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This document specifies the requirement for testing of special properties of hot-rolled steel sheet piles

This document specifies a method for determining the ability of a covering to protect underlying materials against damage during a specified fire exposure.

The document is not used for the evaluation of fire resistance classifications (e.g. EI, EW, E,…) or reaction to fire classifications (according to EN 13501‑1).

The fire protection ability is nullified by the presence of combustible materials in the cavity behind the covering. The applicability of the results is limited according to the quantity and position of such combustible materials within that cavity.

NOTE          The amount of combustible materials permissible in the cavity is generally laid down in national regulations.

This document specifies a method for the determination of the softening point of bitumen and bituminous binders in the range of 28 °C to 150 °C.

The method described also applies to bituminous binders that have been recovered from bituminous mixes, e.g. by extraction according to EN 12697‑3 [1].

The change from mercury thermometers to electronic temperature devices has revealed that the temperature definition in the mercury thermometer has not been precise enough to make a correct, unbiased transfer to electronic devices. Care should be taken for softening points ring and ball above 100 °C as the condition may have changed from previous practice to present days testing equipment. Below approximately 100 °C the difference in temperature readings between electronic and mercury stem thermometer is acceptable compared to the repeatability of this test method.

WARNING — The use of this document can involve hazardous materials, operations and equipment. This document does not purport to address all of the safety problems associated with its use. It is the responsibility of the user of this document to establish appropriate safety and health practices and to determine the applicability of regulatory limitations prior to use.

This document defines the functional and performance requirements and associated tests for Galileo timing receivers. The approach for this document is that of a performance based, meaning that no specific algorithm implementation is required. Instead, performance requirements are defined together with a corresponding test suite for verification.

The subject of this document is the Galileo chipset. Other sensors and/or additional processing that a higher synchronization Unit can implement on top of the Galileo chipset are not the subject of this document.

This document covers the following aspects related to Galileo timing receivers:

—    GNSS constellations and frequencies processed: Galileo Dual-Frequency. Other modes are optional, as explained below;

—    time scales, including Galileo System Time and Universal Time Coordinate;

—    Services Levels, this document covers the 2 levels of Service for GST and for UTC to be provided by Galileo Time Service in the first place. The document also anticipates a third Service Level to be provided in the future, for which an update of the document will be needed;

—    user dynamics: fixed users, defined as static users with precise knowledge of the antenna position, is the baseline mode;

—    processing of Timing Service Message disseminated by the Galileo System;

—    local timing integrity barriers: As a minimum, Time Receiver Autonomous Integrity Monitoring processing (T-RAIM);

—    robustness to interferences;

—    Galileo Open Service Navigation Message Authentication processing;

—    robustness to multipath.

This document does not cover the processing of GPS constellation but this does not preclude Manufacturers to implement GPS processing within the Galileo timing receivers, even if not addressed in this document. The use of other GNSS constellations is not forbidden by this document but the requirements and tests are defined considering Galileo-only, including those related to the integrity of the timing solution.

Single-Frequency modes are not covered by this document. This does not preclude manufacturers to implement single-frequency modes within the Galileo timing receivers, even if not addressed in this document, as a back-up of the nominal Dual-Frequency mode, and reversion mechanisms. It is important to remark that the integrity of the timing solution is only specified for Galileo Dual-Frequency mode.

The Galileo timing receivers addresses only users operating in static conditions. Moving users are not considered as part of this document.

On top of the functional requirements, performance requirements are defined in this document in terms of different key performance indicators such as:

—    accuracy, availability and integrity requirements;

—    local barriers, T-RAIM performances.

This document also provides the verification matrix and defines the test suite to verify the most fundamental requirements of the Galileo timing receivers.

Finally, this document provides a section dedicated to guidelines for the installation and maintenance of the Galileo timing receivers. This is a comprehensive section, including provisions for the antenna, cabling and receiver installation, as well as the calibration of time delays.

This document specifies a test method for determining the leaktightness and the ease of operation of a valve made of thermoplastic material following an impact applied to the operating device.

Additionally, a different procedure of the test on diaphragm valve can be specified by the valve manufacturer.

This document defines a system for the classification of recycled plastics based on the available data depth (Data Quality Levels, DQL) and provides guidelines for the labelling of the recyclate type and recycled content in compounds.

It is intended to support parties involved in the use and trading of recycled plastics, explicitly including digital trading platforms.

This document applies to unplasticized poly(vinyl chloride) (PVC-U) profiles that are intended to be used for the fabrication of windows and doors in accordance with the EN 14351 series or EN 16034, shutters according to EN 13659 and other construction profiles in accordance with the EN 13245 series. Furthermore, this document is also applicable for profiles used in other PVC-U products, which can include recyclates. This document gives references and specifies general and product-specific design for recycling principles.

NOTE 1       In this document, the term “PVC-U profiles” is used to refer to construction profiles made from PVC-U, PVC-UE, and PVC-U-based natural fibre composites (NFC).

Criteria for the use of materials, process conditions, and recyclability are defined, which are considered during the design process.

This document defines principles to

—    obtain the highest possible share of recyclability of the PVC-U part in the profile, and

—    increase the share of PVC-U recyclate in the profile,

while complying with requirements for the final product, where existent and defined elsewhere. This document establishes flowcharts which help to assess, (i) how recyclability is evaluated and (ii) whether inclusion of rPVC-U is possible.

The following components of the final PVC-U construction product are considered in this document:

—    profiles;

—    reinforcements;

—    gaskets;

—    insulations;

—    coverings.

This document specifies only the technical connection of the profile to other components (such as glazing or hardware) and their impact on the recyclability of the PVC-U profiles. The recyclability of the other components (e.g. glazing, aluminium cover, hardware) is excluded from this document.

NOTE 2       Examples for profiles included in this document and their intended use can be found in Figure 1.

This document specifies the main characteristics and associated test methods for assessing of acrylonitrile-butadiene-styrene (ABS) recyclates intended for use in the production of semi-finished/finished products.

It is intended to support parties involved in the use of ABS recyclates (rABS) to agree on specifications for specific and generic applications.

This document does not cover the characterization of plastics wastes, which is covered by the EN 15347 series, neither traceability topics which are covered by EN 15343.

This part of IEC 62271 is applicable to prefabricated solid-insulation enclosed switchgear and controlgear assemblies designed for:

alternating current;

rated voltages above 1 kV and up to and including 52 kV;

service frequencies up to and including 60 Hz;

indoor installation;

areas limited to authorized personnel;

The assembly can include air-insulated and/or fluid-filled compartments.

For components installed in a solid-insulation enclosed switchgear and controlgear, this document supplements or even replaces in some cases, the requirements as stated by the individual product standards.

The list of components which may be inside the solid-insulation enclosed switchgear and controlgear is not limited to the ones explicitly cited in this document.

This part of IEC 60079 applies to service facilities and covers only those factors related to overhaul, repair or reclamation of Ex Equipment specifically designed for hazardous areas, where the hazard is caused by explosive atmospheres. Ex Equipment may be overhauled, repaired or reclaimed to mitigate deficiencies identified during operation inspection and maintenance:

NOTE 1 Service facilities can include users, manufacturers and third party repairers

It does not include:

advice on cable and wiring systems which can require a renewal when the equipment is re-installed;

Type of Protection “m”;

Ex Components;

Requirements for manufacturers who overhaul and repair equipment which they have manufactured,

NOTE 2 Manufactures who overhaul and repair equipment which they have manufactured might want to take into consideration the principles in this document with respect to marking and user records for the user’s verification records.

This document describes a safety communication layer (services and a protocol) for the exchange of safety data using IEC 62541 mechanisms. It identifies the principles for functional safety communications defined in IEC 61784‑3 that are relevant for this safety communication layer. This safety communication layer is intended for implementation in safety devices only.

NOTE 1 This document targets controller-to-controller communication. However, easy expandability to other use-cases (e.g. OPC UA field level communication) has already been considered in the design of this document.

NOTE 2 This document does not cover electrical safety and intrinsic safety aspects. Electrical safety relates to hazards such as electrical shock. Intrinsic safety relates to hazards associated with potentially explosive atmospheres.

This document defines mechanisms for the transmission of safety-relevant messages among participants within a network using OPC UA technology in accordance with the requirements of IEC 61508 series and IEC 61784-3 for functional safety. These mechanisms may be used in various industrial applications such as process control, manufacturing, automation, and machinery.

This document provides guidelines for both developers and assessors of compliant devices and systems.

NOTE 3 The resulting SIL claim of a system depends on the implementation of this document within the system – implementation of this document in a standard device is not sufficient to qualify it as a safety device.

This part of IEC 63378 specifies the thermal circuit network model of discrete (TO-243, TO-252 and TO-263) packages, which is used in the transient analysis of electronic devices to estimate precise junction temperatures without experimental verification.

This model is assumed to be made and provided by semiconductor suppliers and to be used by assembly makers of electronic devices.

This part of IEC 62977 specifies standard measurement conditions and methods for determining the optical characteristics of reflective direct view displays that render real 2D images on a flat panel. This document applies to flat panel displays operated in a reflective mode with any integrated light sources turned off during measurement. The input signal is unbounded and encodes either monochrome or colour images.

IEC 62841-1:2014, Clause 1 is applicable, except as follows:

Replacement of the third paragraph:

The rated voltage is not more than 250 V for single-phase a.c. or d.c. tools, and 480 V for three-phase a.c. tools.

Addition:

This document applies to hand-held cut-off machines fitted with

one bonded reinforced wheel of Type 41 or Type 42; or

one or more diamond cutting wheels with peripheral gaps, if any,

having no positive rake angle for flush cutters, power cutters and wall chasers; and

not exceeding 10 mm and having no positive rake angle for cut-off machines other than flush cutters, power cutters and wall chasers;

and with

a rated speed not exceeding a peripheral speed of the wheel of 100 m/s at rated capacity; and

a rated capacity not exceeding 430 mm.

NOTE 101 An example of a permitted diamond cutting wheel construction is shown in Figure 101.

These tools are intended to cut materials such as metals, concrete, masonry, glass and tile.

This document does not apply to:

cut-off machines that can be converted to a grinder, sander or polisher, which are covered by IEC 62841-2-3;

circular saws which are covered by IEC 62841-2-5; and

die grinders and small rotary tools which are covered by IEC 62841-2-23;

tools intended to cut wood, except for utility cutters;

cut-off machines fitted with a bonded reinforced wheel of Type 42 with a diameter exceeding 230 mm.

This document includes a series of methods for testing along with their appropriate severities and conditions for measurements and tests designed to assess the ability of specimens to perform under expected conditions of transportation, storage and all aspects of operational use.

This part of IEC 63522 series specifies the general condition conditions to be applied for all testing if not otherwise specified and provide general guidance to be used in conjunction with all other IEC 63522 parts.

Table 1 – Table of all related standards

Part

Title

IEC 63522-0

General and Guidance

IEC 63522-1

Visual inspection and check of dimensions

IEC 63522-2

Mechanical tests and weighting

IEC 63522-3

Relay coil properties

IEC 63522-4

Dielectric strength test

IEC 63522-5

Insulation resistance

IEC 63522-6

Contact-circuit resistance (or voltage drop)

IEC 63522-7

Functional tests

IEC 63522-8

Timing Test

IEC 63522-9

Climatic tests

IEC 63522-10

Heating

IEC 63522-11

Enclosure Protection and Degree of Protection

IEC 63522-12

Internal moisture

IEC 63522-13

Corrosive atmospheres –Corrosive atmospheres due to sulfur impact

IEC 63522-14

Mould growth

IEC 63522-15

Robustness of terminals

IEC 63522-16

Soldering

IEC 63522-17

Shock, Acceleration and Vibration,

IEC 63522-18

Thermal resistance of the coil heating

IEC 63522-19

Electrical Endurance

IEC 63522-20

Mechanical Endurance

IEC 63522-21

Thermal Endurance

IEC 63522-22

Limiting continuous current

 

IEC 63522-24

Load transfer

IEC 63522-25

Magnetic interference

IEC 63522-26

Crosstalk and insertion loss

IEC 63522-27

Electrical contact noise

IEC 63522-28

Thermoelectric electromotive force (e.m.f.)

IEC 63522-29

Capacitance

IEC 63522-30

Contact sticking (delayed release)

IEC 63522-31

Magnetic remanence

IEC 63522-32

Acoustic noise

IEC 63522-33

Continuity of protective earth connection

IEC 63522-34

Fluid contamination

IEC 63522-35

Resistance to cleaning solvents

IEC 63522-36

Fire hazard

IEC 63522-37

Teminal temperature rise at rated load

IEC 63522-38

Mechanical interlock

IEC 63522-39

Insertion and withdrawal force

IEC 63522-40

Short circuit testing

IEC 63522-41

Insulation coordination

EC 63522-42

EMC

IEC 63522-43

Prof tracking index (PTI)

IEC 63522-44

Corrosive atmosphere - Salt mist

IEC 63522-45

Maximum frequency of operation

IEC 63522-46

Impulse voltage test

IEC 63522-48

Contact failure rate test

IEC 63522-49

Long term stability of sealing

IEC 63522-52

Coil overvoltage

IEC 63522-54

Critical DC load current

IEC 63522-55

Maximum DC load breaking capacity

IEC 63522-56

Ball Pressure Test