March 2026: New Petroleum and Energy Technologies Standards Released

March 2026: New Petroleum and Energy Technologies Standards Released

March 2026 marks a significant update for the petroleum and energy technologies sector, with the publication of five pivotal standards aimed at enhancing safety, testing reliability, and operational best practices across the industry. Whether you’re involved in product quality, plant safety, marine operations, or compliance management, these new and revised specifications are set to shape the technical and regulatory landscape for fuels, bitumen binders, offshore installations, and LNG bunkering operations.


Overview

The petroleum and energy technologies sector is fundamental to the world’s infrastructure, powering transportation, industry, and homes. Standards play a vital role in this field—they ensure safety in handling volatile substances, consistency in fuel quality, and resilience of offshore structures against harsh environmental conditions. This March, five new international and European standards have been released, providing comprehensive guidance and updated methodologies to address industry challenges around safety, risk, product quality, and environmental compliance.

In this article, you’ll find:

  • A summary and practical interpretation of each new standard
  • Key highlights and technical requirements
  • Who these standards affect and how they can be implemented
  • Insights on industry impact and compliance
  • Practical advice for technical teams and quality managers

Detailed Standards Coverage

ISO 24966:2026 – Determination of Flash Point — Modified Continuously Closed Cup Flash Point (MCCCFP) Method

Determination of flash point — Modified continuously closed cup flash point (MCCCFP) method

The ISO 24966:2026 standard introduces a robust methodology for determining the flash point of a range of petroleum-based and related products—including chemicals, lube oils, aviation turbine fuels, diesel fuels, and biodiesel blends. The method focuses on the Modified Continuously Closed Cup Flash Point (MCCCFP) technique, crucial for evaluating the temperature at which vapors from petroleum products ignite in the presence of an ignition source—a key metric for assessing fire and explosion risks during storage, transportation, and processing.

The precision of this standard method has been validated for materials spanning 24.5°C to 229.5°C, making it broadly applicable to substances handled in petroleum supply chains. Importantly, the updated methodology ensures improved repeatability and reproducibility, accommodating regulatory needs for accurate hazard classifications.

This standard is aimed primarily at:

  • Refineries and petrochemical plants
  • Fuel testing laboratories
  • Safety and shipping regulatory bodies
  • Third-party inspection agencies

From an implementation perspective, ISO 24966:2026 strengthens the integrity of safety evaluations and supports compliance with global transport and storage regulations for hazardous materials.

Key highlights:

  • Applies to chemicals, lube oils, fuels, diesel/biodiesel blends
  • Covers flash point determination 24.5°C – 229.5°C
  • Enhanced apparatus verification and precision criteria

Access the full standard:View ISO 24966:2026 on iTeh Standards


CEN ISO/TS 18683:2026 – Guidelines for Safety and Risk Assessment of LNG Fuel Bunkering Operations

Guidelines for safety and risk assessment of LNG fuel bunkering operations (ISO/TS 18683:2021)

CEN ISO/TS 18683:2026 provides a framework for conducting safety and risk assessments related to liquefied natural gas (LNG) bunkering operations—a rapidly growing field with the marine industry's shift to lower-emission fuels. The standard delivers actionable guidance on risk-based approaches for the design and operation of LNG bunker transfer systems. It defines minimum functional requirements and recommends structured risk assessments, recognizing the unique operational hazards inherent in LNG due to its cryogenic nature and volatility.

Covered scenarios include bunkering from shore-to-ship, ship-to-ship, and mobile-to-ship supply arrangements for both seagoing and inland vessels. The standard’s approach helps ensure process safety, environmental protection, and compliance with international maritime and port authority regulations.

Target users:

  • LNG terminal operators
  • Marine fuel suppliers and shipowners
  • Port authorities
  • Risk assessment and safety management professionals

Practical application of this standard ensures robust safety zones, effective stakeholder coordination, and the implementation of industry best practices for incident prevention and emergency response.

Key highlights:

  • Structured risk assessment for all LNG bunkering scenarios
  • Safety zone determination methods and mitigation measures
  • Addresses roles/responsibilities across stakeholders and operational risk controls

Access the full standard:View CEN ISO/TS 18683:2026 on iTeh Standards


EN 16659:2026 – Bitumens and Bituminous Binders – Multiple Stress Creep and Recovery Test (MSCRT)

Bitumens and bituminous binders - Multiple Stress Creep and Recovery Test (MSCRT)

EN 16659:2026 updates the methodology for evaluating the elastic recovery and deformation resistance of bituminous binders, essential materials in road construction and maintenance. The Multiple Stress Creep and Recovery Test (MSCR) is conducted using a dynamic shear rheometer (DSR), providing more precise measures of a binder’s ability to resist permanent deformation (rutting) under repeated traffic loading.

This revision accounts for both aged and unaged binders and introduces controls for particle size, improved specimen preparation, and revised temperature ranges for testing. These updates ensure that test results are more consistent and better reflect real-world conditions, thereby improving material specifications for asphalt pavements and ensuring long-term performance.

This standard is highly relevant to:

  • Asphalt and bitumen product manufacturers
  • Civil engineering laboratories
  • Transportation agencies and road authorities
  • Quality assurance professionals in paving projects

With detailed requirements for apparatus, specimen handling, and reporting, EN 16659:2026 enables better decision-making for infrastructure investment and maintenance.

Key highlights:

  • Standardizes MSCR test for all bituminous binders
  • Incorporates updated temperature control, specimen sizing, and safety provisions
  • Strengthens reproducibility and result traceability

Access the full standard:View EN 16659:2026 on iTeh Standards


prEN ISO 19901-1 – Offshore Structures: Metocean Design and Operating Considerations

Oil and gas industries including lower carbon energy - Specific requirements for offshore structures - Part 1: Metocean design and operating considerations (ISO/DIS 19901-1:2024)

prEN ISO 19901-1 sets forth comprehensive guidance on determining and applying meteorological and oceanographic (metocean) parameters in the lifecycle of offshore structures—including those for oil, gas, and lower carbon energy applications. This standard addresses the full range of environmental data required for offshore platform design, construction, operation, and decommissioning.

Key requirements cover identification of extreme and normal metocean conditions, methodologies for compiling environmental data, and application of these datasets to support risk assessments, design actions, and operational planning. The standard addresses extreme events, long-term trends, and operational envelopes, making it invaluable for engineers and project managers engaged in new builds, assessments of existing assets, and safe decommissioning planning.

Target audience includes:

  • Offshore platform designers and engineers
  • Owners/operators of offshore energy assets
  • Coastal and marine environmental consultants
  • Regulatory agencies

By incorporating this standard, organizations can enhance structural safety, optimize operational windows, and ensure regulatory compliance in increasingly complex offshore environments.

Key highlights:

  • Comprehensive guidance on metocean data collection and use
  • Defines criteria for action planning, weather windows, and operational limits
  • Supports lifecycle management for offshore petroleum and energy assets

Access the full standard:View prEN ISO 19901-1 on iTeh Standards


EN 16715:2026 – Liquid Petroleum Products – Determination of Ignition Delay and Derived Cetane Number (DCN)

Liquid petroleum products - Determination of ignition delay and derived cetane number (DCN) of middle distillate fuels - Ignition delay and combustion delay determination using a constant volume combustion chamber with direct fuel injection

The new EN 16715:2026 standard details a highly precise test method for determining ignition and combustion delays in middle distillate fuels—the principal performance indicators for diesel fuels. This methodology employs a constant volume combustion chamber with direct fuel injection to generate ignition profiles and calculates the Derived Cetane Number (DCN), providing crucial information for engine performance, emissions, and compliance with fuel quality regulations.

Applicable to both conventional and alternative (including FAME and biodiesel-blended) diesel fuels, this standard is critical for fuel producers, engine manufacturers, and laboratories responsible for certifying transportation fuels.

What’s new:

  • Expanded coverage for alternative diesel and biodiesel blends
  • Enhanced procedures for apparatus calibration and verification
  • Updated equations and precision statements for DCN calculation

Who should comply:

  • Refiners and fuel suppliers
  • Certification laboratories
  • Engine and vehicle manufacturers

Adhering to EN 16715:2026 ensures that fuels meet legislative requirements for combustion quality and supports efforts to lower emission profiles in diesel engines.

Key highlights:

  • Quantifies ignition delay, combustion delay, and DCN for diesel fuels
  • Extends applicability to non-petroleum and biodiesel-blend fuels
  • Updated calibration and statistical analysis requirements for heightened precision

Access the full standard:View EN 16715:2026 on iTeh Standards


Industry Impact & Compliance

The newly published March 2026 standards introduce enhanced accuracy, safety practices, and data-driven decision-making across petroleum and energy operations. For businesses, rapidly integrating these standards will:

  • Bolster legal and regulatory compliance, both regionally and globally
  • Support ISO, CEN, and national conformity assessment obligations
  • Mitigate the risk of product or operational failures
  • Streamline audits and facilitate certification
  • Enable safe adoption of novel fuels, materials, and marine procedures

Typical compliance steps involve updating internal procedures, retraining quality and laboratory staff, auditing existing equipment, and updating supply chain documentation. Non-compliance can result in significant regulatory penalties, increased incident risk, reputational damage, and exclusion from key markets.

Technical Insights

Common technical requirements across these standards include:

  • Use of calibrated, certified reference materials and equipment
  • Strict documentation and traceability procedures, especially for test results
  • Defined temperature, pressure, and measurement ranges to standardize assessments
  • Detailed sample preparation and apparatus verification protocols
  • Requirement for qualified personnel and ongoing training

Implementation best practices:

  1. Document Review & Gap Analysis: Assess current procedures vs. new/updated requirements
  2. Equipment Verification: Ensure apparatus meets new calibration and capability criteria
  3. Staff Training: Develop competency frameworks for handling, testing, and risk assessment
  4. Data Management: Strengthen sample tracking, retention of records, and calibration logs
  5. Validation: Conduct internal validation studies to verify reproducibility and repeatability

Testing and certification considerations:

  • Seek third-party assessment for high-stakes measurements (e.g., flash point, DCN, MSCR)
  • Engage with accredited laboratories for initial calibration and method setup
  • Participate in proficiency testing schemes where available

Conclusion & Next Steps

The March 2026 standards mark a notable advancement in petroleum and energy technologies, aiming to raise global benchmarks for safety, quality, and environmental responsibility. Organizations operating in refining, fuels testing, marine bunkering, offshore engineering, or construction materials should take immediate steps to review, adopt, and implement these new requirements.

Key takeaways:

  • Enhanced safety and testing rigor
  • Expanded scope for novel materials and operational scenarios
  • Support for sustainability and compliance in a changing energy landscape

Recommendations:

  • Assign cross-functional teams to review and apply relevant standards
  • Update internal quality systems, safety programs, and technical protocols
  • Consult the original standards via the provided iTeh Standards links for full details
  • Stay engaged with iTeh Standards for continuous updates and expert guidance

Explore the new standards, drive compliance, and ensure your organization’s place at the leading edge of the petroleum and energy industry.