Toxicology
The Other Half of the Picture
Where the previous survey followed the substances, this one follows the damage.
Organise by effect, and a different pattern appears
Most writing about environmental pollutants proceeds compound by compound — a chapter for lead, a chapter for PFAS, a chapter for phthalates. There is a good reason for this, but it obscures something important. Turn the map around and organise by effect rather than by substance, and a different pattern appears: a small number of clinical endpoints keep recurring, and at each of them a dozen chemically unrelated compounds converge from different directions.
The stakes justify the exercise. Pollution is responsible for approximately 9 million deaths per year — roughly one in six deaths worldwide — making it the largest environmental risk factor for disease and premature death, greater than war, terrorism, malaria, HIV, tuberculosis, drugs and alcohol, and on par with smoking (Fuller et al. 2022; Lagunas-Rangel et al. 2022). The WHO has separately attributed 2 million premature deaths and 53 million disability-adjusted life-years to hazardous chemical exposure (Bonanni, Newman, 2024). Attribution, however, is uneven: some effects, such as kidney disease following lead exposure or the loss of particular neurons following methylmercury exposure, are clearly attributable to particular exposures, while cancer, birth defects and many endocrine and nervous system actions are difficult to ascribe with certainty to any single exposure (Carpenter et al. 1998).
The deepest evidence base, and the highest stakes
Over 200 chemicals — including lead, methylmercury, PCBs, arsenic, organochlorine and organophosphate pesticides, organic solvents and brominated flame retardants — are neurotoxic to humans, and many are widespread in the modern environment; children are particularly susceptible, and even low-dose exposures during key developmental windows have more serious effects than high-dose exposures to the same chemicals in adults (Fuller et al. 2022).
For lead there is no safe blood level in children: any early-life exposure, even in minute quantities, leads to sustained neuropathological alterations (Ahmad, Liu, 2020), with levels of ≥2 µg/dL at 6–24 months translating into lost IQ points at ages 5–10 (Boyle et al. 2021; Merced-Nieves et al. 2021), and childhood blood lead correlating with deficits in perceptual reasoning, working memory and IQ, and decline in socioeconomic status, still measurable at 38 years of age (Ahmad, Liu, 2020). Lead is thought to account for 30% of the global burden of idiopathic intellectual disability (Gorini, Tonacci, 2024). Methylmercury damages fetal neurodevelopment with effects on behaviour, cognition, motor skills, and the immune and reproductive systems later in life, and pregnant women exposed to high concentrations can give birth to children with severe brain damage without themselves showing symptoms (HBM4EU, 2022c; Björklund et al. 2019). With the exception of two small studies, all studies of PBDE flame retardants showed consistent negative associations with IQ, and their replacements, OPFRs, have already shown IQ decrements after prenatal exposure (Kahn et al. 2020). PCBs cross the blood–brain barrier and accumulate in brain tissue, producing motor incoordination, cognitive deficits and lower IQ (Iqubal et al. 2020), with prenatal exposure producing decrements in cognitive function and behaviour that appear irreversible (Carpenter et al. 1998). Children of mothers exposed to indoor mould scored on average 10 IQ points lower (Jedrychowski et al. 2011).
The aggregate is substantial: 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 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).
Attention, conduct and the autism spectrum
Closely adjacent, but distinct, is the behavioural literature. Increased ADHD risk is among the most consistent neurodevelopmental findings for phthalates (Chang et al. 2021), and organophosphate pesticides carry the strongest evidence for autism spectrum disorder, with ADHD associations also reported (Kahn et al. 2020). Childhood lead 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), and developmental lead exposure alters emotional regulation via functional changes in the hypothalamic–pituitary–adrenal axis (Ahmad, Liu, 2020). Arsenic is associated with anxiety, depression, attention problems and rule-breaking behaviour in schoolchildren (Renzetti et al. 2021). BPA exposure has been linked with hyperactivity and aggression in 2-year-old girls, depression and anxiety in 3-year-olds, and elevated emotional reactivity and aggression in boys (Anwar, Anjum, Ghayas, 2021; Akash et al. 2021). Persistent organic pollutants as a class are associated with autism spectrum disorder (Dhulkifle et al. 2021), and prenatal pesticide exposure with behavioural problems in infants (Vuong et al. 2020).
Cognitive decline in adults
A systematic review covering over 1.8 million participants found heavy metal exposure associated with decreased neurocognitive function (Guevara-Ramírez et al., 2024), and in a multi-ethnic prospective cohort of more than 6,000 subjects, higher urinary metal concentrations — individually and as a mixture — predicted worse cognitive performance and greater likelihood of dementia (Sasaki, Carpenter, 2022). Mercury inhibits tubulin function, causing neuronal damage implicated in Alzheimer’s disease (Lee, Park, Seo, 2018), with sufficient evidence supporting deleterious effects of continuous occupational mercury exposure on memory and attention that may represent early clinical signs of Alzheimer’s (Gorini, Tonacci, 2024). Cadmium is found at elevated concentrations in the brain, liver and plasma of Alzheimer’s patients (Gorini, Tonacci, 2024), and developmental lead exposure alters both major pathogenic species of Alzheimer’s pathology, amyloid-beta and hyperphosphorylated tau, at protein and gene level (Ahmad, Liu, 2020). Aluminium is an accepted neurotoxin affecting memory and cognition with a postulated Alzheimer’s link 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). POPs as a class are associated with Parkinson’s disease, Alzheimer’s disease, stroke, epileptic seizures, multiple sclerosis and dementia (Iqubal et al. 2020), pesticides specifically with Parkinson’s (Bryliński et al. 2023), and air pollution with cognitive decline and predisposition to dementia (Fahey et al. 2025; Campolim 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).
Mood, and the air outside the window
Air pollution is significantly associated with major depressive disorder and is detrimental to mental health generally (Borroni et al. 2024), acting both directly and indirectly through respiratory pathways (Bhui et al. 2024). Heavy metals are linked with depression alongside their other effects (Milanković et al. 2024), occupational PCB exposure with fatigue and depression (Dahlgren et al., 2007), and BPA with depression and anxiety (Genuis et al. 2012b).
Reproduction, in both sexes
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). Phthalates produce a constellation in males termed "phthalate syndrome" — diminished anogenital distance, low sperm count, undescended testes, hypospadias and infertility (Kumar, Singh, 2022) — with decreased semen quality their most consistently observed effect (Chang et al. 2021). Chronic exposure to the household flame retardants TDCPP and TPP was associated with a 19% reduction in sperm concentration (Han, Jin, 2025). BPA is negatively associated with semen quality across cohorts in Australia, China, Denmark and Spain and in five fertility-clinic studies (Kahn et al. 2020), and causes sperm DNA damage, mitochondrial dysfunction and reduced motility (Kumar, Singh, 2022). PFAS are associated with lower testosterone (Rahman, Stokey, Munson-McGee, 2026), PCBs with lower testosterone at elevated levels (Goncharov et al. 2009), and mercury with infertility, sperm DNA damage and menstrual and hormonal disorders in both sexes (Henriques et al. 2019).
separately: −19% sperm concentration with the household flame retardants TDCPP and TPP · 618,000 additional ART procedures a year in Europe attributed to phthalate-driven male infertility (Han & Jin, 2025; Trasande et al., 2015)
In women, BPA is linked to irregular cycles, multiple ovarian cysts, reduction in primordial follicles, placental dysfunction, miscarriage and neonatal mortality, with six cross-sectional studies reporting positive associations with polycystic ovarian syndrome (Genuis et al. 2012b; Kahn et al. 2020). Dioxins exert teratogenicity, hypofertility, immunosuppression and thyroid dysfunction (Nakano, Takekoshi, Nakano, 2007). PFAS are associated with reduced fetal growth and birth weight (Schümann, Lilienthal, Hölzer, 2021) and with pregnancy complications, low birth weight and altered sex hormones (Thoerig et al., 2025). Benzophenone-3 is reprotoxic and interferes with thyroid hormones (Govarts et al. 2023). PCBs produce feminising effects in males and masculinising effects in females (González, Domingo, 2021), and atrazine meets the classical Hill criteria as an endocrine disruptor that demasculinises and feminises exposed males (Hayes et al. 2011). Phthalate-attributable male infertility is estimated to drive 618,000 additional assisted reproductive technology procedures annually in Europe (Trasande et al. 2015).
Obesity and diabetes
A distinct subclass of endocrine disruptors — "metabolism-disrupting chemicals" — is implicated in obesity, insulin resistance and type 2 diabetes (Dalamaga et al. 2024). High POP levels are associated with cardiometabolic risk factors, obesity and type 2 diabetes (Rouhou et al. 2016; Yanev, Chaldakov, 2012; Mustieles, Arrebola, 2020). Serum PFAS levels are associated with higher type 2 diabetes prevalence and raised total and LDL cholesterol (Schümann, Lilienthal, Hölzer, 2021). Phthalates are linked to insulin resistance and increased waist circumference (Dalamaga et al. 2024), with two case-control and two cohort studies identifying them as a type 2 diabetes risk factor (Kahn et al. 2020). Organochlorine pesticides increase adiposity (La Merrill et al. 2013), with HCB significantly raising type 2 diabetes risk (Keramati et al. 2016; Arrebola et al. 2013). Bisphenols are associated with adult diabetes (Kahn et al. 2020), and prenatal BPA exposure has a 20–69% probability of causing 42,400 new cases of childhood obesity annually (Trasande et al. 2015). Chronic arsenic exposure is likewise associated with diabetes (Hafey et al. 2022).
Cardiovascular and renal disease
POPs are associated with a higher cardiovascular disease burden (Sergeev, Carpenter 2020). Cadmium drives endothelial dysfunction, atherosclerosis, hypertension, coronary heart disease and stroke (Koyama, Kamogashira, Yamasoba, 2024; Martinez-Morata et al. 2024); lead raises blood pressure and cardiovascular risk even at very low doses (NTP, 2012; Li, Zhao, 2024; EFSA, 2010); mercury impairs cardiac autonomic function after intrauterine exposure (Scimeca et al. 2024); and aluminium has been linked to dyslipidaemia and cardiovascular disease (Gorini, Tonacci, 2024; Scimeca et al. 2024). Ambient particulate matter drives cardiovascular and cerebrovascular disease through systemic inflammation and coagulation activation (Anderson, Thundiyil, Stolbach, 2012; Scimeca et al. 2024). For BPA, US estimates attribute 1.54 million cases of coronary heart disease and 60,738 cases of stroke to exposure (Minderoo-Monaco Commission, 2023), while phthalate-related testosterone reductions are associated with 10,700 early cardiovascular deaths (Attina et al. 2016), and phthalate exposure with higher overall mortality risk (Beyer et al. 2022).
The kidney is a particular target because it concentrates what it filters. Cadmium accumulates in the renal cortex, producing tubulointerstitial nephritis, Fanconi syndrome and end-stage renal disease (Koyama, Kamogashira, Yamasoba, 2024; Thévenod, Lee, 2024); mercury accumulates mainly in the kidneys and damages renal mitochondria (Umweltbundesamt, 2023; Koyama, Kamogashira, Yamasoba, 2024); arsenic is associated with albuminuria and chronic kidney disease (Koyama, Kamogashira, Yamasoba, 2024); and lead impairs renal function at low doses (Harari et al. 2018).
Immune function, allergy and autoimmunity
Immunotoxicity is one of three particularly worrisome and inadequately charted consequences of chemical pollution, alongside developmental neurotoxicity and reproductive toxicity (Fuller et al. 2022). PFAS show well-documented immunotoxicity, with reduced antibody responses to vaccination, increased hospitalisation for infectious disease in children and greater COVID-19 severity (Souza, Domingo, 2025; Fuller et al. 2022; Bundesgesundheitsblatt, 2020), and are further associated with allergies, susceptibility to infectious disease, immunosuppression and autoimmune disease (Thoerig et al., 2025). Early-life POP exposure reduces the capacity to fight infection and raises the risk of allergic manifestations such as asthma later in life, by mechanisms still largely unexplored (Mallozzi et al. 2016). Growing human evidence links phthalate exposure, including DEHP and BBzP, to increased asthma risk (Umweltbundesamt, 2023). Cadmium acts as an immunotoxicant associated with increased influenza mortality (Fuller et al. 2022; Milanković et al. 2024). Children of PCB-exposed mothers show altered thyroid function and problems with immune response (Fatima, Rehman, Akash, 2021), and dioxins are immunosuppressive (Nakano, Takekoshi, Nakano, 2007).
What the classifications already say
Several of these agents are IARC Group 1 human carcinogens: cadmium (Liu et al. 2023), arsenic — causing skin, bladder and lung cancer (Liu et al. 2023) — benzene, which causes leukaemia and lymphoma via bone marrow damage (Umweltbundesamt, 2023), and aflatoxin B1, the most potent naturally occurring liver carcinogen (Fu et al. 2022). Eight PAHs are classified as "may cause cancer" under the European CLP Regulation (Umweltbundesamt, 2023), DDT is IARC Group 2A and HCB Category 1B (Umweltbundesamt, 2023).
WHAT THE CLASSIFICATIONS ALREADY SAY
Chronic low-dose POP exposure is associated with increased risk of colorectal polyps and cancer (Lee et al. 2018), PCBs with extrahepatic bile duct and ampulla of Vater cancer (Dzierzyński et al. 2024), pesticides with prostate cancer in occupationally exposed workers (Kahn et al. 2020), bisphenol E, bisphenol AF and DEHP with significantly higher risk of differentiated thyroid cancer (Renzelli et al. 2023), BPA with breast and prostate malignancy (Genuis et al. 2012b), and PBDEs with liver tumours and tumour-promoting activity via genotoxicity, oxidative stress and endocrine disruption (Domingo et al. 2025). Around 30% of annually developing lung cancer in urban settings is attributed to air pollution (Lagunas-Rangel et al. 2022).
Four features cut across every endpoint above
Timing. Effects during development are frequently irreversible, and many of the most consequential alterations occur in organs that are hormonally regulated (Carpenter et al. 1998). Mitigating exposures during early windows of susceptibility is expected to have the greatest impact on preventing later disease (Sargis, Heindel, Padmanabhan, 2019).
Heritability. 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 (Zhao et al. 2025). 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), and epigenetic alterations within germ cells pose multigenerational adverse effects on the reproductive system (Thévenod, Lee, 2024).
Mixtures. Two or more compounds may act additively, antagonistically or synergistically (Genuis, 2006), and a review of metal, chemical and mycotoxin mixtures found synergistic effects dominating (Liu, Sayes, 2024). An essentially no-response dose of a mercury salt combined with one-twentieth of the equivalent dose of a lead salt killed all animals tested (Schubert, Riley, Tyler, 1978); mercury and aluminium act synergistically on human neuronal-glial cells through 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 produce carcinogenic synergies (Goodson III. et al. 2015); and exposure to a mixture below the NOAEL for 18 months induced histopathological lesions and cytotoxic effects (Dinca et al. 2023).
Self-perpetuation. Exposure impairs the very machinery that clears it: 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 financial reckoning follows the biological one. Endocrine-disruptor-related disease is estimated at €163 billion annually in the EU — 1.28% of GDP — and $340 billion in the USA, or 2.33% of GDP (Trasande et al. 2016; Attina et al. 2016), with global health expenditures attributable to lead alone put at $6 trillion (Salamanca-Fernández et al. 2025). And the true totals are almost certainly larger: only a small fraction of the many thousands of manufactured chemicals in commerce have been adequately tested for safety or toxicity, so undercounting of the attributable disease burden is probably substantial (Fuller et al. 2022).
A summary of findings from the referenced scientific literature. Not medical advice.
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