top of page

Industrial Process Measurement and Control: The Standards Every Modern Manufacturer Needs


In today’s data-driven manufacturing environment, industrial process measurement and control standards are essential for building efficient, resilient, and future-ready operations. The ability to accurately measure, control, and analyze process variables is at the core of smart manufacturing—enabling everything from real-time decision-making to predictive maintenance, quality assurance, and scaling production. This comprehensive guide explores four cornerstone IEC and IEC/IEEE international standards shaping the industry: IEC 61298-1:2026, IEC 62828-1:2026, IEC 62828-2:2026, and IEC/IEEE 60802:2026. Each standard encapsulates evolving best practices that directly impact how organizations implement new technologies, scale up, and safeguard both productivity and security in an increasingly competitive global market.


Overview / Introduction

As digital transformation, Industry 4.0 initiatives, and interconnected operations come to define the manufacturing landscape, industrial process measurement and control standardshave become a strategic necessity for manufacturers worldwide. With the integration of IoT devices, smart sensors, and time-sensitive networks, ensuring consistent, reliable, and secure operations is more complex than ever. Modern standards provide a universal language and precise methodology for specifying, testing, and integrating industrial instrumentation and devices, making it possible to scale operations while minimizing risk.

This article will:

  • Demystify four critical international standards for process measurement and control

  • Explain their purpose, scope, and impact in real-world operational contexts

  • Offer actionable guidance on their implementation, compliance, and benefits for manufacturers

  • Highlight how adherence can drive productivity, security, efficiency, and scalability as you incorporate new technologies


Detailed Standards Coverage

IEC 61298-1:2026 – Evaluating Industrial Process Measurement and Control Devices

Process measurement and control devices – General methods and procedures for evaluating performance – Part 1: General considerations

This third edition of IEC 61298-1:2026 is a foundational international standard providing the basis for evaluating the functional and performance characteristics of process instrumentation, except for process measurement transmitters (PMTs), which are covered by the IEC 62828 series. The scope includes any analog or digital device characterized by specific input/output variables and transfer functions—ranging from field instruments to complex digital controllers. It details how to conduct tests, report results, and ensure uniformity across device evaluation processes.

Key requirements and specifications:

  • Defines standardized test categories (type testing, acceptance testing, series testing)

  • Prescribes general principles for environmental, operational, and installation conditions

  • Lays out documentation, reporting, and error evaluation methodologies

  • Ensures test reproducibility, data comparability, and credible reporting

  • Excludes process measurement transmitters (PMTs), which are now handled by IEC 62828

Who needs to comply:

  • Process device manufacturers and suppliers (except PMTs)

  • Testing laboratories and calibration facilities

  • Engineering firms overseeing instrumentation selection and commissioning

Practical implications:

  • Ensures devices meet minimum performance criteria across differing real-world environments

  • Enables objective, third-party comparison and validation

  • Supports informed purchasing decisions, lifecycle costing, and asset management

Notable features:

  • Comprehensive requirements for sampling, environmental controls, vibration/shock, supply, and more

  • Explicit documentation standards for test reports

  • Clear definitions of performance terms (e.g., non-linearity, hysteresis, inaccuracy)

Key highlights:

  • Universal evaluation principles for analog/digital process devices

  • Step-by-step processes for setting test conditions

  • Guidance for integrating with product-specific standards

Access the full standard: View IEC 61298-1:2026 on iTeh Standards

IEC 62828-1:2026 – General Testing Framework for Industrial and Process Measurement Transmitters

Reference conditions and procedures for testing industrial and process measurement transmitters – Part 1: General procedures for all types of transmitters

IEC 62828-1:2026 is the central coordinating standard for defining how to assess, test, and document the performance of all types of process measurement transmitters (PMTs) used throughout manufacturing. It distinguishes between analog, digital, and hybrid PMTs (analog and digital outputs) and sets forth environmental, operational, and electrical conditions essential for reliable and reproducible measurement.

Key requirements and specifications:

  • Classification and definitions for PMT types, architectures, and operational behaviors

  • Reference conditions, procedures, and test methods for evaluating accuracy, uncertainty, and stability

  • General test categories: type tests, acceptance tests, periodic verification, maintenance, and calibration

  • Requirements for environmental controls, shock/vibration resistance, EMC performance, and mounting

  • Updated definitions of accuracy/inaccuracy, reporting, and error evaluation consistent with the latest industry needs

Who needs to comply:

  • Manufacturers and integrators of PMTs (pressure, temperature, level, and flow)

  • Calibration laboratories and industrial users deploying PMTs

  • Project engineering and QA teams in process industries

Practical implications:

  • Provides a harmonized, repeatable testing regime for all transmitter types

  • Supports quality assurance, regulatory compliance, and interoperability

  • Establishes the technical foundation for product development, selection, and lifecycle management

Notable features:

  • Inclusion of current signal range examples (e.g., 4 mA to 20 mA for analog signals)

  • Harmonization of definitions and reporting practices

  • Adaptable for both traditional and emerging digital device architectures

Key highlights:

  • Universal methodology for qualifying all PMT types

  • Explicit guidance on error sources, calibration intervals, and environmental factors

  • Comprehensive documentation standards for traceability

Access the full standard: View IEC 62828-1:2026 on iTeh Standards

IEC 62828-2:2026 – Testing Methods for Pressure Process Measurement Transmitters

Reference conditions and procedures for testing industrial and process measurement transmitters – Part 2: Specific procedures for pressure transmitters

IEC 62828-2:2026 focuses on detailed technical procedures for the testing, validation, and documentation of pressure PMTs—which are widely used in process plants, utilities, and industries with critical pressure measurement demands. It complements the general requirements in IEC 62828-1:2026 with specific tests for pressure-related performance, safety, and reliability.

Key requirements and specifications:

  • Applies to pressure transmitters, including those with remote seals and non-separable assemblies

  • Details test procedures for accuracy, long-term stability, hysteresis, span, and non-linearity

  • Introduces specific methods for evaluating error under overpressure, static pressure, and leak rate

  • Provides corrections for drift, compensating errors, and pressure range configuration

  • Incorporates revised formulas, precise terms/definitions, and expanded additional tests

Who needs to comply:

  • Pressure transmitter and instrumentation manufacturers

  • Plant engineers, commissioning teams, and QA professionals

  • Testing laboratories evaluating industrial pressure devices

Practical implications:

  • Ensures consistent safety, metrological integrity, and device longevity

  • Facilitates regulatory compliance for critical installations (e.g. energy, pharma, chemicals)

  • Enables apples-to-apples performance validation

Notable features:

  • Exhaustive procedures for leakage, pressure limits, and long-term drift

  • Clear separation of test protocols for pressure PMTs versus general devices

  • Updated test reporting, including main device characteristics

Key highlights:

  • Essential for accurate, safe, and reliable pressure measurements in complex environments

  • Direct cross-reference and harmonization with IEC 62828-1 methodologies

  • Defines overpressure and maximum working pressure (MWP) requirements

Access the full standard: View IEC 62828-2:2026 on iTeh Standards

IEC/IEEE 60802:2026 – Time-Sensitive Networking Profile for Industrial Automation

Time-sensitive networking profile for industrial automation

IEC/IEEE 60802:2026 establishes a unified, application-specific profile for time-sensitive networking (TSN) in industrial automation. Addressing the need for deterministic, low-latency, and high-reliability communications, TSN profiles under this standard enable seamless interoperability and real-time data exchange across manufacturing networks, supporting both legacy systems and next-generation Industry 4.0 architectures.

Key requirements and specifications:

  • Defines network protocols, feature selection, and configuration defaults for Layer 2/3 devices (bridges, end stations, and LANs)

  • Specifies YANG modules for digital datasheets, device management, and network configuration/monitoring

  • Details conformance requirements for physical (PHY) and media access control (MAC) interfaces

  • Includes security models, synchronization, topology discovery, and failover mechanisms

  • Conforms to rigorous latency, synchronization, and reliability benchmarks for control loops and automation tasks

Who needs to comply:

  • Automation/IT architects designing real-time industrial networks

  • Vendors and integrators of industrial Ethernet and TSN-capable devices

  • Plant managers and digitalization teams aiming for Industry 4.0 readiness

Practical implications:

  • Enables deterministic data transfer critical for safety, motion control, and process integrity

  • Maximizes operational uptime and quality through robust network configuration and management

  • Streamlines device integration and digital twin initiatives (via standardized device models)

Notable features:

  • Read-only and actionable YANG modules for both offline and live device data

  • Best-practice security setup, digital identities, and access control

  • Real-world guidance for synchronized, vendor-neutral automation architecture

Key highlights:

  • Foundation for scalable, future-proof factory networks

  • Highly relevant for plants adopting IoT, robotics, predictive analytics, and autonomous systems

  • Facilitates secure, low-latency, and interoperable automation infrastructure

Industry Impact & Compliance

Adopting international standards like IEC 61298-1, IEC 62828-1, IEC 62828-2, and IEC/IEEE 60802 has far-reaching benefits for manufacturing operations:

  • Streamlined compliance: Universal procedures support easier certification, enable export, and reduce audit complexity.

  • Secure and scalable operations: Time-sensitive networking (TSN) and robust instrumentation frameworks reduce cyber risk, support expansion, and future-proof investments.

  • Productivity and quality assurance: Reliable process measurement and control underpin uptime, yield, and automated quality monitoring.

  • Competitive positioning: Standards-driven processes foster innovation, speed up digital transformation, and bolster confidence in plant and supply chain resilience.

Non-compliance risks:

  • Regulatory setbacks and legal penalties

  • Increased vulnerability to operational disruptions or cyber attacks

  • Loss of customer trust and market share, particularly for export markets or regulated industries


Implementation Guidance

Practical steps and best practices for deploying these standards successfully:

  1. Assessment and Gap Analysis

    • Evaluate current instrumentation, testing labs, and control networks against the referenced standards.

  2. Training and Awareness

    • Invest in training engineers, QA specialists, and IT/OT teams on new procedures, data models, and reporting requirements.

  3. Process Integration

    • Embed standard-compliant testing and reporting throughout procurement, commissioning, and maintenance processes.

  4. Leverage Digital Twins and Modeling

    • Use digital datasheets (YANG, as per TSN) and device simulation for pre-deployment validation.

  5. Automate Documentation and Reporting

    • Utilize standardized reporting templates to ensure audit readiness and continuous improvement.

  6. Collaborate with Suppliers and Integrators

    • Align upstream and downstream partners on common requirements, devices, and protocols.

Helpful resources for implementation:

  • Standard-specific guides and summarized checklists (via iTeh Standards)

  • Vendor documentation and device datasheets

  • Industry forums and training webinars


Conclusion / Next Steps

Industrial process measurement and control standards are the cornerstone of competitive, secure, and future-ready manufacturing operations. As the digital landscape accelerates, harmonized frameworks like IEC 61298-1, IEC 62828-1, IEC 62828-2, and IEC/IEEE 60802 are no longer just best practices—they are business imperatives. Ensuring compliance means safeguarding your productivity, reputation, and growth potential in a global marketplace.

Key takeaways:

  • Standardized measurement/testing drives quality and consistency

  • Time-sensitive networking unlocks secure scalability and real-time control

  • Up-to-date compliance is essential for regulatory and market success

Recommended actions:

  • Review the standards linked above on iTeh Standards

  • Conduct a readiness assessment for your current operations

  • Engage with compliance experts or training programs

  • Stay informed as standards evolve with new technologies

Embrace these standards today to build a strong foundation for tomorrow’s smart factory. For deeper dives, the latest updates, and tailored support, explore iTeh Standards—your authoritative source for industrial standards and compliance guidance.

 
 
 

Comments


© 2021 by SAUGATECH

bottom of page