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This part of IEC 62310 applies to movable, stationary, fixed, open type or built-in STS for use in low voltage distribution systems and that are intended to be installed in an area accessible by an ordinary person or in a restricted access area as applicable. STS is intended to operate on fixed frequency, single phase or multi-phase system, with rated voltage not exceeding
1 000 V AC. It applies to pluggable and to permanently connected STS, whether consisting of a system of interconnected units or of independent units, subject to installing, operating and maintaining the STS in the manner prescribed by the manufacturer.

This document specifies requirements to ensure safety for the ordinary person who comes into contact with the STS and, where specifically stated, for the skilled person. The objective is to reduce risks of fire, electric shock, thermal, energy and mechanical hazards during use and operation and, where specifically stated, during service and maintenance.

This part of IEC 62310 includes requirements for the switching elements, their control and protective elements, where applicable. This part of IEC 62310 also includes information for the overall integration of the STS and its accessories into the low voltage AC power distribution system.

Components or devices necessary for the operation, control, protection and isolation (e.g. circuit breakers, fuses, transformers, relays, etc.) of an STS should comply with the requirements of the relevant IEC standards and are not covered by this part of IEC 62310.

This document is harmonized with the applicable parts of group safety publication IEC 62477-1:2022 for power electronic converter systems and contains additional requirements relevant to STS.

This document does not apply to:

devices for DC source switching

transfer switching equipment (TSE) covered by IEC 60947-6-1

the automatic switching devices integrated into UPS covered by IEC 62040 series

Amendment 

This part of IEC 62885 is applicable for measurements of the performance of wet hard floor cleaning robots (3.3) for household use or under conditions similar to those in households.

The purpose of this document is to specify the essential performance characteristics of wet hard floor cleaning robots (3.3) that are of interest to users and to describe methods for measuring these characteristics.

In the case of multi-purposes cleaning robot (3.2), this document only addresses the performance, navigation and mobility related to the wet cleaning functionality.

This document is not intended for non-robotics cleaning appliances, high pressure cleaners or steam cleaners. This document is neither concerned with safety requirements nor with performance requirements.

NOTE Owing to the influence of environmental conditions, variations in time, origin of test materials and proficiency of the operator, most of the described test methods give more reliable results when applied to comparative testing of a number of appliances at the same time, in the same laboratory and by the same operator.

The Scope of the IEC 61400-16 standard is to establish a common content, terminology and structure applicable to all wind turbine OEMs for the sharing of wind turbine power curves and associated information (3.1.17) (for background, see Annex A) in a machine-readable format. Throughout the remainder of this document, this common structure is defined by a Power Curve Schema. A JSONSchema (3.1.11) defines how to structure and populate a specific JSON (3.1.10) document (for more detail, see Annex B), and can be used for automated data validation.

The power curves and associated information (3.1.17) communicated within a JSON (3.1.10) document (which is compliant with the Power Curve Schema) covers:

Document metadata

The turbine model characteristics (3.1.25)

Design basis information

Operating mode information, where each mode contains

Power (as a function of wind speed and optionally other parameters)

Thrust (as a function of wind speed and optionally other parameters)

Optional acoustic emissions (as a function of wind speed and other parameters)

Power de-rating details

JSON documents containing power curves and associated information shall be based on the JavaScript Object Notation ("JSON") format ISO/IEC 21778:2017 and shall follow the specifications in this document (i.e. conform to the Power Curve Schema).

Security, document integrity (e.g. digital signing) and distribution of data rests with the authors and users of the data and is outside the scope of the standard.

Measured power curves can be represented using the Power Curve Schema but details relating to the measurement configuration, statistics of the measurement results and other details specific to power performance measurements cannot be captured.

This standard does not specify document generation, display, checking or publishing processes which may be achieved using third party or custom tools (e.g. automated PDF report generation from the JSON data).

This document specifies safety requirements for LED modules for horticultural lighting purposes for operation on DC supplies up to 1 500 V or on AC supplies up to 1 000 V. This document does not include requirements for performance characteristics of LED modules for horticultural lighting purposes.

This document does not apply to:

- LED packages;

- LED lamps;

- OLED light sources;

NOTE 1: Where the word "LED module" is used in this document, it implies “built-in LED module for horticultural lighting purposes.

NOTE 2: LED modules designated as "independent LED modules" are considered luminaires which comprise LED module(s) as an integral component.

Software testing is well treated in standardization (see ISO/IEC/IEEE 29119-1:2022 [1]). For medical devices, requirements on software testing are well established internationally by IEC 62304:2006 [2] and IEC 62304:2006/Amd 1:2015 [3]. This document establishes additional aspects to specifically test AI components (3.2) in AI/ML-enabled medical devices (3.4).

Al components (3.2) considered in this document include AI models (3.3) without machine learning, locked (3.17) ML models (3.20) and ML models (3.20) that learn under the control of the manufacturer.

Additional requirements for the case where an ML model (3.20) is continually learning in the field under indirect control (3.34.2) by the manufacturer are in Annex A.

Tests can be conducted at various lifecycle stages of the AI/ML-enabled medical device (3.4), depending on the nature of the AI model (3.3) .

This part of IEC 63522 is used for testing all kinds of electrical relays and for evaluating their ability to perform under expected conditions of transportation, storage and all aspects of operational use.

NOTE Examples for electrical relays in the sense of this document include electromechanical relays, reed relays, reed contacts, reed switches, solid state relays, time relays and technology combinations of these.

The object of this document is to define a standard test method to verify the maximum load breaking capacity on resistive and inductive loads, typically in DC but also, in special cases, on high AC loads.

This document specifies rules for the data exchange between consists in trains. The aggregation of these rules defines the TCN communication profile.

The objective of the communication profile is to ensure interoperability between consists of the said trains with respect to the exchange of information. For this it defines all those items which are necessary for communication interoperability:

an architecture with defined train directions related to different train views;

a common functional addressing concept;

common communication protocol for data exchange between functions;

a set of services for train communication control.

This part of IEC 60455 gives the requirements for resins for power cable accessories that conform to this specification and meet established levels of performance. However, the selection of a material by a user for a specific application will be based on the actual requirements necessary for adequate performance in that application and not on this specification alone.

These materials are designed to be used in low and medium voltage cable accessories and as such, electrical performance is proven as part of the assembly. Examples of this are described in EN 50393 [2] and IEC 60502-4 [1].

This part of IEC 60068 provides a standard test procedure for the purpose of evaluating, in an accelerated manner, the resistance of small electrotechnical products, primarily non hermetically sealed components, to the deteriorative effect of damp heat without condensation on a specimen.

The test is not intended to evaluate external effects such as corrosion and deformation.

NOTE For further information on damp heat tests, see IEC 60068-3-4 [1].