Toimialayhteisöt

 

 

This document specifies the performance criteria and requirements of a three-way connection interface, including ground connection, linking the pyrotechnic device and harness connector built into a road vehicle. Performance criteria and requirements are defined for a sealed variant of the pyrotechnic device/initiator harness connector assembly (see Annex A). Performance criteria and requirements are defined for a two-way (without ground) variant of the pyrotechnic device/initiator harness connector assembly (see Annex B). Performance criteria and requirements are defined for a variant without a retainer of the pyrotechnic device/initiator harness connector assembly is defined (see Annex C).

 

This document defines events and associated information elements that are used for tracking and tracing of all types of cargo in the maritime domain. This does not include passengers or crew. The document also defines information exchanges and information elements based on the ISO 28005 framework. The document is an elaboration of the UNECE “Business Requirements Specification for Integrated Track and Trace for Multi-Modal Transportation” with its inherent assumptions, which are: All transportation is related to a trade transaction between a seller and a buyer of goods that results in one or more shipments. Therefore, all tracking and tracing and events described in this document ultimately also “link” with these shipments. There is no present need for additional data identifiers to facilitate multi-modal tracking and tracing of trade shipments or the linked transportation in scope for this document. See below this bullet list. Identifiers for trade items, cargo, their packaging or container, or means of transport will support multi-modal tracking and tracing, if the identifiers are globally unique. Linkages can be made between the different identifiers using various existing technologies. The model supports tracking and tracing using various existing technologies by using the most relevant waypoints for the transport journey (as agreed among stakeholders). Standardized exchange processes may be used, without the need to create new class diagrams or new message structures. The operational scope covers the voyage of the ship, via the terminal, up to and including the gate-in event or gate-out event in the terminal. Gate-in and gate-out events include transfers between the maritime terminal and hinterland modes of transport such as road vehicles, feeder ships, inland waterway barges or rail wagons. The document aims to cover all kinds of cargoes carried on maritime ships. Cargo moves through ports in two main directions: Coming in from sea to be transported to destinations in the hinterland of the port. Coming in from the hinterland to be transported to overseas destinations on maritime ships. For the purposes of this document, we will ignore the transshipment scenario where the cargo comes in on maritime ships and also leaves on maritime ships from and to destinations that are not considered part of the hinterland of the port. The supply chain events that occur outside the boundaries of gate in and gate out mentioned above are not in scope for this document. It is recognised that the transport-related operations covered in the scope of this document are an integral part of the end-to-end supply chain between seller and buyer. Therefore, the requirements outlined in this document will follow standards and "best practices" already in use in the supply chain. This is also driven by the fact that there are critical hand-overs between the wider supply chain and the operations in scope for this document at the gate in and gate out processes that require unambiguous exchange of information related to the critical events in those processes.

 

This document provides guidance for data collection and validation for the calculation of the carbon footprint for lithium products. This document encourages disclosure of the databases, software, yields, distribution methods and data quality rating used in the calculation of greenhouse gas (GHG) emissions when producing lithium products from various lithium resources and produced by various processes, including its distribution, in order to verify the calculated values of GHG emissions. This document is not intended for the disclosure of GHG emissions for individual stages of the product manufacturing process.

 

This document defines the minimum specification of the pyrotechnic device pocket interface.

 

This document defines the general minimum specifications of a type 2 two-way connection interface, linking the pyrotechnic device and harness connector built into a road vehicle.

 

This document specifies the sampling of urban and industrial waste water, i.e. the design of sampling programmes and techniques for the collection of samples. This document covers waste water in all its forms, i.e. industrial waste water, radioactive waste water, cooling water, raw and treated urban waste water. This document deals with various sampling techniques used and the rules to be applied to ensure the samples are representative. This document does not cover sampling of accidental spillages, although the methods described in certain cases can also be applicable to spillages. This document is not applicable to sampling of microplastics in waste waters. Appropriate guidance is given in ISO 5667-27[1].

 

The proposed standard contains six grades of praseodymium-neodymium metal. It specifies the classifications, chemical compositions, appearance quality, markings and other requirements for praseodymium-neodymium metal. It includes a table of related grades of praseodymium-neodymium metal which are recognized in worldwide industrial applications. This International Standard is applicable to praseodymium-neodymium metal prepared by molten salt electrolysis process only and does not include requirements for praseodymium-neodymium metal produced by re-melting or other technology methods.

 

This document establishes minimum performance, classification, and labelling requirements for gloves worn by operators and re-entry workers handling pesticide products to protect the hands or hands and forearms against contact with those products. Gloves covered by this document include gloves made with elastomeric and polymeric materials in the areas that provide protection. This document does not address protection against fumigants. This document needs to be used in conjunction with ISO 21420.

 

This document specifies a device and a method for the determination of the image quality of radiographs using wire-type image quality indicators.

 

This document provides microbiological test methods for enumeration and detection of aerobic mesophilic bacteria, total yeast and mold count, detection of Escherichia coli, Staphylococcus aureus, Candida albicans and Pseudomonas aeruginosa in liquid hand dishwashing. NOTE This standard is applicable for detergents used to wash fruits, vegetables and toys if it is allowed according to national regulation and manufacturer's recommendations for intended use of product.

 

This document provides a temporal management reference model for feature-based software and systems product line engineering (feature-based PLE) as defined in ISO/IEC 26580:2021, expanding on the basic configuration management operations, tasks, and methods specified there. Because a PLE factory in ISO/IEC 26580 aggregates shared assets across multiple lifecycle stages and tools, such as requirements, models, source code, mechanical design, electrical design, documentation, test cases, calibration data, and so forth, the version management capabilities of the different lifecycle disciplines, as well as the feature catalogue and bill-of-features portfolio, need to be integrated into a holistic solution. We refer to this integrated PLE factory solution as Temporal Management (TM). As the name implies, the scope of temporal management is product line variation in time, in the context of feature-based PLE as prescribed in ISO/IEC 26580. The reference model for temporal management specifies an alignment-of-systems, where the temporal management system is an aggregation of the constituent version management systems for each of the individual elements in a PLE factory, including shared assets across all lifecycle stages, the feature catalogue, and the bills-of-features. Version management for each of the individual elements in the PLE factory is handled by the version management tools and methods associated with each of the elements, which are elaborated elsewhere and not repeated in this document.[2][3][4][5][6][7][8][10][11] Appendix A provides harmonization with this document and these representative version management methods, in the context of broader systems and software configuration management standards. Organizations may incorporate an overall temporal management approach for their temporal management solution that best matches their engineering processes, such as ASME Y14.35[5] and ASME Y14.100[6] for organizations primarily focused on mechanical engineering processes or IEEE Std 828[4] for organizations primarily focused on systems and software engineering processes. The intended audience for this document comprises: — technology providers who wish to provide temporal management for their feature-based PLE factory; — champions within an organization who wish to introduce feature-based PLE into their organization; — IT staff within a PLE organization who introduce and maintain the necessary technology to support temporal management in feature-based PLE; — practitioner stakeholders who use the temporal management tools and methods to practice feature-based PLE; — technical and business managers who sponsor and direct the methods necessary to practice temporal management in feature-based PLE; — university professors, researchers, corporate trainers, and other educators who create and share pedagogical materials and benefits regarding temporal management in feature-based PLE.

 

This document specifies the terms, definitions, methodologies, and calculations that are required for the physical recycling and recovery of plastic waste. The document also defines the different types of physical recycling technologies used in the recovery and recycling of plastics waste sourced from post-industrial and post-consumer waste streams. The general requirements, process stages from “input “to “output” that should be considered in evaluating different types of physical recycling methodologies are described in the document which may be useful for any plastics waste processor or recycler. Further, this document gives guidance on the general process and quality requirements to be considered at all stages of the recovery process and provides general recommendations for inclusion in material standards, test standards and product specifications. This document provides guidelines for all types, technologies of physical recycling, currently in practice which are characterized by processes that include the selective dissolution, delamination, extraction or precipitation of plastic waste without intentional changes to its chemical structure. The process stages, requirements, recommendations, and terminology presented in this document are intended to be of general applicability.