Industrial Process Measurement and Control: Essential Standards for Modern Manufacturing

Industrial process measurement and control underpin the efficiency, safety, and innovation capacity of modern manufacturing. As technology rapidly advances, the need for harmonized standards has become critical for businesses striving to improve productivity, security, and scalability. This article explores four pivotal international standards—IEC 61158-5:2000, IEC 61918:2010, IEC 62453-309:2009, and IEC TR 62390:2005—covering application communication, installation protocols, device integration, and profile guidelines. By understanding and implementing these specifications, manufacturing organizations can confidently embrace new technologies and secure a competitive edge in Industry 4.0.

Overview / Introduction

Industrial manufacturing is undergoing transformative change. Data-driven automation, real-time control, and seamless device communication are now required for sustainable success. To achieve this, manufacturers must navigate a complex environment of machinery, sensors, and digital networks—where reliability, interoperability, and security are paramount.

International standards for industrial process measurement and control offer frameworks that ensure equipment speaks a common language, networks are robustly installed, new technologies are integrated safely, and devices remain compatible across updates and suppliers. Adopting such standards is no longer optional; it is a must for:

• Achieving higher productivity through process optimization and automation
• Scaling operations with minimal downtime or integration barriers
• Enhancing cybersecurity and data integrity across industrial networks
• Supporting compliance, traceability, and global market access
• Reducing total cost of ownership and streamlining maintenance

This guide presents the scope and practical insights of four leading standards from the International Electrotechnical Commission (IEC), providing clarity for manufacturers, engineers, and decision-makers alike.

Detailed Standards Coverage

IEC 61158-5:2000 – Fieldbus Application Layer Service Definition

Digital data communications for measurement and control – Fieldbus for use in industrial control systems – Part 5: Application Layer Service definition

IEC 61158-5:2000 is a foundational standard defining the Application Layer services for industrial fieldbus communication networks. Fieldbus systems are used extensively for connecting field devices—like sensors, actuators, and controllers—across manufacturing and processing plants.

What does IEC 61158-5 cover?

This standard outlines the essential service definitions required for the application layer within industrial control systems using fieldbus technology. It prescribes the mechanisms for the transfer of process data, including naming conventions, addressing, object types, connection paths, and service behaviour. Crucially, it defines how devices on a fieldbus network interact at the highest logical level—enabling seamless, efficient, and deterministic data exchange.

Key requirements and specifications

• Standardized definitions for addressing, configuration, and device relationships
• Formal rules for data consistency, error handling, and attribute management
• Support for cyclic and acyclic data transfer
• Scalability through modular object-oriented structures
• Compliance with the OSI reference model for networked communications

Who should comply?

• Industrial automation equipment manufacturers
• Process industry operators (oil & gas, chemicals, pharmaceuticals, food and beverage, etc.)
• Systems integrators and plant engineers responsible for networked control solutions

Practical implications for implementation

Implementing IEC 61158-5 helps ensure that devices from multiple suppliers can work together—supporting vendor neutrality and easier equipment upgrades. It also forms the basis for advanced diagnostics, flexible production lines, and faster responses to operational changes.

Notable features

• Decouples application logic from underlying hardware, allowing for faster system upgrades
• Provides robust mechanisms for device interoperability
• Enhances reliability and predictability of communication in harsh industrial environments

Key highlights:

• Universal language for process data communication
• Compatibility across diverse devices and networks
• Foundation for network security, diagnostics, and automation scaling

Access the full standard:View IEC 61158-5:2000 on iTeh Standards

IEC 61918:2010 – Installation of Communication Networks in Industrial Premises

Industrial communication networks – Installation of communication networks in industrial premises

IEC 61918:2010 delivers extensive guidelines for planning, installing, verifying, and maintaining wired (and partially wireless) industrial networks. With the rise of smart factories and IoT solutions, the physical installation and performance certification of communication infrastructure have never been more crucial.

What does IEC 61918 cover?

The standard provides a comprehensive set of requirements for:

• Balanced and optical fiber cabling infrastructure
• Planning for generic cabling (including ISO/IEC 24702)
• Safe device connection, grounding, and bonding
• Strategies for network topology, cable routing, termination, and environmental protection
• Integration between generic and automation-specific cabling (automation outlets vs. standard telecommunication outlets)

It includes detailed instructions on installation methods, ongoing maintenance, documentation, troubleshooting, and lifecycle management, adapting to various automation and industrial environments.

Key requirements and specifications

• Cable type and connector selection based on environment and EMC
• Shielding, bonding, and earthing standards to prevent electrical noise and improve safety
• Documentation protocols for installation and maintenance traceability
• Verification and acceptance testing procedures for both Ethernet and non-Ethernet networks
• Guidelines for component coding, labelling, and administration
• Special requirements for harsh, hazardous, or unique industrial zones

Who should comply?

• Plant infrastructure installers
• Automation technology integrators
• Maintenance and OT/IT network engineers
• Industrial network planners and facility managers

Practical implications for implementation

Adhering to IEC 61918 minimizes network failures, electromagnetic interference (EMI) problems, and installation errors. It supports the uptime of mission-critical operations and lays a solid foundation for future technological upgrades without major re-cabling or reconfiguration. It is also vital for integrating wireless media by creating a robust base infrastructure.

Notable features

• Inclusive of electrical, optical, and limited wireless network cabling
• Lifecycle approach: from planning to maintenance and troubleshooting
• Extended content in annexes for connectors, MICE methodology, and validation

Key highlights:

• Reduces risk of installation mistakes and unplanned downtime
• Ensures factory networks meet safety, performance, and scalability demands
• Supports Industry 4.0 digital transformation through robust infrastructure

Access the full standard:View IEC 61918:2010 on iTeh Standards

IEC 62453-309:2009 – FDT Interface Specification for HART Technology Integration

Field device tool (FDT) interface specification – Part 309: Communication profile integration – IEC 61784 CPF 9

IEC 62453-309:2009 is pivotal in the integration of HART communication technology with the FDT (Field Device Tool) standard—a key enabler for process automation interoperability and advanced device management.

What does IEC 62453-309 cover?

This standard contains detailed specifications for embedding HART (Highway Addressable Remote Transducer) protocol into the FDT/DTM (Device Type Manager) interface. It defines:

• How device manufacturers model and expose communication capabilities through DTMs
• Protocol-specific services and behaviors (including burst mode, data subscription)
• Common data types, diagnostics, and device identification structures

It provides an integration blueprint ensuring standardized device representation regardless of vendor or network topology.

Key requirements and specifications

• Adherence to HART protocol specifications via IEC 61784 CPF 9
• Parameter mapping and process data channel configuration
• Support for universal, common practice, and extended commands within HART DTMs
• Transaction management and subscription mechanisms for device-initiated data
• Use of semantic identifiers for device and channel communications

Who should comply?

• Process automation engineers
• Device and DTM software developers
• Plant operators managing HART-based asset management
• Vendors integrating FDT-enabled devices or software

Practical implications for implementation

Adopting IEC 62453-309 ensures seamless plug-and-play device onboarding, cross-vendor compatibility, and advanced asset management within distributed control systems. It enables predictive maintenance and operational transparency by standardizing access to diagnostics and configuration data.

Notable features

• Detailed modeling of device data, identification, and communication channels
• Full lifecycle support: from configuration to ongoing diagnostics
• Foundation for scalable, vendor-independent device management software

Key highlights:

• Enables integration of HART technology with FDT/DTM platforms
• Supports unified asset management and diagnostics
• Reduces system complexity and deployment time

Access the full standard:View IEC 62453-309:2009 on iTeh Standards

IEC TR 62390:2005 – Common Automation Device Profile Guideline

Common automation device – Profile guideline

IEC TR 62390:2005 serves as a technical report offering best-practice guidelines for developing, structuring, and implementing device profiles in industrial automation. Device profiles are standardized descriptions of device functionality and interfaces.

What does IEC TR 62390 cover?

This guideline outlines context, recommended content, and construction rules for device profiles covering physical, communication, electrical, and application features of all types of field devices—from simple switches to complex programmable controllers. It is written agnostically for any network type, making it suitable for fieldbuses and Ethernet.

It further presents:

• Model templates for parameter lists, function blocks, object models, and UML diagrams
• Stepwise approach for profile definition, covering device characterization, parameterization, behavior modeling, and functional grouping
• Guidance on interoperability, compatibility, engineering units, and data types

Key requirements and recommendations

• Adopt standardized templates for developer-created profiles
• Map device functions clearly to facilitate product comparison, system integration, and replacement
• Support system integrators, device manufacturers, and maintenance operators
• Ensure profiles are usable both for human users (engineers) and non-human users (software tools, engineering systems)

Who should comply?

• Device manufacturers and product standards committees
• Fieldbus consortia, automation software developers
• System integrators managing mixed-vendor environments

Practical implications for implementation

Applying IEC TR 62390 reduces time-to-market for new devices, enables easier device onboarding and comparison, and supports robust lifecycle management. By standardizing the way devices are described, manufacturers and operators significantly improve interoperability and reduce system engineering effort.

Notable features

• Comprehensive device model templates
• Consistency across device classes and generations
• Encourages profile-based system design for complexity management

Key highlights:

• Facilitates device interoperability and interchangeability
• Simplifies engineering and maintenance in complex systems
• Lays foundation for digital integration and future-proof automation

Access the full standard:View IEC TR 62390:2005 on iTeh Standards

Industry Impact & Compliance

How These Standards Affect Businesses

For manufacturers and operators, aligning industrial process measurement and control systems with up-to-date international standards ensures:

• Operational consistency: Equipment functions reliably from commissioning through maintenance, regardless of supplier or generation
• Cybersecurity resilience: Standardized communications and network practices close vulnerabilities and support data protection in digitized plants
• Productivity boosts: Uniform communication and installation practices eliminate downtime caused by mismatched devices or poorly installed networks
• Scalability: Modular, standards-based designs simplify upgrades and expansion as production demands grow

Compliance Considerations

Achieving compliance typically involves:

1. Procurement alignment: Specifying standards-based features in equipment tenders
2. Installation verification: Documenting adherence to cabling and network layout best practices
3. Regular audits: Ensuring processes remain consistent with international requirements amid plant evolution
4. Certification: Leveraging third-party validation or self-declaration to demonstrate conformity

Non-compliance can lead to:

• Equipment incompatibility and costly system rework
• Regulatory penalties, especially where safety or environmental governance applies
• Reduced competitiveness from lower productivity and higher downtime risk
• Increased cybersecurity exposure

Benefits of Adopting These Standards

• Reduced total cost of ownership through compatibility and easier maintenance
• Future readiness for new technologies and digital transformation
• Market access—meeting client, regulatory, or geographic requirements
• Enhanced trust with customers and supply chain partners
• Superior operational insight via standardized diagnostics and monitoring tools

Implementation Guidance

Common Implementation Approaches

• Structured project delivery: Integrate specifications early in design and bidding processes
• Supplier engagement: Work with vendors experienced in standards-based products
• Training and certification: Develop skills in installation, diagnostics, and network management per the standards
• Lifecycle documentation: Use the templates and guidelines provided for as-built, maintenance, and upgrade records

Best Practices for Adopting These Standards

• Gap analysis: Compare your current processes and infrastructure with the requirements and recommendations in each standard
• Pilot installations: Implement standards in one area or production line to refine approach before scaling
• Continuous improvement: Regularly review and update practices to maintain compliance with revisions and emerging best practices
• Stakeholder involvement: Involve IT/OT, maintenance teams, engineers, and management for holistic adoption

Resources for Organizations

• Authorized training providers for fieldbus, HART, and FDT technologies
• Standards bodies (IEC, industry associations)
• Online platforms like iTeh Standards for the latest editions and updates
• Consultation with certified integrators and automation consultants experienced in international industrial standards

Conclusion / Next Steps

Modern manufacturing demands robust, interoperable, and future-ready control systems. Adopting international standards for industrial process measurement and control—such as IEC 61158-5:2000, IEC 61918:2010, IEC 62453-309:2009, and IEC TR 62390:2005—enables organizations to confidently embrace the next wave of digital manufacturing.

Key Takeaways:

• Standards offer universal frameworks for safe, efficient, and compatible industrial automation
• Compliance not only meets regulatory or customer requirements but drives productivity, lowers risk, and accelerates innovation
• Implementing these guidelines calls for coordinated organizational effort—but yields outsized returns in operational excellence and system resilience

Recommendations:

• Begin with a current-state audit using the guidance and templates available in these standards
• Invest in personnel training and partner with experienced integrators
• Stay current by subscribing to updates and leveraging resources like iTeh Standards

Explore the full content of each standard via the embedded links above to deepen your understanding and ensure your manufacturing operations are ready for the future.

For further information, resources, and the latest updates on international standards in industrial process measurement and control, visit iTeh Standards.