PD ISO/TS 21002:2021 Road Vehicles: Multidimensional Measurement and Coordinate Systems Definition

Standard Number: PD ISO/TS 21002:2021

Pages: 62

Released: 2021-08-10

ISBN: 978 0 539 16694 1

Status: Standard

Overview

The PD ISO/TS 21002:2021 is a comprehensive standard that provides detailed guidelines for the multidimensional measurement and coordinate systems definition in road vehicles. Released on August 10, 2021, this standard is essential for professionals in the automotive industry who are involved in the design, manufacturing, and quality assurance of road vehicles.

Key Features

• Comprehensive Coverage: Spanning 62 pages, this standard offers an in-depth exploration of multidimensional measurement techniques and coordinate systems specific to road vehicles.
• Up-to-Date Information: Released in 2021, it incorporates the latest advancements and best practices in the field.
• Global Relevance: As an ISO standard, it is recognized and applicable worldwide, ensuring consistency and reliability across different markets and regions.
• ISBN: 978 0 539 16694 1, ensuring easy reference and cataloging.

Why This Standard is Essential

In the rapidly evolving automotive industry, precision and accuracy in measurement are paramount. The PD ISO/TS 21002:2021 standard provides a robust framework for defining and implementing multidimensional measurement and coordinate systems. This ensures that all measurements are consistent, accurate, and reliable, which is crucial for the safety, performance, and quality of road vehicles.

Applications

This standard is applicable to a wide range of professionals and sectors within the automotive industry, including:

• Automotive Engineers: Ensuring precise measurements during the design and development phases.
• Manufacturers: Maintaining consistency and quality control during production.
• Quality Assurance Teams: Verifying that all components and systems meet the required standards.
• Regulatory Bodies: Ensuring compliance with international standards and regulations.

Benefits of Adopting PD ISO/TS 21002:2021

Adopting this standard offers numerous benefits, including:

• Enhanced Precision: Detailed guidelines ensure that all measurements are accurate and reliable.
• Improved Quality: Consistent measurement techniques lead to higher quality products.
• Global Consistency: As an internationally recognized standard, it ensures uniformity across different markets and regions.
• Regulatory Compliance: Helps organizations meet international regulatory requirements.
• Competitive Advantage: Adopting the latest standards can provide a competitive edge in the market.

Structure and Content

The PD ISO/TS 21002:2021 standard is meticulously structured to provide clear and concise guidelines. It includes:

• Introduction: An overview of the standard and its objectives.
• Scope: Defines the applicability and limitations of the standard.
• Normative References: Lists other relevant standards and documents.
• Terms and Definitions: Clarifies key terms used throughout the document.
• Measurement Techniques: Detailed guidelines on various multidimensional measurement techniques.
• Coordinate Systems: Comprehensive instructions on defining and using coordinate systems.
• Annexes: Additional information and examples to aid in the implementation of the standard.

Conclusion

The PD ISO/TS 21002:2021 standard is an invaluable resource for anyone involved in the automotive industry. Its detailed guidelines and comprehensive coverage ensure that all measurements and coordinate systems are accurate, reliable, and consistent. By adopting this standard, organizations can enhance their product quality, ensure regulatory compliance, and gain a competitive edge in the market.

PD ISO/TS 21002:2021

This standard PD ISO/TS 21002:2021 Road vehicles. Multidimensional measurement and coordinate systems definition is classified in these ICS categories:

• 43.020 Road vehicles in general

This document defines the measurement coordinate systems and presents the protocol to determine the sensor offsets to the chosen coordinate system. Finally, the method is presented how to process the sensor spherical coordinate system data to calculate the position of a dummy feature in three-dimensional space in the defined local orthogonal coordinate system.