ISO 9787:2013 defines and specifies robot coordinate systems. It also provides nomenclature, including notations, for the basic robot motions. It is intended to aid in robot alignment, testing, and programming.ISO 9787:2013 applies to all robots and robotic devices as defined in ISO 8373.
This document presents requirements and guidelines on the specification of modular frameworks, on open modular design and on the integration of modules for realising service robots in various environments, including personal and professional sectors.The document is targeted at the following user groups:— modular service robot framework developers who specify performance frameworks in an unambiguous way. — module designers and/or manufacturers who supply end users or robot integrators. — service robot integrators who choose applicable modules for building a modular system.This document includes guidelines on how to apply existing safety and security standards to service robot modules.This document is not a safety standard.This document applies specifically to service robots, although the modularity principles presented in this document can be utilized by framework developers, module manufacturers, and module integrators from other fields not necessarily restricted to robotics
This International Standard has been developed in recognition of the particular hazards presented by newly emerging robots and robotic devices for new applications in non-industrial environments for providing services rather than manufacturing applications in industrial applications. This International Standard focuses on the safety requirements for personal care robots in non-medical applications.
Presents a study of use cases and vertical scenarios for Ultra-Reliable Low-Latency Communications (URLLC) intended to be used as base requirements for evolving DECT. Applications / Use Cases include Home and Building Automation, including Smart Living; Industry automation - Factories of the Future, Industry 4.0; Mobile robots
This part of IEC 61000 for EMC immunity requirements applies to electrical and electronic equipment intended for use in industrial locations, as described below.
Presents the broad picture on symbioses (Symbiotic Autonomous Systems) in a number of areas and how they impact our economic system and way of life. The IEEE SAS Initiative takes a 360° view based on technology and standardization—the foundation of IEEE—and invites all interested constituencies to contribute complementary points of view, including economic, regulatory, and sociocultural perspectives. The White Paper provides a broad Landscape on aspects of Symbiotic Autonomous Systems from which Standards can also be developed into the future.
This standard defines a reference model, fundamental data models, and an application framework of semantic maps for autonomous robots.
This standard defines terms relevant to human-robot interaction in service, social, education, industrial, and research robotic applications.
This recommended practice outlines best practices and requirements for the development of designs of human-subject experiments in human-robot interaction research.
This standard provides a listing of desirable traits of robotic systems under the umbrella of agility - a compound notion of reconfigurability and autonomy as opposed to the typical robotic use of rigid pre-programmed tasks. In particular, it describes a set of quantitative test methods and metrics for assessing the following ten aspects: hardware reconfigurability, software reconfigurability, communications, task representation, sensing, reasoning, perception, planning, tasking, and execution.
A Strategic and technically oriented document in which describes the current development status of Industrie 4.0, outlines the requirements for standards, specifications and industry standards, and provides impetus for successful implementation.
VDE-AR-E 2842-61-1 specifies a general framework for the development of trustworthy solutions and trustworthy autonomous / cognitive systems, including the requirements for the subsequent phases of Product life cycle (e.g. production, marketing & sales, operation & maintenance, retirement & repair). It defines a reference lifecycle in analogy to the most important standards for functional safety (i.e. IEC 61508) as a unified approach to achieve and maintain the overall performance of the solution and the intended behavior and trustworthiness of the autonomous / cognitive system. In addition, this could lead to a basis for the qualification and conformity assessment of solutions based on autonomous / cognitive systems including elements of artificial intelligence.