The AI Illusion

Why Grassroots Research Demands Open-Source Accountability. Generative AI promises unprecedented capabilities in data analysis, but it introduces severe risks for academic research. While large language models can accelerate evidence synthesis, they frequently fabricate plausible-sounding but non-existent citations. The statistical reality is alarming. A recent comparative analysis revealed that when conducting systematic reviews, GPT-3.5 hallucinated 39.6% of its references, GPT-4 hallucinated 28.6%, and Bard reached a staggering 91.4%.

Furthermore, these generative AI tools miss a median of 91% of relevant studies compared to human researchers, making incorrect inclusion decisions in up to 29% of instances and data extraction errors in up to 31% of cases. Because of these exceptionally high error rates, constant human oversight is strictly mandatory. To combat unverified AI-driven workflows, the scientific community requires robust infrastructure. Look out for ResinTox Tools: an upcoming platform specifically dedicated to democratizing grassroots research. By hosting in-house and open source code, applications, and other tailored resources, ResinTox Tools aims to empower citizen scientists to use AI safely. Ultimately, promoting open-source accountability is essential. Countering AI hallucinations will require users of community-driven platforms to ensure that our future research methodologies remain safe, responsible, and rigorously verified.

Chelli, M., Descamps, J., Lavoué, V., Trojani, C., Azar, M., Deckert, M., Raynier, J. L., Clowez, G., Boileau, P., & Ruetsch-Chelli, C. ‘Hallucination Rates and Reference Accuracy of ChatGPT and Bard for Systematic Reviews: Comparative Analysis’
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Clark, J. et al. ‘Generative artificial intelligence use in evidence synthesis: A systematic review’
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AlphaFold and Machine Learning

A Paradigm Shift in Environmental Toxicology. Environmental toxicology is undergoing a paradigm shift. For years, researchers relied on traditional homology modeling tools like SWISS-MODEL to predict protein structures. Today, the integration of AlphaFold’s highly accurate ab initio 3D predictions is transforming how we assess environmental risks. A prime example is the screening of endocrine-disrupting chemicals (EDCs). Recent analyses utilizing the zebrafish androgen receptor demonstrate that AlphaFold-generated models offer superior structural stability.

Moreover, AlphaFold-derived MMPBSA binding energies are statistically significant (p < 0.05) contributors to ligand-specific variance when compared to in vitro EC50 values, easily outperforming older techniques. Beyond direct screening, toxicologists are leveraging the expansive AlphaFold-2 database, which houses over 350,000 predicted protein structures, to train novel machine learning pipelines. These computational frameworks accurately quantify 3D protein similarities across diverse species. By mapping cross-species structural alignments, researchers can now optimize the selection of animal models for human toxicity testing with unprecedented precision. Ultimately, the fusion of high-fidelity structural predictions and advanced machine learning is elevating the accuracy of environmental risk assessments, moving the field past traditional limitations into a highly predictive, data-driven future.

Md Adnan Karim, Chang Gyun Park, Hyunki Cho, Annmariya Elayanithottathil Sebastian, Chang Seon Ryu, Juyong Yoon, Young Jun Kim ‘Leveraging AlphaFold models to predict androgenic effects of endocrine-disrupting chemicals through zebrafish androgen receptor analysis’
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Shreyas U Hirway, Xiao Xu, Fan Fan ‘A novel computational machine learning pipeline to quantify similarities in 3D protein structures’
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Toxicants in the Oceans:

The Silent Sink

Our oceans serve as the ultimate global sink for chemical waste, leading to the sequestration and accumulation of persistent organic pollutants (POPs). Toxicologists are particularly concerned with Polychlorinated Biphenyls (PCBs) and organochlorine pesticides that resist biological and chemical degradation. These substances are “hydrophobic”, meaning they prefer to bind to organic matter and marine sediments rather than remain in the water column, leading to the pervasive phenomenon of bioaccumulation.

In the deep sea, even in remote areas like the Mariana Trench, researchers have discovered alarming concentrations of toxins in amphipods and other fauna. As these chemicals move up the trophic levels—from micro-plankton to apex predators like sharks, swordfish, and cetaceans—they “biomagnify”, reaching internal concentrations millions of times higher than the surrounding seawater. These toxicants act as potent endocrine disruptors, often impairing reproductive success, causing developmental abnormalities, and suppressing immune functions in marine mammals. For human populations, this presents a significant food safety risk; the consumption of contaminated seafood can lead to the chronic ingestion of these legacy poisons, potentially impacting neurological development and metabolic health in vulnerable groups.

Solvents in Beauty Products:

Europe vs. The World

The toxicological profile of solvents in cosmetics—used to dissolve active ingredients, control viscosity, or improve skin penetration—is managed with varying degrees of rigour across the globe. In the European Union, the Cosmetics Regulation (EC) No 1223/2009 is among the strictest in the world, prohibiting over 1,600 substances. European law requires a comprehensive safety assessment for every product, specifically scrutinising solvents like toluene, formaldehyde-releasers, or certain glycol ethers for potential reproductive toxicity, sensitisation, or endocrine disruption.

Globally, the landscape is shifting but remains fragmented. While the United States recently updated its framework via the Modernization of Cosmetics Regulation Act (MoCRA), it traditionally operates on a “post-market” surveillance model, whereas the EU utilises a “pre-market” precautionary approach. Toxicologists focus on the “Margin of Safety” (MoS) to ensure that even if a solvent is absorbed through the dermal barrier, the internal dose remains far below the “No Observed Adverse Effect Level” (NOAEL). This regulatory discrepancy means products sold in some global markets may contain volatile organic compounds (VOCs) that are restricted or entirely banned in Europe, potentially exposing consumers to higher cumulative risks over time.

Paracetamol and Autism:

What the Science Actually Says

In recent years, sensationalist headlines have suggested a link between paracetamol (acetaminophen) use during pregnancy and neurodevelopmental issues like autism spectrum disorder (ASD). However, the current toxicological and epidemiological consensus suggests that these associations are likely not causal. A landmark 2024 study involving nearly 2.5 million children in Sweden utilised rigorous “sibling-pair” analysis to control for the confounding effects of shared genetic and environmental factors.

The results, as summarised by the University of New South Wales, demonstrated that when siblings were compared—where one was exposed in utero and the other was not—the statistical link to autism effectively vanished. This suggests that the “confounding by indication”—the underlying reason the medication was taken, such as a severe maternal infection or high fever—or shared familial genetics were the true drivers of the observation, rather than the pharmacological action of the drug itself. Major health bodies, including the World Health Organization (WHO), continue to advise that paracetamol remains the first-line and safest option for managing pain and fever during pregnancy, provided it is used at the lowest effective dose for the shortest possible duration.

The Dawn of Universal Antivenom

2026 Update

For over a century, antivenom production relied on 19th-century methods: injecting horses and harvesting their antibodies. As of January 2026, we are finally entering the era of synthetic, “universal” solutions.

The AI Revolution

A major milestone this year is the scaling of AI-designed proteins. Researchers from the Baker Lab and DTU have moved past the “discovery” phase into manufacturing synthetic “mini-binders.” Using generative AI, they designed proteins that fit the molecular “locks” of neurotoxins like a key, neutralizing venom from cobras and mambas without using a single animal.

Human “Super-Antibodies”

In clinical news, Centivax has successfully moved the “Friede Cocktail” into late-stage preclinical testing. Derived from Tim Friede—a man who survived over 200 bites—this treatment combines human antibodies with the small-molecule inhibitor varespladib. It has shown a near-universal ability to neutralize elapid neurotoxins across 19 different species.

Stability and Access

Perhaps most significantly, the Liverpool School of Tropical Medicine (LSTM) recently unveiled a recombinant nanobody cocktail specifically for sub-Saharan Africa. These lab-grown treatments are heat-stable, removing the need for refrigeration in rural clinics—the single biggest barrier to saving lives today.

Site updated with new interactive pages

We are now presenting material that has been developed in late 2025, we cannot stress how much it means to ResinTox that we sometimes get nearly 80 000 visitors per month. Please continue to spread the word, so we can gain new collaborators, a wider network so we can provide more open science in an “easy-to-understand”-format. The focus is on being factually correct, without spreading alarmist points of view or scaring people. Just mentioning what is happening, what people do to help and prevent, as well as what everyone else can do with little to no effort at all. Just by knowing a bit more.

Toxicological News first half of January 2026


Recent toxicological breakthroughs in January 2026 focus on AI-driven drug discovery, novel pain treatments targeting specific sodium channels, advances in biomanufacturing for diagnostics, and managing environmental toxins like mycotoxins and microplastics, with emerging research highlighting natural compounds (like bamboo) for detoxification and bioremediation of pollutants, alongside regulatory actions on industrial chemicals like 1,3-butadiene. 

The Global Persistence of ‘Forever Chemicals’

From non-stick frying pans to water-resistant outdoor gear, PFAS (per- and polyfluoroalkyl substances) have become an invisible staple of modern manufacturing. These synthetic compounds are prized for their ability to repel oil and water, but their greatest industrial strength is also a significant environmental threat. Because they do not break down naturally, they have earned the notorious nickname ‘forever chemicals’.

The scale of the issue is truly international. PFAS are highly mobile, travelling through water systems and atmosphere to reach even the most remote corners of the globe. The European Environment Agency has highlighted that these substances accumulate in the human body and the environment, leading to long-term exposure risks that transcend national borders.

Research into the health impacts of PFAS is ongoing worldwide. High levels of exposure have been linked to liver damage, thyroid disease, and developmental issues. Consequently, international bodies like the OECD are working to coordinate the risk assessment and management of these chemicals on a global scale.

As the world moves towards a more sustainable future, the transition to PFAS-free alternatives is becoming a priority for manufacturers and consumers alike. By choosing products with transparent chemical credentials, we can all contribute to reducing the global burden of these persistent pollutants.