July 2026: New Standards Advance Robotics, Tool Safety, Additive Manufacturing, and Heating in Manufacturing Engineering

The landscape of manufacturing engineering is rapidly evolving, and July 2026 marks a significant milestone with the publication of five groundbreaking international standards. These newly released documents address robotics locomotion, electric-powered tool safety, additive manufacturing data packages, and heating system requirements. As digital transformation accelerates and safety, efficiency, and data integrity become ever more critical, these standards set new benchmarks for organizations worldwide.

In this comprehensive review—Part 1 of a two-part series—we explore the latest updates developed by ISO, IEC, CLC (CENELEC), and ASTM. Industry professionals, quality managers, compliance officers, and engineers will find essential information on compliance, implementation, and the transformative impact on modern manufacturing operations.

Overview / Introduction

Manufacturing engineering sits at the core of industrial innovation, integrating advanced robotics, precision tooling, data-driven processes, and highly controlled environments. International standards ensure that practices across the sector remain efficient, safe, and aligned globally—whether in the design lab, on the factory floor, or along digital supply chains.

With increasing adoption of automation, additive manufacturing, and interconnected technologies, new standards play a crucial role. They establish consistent criteria for safety, performance, interoperability, and quality across borders and industries. This article will guide you through the scope, requirements, and strategic impacts of each new standard published in July 2026, supporting informed decisions for compliance, procurement, and operational excellence.

In this article, you’ll learn:

• What’s new in robotics performance and test methods
• Enhanced safety requirements for pole-mounted pruners and edgers
• Innovations in additive manufacturing data handling and digital threads
• Updated general and testing requirements for electrical trace heating systems
• How your organization can benefit from early adoption and robust implementation

Detailed Standards Coverage

ISO 18646-5:2026 – Robotics Locomotion for Legged Robots

Robotics — Performance criteria and related test methods for service robots — Part 5: Locomotion for legged robots

ISO 18646-5:2026 provides a crucial framework for evaluating the locomotion performance of legged robots. As legged robots move from niche applications to wide industrial and service use, consistent criteria for movement, testing, and performance are vital. This standard describes test methods and conditions addressing the unique kinematics and topographical challenges faced by bipedal, quadruped, and multi-legged robotic systems.

Scope & Key Requirements:

• Methods for specifying and measuring key locomotion parameters (speed, climbing, traversal, etc.)
• Test conditions: environmental, travel surface, and operational parameters that mirror real-world use
• Tests for rated speed, stopping distance, climbing height and slope, stair traversal, dragging force, crossing capacities, minimum pass-through height and travel width
• Primarily for complete machine evaluation, but also suitable for sample, qualification, and acceptance testing
• NOT intended as a replacement for safety verification (addresses performance only)

Who Should Comply:

• Robotics manufacturers
• Integrators and R&D teams
• System certifying bodies
• Consumers of advanced robotic solutions

Practical Implications:

• Enables equitable product comparisons across vendors
• Supports optimization and verification in R&D and production
• Reduces barriers in international trade by standardizing performance claims

Key highlights:

• Comprehensive test procedures for locomotion in complex and varied environments
• Standardized reporting for performance metrics
• Facilitates industry benchmarking and quality monitoring

Access the full standard:View ISO 18646-5:2026 on iTeh Standards

FprEN IEC 62841-4-10:2026 – Safety Requirements for Pole-Mounted Pruners

Electric motor-operated hand-held tools, transportable tools and lawn and garden machinery - Safety - Part 4-10: Particular requirements for pole-mounted pruners

FprEN IEC 62841-4-10:2026 brings updated and expanded safety protocols for electric pole-mounted pruners used in industrial, commercial, and horticultural applications. As the use of these tools becomes more prevalent, especially with the shift toward electric-powered equipment, this standard ensures that users benefit from higher safety assurances and harmonized compliance expectations.

Scope & Key Requirements:

• Supplements IEC 62841-1 with specific requirements for pole-mounted pruners
• Covers marking and instructions, protection against access to live parts, start-up and load testing, overload protection, mechanical and constructional design
• Includes new requirements for: product safety labels, protection against moisture, heating, vibration and noise emissions, resistance to rusting, and durability of components
• Battery and mains-connected tool requirements are fully addressed

Who Should Comply:

• Manufacturers and distributors of pole-mounted pruners
• Quality assurance and safety certification labs
• Professional landscapers, maintenance providers, and gardening equipment suppliers

Practical Implications:

• Streamlines CE marking and international conformity assessment
• Ensures end-user safety and reduces liability risks
• Sets clear thresholds for endurance, abnormal operation, and handling safety

Key highlights:

• Enhanced safety labelling, including warnings about electrical hazards and bystander safety
• Mechanical strength and drop resistance tests
• Special requirements for battery packs, noise, and vibration measurement

Access the full standard:View FprEN IEC 62841-4-10:2026 on iTeh Standards

FprEN IEC 62841-4-11:2026 – Safety Requirements for Edgers

Electric motor-operated hand-held tools, transportable tools and lawn and garden machinery - Safety - Part 4-11: Particular requirements for edgers

Following a similar approach as the pruners standard, FprEN IEC 62841-4-11:2026 provides modernized and extensive safety and testing requirements for electrically-operated edgers used to trim lawns and landscaping features. Growth in battery and electric garden tool usage makes this standard especially timely.

Scope & Key Requirements:

• Applies to hand-held, walk-beside, and walk-behind powered edgers
• Delivers comprehensive protocols for guarding, switching, operator visibility, warning labels, blade protection, and resilience against environmental conditions
• Mandates impact tests for cutting accessories, guard design dimensions, and operator safety devices
• Covers both corded and battery-operated tools

Who Should Comply:

• Manufacturers, importers, and distributors of edgers
• Certification and testing bodies
• Large-scale facility and grounds maintenance organizations

Practical Implications:

• Reduces risks of injury from misuse or mechanical failure
• Promotes safe operation in diverse conditions, including wet or outdoor environments
• Streamlines product conformity across EU and global markets

Key highlights:

• New criteria for safety guards and presence sensors
• In-depth guidance for product marking and usage instructions
• Dedicated annexes for battery tools, impact testing, and artificial test surfaces

Access the full standard:View FprEN IEC 62841-4-11:2026 on iTeh Standards

EN ISO/ASTM 52951:2026 – Additive Manufacturing Data Packages

Additive manufacturing - Data - Data packages for AM parts (ISO/ASTM 52951:2026)

Representing a joint effort by leading international standards bodies, EN ISO/ASTM 52951:2026 is the first of its kind to harmonize the methods, modules, and data models used for managing information about additively manufactured parts. This standard formalizes the digital workflows (“digital threads”) that underpin Industry 4.0 and quality management in advanced manufacturing.

Scope & Key Requirements:

• Applicable to any additive manufacturing (AM) technology, with a focus on powder bed fusion-laser based metal (PBF-LB/M) but extensible to all AM processes
• Specifies how to structure, configure, and manage AM part data packages including design, manufacturing, inspection, and acceptance data
• Addresses data security, traceability, part validation, anti-counterfeiting, facility and machine qualifications, and customer data
• Offers modular, customizable approach for organizational and application-specific needs
• Provides templates and guidance for developing digital twins and configuration management

Who Should Comply:

• Additive manufacturing facilities and engineers
• Aerospace, automotive, and medical device manufacturers using AM
• Quality managers and digital workflow architects
• Certification and inspection authorities

Practical Implications:

• Enables reliable archival, communication, and traceability of part data
• Reduces supply chain and quality risks through standardized “digital threads”
• Supports regulatory and customer requirements for part acceptance and documentation

Key highlights:

• Modular approach: tailor data packages by scenario, extending across design to acceptance
• Security controls for part authenticity and sabotage prevention
• Detailed templates for configuration management, qualification, and inspection

Access the full standard:View EN ISO/ASTM 52951:2026 on iTeh Standards

EN IEC 62395-1:2026 – Trace Heating Systems for Industry and Commerce

Electrical resistance trace heating systems for industrial and commercial applications - Part 1: General and testing requirements

EN IEC 62395-1:2026 ushers in a new era of precision and safety for electrical resistance trace heating systems—widely used in industrial and commercial environments for pipe, tank, and freeze protection, process temperature maintenance, and safety-critical applications.

Scope & Key Requirements:

• Applies to design, construction, and testing of all types of electrical resistance trace heaters and integral components
• Includes rigorous type, routine, and acceptance test protocols (dielectric, insulation resistance, flammability, impact, moisture resistance, cold bend, output, thermal stability)
• Now harmonized with IEEE 515 and IEEE 515.1, including additional controls and monitoring for fire suppression and safety shower systems
• New supplemental ice bath method for rated output verification
• Updated constructional and type test requirements for glands terminating heaters to exposed enclosures
• Extended requirements for product marking and installation instructions

Who Should Comply:

• Trace heater manufacturers
• Industrial process engineers
• MRO (maintenance, repair, operations) organizations
• Safety compliance and installation contractors

Practical Implications:

• Enhances reliability and safety of electrical heat tracing in critical environments
• Supports efficient commissioning, inspection, and regulatory acceptance
• Reduces risk of process interruptions, equipment damage, or compliance failures

Key highlights:

• Updated alignment with IEEE standards for global applicability
• Expanded testing for fire safety features and cold conditions
• Clearly defined marking and installation documentation

Access the full standard:View EN IEC 62395-1:2026 on iTeh Standards

Industry Impact & Compliance

The July 2026 standards suite brings fresh clarity and unified requirements, empowering manufacturers and solution providers to:

• Mitigate product liability and safety risks through documented compliance
• Facilitate market access—EU, US, and global—via harmonized requirements
• Enhance R&D and operational excellence with standardized performance criteria
• Improve supply chain efficiency and documentation, especially in digital and additive manufacturing environments

Compliance Considerations:

• Manufacturers should review certification and CE marking timelines, as there may be a transition or sunset period for previous standards
• Implementation may require updates to documentation, operator training, and internal audits
• Early adoption could become a competitive differentiator, especially in high-regulation sectors
• Risks of non-compliance include product recalls, reputational harm, and exclusion from public procurement and international markets

Technical Insights

Common Technical Requirements Across Standards

• Rigorous testing: Mechanical endurance, electrical safety, impact and flammability, controllability, and performance measurement procedures
• Comprehensive documentation: Emphasis on clear instructions, marking, traceability, and digital data integrity
• Operator safety: New requirements for guards, labeling, sensors, and environmental/abnormal operation testing
• Digitalization: Data management, configuration, and validation workflows (especially in additive manufacturing)
• Harmonization: Greater alignment with international standards means easier cross-border certification and product strategy

Implementation Best Practices

1. Gap Assessments: Compare current practices and tools against new requirements
2. Training & Awareness: Update internal and customer-facing documentation to reflect new compliance points
3. Early Certification: Engage with third-party certification bodies to achieve early market adoption
4. Documentation: Implement robust version control and traceability systems, especially where digital manufacturing data is involved

Testing and Certification Considerations

• Engage accredited labs that are equipped for expanded or updated test methods (locomotion, endurance, digital workflows)
• Verify that supplier and component certifications align with the new harmonized requirements
• For additive manufacturing, ensure digital thread and security functions are addressed in IT and operational quality systems

Conclusion / Next Steps

The July 2026 wave of new standards represents a strategic opportunity for the manufacturing engineering sector. These standards, spanning robotics, tool safety, additive manufacturing, and industrial heat management, not only provide a roadmap for world-class performance and safety but also cement digital transformation across manufacturing processes.

Key takeaways:

• Adopting these standards strengthens product quality, market access, and operational safety
• Early implementation positions organizations as industry leaders and trusted suppliers
• Staying proactive with compliance helps manage technical risk and ensures long-term competitiveness

Next steps for organizations:

• Download and review the full text of relevant standards
• Initiate internal reviews and update compliance systems
• Consult with accredited bodies to plan for certification and worker training
• Subscribe to updates from iTeh Standards to stay ahead of regulatory and industry changes

For detailed technical guidance, real-world implementation support, or to purchase copies of the standards, visit iTeh Standards today.