June 2026: New Environmental Protection and Safety Standards Released

June 2026 marks a significant leap forward for Environmental Protection and Safety, as five vital international standards have been published. Developed by ISO and IEC, these standards are set to impact industries ranging from oil and gas to building construction and electronics manufacturing. With updates that support safe carbon dioxide storage, control of hazardous substances, radiological protection, fire resistance, and explosion protection, these standards collectively ensure greater safety, compliance, and environmental stewardship. This article delves into the technical aspects, compliance implications, and anticipated industry impacts of each new standard.

Overview

The Environmental Protection and Safety sector operates at the intersection of regulatory compliance, technological progress, and public welfare. International standards are foundational tools in this field, underpinning practices that not only mitigate environmental and health risks but also drive operational excellence and industry innovation. June 2026 sees key new and revised standards aimed at:

• Enabling advanced carbon capture and long-term storage in oil recovery operations
• Providing reliable testing methods for hazardous substances in plastics
• Elevating requirements for radiological monitoring and dose measurement
• Reinforcing fire safety in building elements and services
• Testing and specifying explosion resistance of passive fire protection materials

Professionals reading this article will gain a comprehensive understanding of each standard’s scope, its technical and compliance demands, and the practical steps necessary for successful adoption.

Detailed Standards Coverage

ISO 27916:2026 - Carbon Dioxide Storage Using Enhanced Oil Recovery

Carbon dioxide capture, transportation and storage — Carbon dioxide storage using enhanced oil recovery (CO2-EOR)

ISO 27916:2026 sets rigorous requirements for safely injecting and storing carbon dioxide in enhanced oil recovery (CO2-EOR) operations. It defines the criteria for demonstrating the site’s capacity to provide secure, long-term containment of CO2, specifies monitoring and documentation processes, and introduces principles for quantifying both the total stored and anthropogenic (human-sourced) CO2.

Industries engaged in carbon capture, oil and gas production, and energy transition projects are primary stakeholders. The standard applies strictly to reservoirs where hydrocarbons are being produced, not to saline or depleted reservoirs, and explicitly excludes above-ground storage or emissions from capture/transport processes.

Key sections cover EOR site characterization, containment assurance, well construction and abandonment, and quantification and verification methodologies. Notably, the 2026 edition clarifies loss versus leakage, reorganizes operational documentation, expands verification provisions, and aligns project termination and recordkeeping with current best practices.

Practical implementation is critical for demonstrating compliance with local and international carbon storage mandates and for unlocking carbon credits.

Key highlights:

• Establishes requirements for safe, long-term containment and project-level monitoring
• Introduces provisions for separating and quantifying anthropogenic versus natural CO2 storage
• Includes detailed verification and recordkeeping methodologies

Access the full standard:View ISO 27916:2026 on iTeh Standards

IEC 62321-13:2026 - Bisphenol A Determination in Electrotechnical Plastics

Determination of certain substances in electrotechnical products - Part 13: Bisphenol A in plastics by liquid chromatography-diode array detection (LC-DAD), liquid chromatography-mass spectrometry (LC-MS) and liquid chromatography-tandem mass spectrometry (LC-MS/MS)

IEC 62321-13:2026 introduces three advanced laboratory test methods for accurately determining free Bisphenol A (BPA) levels in plastics used in electrotechnical products. Using LC-DAD, LC-MS, and LC-MS/MS, this standard covers techniques validated for polycarbonate (PC), PC/ABS, and polypropylene (PP) matrices at concentrations from 20 mg/kg to 500 mg/kg.

The standard responds to growing regulatory focus on hazardous substances like BPA due to their health and environmental impact. Manufacturers, suppliers, and labs serving the electrical and electronic products sector must ensure reliable quantification of BPA to demonstrate compliance with global regulations such as EU RoHS and REACH.

The document specifies equipment, reagents, sampling methods, calibration, and reporting requirements, including detailed instrument parameters and interlaboratory results. It also warns of lab safety and the importance of training and risk assessment for all personnel using hazardous chemicals.

Key highlights:

• Provides globally recognized test methods for free BPA in plastics
• Ensures consistency in compliance testing for regulatory substances
• Includes method precision rates and instrument-specific parameters

Access the full standard:View IEC 62321-13:2026 on iTeh Standards

IEC 61526:2024 - Active Personal Dosemeters for Radiation Protection

Radiation protection instrumentation - Measurement of personal dose equivalents for X, gamma, neutron and beta radiations - Active personal dosemeters

IEC 61526:2024 (Edition 4.1) defines performance and testing requirements for active personal dosemeters used to monitor personal exposure to X-rays, gamma rays, neutron, and beta radiations. Applicable to devices worn on the body, near the eyes, or on extremities, these dosemeters play a crucial role in ensuring the safety of workers in nuclear, healthcare, research, and industrial environments.

This version incorporates significant updates, including:

• New requirements for measuring dose to the lens of the eye and skin/extremities (Hp(3) and Hp(0,07))
• Revised neutron energy response and harmonization of linearity with IEC 62387
• Introduction of requirements for hybrid dosemeters (combining active and passive elements)
• Enhanced software security and alarm function specifications

Compliance with this standard ensures that organizations accurately monitor radiation exposure, issue timely alerts, and meet occupational health legislation and safety certifications.

Key highlights:

• Expanded measurement range, including different tissue-depth doses
• Stricter response requirements for neutron radiation
• Integrated alarm features for dose and dose rates

Access the full standard:View IEC 61526:2024 on iTeh Standards

ISO 10295-1:2026 - Fire Testing of Penetration Seals in Building Elements

Fire tests for building elements and components — Fire testing of service installations — Part 1: Penetration seals

ISO 10295-1:2026 addresses a critical aspect of building fire safety—the integrity and insulation performance at points where pipes, cables, or ducts penetrate walls and floors. The standard specifies the method for testing penetration seals, including test conditions, criteria for assessment, detailed construction requirements, and test reporting protocols.

Applicable to construction materials manufacturers, fire safety consultants, and building control authorities, this revised edition introduces:

• Updated definitions and test construction requirements
• New provisions for water and air leakage optional tests
• Enhanced thermocouple placement guidelines
• Revised application criteria for pipe services

Successful adoption of this standard enables more accurate and internationally consistent fire resistance assessments and helps ensure that fire-separating elements maintain protection even after being penetrated by building services.

Key highlights:

• Standardizes test conditions for penetration sealing systems
• Incorporates optional leakage performance tests
• Updates for enhanced clarity and practical application for multi-service penetrations

Access the full standard:View ISO 10295-1:2026 on iTeh Standards

ISO 23693-3:2026 - Explosion Resistance of Passive Fire Protection Materials

Determination of the resistance to gas explosions of passive fire protection materials — Part 3: Tubular and I-section substrates subject to elastic deformation only

ISO 23693-3:2026 introduces test methods for evaluating how passive fire protection (PFP) materials perform under the combined pressure and drag loads from gas explosions, specifically for tubular and I-section structural members that undergo elastic (non-permanent) deformation.

Leveraging both direct physical testing and computational fluid dynamics (CFD) modelling, the standard enables designers, manufacturers, and fire protection engineers to better assess the resilience of PFP systems in high-risk sectors such as petrochemicals, manufacturing, and onshore/offshore processing.

Exclusions limit application to cases where substrates are not subject to plastic deformation or brittle failure, focusing instead on realistic, elastic response scenarios.

Key highlights:

• Describes test setups for measuring overpressure and drag loads
• Supports CFD modelling for simulating gas explosion impacts on PFP materials
• Provides clear testing and reporting protocols for tubular and I-section substrates

Access the full standard:View ISO 23693-3:2026 on iTeh Standards

Industry Impact & Compliance

Collectively, these standards introduce elevated safeguards and verification protocols for organizations in the energy, manufacturing, electronics, and construction sectors. Adopting these standards helps:

• Mitigate legal and financial risks linked to non-compliance, regulatory infractions, or safety failures
• Unlock opportunities tied to environmental credits, certifications, and market access
• Build customer and stakeholder trust by showing adherence to best practices
• Boost operational resilience by reducing the risk of incidents, downtime, and costly remediations

For many organizations, early adoption is a competitive advantage. Transition strategies typically include internal training, updating procedures, and validating equipment against the new specifications. Review timelines with local authorities, especially where adaptation into regulations or codes is anticipated.

Technical Insights

A review of these five standards reveals several common technical trends:

• Quantitative Assessment: Greater emphasis on recordable, traceable metrics (CO2 storage volumes, BPA concentrations, radiation doses, etc.)
• Verification and Validation: New methods and clearer criteria for verifying data integrity and site-specific performance
• Test Method Standardization: Harmonization of laboratory and field testing (whether for chemicals, fire resistance, or radiation)
• Integrated Risk Management: Requirements for safety documentation, personnel training, and maintenance alignments
• Digital Technologies: Expanded reliance on software, digital display/indication, and computational modelling (notably in dosemeters and explosion resistance testing)

Best practices for implementation:

1. Map existing systems and products to the new requirements.
2. Engage with accredited laboratories for testing where applicable.
3. Upgrade documentation and recordkeeping systems.
4. Conduct staff training on procedural and reporting changes.
5. Work with notified bodies or regulators to align compliance plans.

Successful testing and certification under these standards powerfully demonstrate your organization’s environmental and safety leadership.

Conclusion & Next Steps

June 2026 delivers an impactful set of international standards for Environmental Protection and Safety, reflecting the industry’s growing complexity and regulatory landscape. Whether your role is engineering, compliance, or quality management, proactive engagement with these standards—by reviewing full texts, updating internal policies, and conducting relevant training—can drive both safer outcomes and operational excellence.

Stay ahead: Explore the detailed requirements by accessing each standard above, monitor future updates, and leverage iTeh Standards for authoritative, up-to-date resources and guidance.