Cinnamomum Adulteration: Scope, Detection Methodologies, Health Implications, and Regulatory Challenges A Global Review

Authors

  • Raymond R. Tjandrawinata School of Bioscience, Technology and Innovation, Atma Jaya Catholic University of Indonesia

DOI:

https://doi.org/10.58344/jws.v5i7.1682

Keywords:

Cinnamomum verum, Cinnamomum burmannii, cinnamon adulteration, coumarin, food fraud, NIR spectroscopy, DNA barcoding, Bar-HRM, Codex Alimentarius, risk-based authentication, food safety regulation

Abstract

Cinnamon is among the world’s most economically significant spices, yet the genus Cinnamomum is one of the most frequently adulterated food commodity groups due to price differentials between premium Ceylon cinnamon and Cassia varieties, compounded by the visual indistinguishability of powdered products. This review—Cinnamomum Adulteration: Scope, Detection Methodologies, Health Implications, and Regulatory Challenges A Global Review—provides a comprehensive analysis of Cinnamomum adulteration encompassing botanical differentiation, adulteration typology, detection methodologies, health implications, and global regulatory architecture, with special attention to C. burmannii’s ambiguous regulatory status. It synthesizes peer-reviewed literature, regulatory documents, and international standards from 2004 to 2025, systematically analyzing detection platforms spanning classical, spectroscopic, chromatographic, and molecular DNA-based methods. The 2025 EU JRC study analyzing 104 commercial samples found that over 66% failed quality standards or exceeded coumarin limits, with species substitution confirmed in 9% of Ceylon-labeled products. Advanced detection methods include Bar-HRM, qPCR, NIR, EDXRF, and HPLC-DAD, enabling comprehensive authentication across multiple adulteration types. Health risks center on coumarin hepatotoxicity (Cassia: up to 12.18 mg/g; C. verum: 0.005–0.090 mg/g), heavy metal toxicity, and allergen mislabeling. Cinnamomum adulteration requires a species-specific, risk-based authentication framework supported by regulatory harmonization among ISO, Codex Alimentarius, and national agencies. The Codex Alimentarius Commission’s 2024 decision to initiate cinnamon standard development creates a policy window for action. Future priorities include harmonized coumarin limits, mandatory species labeling, heavy metal surveillance, and capacity building for molecular authentication in producing countries.

References

Administration, U. S. F. and D. (2024). Public health alert: elevated lead levels in ground cinnamon products.

Analyzing cinnamon spice adulteration with spectroscopy: the influence of data preprocessing on multivariate prediction models. (2025). Journal of Innovative Food Technology. https://doi.org/10.1016/j.eswa.2025.128522

Behr, M. (2024). A robust set of qPCR methods to evaluate adulteration in major spices and herbs. Food Control, 165, 110623.

Commission, C. A. (2024a). Outcome of the 7th Session of the Committee on Spices and Culinary Herbs (CCSCH7): initiation of new work on cinnamon standard. FAO/WHO.

Commission, C. A. (2024b). Outcome of the 47th Session (CAC47): maximum levels for lead in dried bark and dried culinary herbs; guidelines on food fraud prevention (CAC/GL 101-2023). FAO/WHO.

(EFSA), E. F. S. A. (2004). Scientific opinion on coumarin as a food flavouring substance. EFSA Journal, 104, 1–36.

Ensuring authenticity of cinnamon powder: Detection of adulteration with coffee husk and corn meal using NIR, MIR spectroscopy and chemometrics. (2024). Food Control. https://doi.org/10.1016/j.foodcont.2024.003980

European Parliament Resolution of 14 January 2024 on the Food Crises, Fraud in the Food Chain and Control Thereof (2023/2008(INI)) (2024).

Ghidotti, M., Papoci, S., Pietretti, D., Ždiniaková, T., & de la Calle Guntiñas, M. B. (2023). Use of elemental profiles determined by energy-dispersive X-ray fluorescence and multivariate analyses to detect adulteration in Ceylon cinnamon. Analytical and Bioanalytical Chemistry, 415, 5437–5449.

Handayani, A. Q., Rosyidah, A. L., Sari, D. R. T., Yunarto, N., & Suherman, D. (2024). Indonesian Cinnamon (Cinnamomum burmanni) as promising medicinal resources: a review. Jurnal Sylva Lestari, 12(3), 610–633.

Low-cost analytic method for the identification of cinnamon adulteration. (2020). Microchemical Journal. https://doi.org/10.1016/j.microc.2020.105537

Muhammad, D. R. A., & Dewettinck, K. (2017). Cinnamon and its derivatives as a food ingredient: an update. LWT - Food Science and Technology, 80, 552–565.

Peiris, M. A. L. M., Nanayakkara, D., Silva, C., Abeysundara, S. P., & Wijesinghe, P. (2025). Barcode high-resolution melting (Bar-HRM) analysis to authenticate true cinnamon (Cinnamomum verum) from its adulterants and contaminants. PLOS ONE. https://doi.org/10.1371/journal.pone.0328808

Pharmaceutical applications and phytochemical profile of Cinnamomum burmannii. (2012). https://pmc.ncbi.nlm.nih.gov/articles/PMC3459454/

Regulation (EC) No 1334/2008 of the European Parliament and of the Council on Flavourings and Certain Food Ingredients with Flavouring Properties.

Standardization of Cinnamomum burmannii Nees ex Bl. bark from five areas of Indonesia. (2020). Pharmacognosy Journal. https://doi.org/10.5530/pj.2020.12.085

Tjandrawinata, R. R., Sinambela, J. M., Mayasari, O., Dwi, D. D., & Puspasari, M. (2011). Herbal extract as sensitivity enhancer toward insulin and antidiabetes.

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Published

2026-07-30

How to Cite

Tjandrawinata, R. R. (2026). Cinnamomum Adulteration: Scope, Detection Methodologies, Health Implications, and Regulatory Challenges A Global Review. Journal of World Science, 5(7), 720–733. https://doi.org/10.58344/jws.v5i7.1682