genetically engineered bacteria across nearly 5 million acres of farmland, releasing as many as 5 trillion microbes per acre. Another product covers 10 million acres and counting.

The authors warn that introducing engineered microbes into soil ecosystems, which are already stressed by climate change and industrial agriculture, could have cascading effects. Genetically engineered microbes could transfer their genes to native soil bacteria, creating new organisms with unpredictable traits. They could disrupt the delicate microbial processes that stabilize carbon in the soil. They could pave the way for “super bugs”,  highly adapted, resistant microbes — just as herbicide-resistant “super weeds” emerged after widespread use of GM crops.

The Regulatory Gap

In the United States, GMMs used commercially are primarily regulated by the Environmental Protection Agency (EPA), under laws designed for toxic chemicals, not living, self-replicating organisms. Most GMMs not intended for commercial sale are effectively unregulated and untracked.

Meanwhile, many countries including the US, UK, Canada, and Australia have been deregulating gene-edited organisms, particularly those that don’t introduce DNA from another species. The authors argue this creates a dangerous blind spot, since gene editing can still cause unpredictable genetic changes, large deletions, chromosomal rearrangements, and unintended mutations, whether or not foreign genes are introduced.

As the U.S. Department of Homeland Security has acknowledged, the speed of innovation has outpaced American regulatory policy, and that gap needs to close.

What the Authors Are Calling For

The researchers propose a structured “biosafety workflow”, essentially a checklist of questions that should be answered before any GMM is created or released:

  • What is the GMM’s intended function, and are there safer alternatives?
  • What are the potential routes of escape or spread?
  • How might the GMM interact with human microbiomes?
  • What are the risks to soil, water, and wild ecosystems?
  • What monitoring will occur after release?

Above all, they urge regulators to adopt the precautionary principle, the idea that when something carries significant potential for irreversible harm, the burden of proof should fall on demonstrating safety before release, not after.  (See link for article)

For more:

 

Another Reason to Avoid Lab-Grown Beef: AGS

https://www.medscape.com/viewarticle/lab-grown-beef-may-pose-risk-alpha-gal-syndrome

Lab-Grown Beef May Pose Risk for Alpha-Gal Syndrome

Although cultured meat, also known as synthetic meat, has not yet reached Italian dinner tables, it has already sparked intense debate. Some view it as a sustainable and ethically acceptable alternative to conventional meat, whereas others question its taste and compatibility with culinary traditions.

While regulators and consumers await the introduction of cultured meat into the daily diet, safety remains a central concern. A recent study from the University of Canterbury in Christchurch, New Zealand, found that cultured meat contains fewer traditional protein allergens; however, it could paradoxically trigger stronger immune reactions in individuals with existing meat allergies. Researchers have addressed growing consumer curiosity about the health impacts of cultivated meat as a new food product approaches commercialization.

According to a study published in the Journal of Agriculture and Food Research, cultivated meat is produced from animal muscle cells under controlled conditions, and it yields different amounts of proteins than traditional meat.  (See link for article)

____________

**Comment**

The study found the possibility of an increased risk for those with alpha-gal syndrome (AGS)

For more: