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Root and Tuber Vegetables

Below-ground vegetables: carrots, potatoes (white, red, yellow, fingerling), beets, sweet potatoes, parsnips, turnips, rutabagas, radishes, yams, jicama, celeriac.

Researched by
K. Pendergrass iD
Last updated: 2026-05-16
Page Snapshot
57 corpus sources
Reconstructable record

Root and Tuber Vegetables

Below-ground vegetables: carrots, potatoes (white, red, yellow, fingerling), beets, sweet potatoes, parsnips, turnips, rutabagas, radishes, yams, jicama, celeriac. No within-row split per Cat 4 lock; sweet potato data gap flagged in Step 0E. HMTc tests at the ‘as consumed’ basis (potatoes with skin if commonly eaten with skin; peeled for product-form variants).

This page is a Step 0 lock scaffold for Cat 4 Row 7. Literature evidence will be populated as routed source pages accumulate per the synthesis workflow in CLAUDE.md Part 9. The Step 0 lock document at Category4_Step_0_Output_LOCKED.md is the canonical reference for the row’s clean-vs-contaminated framing and platform attribution.

Who this page is for

Brand legal teams evaluating HMTc Cat 4 certification for the Root and Tuber Vegetables row need to know what the cited literature reports per panel metal, what the applicable regulatory caps are, and how this row relates to its clean-contaminated pair (when applicable). Retailer compliance teams stocking the produce, dried-goods, and snack aisles need the row-level assortment-eligibility view. HMT&C certification thresholds for products in this row are developed under the certification program at heavymetaltested.com, not on this page.

Methodology

This page reports what the cited sources say about heavy-metal concentrations in the Root and Tuber Vegetables row. Speciation is non-substitutable per CLAUDE.md Part 14 (iAs vs tAs, MeHg vs tHg, Cr-VI vs total Cr). Basis is preserved (as-sold or as-consumed depending on the product form). Non-detect handling follows each source’s convention. Pooling avoided across LOD/LOQ, period, geography, and analytical-basis differences. HMT&C certification thresholds for products in this row are developed under the certification program at heavymetaltested.com, not on this page; this public page reports literature evidence only.

Cat 4 lock empirical basis: Pass 2 occurrence-data extraction from the heavymetalindex.com wiki corpus (build claude/zealous-bhabha-d422c9, 896 source pages). The Step 0 lock document at Category4_Step_0_Output_LOCKED.md records the splitting decisions and platform attributions; this row inherits its scope from that document.

Literature Evidence Summary

Literature Evidence Summary

The table below summarizes what the peer-reviewed and government literature cited on this page reports for heavy-metal concentrations in Root and Tuber Vegetables. Values are pulled directly from cited sources without re-aggregation; pooling, percentile selection, and threshold math sit in the staff Standards Workbench rather than this public page.

Methodology rules for speciation, basis preservation, non-detect handling, and source pooling are stated in the Methodology section above and apply to every row below.

AnalyteSubcategoryReported concentration rangeDetection rateApplicable regulatory capSourcesConfidenceBasis
PbRoot and Tuber Vegetables (no contributing evidence loaded)No concentration data loaded for this analyteSample-level detection rate not reportedNo applicable cap loaded0data gapBasis not reported
CdRoot and Tuber Vegetables (no contributing evidence loaded)No concentration data loaded for this analyteSample-level detection rate not reportedNo applicable cap loaded0data gapBasis not reported
tAsRoot and Tuber Vegetables (no contributing evidence loaded)No concentration data loaded for this analyteSample-level detection rate not reportedNo applicable cap loaded0data gapBasis not reported

Source Evidence Inventory

_Hand-curated section. Populated by the synthesis pass as Cat 4 sources route to this row. Initial scaffold state: zero contributing sources. The Cat 4 corpus search prioritizes sources reporting concentration data on the specific commodity in this row; broad-scope produce surveys are filed under the master.

Broad Product Context: Author-Scope Index

Pending: regenerated by tools/evidence/apply-product-broad-context.mjs once broad-scope Cat 4 sources route to this page.

Federal/Regulatory Limits vs Field Findings

Pending. Cat 4 regulatory landscape: Codex GSCTFF and EU Regulation 2023/915 set finished-product limits on fruits and vegetables (Pb, Cd) and on specific commodities (e.g., spinach Cd at 0.20 mg/kg per eu-2023-915); FDA Closer-to-Zero applies to infant fruit purées (Cat 1, not Cat 4) but informs the regulatory baseline; California Prop 65 covers cumulative Pb/Cd exposure across produce categories. Awaiting agency-page ingest.

Levers to reduce contamination

The Cat 4 Step 0 lock framework distinguishes lower-contamination row produce/seed rows from contaminated-platform commodity rows (where species or production system carries elevated metal load by characteristic). For this row, the levers below are ordered by impact magnitude per the literature evidence base; sourcing-and-agronomic levers dominate the per-product metal load, with processing-and-formulation levers offering additional reduction.

  1. Sourcing levers: origin region, supplier specification, soil-Cd or paddy-iAs pre-screening for at-risk commodities.
  2. Agronomic levers: soil amendments, water management, cultivar selection.
  3. Processing levers where applicable: washing, peeling, blanching for fresh-cut and frozen formats; refining for derivative products.
  4. Formulation levers: where the row contains multi-ingredient formats, reducing the platform-commodity fraction.
  5. Testing/QC levers: lot-level ICP-MS on raw commodity and finished product.
  6. Regulatory levers.

How standards math uses this page

The percentile arithmetic that informs HMTc Cat 4 thresholds for this row lives on the staff Standards Workbench (data/workbench/standards/root-tuber-vegetables.md, to be generated). This public page reports literature evidence; the workbench applies the Cat 4 methodology (which includes the literature evidence occurrence-data-driven derivation and below-LOQ regulatory-floor fallback per the Step 0 lock) to produce candidate threshold values. The gap between literature evidence and HMTc thresholds is named honestly on the workbench, not hidden.

Historical recalls and enforcement

Cat 4 (produce, nuts, seeds) regulatory enforcement intersects two domains: heavy-metal contamination (the focus of this row) and microbial contamination (FDA recall notices for E. coli/Salmonella/Listeria in fresh produce, a separate concern). FDA Total Diet Study and Pesticide Data Program surveillance reports establish the heavy-metal occurrence baseline (FDA 2022). State-level Cd-in-leafy-greens enforcement has been active in California under Prop 65; the related Mateel Environmental settlement framework has shaped compliance practice. Per CLAUDE.md Part 12, individual brand recall actions are not enumerated here.

Sources

Auto-generated from source-page frontmatter. The “Used on this page for” column is populated by the orchestrator’s POPULATE-SOURCE-LEGEND action; pending entries appear as *[awaiting synthesis]*.

#CitationYearTypeUsed on this page for
1Albishi et al. 2026. In vitro evaluation of bio-fortification effects on the nutritional quality, toxicological safety, and antioxidant of cassava (Manihot esculenta) flour, and environmental safety of processing water, using natural additives, Frontiers in Nutrition2026Peer-reviewedNG Pb, Cd, tAs, Cr occurrence in Cassava flour (Manihot esculenta) from Nigeria, control groups and 11 biofortification treatment groups (F1–F11) with natural additives including… (n=13)
2ANSES 2026. Opinion of the French Agency for Food, Environmental and Occupational Health & Safety on the results of the Third French Total Diet Study (TDS3) - Acrylamide, aluminium, silver, cadmium, mercury and lead, ANSES Opinion, Request No 2019-SA-00102026Government reportFR Al, Ag, Cd, Pb, tHg, iHg, MeHg occurrence in French TDS3 foods selected from 276 foods across 44 groups, with 718 samples collected in Loiret, Puy-de-Dome, and… (n=718)
3Ccopi et al. 2026. Bioaccumulation of heavy metals in high Andean crops of the Peruvian Andes: comparative evaluation between irrigated and dry systems, Journal of Agriculture and Food Research2026Peer-reviewedPE Cd, Pb, tAs, Cr, Ni concentrations (n=218)
4Hossen et al. 2026. Assessment of heavy metal levels and associated health risks linked to vegetables grown in Noakhali region of Bangladesh, Environmental Health Insights2026Peer-reviewedBD tAs, Pb, Cd, Cr, Fe, Cu occurrence in Fifty-four samples from nine integrated farms in Noakhali, Bangladesh: nine vegetable samples and nine corresponding soil samples, each… (n=54)
5Emmanuel 2025. Assessment of Heavy Metal Contamination and Health Risks from Urban-Grown Vegetables in Kano State, Nigeria, ChemClass Journal2025Peer-reviewedNG Cd, Ni, Pb, Mn, Cr occurrence in Vegetable and soil samples from urban agriculture sites in Wudil, Nomans-Land, and Sharada, Kano State, Nigeria, collected January-March… (n=64)
6Masri et al. 2025. Assessing Dietary Consumption of Toxicant-Laden Foods and Beverages by Age and Ethnicity in California: Implications for Proposition 65, Nutrients2025Peer-reviewedUS Pb, Cd, tAs, MeHg occurrence in Cross-sectional online dietary survey (Qualtrics) administered between 1 March and 15 June 2023 to Southern California residents (adults… (n=186)
7Mohammadi et al. 2025. Health risk assessment of heavy metals in root and fruit vegetables in Iran using Monte Carlo simulation, Discover Sustainability2025Peer-reviewedIR Pb, Cd, Cr, Ni occurrence in Three carrot samples and three cucumber samples from each of seven cities or sampling points in Fars Province,… (n=42)
8Kumar et al. 2024. High Arsenic Contamination in the Breast Milk of Mothers Inhabiting the Gangetic Plains of Bihar: A Major Health Risk to Infants, Environmental Health 23(1)2024Peer-reviewedIN tAs, iAs occurrence in 513 women (378 with breast milk samples) and 184 infants from 11 arsenic-affected districts in Bihar, India (Gangetic… (n=513)
9Wu 2024. Contamination of Heavy Metal(Loid)S in Cereals, Vegetables, and Legumes Purchased from Local Markets of Jiaozuo, China and The Associated Health Risk Assessment, International Journal of Natural Resources and Environmental Studies, 2(1): 180-2002024Peer-reviewedCN Pb, Cd, Cr, tAs, tHg, Ni, Cu, Zn occurrence in 244 retail food samples purchased from 13 sampling points (6 supermarkets, 6 farmers’ markets, 1 wholesale market) across… (n=244)
10Luc et al. 2023. Evaluation of the Metallic Contamination of Market Garden Products around the Loumbila Dam, Open Journal of Applied Sciences2023Peer-reviewedBF Cu, Ni, Zn, Cr, Pb occurrence in Market-garden vegetables around Loumbila Dam, Burkina Faso
11Bedoya-Perales et al. 2023. Dataset of metals and metalloids in food crops and soils sampled across the mining region of Moquegua in Peru, Scientific Data2023Peer-reviewedPE tAs, Cd, Pb, Cu, Zn concentrations (n=341)
12El-Batal et al. 2023. Effect of selenium nanoparticles on heavy metal accumulation in carrot (Daucus carota) irrigated with wastewater, Biologia2023Peer-reviewedEG Ni, Cd, Pb, Co concentrations
13Kharkwal et al. 2023. Non-carcinogenic and carcinogenic health risk assessment of heavy metals in cooked beans and vegetables in Punjab, North India, Food Science & Nutrition2023Peer-reviewedIN tAs, Cd, Pb, tHg occurrence in Cooked beans and cooked vegetable preparations collected from 150 selected households across 30 urban and rural locations in… (n=150)
14Sixto et al. 2023. Inorganic contaminants (As, Cd, Pb) in peeled and whole potatoes and sweet potatoes, Agrociencia Uruguay2023Peer-reviewedUY tAs, Cd, Pb occurrence in Pooled potato and sweet-potato samples from Uruguay’s Metropolitan Agrifood Market, collected in February and July-August between 2018 and… (n=22)
15Doris et al. 2023. Determination of cadmium and lead in vegetables marketed in Quito, Ecuador, Revista Internacional de Contaminacion Ambiental2023Peer-reviewedEC Cd, Pb occurrence in Tomato, carrot, and lettuce samples marketed in Quito, Ecuador
16Bora et al. 2022. Quantification and Reduction in Heavy Metal Residues in Some Fruits and Vegetables: A Case Study Galați County, Romania, Horticulturae2022Peer-reviewedRO/EU tAs, Cd, Pb, Zn occurrence in 80 fruit and vegetable samples from Galați County, Romania (45 from vegetable/fruit market, 35 from amateur farmers), collected… (n=80)
17Bramwell et al. 2022. Determinants of blood and saliva lead concentrations in adult gardeners on urban agricultural sites, Environmental Geochemistry and Health2022Peer-reviewedGB Pb occurrence in 43 adult urban-agriculture-site gardeners and 29 matched controls in Newcastle upon Tyne, UK; environmental sampling included nearly 280… (n=72)
18Diyarov et al. 2022. The effect of food processing on the content of heavy metals in vegetables, Chemical Bulletin of Kazakh National University2022Peer-reviewedKZ Zn, Pb, Mn, Cd, Cu occurrence in Carrot, potato, and onion samples subjected to different food-processing treatments
19Kiczorowski et al. 2022. Effect of fermentation of chosen vegetables on the nutrient, mineral, and biocomponent profile in human and animal nutrition, Scientific Reports2022Peer-reviewedPL Pb, Cd occurrence in Raw and fermented broccoli, carrot, cucumber, pepper, and red beet, four repetitions per vegetable combination (n=40)
20Mawari et al. 2022. Heavy Metal Accumulation in Fruits and Vegetables and Human Health Risk Assessment: Findings From Maharashtra, India, Environmental Health Insights2022Peer-reviewedIN Pb, Cd, tAs, tHg occurrence in 24 frequently consumed crop types — 11 vegetables and 13 fruits/legumes — collected from farms near Solapur, an… (n=24)
21Sultana et al. 2022. Heavy Metals in Commonly Consumed Root and Leafy Vegetables in Dhaka City, Bangladesh, and Assessment of Associated Public Health Risks, Environmental Systems Research2022Peer-reviewedBD Pb, Cd, Cr, Ni, Cu, Zn, Fe, Mn occurrence in Four root vegetables (beet Beta vulgaris, radish Raphanus sativus, carrot Daucus carota, turnip Brassica rapa) and five leafy… (n=36)
22Ullah et al. 2022. Health Risk Assessment and Multivariate Statistical Analysis of Heavy Metals in Vegetables of Khyber Pakhtunkhwa Region, Pakistan, Biological Trace Element Research2022Peer-reviewedPK Pb, Cr, Cd, Cu, Zn, Ni, Fe, Mn occurrence in Nine locally grown vegetable types from three peri-urban D.I. Khan sectors: sectors X and Y irrigated with untreated…
23Fonge et al. 2021. An assessment of heavy metal exposure risk associated with consumption of cabbage and carrot grown in a tropical Savannah region, Sustainable Environment2021Peer-reviewedCM tAs, Cd, Co, Cr, Cu, Fe, Mn, Ni, Pb, Zn occurrence in Triplicate edible-portion samples from cabbage-head farms and carrot-root farms at four Santa sites in the North West Region,… (n=24)
24Rusin et al. 2021. Concentration of cadmium and lead in vegetables and fruits, Scientific Reports2021Peer-reviewedPL Cd, Pb occurrence in 370 samples drawn from the Polish retail market and analysed under Polish State Sanitary Inspection (n=292 by the… (n=370)
25Afonne et al. 2020. Heavy metals risks in plant foods – need to step up precautionary measures, Current Opinion in Toxicology2020ReviewNG/CN/TZ Pb, Cd, tAs, tHg, Cr, Ni occurrence in Narrative review in Current Opinion in Toxicology covering plant food heavy metal contamination globally, with emphasis on Asia,…
26Elsheikh et al. 2020. Evaluation of Some Toxic and Essential Trace Elements in Children Foods and Infant Formulae by Using ICP-OES, Asian Journal of Chemistry 32(6):1273-12782020Peer-reviewedSA Al, Pb, Cd, tAs, Mn, Ni, V, Si, Ba occurrence in Fifty-seven samples covering 19 different brands purchased in Turabah province, Saudi Arabia: 3 brands of infant formula (including… (n=57)
27Heshmati et al. 2020. Concentration and Risk Assessment of Potentially Toxic Elements, Lead and Cadmium, in Vegetables and Cereals Consumed in Western Iran, Journal of Food Protection 83(1):101-1072020Peer-reviewedIR/EU Pb, Cd occurrence in Four hundred composite food samples — 50 each of eight commodities (potato Solanum tuberosum, onion Allium cepa, tomato… (n=400)
28Jiang et al. 2020. Compound health risk assessment of cumulative heavy metal exposure: A case study of a village near a battery factory in Henan Province, China, Environmental Science: Processes & Impacts2020Peer-reviewedCN tHg, tAs, Ni, Pb, Cd, Cr, Cu, Zn occurrence in Locally produced wheat, corn, and vegetables collected in SZD village near a battery factory in Xinxiang, Henan Province,…
29Tonska et al. 2020. Lead and cadmium content in organic and conventional carrots and their dietary risk assessment, Proceedings of the Nutrition Society2020Peer-reviewedPL Pb, Cd concentrations (n=36)
30Wang et al. 2020. Contamination and health risk assessment of lead, arsenic, cadmium, and aluminum from a total diet study of Jilin Province, China, Food Science & Nutrition2020Peer-reviewedCN Pb, tAs, Cd, Al occurrence in Jilin Province total-diet-study composites across 12 food groups and 48 product groups, with consumption inputs for 7700 residents…
31Centre for Food Safety 2019. Guidelines on the Food Adulteration (Metallic Contamination) (Amendment) Regulation 2018, USDA Foreign Agricultural Service GAIN Report HK1922, relaying the Hong Kong Centre for Food Safety Guidelines for the Food Adulteration (Metallic Contamination) (Amendment) Regulation 2018 (Cap. 132V sub. leg.)2019Government reportHK Sb, tAs, iAs, Ba, B, Cd, Cr, Cu, Pb, Mn, MeHg, tHg, Ni, Se, Sn, U occurrence in Not a sampling study. Regulatory document setting maximum levels (MLs) for 14 metallic contaminants across food and food…
32Reza et al. 2019. Assessment of Lead and Cadmium Levels in Watermelon and Carrot, Iranian Journal of Toxicology2019Peer-reviewedIR Pb, Cd occurrence in Watermelon and carrot samples analyzed for lead and cadmium in Iran
33Hussain et al. 2019. Arsenic and Heavy Metal (Cadmium, Lead, Mercury and Nickel) Contamination in Plant-Based Foods, Plant and Human Health, Volume 22019Book chapterGLOBAL tAs, Cd, Pb, tHg, Ni occurrence in Review chapter compiling published occurrence ranges for arsenic, cadmium, lead, mercury, and nickel in plant-based foods including cereal…
34Wang et al. 2019. Dietary Lead Exposure and Associated Health Risks in Guangzhou, China, International Journal of Environmental Research and Public Health2019Peer-reviewedCN Pb occurrence in Food safety risk monitoring samples from Guangzhou, China, collected during 2014-2017 across 27 food categories; consumption inputs came… (n=6339)
35Talib 2018. Determination of lead and cadmium in carrots and cabbage available in local markets, Journal of University of Babylon for Pure and Applied Sciences2018Peer-reviewedIQ Pb, Cd occurrence in Carrot and cabbage samples from local markets, including Iraqi and Iranian-origin products
36Ahmed et al. 2017. Arsenic Contamination of Water-Soil-Crop System in an Industrial Area of Bangladesh, International Journal of Environment2017Peer-reviewedBD tAs occurrence in Vegetables grown in a Gazipur industrial-area water-soil-crop system in Bangladesh (n=27)
37Khalil et al. 2017. Heavy Metals Toxicity: Estimation of Heavy Metals in Branded and Local Snacks Available in the Markets of Peshawar, Pakistan, Professional Medical Journal2017Peer-reviewedPK Pb, Cd, Cr occurrence in 96 samples (29 branded, 67 non-branded/local) of potato- and corn-based snacks from four towns of district Peshawar, Pakistan;… (n=96)
38Jitender et al. 2017. Heavy Metals in Soil and Vegetables and their Effect on Health, International Journal of Engineering Science Technologies2017Peer-reviewedIN Cd, Pb, Cu, Zn, Cr, Ni occurrence in Vegetables grown on domestic-wastewater-irrigated farmland around Hisar district, Haryana, India
39AMMM et al. 2016. Environmental surveillance of commonly-grown vegetables for investigating potential lead and chromium contamination intensification in Bangladesh, SpringerPlus2016Peer-reviewedBD Pb, Cd, Cr occurrence in Commonly grown vegetables collected across all 64 districts of Bangladesh: white potato, green cabbage, red spinach, white radish,… (n=292)
40X-D et al. 2016. Levels and potential health risk of heavy metals in marketed vegetables in Zhejiang, China, Scientific Reports2016Peer-reviewedCN tAs, Cd, Cr, tHg, Ni, Pb occurrence in Five thousand seven hundred eighty-five vegetable samples of 28 species collected from Zhejiang province, China, from March to… (n=5785)
41Sharma et al. 2016. Heavy metals in vegetables: screening health risks involved in cultivation along wastewater drain and irrigating with wastewater, SpringerPlus2016Peer-reviewedIN Cd, Pb, Cu, Co, Fe occurrence in Edible portions of 12 common vegetable types from three Amritsar, Punjab agricultural sites, collected in triplicate per vegetable/site. (n=108)
42Islam et al. 2015. The concentration, source and potential human health risk of heavy metals in the commonly consumed foods in Bangladesh, Ecotoxicology and Environmental Safety2015Peer-reviewedBD Cr, Ni, Cu, tAs, Cd, Pb occurrence in Commonly consumed meat, egg, fish, milk, vegetable, cereal, and fruit foods collected from agriculture fields, farms, river, and…
43Iyabo et al. 2015. Toxic and Essential Metals in Staple Foods Commonly Consumed by Students in Ekiti State, South West, Nigeria, International Journal of Chemistry2015Peer-reviewedNG Zn, Cu, Cd, Pb occurrence in Thirty listed staple food items identified from a questionnaire of 200 volunteered Ekiti State University students and purchased… (n=30)
44Jaishree et al. 2015. Heavy metal accumulation in vegetables irrigated with industrial effluent, International Journal of Innovative Research in Science, Engineering and Technology2015Peer-reviewedIN Cd, Ni, Pb, Cu, Cr, Mn, Zn occurrence in Vegetables and wheat grown under industrial-effluent irrigation conditions in India
45Moradi et al. 2015. A Human Health Risk Assessment of Soil and Crops Contaminated by Heavy Metals in Industrial Regions, Central Iran, Human and Ecological Risk Assessment: An International Journal (accepted manuscript, 29 Sep 2015)2015Peer-reviewedIR/EU/US Cd, Pb, Ni, Fe occurrence in Twenty-seven edible-crop samples and 27 paired topsoil (0–20 cm) samples drawn from three regions of Isfahan province, central… (n=27)
46Salehipour et al. 2015. Health Risks from Heavy Metals via Consumption of Cereals and Vegetables in Isfahan Province, Iran, Human and Ecological Risk Assessment: An International Journal2015Peer-reviewedIR Pb, tAs, Ni, Zn, Cu occurrence in Seventy edible-part samples of nine commodities — onion (Allium cepa), leek (Allium pp.; species not stated by authors),… (n=70)
47Cherfi et al. 2014. Food survey: Levels and potential health risks of chromium, lead, zinc and copper content in fruits and vegetables consumed in Algeria, Food and Chemical Toxicology2014Peer-reviewedDZ Cr, Pb, Zn, Cu occurrence in Two fruit and thirteen vegetable foodstuffs purchased from two wholesale markets supplying Boumerdes, Algeria, during the first two… (n=15)
48Stasinos et al. 2014. The Bioaccumulation and Physiological Effects of Heavy Metals in Carrots, Onions, and Potatoes and Dietary Implications for Cr and Ni: A Review, Journal of Food Science2014ReviewGR/LV/US Pb, Cd, tAs, Cr, Ni, Al occurrence in Review of global studies on carrots, onions, and potatoes from polluted irrigation water contexts
49EFSA 2012. Cadmium dietary exposure in the European population, EFSA Journal 2012;10(1):25512012Government reportEU Cd occurrence in Cadmium occurrence results in food submitted to EFSA from 22 EU Member States, 3 European Economic Area or… (n=178541)
50Elbagermi et al. 2012. Monitoring of Heavy Metal Content in Fruits and Vegetables Collected from Production and Market Sites in the Misurata Area of Libya, ISRN Analytical Chemistry2012Peer-reviewedLY Pb, Cd, Zn, Cu, Co, Ni occurrence in Fruit and vegetable produce purchased from several local suppliers and markets in Misurata City, Libya, during 2010. (n=250)
51Loutfy et al. 2012. Analysis and exposure assessment of some heavy metals in foodstuffs from Ismailia city, Egypt, Toxicological & Environmental Chemistry2012Peer-reviewedEG Cd, Pb, Cr, Zn, Cu occurrence in About 350 locally produced individual food samples purchased in 2007 from four local markets around Ismailia city, Egypt,… (n=117)
52Committee on Toxicity of 2008. COT Statement on the 2006 UK Total Diet Study of Metals and Other Elements, Committee on Toxicity statement2008Government reportGB Al, Sb, tAs, iAs, Ba, Cd, Cr, Cu, Pb, Mn, tHg, Mo, Ni, Se, Sn, Tl, Zn occurrence in 2006 UK Total Diet Study: 119 food categories combined into 20 prepared-as-consumed food groups for metals and other… (n=20)
53Uneyama et al. 2007. Arsenic in various foods: Cumulative data, Food Additives & Contaminants2007Peer-reviewedJP/US/GB tAs, iAs occurrence in Cumulative review of arsenic measurements in food from PubMed, Japanese local-authority research databases, and national food-safety surveillance reports;…
54Reczajska et al. 2005. Determination of Chromium Content of Food and Beverages of Plant Origin, Polish Journal of Food and Nutrition Sciences2005Peer-reviewedPL Cr occurrence in Fresh fruits, vegetables, and wheat grains collected in 2001 from commercial plantations in three Polish provinces (Mazowieckie, Lubelskie,… (n=272)
55EC 2004. Assessment of the dietary exposure to arsenic, cadmium, lead and mercury of the population of the EU Member States, Reports on tasks for scientific cooperation, SCOOP Task 3.2.112004Government reportEU/BE/DK tAs, Cd, Pb, tHg occurrence in Occurrence, consumption, and intake submissions for arsenic, cadmium, lead, and mercury from EU Member States and Norway under…
56Zhou et al. 2000. Heavy Metal Contamination in Vegetables and Their Control in China, Food Reviews International2000Peer-reviewedCN Pb, Cd, tHg, tAs, Cr, Ni, Cu, Zn occurrence in Secondary review of previously published Chinese city surveys of vegetables and some grains. Tables 2-11 reproduce values from…
57Dabeka et al. 1995. Survey of Lead, Cadmium, Fluoride, Nickel, and Cobalt in Food Composites and Estimation of Dietary Intakes of These Elements by Canadians in 1986-1988, Journal of AOAC International1995Peer-reviewedCA Pb, Cd, Ni, Co occurrence in Five Canadian total-diet composite groups, each with 113 composites and 39 composite subsets, prepared from foods purchased in… (n=760)

Page history

The five most recent substantive edits to this page. The full version history lives in git; when DOI minting comes online (see schema docs), each entry below will also link to a version-pinned DataCite DOI.

CommitDateDescription
ae6c1292026-07-01feat(auth): large login + role-based signup screens (design, burgundy)