June 2026: Essential Food Technology Standards You Need to Know

The food technology sector is evolving rapidly, with new international requirements emerging to ensure consumer protection, quality, and global market access. In June 2026, four pivotal standards were published, addressing everything from ingredient specifications to molecular detection methods and product labelling. These updates reflect advancements and regulatory needs throughout the agricultural and food production supply chain. As businesses vie to maintain compliance and quality, staying updated on these requirements is critical for industry professionals, including quality managers, researchers, procurement experts, and compliance officers.
Overview / Introduction
The food technology landscape underpins the global food supply chain, impacting safety, product composition, and consumer trust. International standards ensure that producers, processors, and exporters adhere to best practices, promote market fairness, and safeguard public health. Especially in a sector as vast as food technology, harmonized guidelines foster international trade, help avoid costly recalls, and enable transparent labelling.
In this article, we break down the four newly published standards from June 2026, clarifying their scope, requirements, and how to achieve compliance. By understanding these developments, professionals can improve quality assurance processes, streamline regulatory approval, and capitalize on market opportunities.
Detailed Standards Coverage
ISO 7926:2026 - Specification for Dehydrated Tarragon
Dehydrated tarragon (Artemisia dracunculus Linnaeus), whole, cut leaves and powder — Specification
This standard defines specifications for dehydrated tarragon (Artemisia dracunculus Linnaeus) in whole, cut leaf, or powdered form, focusing on the methylchavicol (estragole) type. It does not apply to the elemicin-sabinene type of tarragon. Emphasis is placed on both organoleptic and chemical attributes, ensuring uniformity and product safety from farm to processing and retail.
Key requirements include:
- Flavour and odour: Tarragon must exhibit a clean and characteristic aroma with no off-notes.
- Physical properties: Strict limits on animal and non-animal foreign matter, as well as extraneous materials.
- Chemical limits: Enhanced specifications on moisture (stricter for sun-dried powder than the previous edition), and an increased permissible limit for total ash content, reflecting processing realities.
- Labelling and packaging: Inclusion of a “best before date” is now mandatory.
- Testing and sampling: Detailed protocols for chromatographic and microscopic examination to confirm identity and adulterant absence.
- Storage and transport: Annex A provides best practices for preserving flavor and integrity.
Target users: Spice processors, bulk suppliers, seasoning brands, quality assurance labs.
What's new in this edition?
- Updated reference documents
- Adjusted moisture and ash content parameters
- Clearer labelling requirements
Key highlights:
- Updated moisture and ash content specifications
- Mandatory best before dates for packaged products
- Comprehensive sampling and test protocols
Access the full standard:View ISO 7926:2026 on iTeh Standards
CEN ISO/TS 21569-10:2026 - Detection Methods for GM Salmon
Horizontal methods for molecular biomarker analysis - Methods of analysis for the detection of genetically modified organisms and derived products - Part 10: Construct- and event-specific detection methods for genetically modified salmon expressing CS-GHc2 growth hormone (ISO/TS 21569 10:2026)
Focusing on food chain transparency and regulatory oversight, this technical specification sets out laboratory protocols for identifying genetically modified (GM) Atlantic salmon (AquAdvantage) engineered for growth acceleration. It describes robust event-specific and construct-specific real-time PCR methods to detect DNA sequences from GM salmon expressing CS-GHc2 growth hormone.
Scope and key requirements:
- Sample preparation: Validated procedures for DNA extraction from food and feed matrices, ensuring amplifiability and integrity.
- PCR protocol: Two approaches—construct-specific (detects the junction of the growth hormone gene and antifreeze protein terminator) and event-specific (detects the GMO insertion point at the Atlantic salmon genome and antifreeze promoter).
- Validation: Includes interlaboratory studies, defined sensitivity, specificity, and robustness parameters.
- Acceptance criteria: Procedures for minimizing false positives/negatives, leveraging standardized reagent concentrations and qPCR equipment.
Who should comply: Food manufacturers, aquaculture companies, food safety labs, regulatory agencies, and third-party certifiers.
Practical implications:
- Enables regulatory compliance for labelling and trade requirements regarding GMO presence
- Ensures traceability and consumer confidence in seafood supply
Key highlights:
- Covers two validated PCR detection strategies (event- and construct-specific)
- Extensive validation data for interlaboratory reproducibility
- Provides sample handling and reporting protocols for analytical labs
Access the full standard:View CEN ISO/TS 21569-10:2026 on iTeh Standards
EN ISO 21415-2:2026 - Wet Gluten and Gluten Index Determination
Wheat and wheat flour - Gluten content - Part 2: Determination of wet gluten and gluten index by mechanical means (ISO 21415-2:2026)
Recognition of gluten quality and quantity is essential for wheat processing and product development. This standard outlines a mechanical method for determining wet gluten content and the gluten index in wheat flours (Triticum aestivum L. and Triticum durum Desf.). It can also be applied to ground wheat with the correct granulometry.
Scope and core requirements:
- Sample preparation: Homogenization, followed by mechanical extraction using automatic gluten separation units (e.g., Glutomatic devices).
- Gluten isolation: Use of sodium chloride solution to wash the dough and obtain the wet gluten fraction.
- Quantification: Centrifugation-based measurement for consistent, unbiased gluten index values.
- Reporting: Specifies repeatability, reproducibility, and documentation of test conditions (e.g., sieves used, mixing/washing times).
Intended users: Millers, bakers, wheat traders, flour processors, food authenticity labs, regulators.
Implementation:
- Automates what was formerly a labor-intensive, manual procedure, improving throughput and consistency.
- Aligns with ICC and AACC international methods, supporting harmonized trade and food testing.
Key highlights:
- Improved protocol for reproducibility in interlaboratory proficiency testing
- Objective, mechanical assessment of gluten quality
- Applicability to both wheat flour and ground wheat
Access the full standard:View EN ISO 21415-2:2026 on iTeh Standards
ISO 20810:2026 - Whole Grain: Definition and Technical Criteria
Whole grain — Definition and technical criteria
This foundational standard clarifies the global definition and technical criteria for whole grain as a food ingredient, simplifying global trade and ensuring consistent consumer protection. ISO 20810:2026 also sets out requirements for packaging, labelling, and claims for whole-grain foods derived from cereals and select pseudocereals, applicable to both business-to-business (B2B) and business-to-consumer (B2C) communications.
Key requirements:
- Definition: Specifies what constitutes whole grain at the post-harvest stage, covering both cereals and pseudocereals.
- Technical criteria: Standardizes measurement, calculation (see Annex A), and verification methods for percentage of whole-grain ingredients (dry mass basis).
- Labelling and claims: Outlines criteria for permitted use of whole grain content in product labels and marketing, helping prevent misleading claims.
Applicability: Food manufacturers, supply chain partners, importers/exporters, and labelling authorities across all food and beverage sectors.
Practical impact:
- Facilitates harmonization of whole grain definitions in global food labelling
- Supports transparent supply chain and marketing claims
- Applies uniformly, regardless of organization size or market region
Key highlights:
- Consistent, single definition for whole grain in food ingredients
- Technical guidance for calculating and labelling whole grain content
- Enhances consumer trust by combatting label confusion
Access the full standard:View ISO 20810:2026 on iTeh Standards
Industry Impact & Compliance
Adhering to these new food technology standards carries immediate and long-term benefits for organizations:
- Risk management: Robust compliance reduces the risk of rejected batches, negative publicity, or regulatory penalties due to mislabelling or adulteration.
- Market access: Many countries recognize ISO and CEN standards as a basis for import/export approvals, giving compliant businesses a global reach.
- Consumer trust: Clear and accurate ingredient, quality, and GMO information support stronger brand reputations and customer loyalty.
- Operational efficiency: Standardized procedures (e.g., for gluten analysis or GMO detection) streamline QA/QC and enable better supply chain coordination.
Compliance timelines and actions:
- Review the applicable standards for your organization’s products and processes.
- Update internal quality protocols, SOPs, and purchasing specifications.
- Train staff on new technical and documentation requirements (e.g., PCR labs, labelling teams, procurement).
- Monitor suppliers and certification bodies for conformance to new requirements.
- Document all compliance measures to support audits and regulatory checks.
Failure to adopt these standards can result in product recalls, legal disputes, and lost market opportunities—a risk no competitive business can afford.
Technical Insights
While each standard has unique requirements, several technical best practices emerge across the board:
Analytical Precision:
- Use validated, internationally recognized methods for molecular analysis, gluten measurement, or ingredient verification.
- Ensure laboratory equipment calibration and maintenance (e.g., PCR devices for GMO detection, automated gluten extractors).
Sample Handling:
- Apply representative sampling protocols to minimize error and ensure data reliability (critical for both spices and grains).
- Store and transport samples according to recommended guidelines to prevent degradation or contamination.
Documentation and Reporting:
- Always include required details: batch numbers, test conditions, equipment, reagents, and results.
- Maintain traceability from raw material acceptance to finished product shipment.
Certification Considerations:
- Pursue third-party certification or supplier audits based on the new standards for added assurance and market credibility.
Training:
- Equip QA/QC teams with up-to-date knowledge on technical protocols, especially as these standards introduce new or revised procedures.
Conclusion / Next Steps
The suite of food technology standards introduced in June 2026 sets a robust framework for ingredient verification, product labelling, analytical testing, and transparency across the food supply chain. For organizations determined to lead in quality, safety, and compliance, swift adoption of these standards is a must.
Key takeaways:
- Strategic compliance drives market advantage and consumer confidence.
- Updated protocols and definitions bridge technical, regulatory, and marketing practices.
- iTeh Standards offers direct access to all new and historical versions for comprehensive compliance and staff training.
Recommendation: Start by exploring each standard in detail, assessing company-specific gaps, and aligning internal processes to the latest requirements. Staying proactive ensures continued success in a dynamic, regulated marketplace.
For the full texts, authoritative guidance, and future updates, visit iTeh Standards, your trusted resource for global food technology compliance.
Categories
- Latest News
- New Arrivals
- Generalities
- Services and Management
- Natural Sciences
- Health Care
- Environment
- Metrology and Measurement
- Testing
- Mechanical Systems
- Fluid Systems
- Manufacturing
- Energy and Heat
- Electrical Engineering
- Electronics
- Telecommunications
- Information Technology
- Image Technology
- Precision Mechanics
- Road Vehicles
- Railway Engineering
- Shipbuilding
- Aircraft and Space
- Materials Handling
- Packaging
- Textile and Leather
- Clothing
- Agriculture
- Food technology
- Chemical Technology
- Mining and Minerals
- Petroleum
- Metallurgy
- Wood technology
- Glass and Ceramics
- Rubber and Plastics
- Paper Technology
- Paint Industries
- Construction
- Civil Engineering
- Military Engineering
- Entertainment