Cadmium (Cd) Heavy Metal Testing and Certification

Did you know?

Although cadmium is a known carcinogen, it does not only cause cancer in those who are heavily exposed. Long-term, low-level exposures through contaminated food sources like rice and vegetables have been linked to an increased risk of lung and prostate cancer.

Cadmium (Cd)

Researched by:

  • Divine Aleru ID
    Divine Aleru

    User avatarDivine Aleru is an accomplished biochemist and researcher with a specialized background in environmental toxicology, focusing on the impacts of heavy metals on human health. With deep-rooted expertise in microbiome signatures analysis, Divine seamlessly blends rigorous scientific training with her passion for deciphering the intricate relationships between environmental exposures and the human microbiome. Her career is distinguished by a commitment to advancing integrative health interventions, leveraging cutting-edge microbiome research to illuminate how toxic metals shape biological systems. Driven by curiosity and innovation, Divine is dedicated to translating complex environmental findings into actionable insights that improve individual and public health outcomes.

    Read More
  • Karen Pendergrass ID
    Karen Pendergrass

    User avatarKaren Pendergrass is a researcher specializing microbial metallomics and microbiome signatures, with a focus on bridging research and clinical practice. She is the co-founder of several initiatives, including Microbiome Signatures and the Heavy Metal Tested & Certified program, which translate complex science into actionable standards.

    Read More

October 14, 2025

Cadmium is a persistent heavy metal that accumulates in kidneys and bones. Dietary sources include cereals, cocoa, shellfish and vegetables, while smokers and industrial workers receive higher exposures. Studies link cadmium to kidney dysfunction, bone fractures and cancer.

Researched by:

  • Divine Aleru ID
    Divine Aleru

    User avatarDivine Aleru is an accomplished biochemist and researcher with a specialized background in environmental toxicology, focusing on the impacts of heavy metals on human health. With deep-rooted expertise in microbiome signatures analysis, Divine seamlessly blends rigorous scientific training with her passion for deciphering the intricate relationships between environmental exposures and the human microbiome. Her career is distinguished by a commitment to advancing integrative health interventions, leveraging cutting-edge microbiome research to illuminate how toxic metals shape biological systems. Driven by curiosity and innovation, Divine is dedicated to translating complex environmental findings into actionable insights that improve individual and public health outcomes.

    Read More
  • Karen Pendergrass ID
    Karen Pendergrass

    User avatarKaren Pendergrass is a researcher specializing microbial metallomics and microbiome signatures, with a focus on bridging research and clinical practice. She is the co-founder of several initiatives, including Microbiome Signatures and the Heavy Metal Tested & Certified program, which translate complex science into actionable standards.

    Read More

Last Updated: 2025-09-30

Our team of researchers are constantly monitoring and summarizing the latest research,
and we continue to update our pages to ensure you have the most accurate information.

Note on the last update: One new meta analysis added

Divine Aleru

Divine Aleru is an accomplished biochemist and researcher with a specialized background in environmental toxicology, focusing on the impacts of heavy metals on human health. With deep-rooted expertise in microbiome signatures analysis, Divine seamlessly blends rigorous scientific training with her passion for deciphering the intricate relationships between environmental exposures and the human microbiome. Her career is distinguished by a commitment to advancing integrative health interventions, leveraging cutting-edge microbiome research to illuminate how toxic metals shape biological systems. Driven by curiosity and innovation, Divine is dedicated to translating complex environmental findings into actionable insights that improve individual and public health outcomes.

Cadmium (Cd) is a heavy metal that poses significant health risks, making it a key focus for the Heavy Metal Tested & Certified (HMTC) program. Due to its toxicity and persistent presence in the environment, cadmium is considered one of the top eight metals to be regulated in consumer products and food. It is a notable public health concern because of its widespread use in industry, its ability to accumulate in the body over time, and its potential for causing severe health issues. Exposure to cadmium, even at low levels, can lead to long-term health effects, including kidney damage, bone diseases, and increased cancer risks.

Overview

Cadmium is a non-essential metal that exists primarily in inorganic forms such as cadmium oxide, chloride or sulfate.[1] Natural weathering and volcanic activity release these compounds, but industrial activities greatly increase environmental loads. Unlike other metals like zinc or copper, which are essential for various metabolic functions, cadmium has no known role in normal cellular or systemic processes. It is primarily absorbed through inhalation or ingestion and accumulates in the kidneys, liver, and bones.[2] The body does not have an efficient way of eliminating cadmium, which leads to long-term accumulation, increasing the risk of chronic health problems. The toxic effects of cadmium include kidney damage, particularly renal tubular dysfunction, bone loss or osteomalacia, and increased risks of cancer, especially lung and prostate cancers.[3][4] The metal’s persistence in the body and its ability to bioaccumulate in various tissues underscore its significance as a public health concern, particularly in individuals exposed to occupational or environmental cadmium sources.[5]

Major Sources of Cadmium (Cd) Exposure

Cadmium exposure primarily occurs through environmental, dietary, and occupational pathways. The metal widely distributes in the environment, originating from natural sources like soil and water, as well as human activities such as industrial processes and agricultural practices.[6] People are exposed to cadmium through air pollution, contaminated water, food sources, and workplace settings. The most common sources of dietary exposure include rice, leafy vegetables, and seafood, while occupational exposure is a significant concern for workers in industries like battery manufacturing and metal smelting. Understanding these exposure pathways is essential for managing and reducing cadmium-related health risks.[7]

CategoryExamples of Cadmium Exposure
EnvironmentalCadmium is emitted into the air and water from mining, metal smelting, coal combustion, phosphate fertilisers, and waste incineration.[8] These emissions deposit onto soil and are taken up by crops. Household dust and contaminated drinking water can contribute to exposure, although drinking‑water standards is 0.003 mg/L recommended by WHO, which limits this risk.[9]
DietaryCadmium in soil and water is taken up by crops. Cereals, leafy vegetables, potatoes, pulses and offal are recognised as major dietary sources.[10] Investigations in Austria showed high average cadmium concentrations in algae (1800 µg/kg), cocoa and cocoa products (179 µg/kg), seafood (136 µg/kg), mushrooms (128 µg/kg), and oilseeds (116 µg/kg).[11] Fruit, juices, and meat generally contain lower levels. Cocoa powder and chocolate remain notable sources; EU regulations therefore cap cadmium in cocoa powder at 0.6 mg/kg. For smokers, tobacco is a major source because tobacco plants accumulate cadmium; smoking doubles body burdens compared with non‑smokers.[12]
OccupationalWorkers involved in battery manufacture, metal plating, recycling, soldering, or pigment production inhale cadmium‑laden dust and fumes.[13] Industrial air concentrations may be thousands of times higher than ambient air. Inhalation of cadmium fumes can lead to acute respiratory distress, while chronic occupational exposure produces renal and bone effects.[14]

Adverse Health Effects

Cadmium toxicity stems from its ability to induce oxidative stress, interfere with calcium metabolism and accumulate in kidney and bone tissues.[15] Vulnerable populations include infants and young children who may be exposed to cadmium through contaminated products or toys, and whose developing kidneys and bones make them more susceptible to cadmium accumulation.[16] Pregnant women and individuals with iron deficiency absorb more cadmium because iron deficiency upregulates intestinal cadmium transporters.[17] Smokers, due to the cadmium content of tobacco, may have urinary cadmium levels double those of non‑smokers. Low‑income groups consuming diets high in rice, shellfish or organ meats are also at risk.

Health EffectEvidence and Mechanisms
Renal dysfunction and Kidney DamageKidney damage is the hallmark of chronic exposure.[18] A long‑term cohort study involving Swedish women found that urinary cadmium was associated with tubular toxicity and decreased glomerular filtration rate at exposures previously considered safe.[19]
Bone demineralisation and fracturesBone fragility is a key outcome, with the MrOS study revealing that elderly men in the highest quartile of urinary cadmium had 4-8% lower bone mineral density and increased fracture risk compared to those in the lowest quartile.[20] Mechanistic studies show that cadmium disrupts vitamin D metabolism and osteoblast function, contributing to osteoporosis.[21][22]
Cardiovascular diseaseCardiovascular and metabolic effects have also been reported; a review summarised epidemiologic evidence that cadmium exposure is associated with hypertension and thickening of the carotid artery, and mechanistic studies showed endothelial dysfunction and atherosclerotic plaque formation[23][24]
CancerThe risk of cancer is also a concern. The International Agency for Research on Cancer classifies cadmium as a human carcinogen.[25] A review reported associations with lung, prostate, renal and liver cancers, attributed to interference with DNA repair and activation of oncogenic pathways.[26] A meta‑analysis of 17 studies found that higher cadmium exposure modestly increased breast cancer risk.[27]

Consumer Relevance

Cadmium is found in a wide range of consumer products, many of which are part of daily life. Exposure can occur through the consumption of contaminated food, particularly rice, cereals, vegetables, seafood, and baby foods, as well as through the use of products like Ni-Cd batteries, jewelry, and cosmetics. Due to its widespread presence, understanding where cadmium shows up in real-life products is important for reducing exposure, especially for vulnerable populations like infants.

Product CategoryExamples and Details
Cereals and RiceCadmium is found in cereals because plants absorb it from the soil and transport it to their grains.[28] This is a concern because cadmium is a toxic heavy metal that accumulates in the human body, potentially causing kidney damage, decreased bone density, and an increased risk of cancer and cardiovascular disease.[29]
Vegetables & PulsesCadmium is found in vegetables (Leafy greens, potatoes, root vegetables) and pulses, often due to its presence in the soil as an environmental contaminant from industrial and agricultural sources.[30]
Seafood & OffalShellfish, liver, and kidneys from animals often contain elevated levels of cadmium, as it accumulates in these animals from the environment.[31] While these foods can contain higher levels of cadmium, they do not contribute as much to overall dietary exposure because people generally consume them less frequently than other major food sources.
Chocolate & CocoaCadmium in chocolate and cocoa products comes from soil, where cacao trees absorb it.[32] Dark chocolate contains more cadmium than milk chocolate due to higher cocoa solids. While naturally occurring, long-term exposure to even low levels poses health risks, especially for children, though levels vary by brand and region.
Baby Foods & FormulaCadmium has been found in some baby foods and infant formulas, with studies showing levels exceeding recommended intake levels in certain products.[33] Rice-based foods and some formulas, especially soy-based, have shown higher concentrations, raising concerns for stricter guidelines.
Ni-Cadmium (Cd) Batteries, Pigments & CoatingsCadmium is used in batteries, pigments, and coatings; leakage from batteries and contamination in jewelry and toys may expose consumers.[34]

Regulatory Snapshot

Various global organizations set guidelines for cadmium (Cd) exposure in food and water. The FDA (USA) limits cadmium in bottled water to 5 µg/L and plans guidance for baby foods.[35] WHO/JECFA sets a drinking water guideline of 0.003 mg/L and a tolerable monthly intake of 25 µg/kg body weight.[36] EFSA (Europe) establishes a tolerable weekly intake of 2.5 µg/kg body weight, with potential over-exposure for vegetarians, children, and smokers.[37] EU Regulation 2023/915 sets maximum cadmium levels in foods, including 0.6 mg/kg for cocoa powder and 3 mg/kg for certain supplements. However, gaps remain in the regulation of cadmium in cosmetics, jewelry, and packaging, with varying international standards.

Implications for the HMTC Program

Cadmium (Cd)’s persistence, ubiquitous presence and cumulative toxicity justify HMTC’s strict certification. By applying the As Low As Reasonably Achievable (ALARA) principle, HMTC verifies that products, especially those marketed to infants and pregnant women, meet cadmium levels far below existing regulatory limits. This proactive stance protects vulnerable consumers, offers transparency to clinicians and public health professionals, and gives brands a competitive advantage ahead of tightening regulations. HMTC testing also reinforces supply-chain accountability, as manufacturers must assess raw ingredients (such as rice, cocoa, and herbs) and packaging for cadmium contamination and implement best practices, including sourcing from low-cadmium regions, soil remediation, and the use of phosphate-free fertilizers. As public awareness grows and international agencies revisit cadmium limits, HMTC certification positions companies as leaders in pediatric safety and environmental stewardship.

Research Feed

How Probiotics Inhibit Cadmium Absorption and Protect the Intestinal Barrier

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Prenatal Heavy Metal Exposure and Infant Neurodevelopment: Risks of Cadmium, Nickel, Lead, and Mercury
September 23, 2025

Prenatal cadmium and nickel exposure negatively impact infant neurodevelopment, particularly expressive language. Heavy metal mixtures demonstrate cumulative risks, underscoring the need for stricter food safety thresholds and mixture-based risk assessments to protect vulnerable populations.

What was studied? This study investigated the effects of prenatal heavy metal exposure and infant neurodevelopment, considering the adverse effects of multiple heavy metals—cadmium (Cd), nickel (Ni), mercury (Hg), and lead (Pb). Heavy metal levels were measured in maternal urine samples collected at the 12th week of gestation, while infant neurodevelopment was assessed at 40 days using the Bayley Scales of Infant and Toddler Development. The study applied multiple statistical approaches, including Generalized Additive Models (GAM), Multivariable Linear Regression (MLR) with restricted cubic splines (RCS), Bayesian Kernel Machine Regression (BKMR), and Weighted Quantile Sum (WQS) regression, to evaluate both individual and joint effects of these metals on early neurodevelopment. Who was studied? The study examined 400 mother-infant pairs recruited from a community-based birth cohort in Tarragona, Spain, between 2013 and 2017. Mothers were recruited during their initial prenatal visits, and urine samples were analyzed for metal concentrations using ICP-MS/MS with creatinine adjustment. Infants were assessed at 40 days old by trained psychologists, focusing on cognitive, language, and motor domains. The mothers had a mean age of 30.9 years, with most belonging to a low- or middle-socioeconomic class, and nearly 70% reported never smoking. Infants were almost evenly split between male and female, with 74.5% breastfed. Most important findings Cadmium was consistently associated with adverse neurodevelopmental outcomes. GAM and MLR analyses confirmed a negative linear association between Cd exposure and both cognitive and expressive language scores (β = −1.47 and β = −0.32, respectively, both statistically significant). Pb demonstrated a non-linear, inverted U-shaped relationship with language development, indicating risk at both low and high exposure levels. WQS regression revealed that mixtures of heavy metals were significantly associated with impaired expressive language development (β = −0.26, 95% CI = −0.44, −0.07), with Cd and Ni identified as the main contributors. BKMR analyses supported an overall negative trend for metal mixtures, though not statistically significant. Mercury exposure showed no consistent associations. Key implications The study highlights that prenatal heavy metal exposure and infant neurodevelopment are particularly negatively impacted by cadmium and nickel exposure, with expressive language being the most vulnerable domain. The findings underscore the limitations of focusing on single-metal exposures, as real-world scenarios typically involve complex mixtures. Importantly for a certification program such as Heavy Metal Tested and Certified (HMTC), the evidence supports the inclusion of cadmium and nickel within the Infant and Child Foods Standards alongside lead and mercury as priority metals for regulatory thresholds, given their demonstrable neurodevelopmental risks even at low levels of prenatal exposure. These results emphasize the urgency of establishing stricter heavy metal limits in foods consumed by pregnant women, since dietary intake is a major source of exposure. For industry, compliance with reduced heavy metal thresholds is not only protective of infant health but also scientifically justified by evidence linking prenatal exposure to cognitive and language deficits in early life. For regulators, the study validates the need for mixture-based risk assessment approaches, moving beyond single-metal evaluations to capture the cumulative effects on vulnerable populations. Citation Kou X, Palleja-Millan M, Canals J, Rivera Moreno V, Renzetti S, Arija V. Effects of prenatal exposure to multiple heavy metals on infant neurodevelopment: A multi-statistical approach. Environmental Pollution. 2025;367:125647. doi:10.1016/j.envpol.2025.125647.
Heavy Metal Toxicity Mechanisms: Landmark Review

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The toxicity of cadmium and resulting hazards for human health
September 10, 2006

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Cadmium: Mitigation strategies to reduce dietary exposure
January 20, 2020

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Cadmium Exposure in Pregnancy and Lactation in Relation to Iron Status
October 10, 2011

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Cadmium-Induced Kidney Injury: Oxidative Damage as a Unifying Mechanism
October 23, 2021

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Tubular and Glomerular Kidney Effects in Swedish Women with Low Environmental Cadmium Exposure
July 11, 2005

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Cadmium in tobacco smokers: A neglected link to lung disease?
March 28, 2018

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Cadmium-Induced Bone Toxicity: Deciphering the Osteoclast–Osteoblast Crosstalk
August 14, 2025

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The ALARA Principle

The ALARA principle (“As Low As Reasonably Achievable”) is a safety standard that minimizes harmful exposures like heavy metals beyond regulatory compliance. By applying continuous reduction practices, it ensures food and consumer products meet the lowest feasible contamination levels, protecting vulnerable populations from cumulative risks.

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Rahimzadeh, M. R., Rahimzadeh, M. R., & Kazemi, S.

Cadmium toxicity and treatment: An update.

Caspian Journal of Internal Medicine, 8(3), 135.

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Rahimzadeh, M. R., Rahimzadeh, M. R., & Kazemi, S.

Cadmium toxicity and treatment: An update.

Caspian Journal of Internal Medicine, 8(3), 135.

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Huff, J., Lunn, R. M., Waalkes, M. P., Tomatis, L., & Infante, P. F. (2007).

Cadmium-induced Cancers in Animals and in Humans.

International Journal of Occupational and Environmental Health, 13(2), 202.

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Exposure to cadmium and its impacts on human health: A short review.

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A Review on Cadmium and Lead Contamination: Sources, Fate, Mechanism, Health Effects and Remediation Methods.

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Cd in the environment: Uptake, toxicity and management.

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Gupta, P. K., Singh, A., Vaish, B., Singh, P., Kothari, R., & Singh, R. P. (2022).

A comprehensive study on aquatic chemistry, health risk and remediation techniques of cadmium in groundwater.

Science of The Total Environment, 818, 151784.

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Schaefer, H. R., Dennis, S., & Fitzpatrick, S. (2020).

Cadmium: Mitigation strategies to reduce dietary exposure

Journal of Food Science, 85(2), 260.

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AGES

Cadmium

Health for humans, animals & plants: 4th December, 2024

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The Effects of Cadmium Toxicity.

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The Effects of Cadmium Toxicity.

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Cadmium-Induced Kidney Injury: Oxidative Damage as a Unifying Mechanism.

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Rahimzadeh, M. R., Rahimzadeh, M. R., & Kazemi, S.

Cadmium toxicity and treatment: An update.

Caspian Journal of Internal Medicine, 8(3), 135.

Read Review

Rahimzadeh, M. R., Rahimzadeh, M. R., & Kazemi, S.

Cadmium toxicity and treatment: An update.

Caspian Journal of Internal Medicine, 8(3), 135.

Read Review

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Cadmium Exposure and Clinical Cardiovascular Disease: A Systematic Review.

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Huff, J., Lunn, R. M., Waalkes, M. P., Tomatis, L., & Infante, P. F. (2007).

Cadmium-induced Cancers in Animals and in Humans.

International Journal of Occupational and Environmental Health, 13(2), 202.

Read Review

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The Association Between Cadmium Exposure and Prostate Cancer: An Updated Systematic Review and Meta-Analysis.

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Cadmium exposure and risk of breast cancer: A meta-analysis.

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Rahimzadeh, M. R., Rahimzadeh, M. R., & Kazemi, S.

Cadmium toxicity and treatment: An update.

Caspian Journal of Internal Medicine, 8(3), 135.

Read Review

Schaefer, H. R., Dennis, S., & Fitzpatrick, S. (2020).

Cadmium: Mitigation strategies to reduce dietary exposure

Journal of Food Science, 85(2), 260.

Read Review

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The Mechanisms of Cadmium Toxicity in Living Organisms.

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Occurrence of heavy metals coupled with elevated levels of essential elements in chocolates: Health risk assessment.

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Sonia Collado-López, María Fernanda Rodríguez Hernández, Rosa María Mariscal-Moreno, Martha María Téllez-Rojo, Larissa Betanzos-Robledo, Moisés Reyes Luna, Alejandra Cantoral-Preciado,

Concentrations of Heavy Metals in Processed Baby Foods and Infant Formulas Worldwide: A Scoping Review, 

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Cadmium pigments in consumer products and their health risks.

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Dietary exposure to cadmium from six common foods in the United States.

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Gupta, P. K., Singh, A., Vaish, B., Singh, P., Kothari, R., & Singh, R. P. (2022).

A comprehensive study on aquatic chemistry, health risk and remediation techniques of cadmium in groundwater.

Science of The Total Environment, 818, 151784.

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