Toxicology
The Big Picture
What the major environmental toxicants do to human health — and why the separate literatures keep rhyming.
Separate literatures that start to rhyme
Environmental medicine has an unusual problem. Individually, each pollutant has its own literature, its own specialists, its own regulatory file. Step back far enough, however, and the separate literatures start to rhyme. The same handful of mechanisms — oxidative stress, inflammation, endocrine disruption, epigenetic reprogramming — keep reappearing, and so do the same clinical endpoints: the developing brain, the reproductive system, metabolism, the cardiovascular system, the kidney, and cancer. What follows is an attempt at that wider view.
The scale is not marginal. Pollution is estimated to be responsible for approximately 9 million deaths per year, roughly one in six deaths worldwide, making it the world’s largest environmental risk factor for disease and premature death — an impact greater than that of war, terrorism, malaria, HIV, tuberculosis, drugs and alcohol, and on par with smoking (Fuller et al. 2022; Lagunas-Rangel et al. 2022). The World Health Organization has attributed 2 million premature deaths and 53 million disability-adjusted life-years to hazardous chemical exposure (Bonanni, Newman, 2024). And these are almost certainly undercounts: only a small fraction of the many thousands of manufactured chemicals in commerce have been adequately tested for safety or toxicity, so the disease burden attributable to chemical pollution is likely substantially greater than current estimates (Fuller et al. 2022).
Endocrine-disrupting chemicals
Most of the compounds discussed below are, or behave as, endocrine-disrupting chemicals (EDCs). They mimic or antagonise endogenous hormones, alter the synthesis or metabolism of hormones, and act through epigenetic modification — often at exceedingly low concentrations, and with non-monotonic dose-response curves that classical toxicology was not designed to detect (Amon, Kek, Klun, 2024; Minderoo-Monaco Commission, 2023). A growing epidemiological literature links them to adverse reproductive outcomes, neurological development, morbidity and mortality (Minderoo-Monaco Commission, 2023).
Three features make them particularly troubling. First, their transgenerational reach: exposure affects not only the directly exposed generation but their children and grandchildren, through epigenetic programming (Janesick, Blumberg, 2016; Amon, Kek, Klun, 2024). After pregnant animals were exposed to endocrine disruptors found in common fungicides and pesticides, fertility alterations persisted through all four successive generations examined (Genuis, 2006). Second, their metabolic reach — a subclass now termed "metabolism-disrupting chemicals," implicated in obesity, insulin resistance and type 2 diabetes (Dalamaga et al. 2024). Third, EDC exposure appears to impair the body’s own detoxification machinery: CYP1A1 activity rising 4.6-fold with excess free-radical production and DNA damage, CYP3A4 expression falling by 68%, glutathione declining to 35% of normal values, and glutathione-S-transferase activity dropping by 72% (Han, Jin, 2025).
THE BODY’S OWN DETOX MACHINERY UNDER EDC EXPOSURE, AS % OF NORMAL
First, third and seventh on the priority list
Arsenic, mercury and cadmium rank first, third and seventh on the ATSDR substance priority list, and lead, mercury and cadmium sit on the WHO’s list of the ten chemicals of major public health concern (Hafey et al. 2022; Björklund et al. 2019; Gorini, Tonacci, 2024). Collectively they are linked to neurological disorders, cardiovascular problems, kidney damage, cancer, immune suppression, depression, mitochondrial dysfunction and endothelial dysfunction (Milanković et al. 2024), with heavy metal exposure associated with decreased neurocognitive function in a systematic review of eight studies covering over 1.8 million participants (Guevara-Ramírez et al., 2024). A multi-ethnic prospective cohort of more than 6,000 subjects found that higher urinary metal concentrations, individually and as a mixture, predicted worse cognitive performance and greater likelihood of dementia (Sasaki, Carpenter, 2022). Several are themselves endocrine disruptors, binding oestrogen, androgen, glucocorticoid and mineralocorticoid receptors (Abbasi et al. 2025; Średnicka et al., 2021).
Mercury causes potentially irreversible central nervous system damage, with memory loss, attention deficits and links to Alzheimer’s disease, partly through inhibition of tubulin (Lee, Park, Seo, 2018; Iqubal et al. 2020). It deposits in placenta, fetal tissue and breast milk (Bernhoft, 2012), and pregnant women exposed to high methylmercury concentrations can give birth to children with severe brain damage without themselves showing symptoms (Björklund et al. 2019). It also impairs cardiac autonomic function following intrauterine exposure (Scimeca et al. 2024), damages kidney mitochondria (Koyama, Kamogashira, Yamasoba, 2024), and is associated with infertility, sperm DNA damage and menstrual and hormonal disorders in both sexes (Henriques et al. 2019). Route of entry matters as much as dose: oral exposure is not comparable to parenteral, and after a single intramuscular dose of 20 µg of mercury as ethylmercury, transport from muscle to blood, brain, heart, kidney and liver and conversion to inorganic mercury occurred rapidly (Dórea, 2020).
Cadmium is an IARC Group 1 human carcinogen with a biological half-life of 15–30 years and adverse effects reported from intakes as low as 15 µg/day (Liu et al. 2023; Hafey et al. 2022). It concentrates in the renal cortex, producing tubulointerstitial nephritis, Fanconi syndrome and end-stage renal disease (Koyama, Kamogashira, Yamasoba, 2024; Thévenod, Lee, 2024), drives endothelial dysfunction, atherosclerosis, hypertension, coronary heart disease and stroke (Koyama, Kamogashira, Yamasoba, 2024; Martinez-Morata et al. 2024), exerts strong oestrogenic effects at low doses (Ronchetti et al. 2016), acts as an immunotoxicant associated with increased influenza mortality (Fuller et al. 2022; Milanković et al. 2024), and is found at elevated concentrations in the brain, liver and plasma of Alzheimer’s patients (Gorini, Tonacci, 2024).
Lead has no safe blood level in children: levels of ≥2 µg/dL at 6–24 months translate into lost IQ points at ages 5–10 (Boyle et al. 2021; Merced-Nieves et al. 2021). Beyond cognition, childhood exposure is associated with ADHD-like behaviour, aggression, antisocial and delinquent behaviour, substance abuse in adolescence, autism severity and schizophrenia risk (Ahmad, Liu, 2020; Torrente, Colomina, Domingo, 2005). In adults, even very low doses raise blood pressure and cardiovascular risk and impair renal function (NTP, 2012; Harari et al. 2018; Li, Zhao, 2024; EFSA, 2010). The WHO estimated that roughly half of the 2 million deaths attributable to chemical exposures in 2019 were lead-related, and lead is thought to account for 30% of the global burden of idiopathic intellectual disability (Gorini, Tonacci, 2024); global health expenditures attributable to lead have been put at $6 trillion (Salamanca-Fernández et al. 2025).
Arsenic is a Group 1 carcinogen causing skin, bladder and lung cancer (Liu et al. 2023), associated with poorer language, visuospatial and executive function even at low groundwater exposures (Gorini, Tonacci, 2024), with reduced memory and hippocampal changes (Domingo-Relloso et al. 2024), with anxiety, depression, attention problems and rule-breaking behaviour in schoolchildren (Renzetti et al. 2021), and with albuminuria and chronic kidney disease (Koyama, Kamogashira, Yamasoba, 2024).
Aluminium has no biological role and is an accepted neurotoxin affecting memory and cognition, with a postulated link to Alzheimer’s disease debated since 1965 (Panaiotov et al. 2024; Bryliński et al. 2023; Domingo, 2006). Occupationally exposed individuals showed a 6.77-fold greater risk of cognitive decline than controls after adjustment (Rubio-Casillas, Redwan, Uversky, 2022). It has also been linked to impaired lung function, cancers, dyslipidaemia, obesity and cardiovascular disease (Gorini, Tonacci, 2024; Scimeca et al. 2024). Bioavailability is again route-dependent: aluminium salts that bypass the intestinal barrier are readily available for bioaccumulation, with accumulation demonstrated in the brains of mice after injection — peaking two to three days afterwards — and selective accumulation in the lumbar spinal cord of sheep after subcutaneous administration (Dórea, 2020). Behavioural changes have been reported in mice at injected doses modelling paediatric exposure levels, although findings across laboratories are not uniform (Dórea, 2020), and a research avenue examining aluminium’s adjuvant and neuroimmune effects has been argued to warrant more systematic attention (Rubio-Casillas, Redwan, Uversky, 2022).
Compounds that outlast the exposure
POPs as a class are associated with Parkinson’s disease, Alzheimer’s disease, stroke, epileptic seizures, multiple sclerosis, dementia and ADHD, with organochlorides and organophosphates crossing the blood–brain barrier and damaging dopaminergic neurons (Iqubal et al. 2020). Chronic low-dose exposure is associated with increased risk of colorectal polyps and cancer (Lee et al. 2018), with higher cardiovascular disease burden (Sergeev, Carpenter 2020), with cardiometabolic risk factors, obesity and type 2 diabetes (Rouhou et al. 2016; Yanev, Chaldakov, 2012; Mustieles, Arrebola, 2020), with reduced capacity to fight infection and increased allergic asthma risk after early-life exposure (Mallozzi et al. 2016), and with autism spectrum disorder (Dhulkifle et al. 2021).
PCBs cross the blood–brain barrier and accumulate in the brain, producing motor incoordination, cognitive deficits and lower IQ (Iqubal et al. 2020), reproductive failure and immunosuppression (Ahmed et al. 2021), extrahepatic bile duct and ampulla of Vater cancer (Dzierzyński et al. 2024), feminising effects in males and masculinising effects in females (González, Domingo, 2021), and lower testosterone at elevated levels (Goncharov et al. 2009).
Dioxins and furans are extraordinarily potent, disrupt androgen synthesis and sperm development (Han, Jin, 2025), and are associated with reproductive and developmental problems, immune damage, hormonal interference and cancer (Domingo, 2022; González, Domingo, 2021).
Pesticides are implicated in Parkinson’s disease (Bryliński et al. 2023), autism spectrum disorder — where organophosphates carry the strongest evidence — and ADHD (Kahn et al. 2020), prostate cancer in occupationally exposed workers (Kahn et al. 2020), increased adiposity and type 2 diabetes (La Merrill et al. 2013; Keramati et al. 2016; Arrebola et al. 2013), higher rates of cardiovascular events (Donat-Vargas et al. 2023), and behavioural problems in infants (Vuong et al. 2020). Atrazine meets the classical Hill criteria as an endocrine disruptor that demasculinises and feminises exposed males (Hayes et al. 2011). Prenatal organophosphate exposure alone is estimated to cost Europe 13.0 million IQ points and 59,300 additional cases of intellectual disability annually (Trasande et al. 2015).
Flame retardants affect thyroid function, reproductive development, fertility, birth outcomes, metabolic function, neurodevelopment and cancer (Hoffman et al. 2025). With the exception of two small studies, all studies of PBDEs showed consistent negative associations with IQ; their replacements, OPFRs, have already shown IQ decrements after prenatal exposure (Kahn et al. 2020), and chronic exposure to the household flame retardants TDCPP and TPP was associated with a 19% reduction in sperm concentration (Han, Jin, 2025).
Plastics and plastic chemicals
Bisphenol A acts through endocrine disruption, epigenetic modification, cytokine release and oxidative stress, and has been linked to irregular cycles, ovarian cysts, reduced primordial follicles, placental dysfunction, miscarriage, precocious puberty, erectile dysfunction, neurological impairment, breast and prostate malignancy, metabolic syndrome, obesity, diabetes, allergies and asthma, ADHD, autism, cognitive decline, depression and anxiety (Genuis et al. 2012b; Anwar, Anjum, Ghayas, 2021; Akash et al. 2021). Cardiovascular estimates for the US alone attribute 1.54 million cases of coronary heart disease and 60,738 cases of stroke to BPA exposure (Minderoo-Monaco Commission, 2023). Its substitutes are not benign: BPS shows a hundredfold higher oral bioavailability than BPA in a pig model and adverse effects at much lower doses (Amon, Kek, Klun, 2024), is toxic to the reproductive system (Abouhamzeh et al. 2023), and BPB shows oestrogenic and anti-androgenic activity similar to or greater than BPA (Emanowicz et al., 2024). Bisphenol E, bisphenol AF and DEHP have been associated with significantly higher risk of differentiated thyroid cancer (Renzelli et al. 2023).
Phthalatesproduce a constellation in males known as "phthalate syndrome" — diminished anogenital distance, low sperm count, undescended testes, hypospadias and infertility (Kumar, Singh, 2022) — with decreased semen quality the most consistently observed effect (Chang et al. 2021) and increased ADHD risk among the most consistent neurodevelopmental findings (Chang et al. 2021). They are linked to insulin resistance and increased waist circumference (Dalamaga et al. 2024), cardiovascular disease, and higher overall mortality risk (Beyer et al. 2022), with phthalate-related testosterone reductions associated with 10,700 early cardiovascular deaths (Attina et al. 2016). Their replacements — DINCH, DEHTP, DEHA, ATBC — show endocrine activity of their own (Minderoo-Monaco Commission, 2023).
PFAS cause liver toxicity, kidney toxicity and well-documented immunotoxicity, with the brain a probable target organ, and adverse effects appearing at ever lower blood concentrations (Souza, Domingo, 2025). They are associated with reduced antibody responses to vaccines, increased hospitalisation for infectious disease in children and greater COVID-19 severity (Fuller et al. 2022; Bundesgesundheitsblatt, 2020), with raised total and LDL cholesterol and higher type 2 diabetes prevalence (Schümann, Lilienthal, Hölzer, 2021), with lower testosterone (Rahman, Stokey, Munson-McGee, 2026), and with reduced fetal growth and birth weight (Schümann, Lilienthal, Hölzer, 2021).
Micro- and nanoplastics induce cytotoxicity, pro-inflammatory responses, oxidative stress and mitochondrial disruption in human cells (Minderoo-Monaco Commission, 2023), with reported effects including carcinogenicity, liver dysfunction and endocrine disruption (Dzierzyński et al. 2024). Notably, greater accumulation of micro- and nanoplastics was observed in the brains of decedents with a documented dementia diagnosis (Nihart et al. 2024). They also act as carriers, concentrating and delivering the additives and adsorbed pollutants that travel with them (Lang, Lipp, Wechselberger, 2025).
What everyone breathes, and what grows in the walls
Ambient particulate matter is associated with 3–4 million deaths annually — approximately 7.6% of global mortality — and 103.1 million disability-adjusted life years (Lang, Lipp, Wechselberger, 2025), while 99% of the global population lives where air pollution exceeds safe limits (Wiebe, Olayiwola, Adebiyi, 2025). It drives cardiovascular and cerebrovascular disease through systemic inflammation and coagulation activation (Anderson, Thundiyil, Stolbach, 2012; Scimeca et al. 2024), respiratory morbidity and mortality (Anderson, Thundiyil, Stolbach, 2012), cognitive decline and predisposition to dementia (Fahey et al. 2025; Campolim et al. 2024), major depressive disorder and adverse mental health outcomes (Bhui et al. 2024; Borroni et al. 2024), and roughly 30% of annually developing lung cancer in urban settings (Lagunas-Rangel et al. 2022).
OF EVERY 100 PEOPLE ALIVE TODAY
OF ALL DEATHS WORLDWIDE
Mycotoxins, called "the great masquerader" for their opaque toxic properties (Campbell, 2023), show carcinogenic, mutagenic, reprotoxic and endocrine-disrupting effects; aflatoxin B1 is an IARC Group 1 carcinogen, the most potent naturally occurring liver carcinogen, and a neurotoxin that crosses the blood–brain barrier (Fu et al. 2022; Fahey et al. 2025). Children of mothers exposed to indoor mould scored on average 10 IQ points lower (Jedrychowski et al. 2011). Among the smaller players, benzene is a Group 1 carcinogen causing leukaemia and lymphoma via bone marrow damage (Umweltbundesamt, 2023), and acrylamide is a genotoxic carcinogen and potent neurotoxin (Umweltbundesamt, 2023).
Why the sum exceeds the parts
None of these compounds arrives alone. Two or more may show additive, antagonistic or synergistic interactions (Genuis, 2006), and a review of metal, chemical and mycotoxin mixtures found synergistic effects dominating (Liu, Sayes, 2024). The classic demonstration remains striking: an essentially no-response dose of a mercury salt combined with one-twentieth of the equivalent dose of a lead salt killed all the animals tested (Schubert, Riley, Tyler, 1978). Mercury and aluminium show synergism in the in vitro toxicity of human neuronal-glial cells through the initiation of inflammatory signalling (Dórea, 2020). Mixtures of five parabens suppressed androgen receptor activation at hundredfold lower concentrations than concentration-addition predicted (Martin et al. 2021). Chemicals individually judged non-carcinogenic may conspire to produce carcinogenic synergies (Goodson III. et al. 2015), and exposure to very low doses of a mixture — below the NOAEL — for 18 months induced histopathological lesions and cytotoxic effects in a dose- and tissue-dependent manner (Dinca et al. 2023).
Silent reprogramming
Underlying much of this is durable biological memory. Toxicant exposure produced disrupted expression of 14,908 genes, altered chromatin accessibility at 87,409 regulatory elements and DNA methylation changes at 113,186 genomic regions, with pre- and perinatal disruption persisting into adulthood — a "silent reprogramming" that may prime genes for abnormal expression in response to later challenges (Zhao et al. 2025).
The same mechanisms, the same endpoints, a measurable bill
The aggregate cost is measurable. EDC-related disease is estimated at €163 billion annually in the EU (1.28% of GDP) and $340 billion in the USA (2.33% of GDP) (Trasande et al. 2016; Attina et al. 2016). About one in six children in the US now has a neurodevelopmental disorder, with toxic chemicals among the important causes (Minderoo-Monaco Commission, 2023), and sperm concentration among men from North America, Europe, Australia and New Zealand declined 50–60% between 1973 and 2011 (Levine et al. 2017; Stavros et al. 2025).
As the authors of one review put it, the effects are frequently delayed by decades — which means the absence of symptoms today says very little about what has already been set in motion (Rozman et al. 1982; Zhao et al. 2025).
A summary of findings from the referenced scientific literature. Not medical advice.
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