# Acrylamide in Food: From Maillard Reaction to Public Health Concern

**Authors:** Gréta Törős, Walaa Alibrahem, Nihad Kharrat Helu, Szintia Jevcsák, Aya Ferroudj, József Prokisch

PMC · DOI: 10.3390/toxics14020110 · 2026-01-23

## TL;DR

Acrylamide, a harmful chemical formed in cooked foods, poses health risks and requires new strategies for detection and reduction.

## Contribution

This review provides a comprehensive update on acrylamide formation, detection, mitigation, and health impacts from 2013 to 2025.

## Key findings

- LC–MS/MS enables trace-level acrylamide detection (≤10 µg/kg), aiding compliance and process optimization.
- Mitigation strategies like vacuum frying and predictive modeling can reduce acrylamide by up to 70% in some foods.
- Polyphenols and fibers may lower acrylamide formation and bioavailability through detoxification mechanisms.

## Abstract

Acrylamide is a heat-induced food contaminant that can be formed through the Maillard reaction between reducing sugars and asparagine in carbohydrate-rich foods. It is recognized as having carcinogenic, neurotoxic, and reproductive risks, prompting global regulatory and research attention. This review synthesizes recent advances (2013–2025) in understanding acrylamide’s formation mechanisms, detection methods, mitigation strategies, and health implications. Analytical innovations such as LC–MS/MS have enabled detection at trace levels (≤10 µg/kg), supporting process optimization and compliance monitoring. Effective mitigation strategies combine cooking adjustments, ingredient reformulation, and novel technologies, including vacuum frying, ohmic heating, and predictive modeling, which can achieve up to a 70% reduction in certain food categories. Dietary polyphenols and fibers also hold promise, lowering acrylamide formation and bioavailability through carbonyl trapping and enhanced detoxification. However, significant gaps remain in bioavailability assessment, analysis of metabolic fate (glycidamide conversion), and standardized global monitoring. This review emphasizes that a sustainable reduction in dietary acrylamide requires a multidisciplinary framework integrating mechanistic modeling, green processing, regulatory oversight, and consumer education. Bridging science, industry, and policy is essential to ensure safer food systems and minimize long-term public health risks.

## Linked entities

- **Chemicals:** acrylamide (PubChem CID 6579), glycidamide (PubChem CID 91550)

## Full-text entities

- **Genes:** Slc7a11 (solute carrier family 7 member 11) [NCBI Gene 310392], Hmox1 (heme oxygenase 1) [NCBI Gene 24451] {aka HEOXG, Heox, Hmox, Ho-1, Ho1, hsp32}, COX2 (COXII) [NCBI Gene 26198] {aka COII}, Casp6 (caspase 6) [NCBI Gene 83584] {aka Mch2}, Gclc (glutamate-cysteine ligase, catalytic subunit) [NCBI Gene 25283] {aka Glclc}, Tnf (tumor necrosis factor) [NCBI Gene 24835] {aka RATTNF, TNF-alpha, Tnfa}, Fos (Fos proto-oncogene, AP-1 transcription factor subunit) [NCBI Gene 314322] {aka c-fos}, Casp9 (caspase 9) [NCBI Gene 58918] {aka Apaf3, Casp-9-CTD, Casp9_v1, Ice-Lap6, Mch6}, Il10 (interleukin 10) [NCBI Gene 25325] {aka IL10X, If2a}, Gclm (glutamate cysteine ligase, modifier subunit) [NCBI Gene 29739] {aka Glclr}, CYP2E1 (cytochrome P450 family 2 subfamily E member 1) [NCBI Gene 1571] {aka CPE1, CYP2E, P450-J, P450C2E}, Ftl1 (ferritin light chain 1) [NCBI Gene 29292] {aka Ftl}, Itgav (integrin subunit alpha V) [NCBI Gene 296456] {aka Cd51}, Nfe2l2 (NFE2 like bZIP transcription factor 2) [NCBI Gene 83619], Casp3 (caspase 3) [NCBI Gene 25402] {aka CPP32-beta, Lice, Yama}
- **Diseases:** injury to (MESH:D014947), sperm malformations (MESH:C567467), Neurotoxic (MESH:D020258), Cancer (MESH:D009369), sensorimotor impairment (MESH:D020233), tumorigenesis (MESH:D063646), reproductive toxicity (MESH:D060737), cancers of the large bowel, bladder, or kidney (MESH:D007680), Carcinogenic (MESH:D011230), axonal degeneration (MESH:D009410), peripheral neuropathy (MESH:D010523), neuropathy (MESH:D009422)
- **Chemicals:** acrylic acid (MESH:C036658), sugar (MESH:D000073893), Glycidamide (MESH:C071834), polyacrylamides (MESH:C016679), polymer (MESH:D011108), amide (MESH:D000577), water (MESH:D014867), ferulic acid (MESH:C004999), catechin (MESH:D002392), Acrylamide (MESH:D020106), asparagine (MESH:D001216), glycine (MESH:D005998), ACR (-), furan (MESH:C039281), potassium (MESH:D011188), sodium (MESH:D012964), AA (MESH:D000596), starch (MESH:D013213), acrolein (MESH:D000171), carbohydrate (MESH:D002241), Polyphenol (MESH:D059808), HMF (MESH:C008046), cysteine (MESH:D003545), lipid (MESH:D008055), sucrose (MESH:D013395), maltitol (MESH:C010745), glucose (MESH:D005947), calcium (MESH:D002118)
- **Species:** Olea (olives, genus) [taxon 4145], Theobroma cacao (cacao, species) [taxon 3641], Homo sapiens (human, species) [taxon 9606], Solanum tuberosum (potatoes, species) [taxon 4113]
- **Mutations:** L 25  C
- **Cell lines:** PC12 — Rattus norvegicus (Rat), Rat adrenal gland pheochromocytoma, Cancer cell line (CVCL_0481), SH-SY5Y — Homo sapiens (Human), Neuroblastoma, Cancer cell line (CVCL_0019), U251 — Homo sapiens (Human), Astrocytoma, Cancer cell line (CVCL_0021), BV-2 — Mus musculus (Mouse), Transformed cell line (CVCL_0182)

## Figures

4 figures with captions in the complete paper: https://tomesphere.com/paper/PMC12944409/full.md

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Source: https://tomesphere.com/paper/PMC12944409