June 2026: New Electronics Standards Enhance Quality and Safety

June 2026 has brought a significant wave of updates in the field of electronics standards, with five newly published international documents shaping the next era of product safety, manufacturing efficiency, and technological innovation. Covering advancements from medical lasers to flexible rollable displays and the booming sector of additive manufacturing, these standards provide essential frameworks for engineers, compliance professionals, and manufacturers navigating the fast evolution of electronic products.

Overview

The electronics industry sits at the heart of modern innovation, spanning everything from critical medical devices and high-tech displays to next-generation manufacturing methods. International standards are the backbone of this development, ensuring products meet rigorous requirements for quality, safety, interoperability, and sustainability. Whether you are designing, testing, sourcing, or certifying electronics, staying updated on new and revised standards is fundamental to global competitiveness and risk mitigation.

In this article, we explore five key standards released in June 2026, explaining their scope, technical requirements, implications, and practical steps for implementation. Readers will gain actionable insights into compliance strategies and industry best practices, reinforced by direct access to each full standard on iTeh Standards.

Detailed Standards Coverage

EN ISO 22248:2026 – Classification of Medical Laser Beam Delivery Systems

Lasers and laser-related equipment – Test methods for laser-induced damage threshold – Classification of medical beam delivery systems (ISO 22248:2020)

EN ISO 22248:2026 establishes reliable test methods for assessing the laser-induced ignition and damage thresholds in medical beam delivery systems—such as optical fibers, articulated arms, and waveguides—used to direct laser beams from sources to treatment sites in clinical environments. With patient and staff safety at stake, the standard enables objective product classification, guiding procurement and maintenance decisions in healthcare settings.

It covers:

• Testing under controlled conditions (up to 98% oxygen) to simulate worst-case fire risks
• Laser wavelength and power sensitivity, with explicit reporting on test conditions
• Definition of pass/fail criteria based on ignition, afterflame, material melting, and structural damage
• Applicators, including shaped tips and endoscopic attachments

Targeted at medical device manufacturers, healthcare facilities, suppliers, and testing labs, this standard supports robust risk management and regulatory compliance.

Key highlights:

• Codifies test parameters and apparatus for laser damage threshold evaluation
• Addresses safety practices and hazard mitigation during testing
• Introduces repeatable classifications for reusable and single-use devices

Access the full standard:View EN ISO 22248:2026 on iTeh Standards

IEC 61760-1:2026 – Surface Mounting Components Specification

Surface mounting technology – Part 1: Standard method for the specification of surface mounting components (SMDs)

IEC 61760-1:2026 is a foundational document for manufacturers and users of surface mount devices (SMDs), providing a definitive method for creating consistent and comprehensive component specifications. It streamlines component design, ensures reliable assembly processes, and facilitates both automated and manual manufacturing workflows.

The new edition introduces major updates:

• Expanded classification of electronic assemblies (levels A, B, and C)
• Requirements for creepage and clearance distances, insulation coordination
• Enhanced thermal and electrical performance criteria
• New guidance on low temperature soldering, commonly used solder alloys, and resistance to cleaning chemicals
• An annex dedicated to sustainability, eco-design, and life cycle assessment

This standard is essential for OEMs, EMS providers, component suppliers, and quality assurance teams aiming for defect reduction and global interoperability.

Key highlights:

• Reference process and test conditions for SMD specifications
• Comprehensive compliance and material declarations (including supply chain considerations)
• Specific provisions for rework, packaging, and transportation of components

Access the full standard:View IEC 61760-1:2026 on iTeh Standards

IEC 62715-6-42:2026 – Flattening Force Measurement for Rollable Display Devices

Flexible displays – Part 6-42: Mechanical test methods – Flattening force measurement methods for rollable display devices

With the proliferation of flexible and rollable OLED and LCD panels in consumer electronics, automotive, and signage markets, IEC 62715-6-42:2026 establishes standardized test methods for quantifying the force required to flatten rollable display devices. Accurate flattening force measurement is crucial for both design validation and user experience, impacting reliability and touch performance.

The standard defines:

• Standard environmental and measurement conditions
• Equipment configurations for both one-axis and double-axis rollable devices
• Step-by-step procedures for measuring flattening force and arching height using tension sensors and laser scanning
• Criteria for reporting and data analysis

It serves manufacturers, developers, and quality labs engaged in flexible display R&D, assembly, and durability testing.

Key highlights:

• Covers force measurement for both single-axis and double-axis rollable displays
• Establishes consistency in reliable test data and user experience evaluation
• Addresses minimization of arching height for optimal device performance

Access the full standard:View IEC 62715-6-42:2026 on iTeh Standards

IEC PAS 63702:2026 – Classification of Additive Manufacturing and 3D-Printing Processes for Electronics

Classification of additive manufacturing and 3D-printing processes for electronics

IEC PAS 63702:2026 addresses the accelerating adoption of additive manufacturing (AM)—including 3D printing—in electronics production. With the trend towards miniaturized, integrated, and rapid-prototyped electronic components, there is urgent need for standardized terminology and process classes.

The specification:

• Defines five classes of additive manufacturing for electronics, from basic 2D substrate printing to 4D shape-changing solutions
• Details material application, carrier types, and integration of electronic, photonic, and mechanical functions
• Outlines fundamental AM methods applicable to electronics: inkjet, aerosol jet, dispensing, soft lithography, and more
• Aids manufacturers in selecting processes, data formats, and design tools compatible with advanced electronics integration, including Industry 4.0 applications

This PAS is pivotal for R&D engineers, process development teams, and manufacturers transitioning to additive or hybrid electronics production.

Key highlights:

• Five-class system for categorizing additive electronics manufacturing processes
• Bridges design freedom, material efficiency, and rapid, tool-free production
• Vital for embracing functional integration and digital manufacturing trends

Access the full standard:View IEC PAS 63702:2026 on iTeh Standards

IEC 60747-5-18:2026 – Photoluminescence Testing for Micro LED Epitaxial Wafers

Semiconductor devices – Part 5-18: Optoelectronic devices – Light emitting diodes – Test method of the macro photoluminescence for epitaxial wafers of micro light emitting diodes

This new standard brings precision to optoelectronic quality control by defining how to measure macro photoluminescence (PL) on red, green, and blue epitaxial wafers for micro LEDs—all before chip fabrication. With the growing importance of micro LEDs in displays and lighting, reliable wafer-level assessment is critical for efficiency, brightness, and color quality down the supply chain.

The standard provides:

• Terms, definitions, and measurement techniques for PL signals, spectral analysis, and wavelength mapping
• Setup guidelines for temperature, humidity, wafer fixation, and suppression of ambient light interference
• Criteria for test data such as peak signal, centroid wavelength, FWHM, and data mapping across 4, 6, and 8-inch wafers

Essential for semiconductor fabs, QC labs, and R&D professionals producing or qualifying micro LED wafers.

Key highlights:

• Standardizes non-destructive, pre-fabrication optical testing of wafer quality
• Enhances production yield, binning, and device performance consistency
• Supports global supply chains for next-gen displays and lighting solutions

Access the full standard:View IEC 60747-5-18:2026 on iTeh Standards

Industry Impact & Compliance

The June 2026 release of these electronics standards marks a decisive step forward in harmonizing safety, quality, and sustainability worldwide. For businesses, implementing these standards unlocks direct and indirect benefits, from faster market access and lower defect rates to enhanced customer trust and legal compliance.

Key compliance considerations:

• Integrating new test methods and specifications into design, manufacturing, and QC processes
• Updating supplier requirements in line with updated component, process, and safety data
• Establishing documentation and traceability to demonstrate conformance in regulatory or contractual audits
• Monitoring transition dates and phased adoption schedules relevant to your operational region

Failure to align with updated standards can result in non-compliance penalties, supply chain disruptions, increased recalls, and reputational harm.

Adopting these new requirements early enables companies to refine processes, bolster product value, and sharpen their competitive edge.

Technical Insights

Across these five standards, several technical themes and best practices emerge:

• Rigorous test conditions: Use of controlled environments (e.g., oxygen-rich atmospheres, specified humidity) ensures repeatable and meaningful results.
• Traceable documentation: Detailed test reports and classifications simplify supply chain integration and post-market surveillance.
• Sustainability focus: New guidance on eco-design, life cycle analysis, and responsible sourcing aligns with emerging global regulatory landscapes (e.g., EU Green Deal).
• Advanced measurement: Adoption of high-precision sensors, optical mapping tools, and spectrometers yields more reliable data, facilitating automation and digital transformation.
• Process integration: These standards are not isolated—they serve as building blocks for digital and automated manufacturing, enabling seamless transitions from prototyping to mass production.

Implementation tips:

1. Review current procedural documents and SOPs against new requirements
2. Assess laboratory and production equipment for compatibility
3. Train staff on updated methodologies and reporting expectations
4. Engage with suppliers early to ensure consistent conformance throughout your value chain
5. Use the iTeh Standards portal to access updates and track amendments

Conclusion & Next Steps

The June 2026 suite of electronics standards paves the way for a safer, smarter, and more sustainable industry. From mitigating risks in medical lasers to advancing the promise of 3D-printed electronics and ensuring the reliability of display and optoelectronic innovations, these standards are essential tools for any professional invested in quality and compliance.

Key takeaways:

• Proactive adoption yields lower risk and greater opportunity
• Leverage iTeh Standards for full access, updates, and expert resources
• Stay engaged: future parts and additional standards on electronics are forthcoming

For engineers, quality managers, procurement specialists, and compliance officers, now is the ideal moment to review these important standards and integrate them into your organizational processes. Explore the full documents at iTeh Standards and ensure your products and operations remain at the forefront of the electronics sector.