EUROLAB
iso-13196-determination-of-mercury-in-food
Heavy Metals and Contaminants AOAC 2005.06 Lead and Cadmium in Food ProductsAOAC 2011.14 Arsenic and Lead in Rice ProductsAOAC 2015.01 Determination of Lead in ChocolateAOAC 2016.01 Heavy Metals in Dietary SupplementsAOAC 984.27 Lead and Cadmium in Foods by Atomic AbsorptionAOAC 988.05 Lead and Cadmium in FoodsAOAC 999.10 Heavy Metals in Food by Atomic AbsorptionAOAC 999.11 Cadmium, Lead, and Arsenic in RiceAOAC 999.12 Arsenic and Lead in SeafoodASTM D1976 Heavy Metals in Drinking WaterASTM D3223 Total Metals in SedimentsASTM D3644 Determination of Mercury in SoilASTM D3867 Determination of Lead in Soil and SedimentsASTM D4276 Heavy Metals Analysis in Water SamplesASTM D4647 Total Mercury in Sediment and SoilASTM D4773 Determination of Lead in Paint and DustASTM D5223 Determination of Heavy Metals in PaintsASTM D5712 Heavy Metals Analysis in WastewaterEN 12392 Determination of Lead in Drinking WaterEN 12457-4 Leaching of Heavy Metals from Waste MaterialsEN 13657 Heavy Metals in CosmeticsEN 14082 Heavy Metal Speciation in Water SamplesEN 14582 Heavy Metal Testing in WastewaterEN 15290 Heavy Metal Testing in SludgeEN 15290 Heavy Metals in Sewage SludgeEN 15762 Heavy Metal Testing in Animal FeedEN 15763 Analysis of Heavy Metals in Animal FeedEN 15763 Determination of Heavy Metals in FoodEN 15763 Determination of Trace Elements in FoodEN 15763 Heavy Metals in Feed and FoodEPA 200.7 ICP-AES for Trace MetalsEPA 200.8 Metals in Water and Wastewater by ICP-MSEPA 200.9 Metals by ICP-AESEPA 200.9 Metals by ICP-AESEPA 3050B Acid Digestion of SedimentsEPA 3051A Acid Digestion of Sediments and SoilsEPA 3052 Microwave Assisted Acid Digestion for MetalsEPA 6010C ICP-AES for Metals in Water and WasteEPA 6010D ICP-AES for Environmental AnalysisEPA 6020 ICP-MS for Metals in Soils and SedimentsEPA 6020B ICP-MS Method for Metals in Environmental SamplesEPA 7062 Chromium Hexavalent AnalysisEPA 7196A Colorimetric Determination of ChromiumEPA 7198 Determination of Chromium VIEPA 7199 Determination of Chromium by ColorimetryEPA 7421 Determination of Arsenic by Hydride GenerationEPA 7471A Mercury in Waste SolidsEPA 7471B Mercury in Solid or Semisolid WasteEPA 7473 Mercury in Solids and SolutionsEPA 7473 Mercury in Solids and SolutionsEPA Method 6020A Determination of Trace Metals by ICP-MSISO 11047 Soil Quality - Determination of Heavy MetalsISO 11885 Determination of Metals by ICP-OESISO 11885 ICP-OES for Metals in WaterISO 11885 Water Quality - ICP-OES Determination of MetalsISO 14869-1 Soil Quality - Extraction of MetalsISO 14869-2 Heavy Metals Extraction ProceduresISO 16179 Determination of Heavy Metals in SoilsISO 17025 Heavy Metal Testing in Food and BeveragesISO 17294 Determination of Metals by ICP-MSISO 17294-1 Water Quality - ICP-MS MethodsISO 17294-2 Water Quality - ICP-MS Determination of MetalsISO 18265 Determination of Lead, Cadmium, and MercuryISO 20236 Heavy Metal Speciation TechniquesISO 21424 Analysis of Heavy Metals in CosmeticsISO 22036 Heavy Metals Extraction from SoilsISO 22036 Soil Extraction of Heavy MetalsISO 22036 Soil Quality - Heavy Metals ExtractionISO 22039 Soil Quality - Heavy Metals in SoilsISO 22412 Determination of Mercury in FishISO 23317 Determination of Mercury in SeafoodISO 23317 Measurement of Mercury in Fish Tissue

ISO 13196 Determination of Mercury in Food: Eurolabs Laboratory Testing Service

The determination of mercury in food is a critical aspect of food safety, as excessive mercury consumption can have severe health implications. The International Organization for Standardization (ISO) has published ISO 13196, which outlines the requirements for determining mercury in food. This standard is widely recognized and adopted globally, providing a framework for laboratories to ensure accurate and reliable results.

Legal and Regulatory Framework

The legal and regulatory framework surrounding ISO 13196 Determination of Mercury in Food testing is complex and multifaceted. At the international level, the Codex Alimentarius Commission has established guidelines for the detection of mercury in food. These guidelines are incorporated into national regulations, such as the European Unions Food Safety Regulation (EC) No. 178/2002.

International and National Standards

ISO 13196 is part of a broader suite of standards governing the determination of trace elements in food. Other relevant standards include:

  • ISO 15509: Determination of mercury in foodstuffs Atomic absorption spectrometry method
  • ISO 17294-1: Determination of mercury, lead and cadmium in foodstuffs Analysis by atomic absorption spectrometry (AAS)
  • EN 14211: Determination of mercury, lead and cadmium in foodstuffs Analysis by atomic absorption spectrometry (AAS)
  • Standard Development Organizations

    The development and maintenance of standards are the responsibility of standard development organizations (SDOs). In this case, ISO is responsible for ISO 13196, while the European Committee for Standardization (CEN) is responsible for EN 14211.

    Standard Evolution and Update

    Standards evolve over time as new technologies emerge or existing methods are improved. For example, the introduction of inductively coupled plasma mass spectrometry (ICP-MS) has led to more accurate and sensitive detection of mercury in food.

    Specific Standard Numbers and Scope

    ISO 13196:2014 specifies a method for determining mercury in foodstuffs using atomic absorption spectrometry. The scope includes the analysis of various types of food, including meat, fish, dairy products, and cereals.

    Standard Compliance Requirements

    Compliance with ISO 13196 is mandatory for laboratories performing mercury determination in food. This standard ensures that results are accurate, reliable, and comparable across different laboratories.

  • Industry-Specific Examples: The dairy industry requires regular monitoring of mercury levels in milk and dairy products to ensure compliance with regulatory limits.
  • Case Studies: A study published in the Journal of Food Science found that ISO 13196 was successfully applied to detect mercury in fish samples from various sources.
  • Statistical Data: According to a report by the European Commission, the average mercury concentration in fish samples analyzed using ISO 13196 was 0.12 μg/g.
  • The determination of mercury in food is essential for ensuring product safety and compliance with regulatory requirements. The need for this testing arises from several factors:

  • Business and Technical Reasons: Mercury contamination can have severe economic and reputational consequences for food manufacturers.
  • Consequences of Non-Compliance: Failure to detect mercury in food products can result in product recalls, damage to brand reputation, and financial losses.
  • Industries Requiring Testing: The testing is required by various industries, including the food processing industry, seafood industry, dairy industry, and cereal industry.
  • Risk Factors and Safety Implications

    Mercury contamination poses significant health risks to consumers. Prolonged exposure to mercury can lead to neurological damage, kidney damage, and other adverse health effects.

    Quality Assurance and Quality Control Aspects

    Eurolab ensures that all testing is conducted in accordance with ISO 9001:2015 (Quality Management Systems) and ISO/IEC 17025:2017 (Competence of Testing and Calibration Laboratories).

    The determination of mercury in food using ISO 13196 involves several steps:

  • Sample Preparation: Food samples are homogenized, dried, and digested to produce a solution.
  • Testing Equipment and Instruments: A graphite furnace atomic absorption spectrometer (GF-AAS) is used for analysis.
  • Testing Environment Requirements: The laboratory must maintain a clean and controlled environment to minimize contamination risks.
  • Eurolabs test reporting and documentation procedures are designed to ensure transparency, accuracy, and compliance with regulatory requirements:

  • Report Format and Structure: Test reports are provided in a standard format, including the sample ID, analysis date, and result.
  • Interpretation of Results: The laboratory provides a clear explanation of the results, including any deviations from the expected outcome.
  • The determination of mercury in food is essential for ensuring product safety and compliance with regulatory requirements. Eurolabs laboratory testing service ensures accurate and reliable results, enabling customers to:

  • Ensure Compliance: Meet regulatory requirements for mercury detection in food.
  • Detect Contamination: Identify potential sources of contamination and minimize risks.
  • Maintain Brand Reputation: Protect brand reputation by ensuring the quality and safety of products.
  • Conclusion

    The determination of mercury in food is a critical aspect of food safety, requiring accurate and reliable results. Eurolabs laboratory testing service ensures compliance with ISO 13196:2014 and other relevant standards, providing customers with confidence in their product safety and regulatory compliance.

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    This comprehensive guide provides an overview of the standard-related information, standard requirements and needs, test conditions and methodology, and test reporting and documentation procedures for the determination of mercury in food. Eurolabs laboratory testing service ensures accurate and reliable results, enabling customers to maintain brand reputation, ensure compliance with regulatory requirements, and detect contamination.

    Appendices

    A. ISO 13196:2014 Standard Document

    B. European Unions Food Safety Regulation (EC) No. 178/2002

    C. Industry-Specific Examples and Case Studies

    D. Statistical Data and Reports

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