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This document specifies principles and requirements and gives guidance on environmental product declaration (EPD) programmes and their associated EPDs. This document specifies the use of ISO 14040 and ISO 14044 on life cycle assessment (LCA) in the development of EPDs.
This document is applicable to EPD programmes and their associated EPDs that are intended to address the potential environmental impacts and environmental aspects of products, and which can also include related social and economic aspects in support of sustainable development.
NOTE 1        This document does not deal with social or economic LCA indicators.
NOTE 2        Related social and economic aspects of the products can be reported as additional sustainability-related information, where relevant and available.
This document provides requirements and guidance for the communication of the potential environmental impacts and environmental aspects of products to the intended audience of the EPD.
This document does not apply to sector-specific provisions, which are dealt with in other ISO documents. It is intended that sector-specific provisions in other ISO documents related to EPDs are based on and use the principles, requirements and guidance of this document.

This document defines and describes the methodology to calculate Modelling Quality Indicators (MQI) and determine fulfilment of the Modelling Quality Objectives (MQO). MQO are provided to help ensure that modelling-based assessments of air quality in the context of the ambient air quality directive [1] are objective and comparable, and of sufficient quality to obtain reliable information about concentrations of air pollutants in ambient air. The method uses measurement uncertainty and a level of stringency as a benchmark for the acceptable level of difference between modelled and measured values.
This document concerns the performance of an entire modelling system therefore the term “modelling quality objectives” is used rather than “model quality objectives”. This document concerns the use of modelling results for assessment as specified in [2]. Such modelling systems aim to capture both the spatial and temporal variability of the environmental indicator under assessment in the modelling domain. This document establishes a method to determine if the results of a modelling system fulfil the MQO and therefore reach an adequate data quality level within the modelling domain defined for assessment.
The procedures described in this document are limited in scope as they concern only statistical performance indicators. A full evaluation of a modelling system considers additional elements of quality assurance, but such procedures are outside the scope of this document.
This document only addresses modelling applications where measurements of pollutant concentrations are available that meet the data requirements for the validation defined in this document. This document specifies MQO that are applicable to all concentration ranges that may occur in ambient air. In the context of this document, MQI and MQO are specified for:
-   daily and annual averaged concentrations of particulate matter with aerodynamic diameter less or equal to 2,5 µm (PM2.5);
-   daily and annual averaged concentrations of particulate matter with aerodynamic diameter less or equal to 10 µm (PM10);
-   hourly, daily and annual averaged concentrations of nitrogen dioxide (NO2);
-   maximum daily 8-hour mean and seasonal averaged concentrations of ozone (O3);
-   hourly, daily and annual averaged concentrations of sulphur dioxide (SO2);
-   maximum daily 8-hour mean and daily averaged concentrations for carbon monoxide (CO);
-   annual averaged concentrations for benzene (C6H6);
-   annual averaged concentrations for lead (Pb);
-   annual averaged concentrations for arsenic (As);
-   annual averaged concentrations for cadmium (Cd);
-   annual averaged concentrations for nickel (Ni);
-   annual averaged concentrations for benzo[a]pyrene (BaP).
This document addresses competent authorities, research institutions, consultants, or other bodies responsible for the performance of air quality modelling when applied for assessment purposes.
NOTE   Fulfilment of MQO is either normative or informative, depending on the quality of information used to determine the uncertainty parameters and stringency factors set out in this document.

This document specifies the mapping between the semantic model of an electronic invoice, included in EN 16931-1 and the Cross Industry Invoice in the UN/CEFACT XML syntax. For each element in the semantic model (including sub-elements or supplementary components such as Identification scheme identifiers) it is defined which element in the syntax is to be used to contain its information contents. Any mismatches between semantics, format, cardinality or structure are indicated.

This European Standard deals with the safety of electric water-bed heaters and their associated control units, for household and similar purposes, their rated voltage being not more than 250 V, including direct current (DC) supplied appliances.

This document specifies methods for the manual ultrasonic examination of heated tool, electrofusion, extrusion and hot gas joints in plastics materials. It applies to joints in single wall pipes and plates. The range of thicknesses covered is from 10 mm to 100 mm.
This document does not specify acceptance levels of the indications.

This document specifies the dimensions of uncoated double hexagon head bolts, close tolerance, with MJ-thread, medium thread length, in heat-resisting nickel base alloy NI-P100HT for aerospace applications.
Maximum test temperature of the parts is 650 °C.
These bolts are used in aerospace fastening systems mainly stressed in shearing force.

This document specifies a method for the determination of the time-weighted average mass concentration of sulfuric acid and phosphoric acid in workplace air by ion chromatography. The anions are detected by conductivity.
The method is applicable to the personal sampling of airborne particles, as defined in ISO 7708, and to static (area) sampling.
The method does not apply to the determination of sulfur trioxide.
The procedure does not differentiate between the acids and their corresponding salts if both are present in the workplace air.
The procedure does not differentiate between phosphoric acid and diphosphorus pentoxide (phosphoric anhydride) if both are present in the workplace air.

This document entitled “Public transport – Reference data model – Part 5: Fare Management” is composed of the following data packages:
⎯ Fare Structure;
⎯ Access Right Assignment;
⎯ Fare Pricing;
⎯ Sales Description;
⎯ Sales Transaction;
⎯ Fare Roles;
⎯ Validation and Control;
⎯ Explicit Frames for Fares.
This document itself is composed of the following parts:
⎯ Main document representing the data model for the concepts shared by the different domains covered by Transmodel (normative);
⎯ Annex A, containing the data dictionary and attribute tables, i.e., the list of all the concepts presented in the main document together with the definitions (normative);
⎯ Annex B, presenting the model evolution (informative).
⎯ Annex C, providing details of the significant technical changes between this document and EN 12896-5:2019 (informative)

This document establishes a systematized framework for the competences of AI ethicists, categorizing them into knowledge, skills and attitudes related to the specific activities and tasks of the role. It specifies requirements and recommendations necessary for individuals to effectively perform as AI ethicists. These competences encompass a strong understanding of European values and fundamental rights, further enhancing the knowledge, skills and attitudes required for this profession.
This document defines the essential concepts and principles inherent to the AI ethicist role. It illustrates a clear, uniform approach to the integral components of this profession.
Moreover, the document outlines how the role of AI ethicists can be seamlessly integrated into a wide variety of organizations. These include, but are not limited to, commercial enterprises, governmental agencies and non-profit organizations.

This document specifies a test method for the sampling and analysis of airborne organic isocyanate (NCO) compounds in workplace air. The method covers organic compounds containing free isocyanate functional groups, including monomeric, oligomeric, prepolymeric and polymeric isocyanates, and addresses the measurement of total isocyanate groups in air samples collected for the assessment of occupational exposure.
The method is suitable for personal air sampling in the breathing zone for the determination of time-weighted average concentrations over sampling periods ranging from approximately 10 min to 8 h, although it can be applied to shorter sampling periods with high isocyanate air levels. It can also be used for background or fixed-location air sampling; however, due to aerodynamic effects, samplers designed for personal sampling do not necessarily exhibit the same collection characteristics when used for other purposes. It covers the measurement of airborne organic isocyanates over a concentration range of approximately 0,1 μg/m3 to 140 μg/m3 for a nominal air sample volume of 15 l; under the conditions specified in this document, typical qualitative and quantitative detection limits correspond to approximately 0,07 μg/m3 a nd 0 ,3 μg/m3, respectively, for a 15 l air sample.
This document does not apply to the simultaneous determination of isocyanates and amines, nor to modified methods employing alternative sampling devices or detection techniques not described in this document.

This part of the IEC 61851 series, together with [IEC 61851-1 Ed. 3] and [IEC 61851-23 Ed 2.0]1, gives the requirements for DC electric vehicle charging stations with an Automated connection device (ACD) for conductive connection to the vehicle, with a rated supply voltage up to 1 000 V AC or up to 1 500 V DC and a rated output voltage up to 1 500 V DC.
NOTE 1 This standard includes information on EV for conductive connection, but limited to the necessary content for describing the power and signalling interface.
This part specifies the DC charging systems with an Automated connection device based on
- system A described in Annex AA of [IEC 61851-23 Ed 2.0].
- system B described in Annex BB of [IEC 61851-23 Ed 2.0].
- system C described in Annex CC of [IEC 61851-23 Ed 2.0].
EMC requirements for DC EV charging stations are defined in [IEC 61851-21-2 Ed. 1 CDV].
This standard provides the general requirements for the control communication between a DC EV charging station and an EV. The requirements for digital communication between DC EV charging station and electric vehicle for control of DC charging are defined in [ISO15118-20 DIS] and [IEC 61851-24 Ed 2.0 CD].
This part only applies to Automatic couplers of category 2: using an electro-mechanical interface defined by [EN50696] for Systems described in Annex CC and Annex KK. System A, B are under consideration.
This part does not apply for Automatic coupler of category 1: using a vehicle coupler defined by IEC 62196-2 or IEC 62196-3.
This standard does not cover all safety aspects related to maintenance.
Non-regulated DC EV supply equipment is not covered by this edition

2020-12-24: Common mods to this prA1 are included in prAB (PR=73281) for simultaneous circulation
D164/C043: DOW=DOR+48 months

This document specifies a method for the determination of organic isocyanates in workplace air using derivatization with di-n-butylamine (DBA) and chromatographic analysis.
This document is applicable to the determination of a wide range of organic isocyanates present in both the gas phase and the particle phase in workplace atmospheres, including monofunctional isocyanates such as isocyanic acid (ICA), methyl isocyanate (MIC), ethyl isocyanate (EIC), propyl isocyanate (PIC), butyl isocyanate (BIC) and phenyl isocyanate (PhI); monomeric diisocyanates, including 1,6-hexamethylene diisocyanate (HDI), 2,4- and 2,6-toluene diisocyanate (TDI), 4,4′-methylenediphenyl diisocyanate (MDI), 1,5-naphthyl diisocyanate (NDI), isophorone diisocyanate (IPDI) and 4,4′-dicyclohexylmethane diisocyanate (H12MDI); and multifunctional isocyanates, including oligomeric, prepolymeric and polymeric forms such as biuret-, isocyanurate- and allophanate-adducts.
The method covers air sampling using impingers, filters or combinations thereof, and analysis by liquid chromatography with mass spectrometric detection.
The useful analytical range is approximately 2,5 ng to 500 ng of isocyanate per sample. For a nominal air sample volume of 15 l, this corresponds to approximately 0,2 µg/m3 to 33 µg/m3. These values can vary depending on the isocyanate analysed.
This document does not apply to the determination of amines or aminoisocyanates. For the determination of amines and aminoisocyanates, the method specified in ISO 17734-2[11].

This document provides an overview description for the recommended processes for archiving of model-based product data, (e.g. 3D CAD and PDM data). The detailed processes are described in additional process parts of the EN 9300 series.

This document specifies data model structures that are applicable for traffic management applications in the urban environment. This document addresses data concepts to support the exchange of traffic management plans, rerouting and extensions of the existing DATEX II core model to better support application to the urban environment.

Addition:
This document specifies the determination of airborne acoustical noise of mains operated and cordless dry vacuum cleaners including their accessories and docking stations for household use or under conditions similar to those in households.
For wet and dry vacuum cleaners, the dry cleaning function applies. The wet cleaning function is measured in accordance with IEC 60704-2-20.
NOTE 101 Particular requirements for floor cleaning robots are specified in IEC 60704-2-171.
This document describes the determination of the noise emission of dry vacuum cleaners under normal operating conditions on carpet and hard floor in accordance with IEC 62885-2:—,4.62.

The present document is composed of the following data packages:
— journey and Interchange;
— vehicle Journey Assignment;
— journey Times;
— block and Vehicle Service;
— dated Journey;
— explicit Frame.
This document itself is composed of the following parts:
— main document representing the data model for the concepts shared by the different domains covered by Transmodel (normative);
— Annex A containing the data dictionary and attribute tables, i.e. the list of all the concepts presented in the main document together with their definitions (normative);
— Annex B presenting the model evolution (informative);
— Annex C, providing details of the significant technical changes between this document and EN 12896-1:2015 (informative)

IEC 60127-7:2026 covers requirements for miniature fuse-links for special applications. This part of IEC 60127 is applicable to fuse-links with a rated voltage not exceeding 1 000 V, a rated current not exceeding 125 A and a rated breaking capacity not exceeding 50 kA. It does not apply to fuses completely covered by the subsequent parts of IEC 60269-1. It does not apply to miniature fuse-links for appliances intended to be used under special conditions, such as in corrosive or explosive atmospheres.

IEC 62561-8:2026 specifies the requirements and tests for components used for electrically insulated LPS. These components, which can reduce the separation distance, are as follows:
- insulating stand-offs, used in conjunction with an air-termination system and down-conductors with the aim of maintaining the proper separation distance;
- insulating down‑conductors, including their specific fasteners.
Testing of insulating stand-offs and insulating down-conductor components for an explosive atmosphere is not covered by this document. This first edition cancels and replaces IEC TS 62561-8 published in 2018. This edition constitutes a technical revision.
This edition includes the following significant technical changes with respect to IEC TC 62561-8:2018:
a) title and scope of the standard has been adjusted;
b) the document has been updated in line with IEC 60068-2-52:2017 on salt mist treatment;
c) the document has been updated in line with ISO 22479:2019 on humid sulphureous atmosphere treatment;
d) two different possible example configurations for pull out tests have been introduced;
e) additional information on pollution has been included;
f) an alternate test arrangement for high voltage impulse test has been included;
g) a new normative Annex H for applicability of previous tests has been introduced;
h) pass criteria for high voltage impulse testing updated;
i) explanation on high voltage impulse testing with negative polarity has been added.

This document incorporates the following main data packages:
-   Network Description;
-   Fixed Object;
-   Tactical Planning Components;
-   Explicit Frame.
It is composed of the following parts:
-   main document representing the data model for the concepts shared by the different domains covered by Transmodel (normative);
-   Annex A containing the data dictionary and attribute tables, i.e. the list of all the concepts presented in the main document together with their definitions (normative);
-   Annex B presenting the model evolution (informative).
-   Annex C, providing details of the significant technical changes between this document and EN 12896-2:2016 (informative).

This document specifies the determination of height-resolved profiles of atmospheric backscattering by means of active optical sounding. The measurements allow the following properties of the atmosphere up to several kilometres above ground to be derived:
cloud bases;
upper boundaries of optically thin clouds;
upper and lower boundaries and internal structures of particle layers:
height of structures, e.g. inversions, boundary layer height, mixing layer height (under suitable conditions);
attenuated backscatter of the particles;
particle backscatter and extinction coefficients (requires further assumptions).  
The document also addresses the depolarisation lidar and the use of multi-wavelength systems. This allows further parameters to be determined:
particle size classification (Ångström exponent, colour ratio);
shape classification (linear depolarisation degree).  
The following fields of application are particularly important:
air quality monitoring (vertical structure of the boundary layer);
aviation safety (cloud base and visual range) (see ISO 28902-1[8]);
particle content and transport (e.g. volcanic dust);
weather forecasting and climate modelling (e.g. atmospheric boundary layer, cloud base, cloud microphysics);
satellite remote sensing (validation).  
Examples that illustrate these applications are discussed in Annex A.
The benefits of scanning systems for parameters mentioned above are also discussed in Clause A.7.
In addition, particle backscatter lidars that measure at least two carefully selected wavelengths can be used to determine atmospheric gas concentrations. This is known as the differential absorption lidar “DIAL” technique. This technique is not part of this document and has been described in VDI 4210-1[12].
This document does not specify extended lidar techniques that monitor the following parameters quantitatively: inelastic scattering effects such as, Raman scattering, Doppler broadening, Doppler shift, multiple scattering, modulation techniques, and spectral separation of molecular and particle backscattering [high spectral resolution lidar (HSRL)]. Some of these extended techniques are or will be described in other parts of the ISO 28902 series.  
This document does not address special features of airborne or satellite-borne systems.

This document incorporates data structures used by all other data domains of Transmodel. It is composed of the following data packages:
-   versions and validity;
-   responsibility;
-   generic framework;
-   reusable components;
-   explicit frames referring to generic data.
The data structures represented in this part are either generic patterns that can be explicitly reused in other domains (e.g., a generic model for version frames, a generic grouping mechanism, etc.) or are referenced by different other parts (e.g., service calendar model).
This document itself is composed of the following parts:
-   main document representing the data model for the concepts shared by the different domains covered by Transmodel (normative);
-   Annex A containing the data dictionary and attribute tables, i.e., the list of all the concepts present in the main document, together with their definitions (normative);
-   Annex B, indicating the data model evolutions (informative),
-   Annex C, presenting the Transmodel development history (informative),
-   Annex D, describing all conventions, methodology and notations for conceptual modelling (informative),
-   Annex E, providing a clear overview to help readers understand the core principles, structure, and purpose of Transmodel (informative),
-   Annex F, providing information on the Functional domains and Modes of operation (informative).
-   Annex G, providing details of the significant technical changes between this document and EN 12896-1:2015 (informative).

This document specifies the requirements and provides guidance for the definition, implementation and maintenance of a quality management system for organizations that provide AI systems.
This document is intended to support the organization in meeting applicable regulatory requirements. It is primarily intended for organizations placing on the market or putting into service high-risk AI systems and is not specific to any particular sector.

This document incorporates the following main data packages:
-   Dated Production Components;
-   Call;
-   Dated Call;
-   Production Plan;
-   Detecting & Monitoring;
-   Situation;
-   Messaging;
-   Control Action;
-   Operational Event & Incident;
-   Facility Monitoring & Availability;
-   Occupancy.
It is composed of the following parts:
-   main document representing the data model for the concepts shared by the different domains covered by Transmodel (normative);
-   Annex A containing the data dictionary and attribute tables, i.e. the list of all the concepts presented in the main document together with their definitions (normative);
-   Annex B presenting the model evolution (informative);
-   Annex C detailing the mapping to DATEX-II and SIRI (informative).
-   Annex D, providing details of the significant technical changes between this document and EN 12896 4:2019 (informative).

This document specifies the fundamentals and concepts for the long-term preservation of digital product and technical data. The EN 9300 series specifies various regulatory and business requirements, applicable domain specific methodologies and are extensible for future long-term archiving formats and data management practices.

This document defines and describes the concept of on-boarding of person identification data (PID) within a Wallet. The scope of this document includes cases where a natural person is the User in control of a Wallet. This includes a natural person who is in control of their own information, as well as natural persons who control information to represent another natural person or a legal person. This document considers a single set of PID attributes linked to a single Wallet Unit. This does not exclude the issuance of multiple PIDs representing the same set of PID attributes, e.g. batch issuance.
It also provides the general workflow, the roles and responsibilities at stake, and links the on-boarding with the Level of Assurance concept underpinning eIDAS [1];
The scope of this document includes cases where a natural person is the User in control of a wallet. This includes a natural person who is in control of their own data as well as natural persons who control data to represent another natural person or legal person.
EXAMPLE     If a natural person represents a legal person, the PID provider can issue a "representation PID" in an own Wallet Unit for representation purposes controlled by the natural person Wallet User. The "representation PID" is a kind of attestation which contains PID about the natural person (representative) and about the legal person (representee).
This document is limited to the on-boarding of an unique set of person identification data, complying with the legal provisions of eIDAS [1], in particular (1) issued in accordance with Union or National laws, and (2) conformant with the relevant implementing act [5].
The following aspects are out of scope of this document:
—   the on-boarding of person identification data within a Wallet where the User is a legal person;
—   other types of on-boarding, such as:
—   provisioning of person identification data after revocation, expiration or deletion;
—   addition of other Attributes (under the shape of attestations) in accordance with the requirement of Level of Assurance “High” which are not part of the set of person identification data but are part of the legal identity under National’s laws;
—   management of person identification data (deletion, update, etc.);
—   provisioning of person identification data which is not compliant with the relevant implementing act [5];
—   provisioning of a partial set of person identification data;
—   provisioning of supplemental set(s) of person identification data (multiple PIDs);

This document is a collection of interpretations related to the EN 115 series. This document collects interpretations to EN 115-1:2008+A1:2010 and EN 115-1:2017. Interpretations to other standards of the EN 115 series will be added when they are available.
Interpretations aim to improve the understanding of the clause(s) they are referring to and by that facilitating common understanding between manufacturers, installers, notified bodies, inspection bodies and national authorities.
Interpretations do not have the same status as the European standards to which they are related. However, the application of interpretations given to the interested parties confidence that the relevant European standard has not been wrongly applied.

This document specifies the mapping between the semantic model of an electronic invoice, included in EN 16931-1 and the ISO/IEC 9735 (UN/EDIFACT) syntax. For each element in the semantic model (including sub-elements or supplementary components such as Identification scheme identifiers) it is defined which element in the syntax is to be used to contain its information contents.

This document specifies requirements and provides guidance for the sustainable management of waste electrical and electronic equipment (e-waste) for all process steps, from collection to returning recovered products, components, materials or energy to the value chain. It includes traceability, monitoring and evaluation of the e-waste flow, recovery rate and recovery quality.
This document is intended for use by an organization involved in e-waste management seeking to manage its responsibilities in a systematic manner.
The requirements set by this document will help an organization to achieve sustainability outcomes within the context of e-waste management, including:
– enhancement of organizations' performance in relation to quality, environment and occupational health and safety;
– fulfilment of compliance obligations.
This document is applicable to any organization, regardless of its size, type and nature.
This document applies to the environmental, health and safety, and quality aspects of e-waste management activities that the organization determines it can either control or influence, from a lifecycle perspective.
NOTE 1 Social aspects – e.g. employment creation, conflict minerals, employment conditions – are not addressed directly but indirectly through the benefits of sustainable management of e-waste.
NOTE 2 Additional local requirements or regulations can apply.
This document is a basic environment horizontal publication focusing on essential requirements and is primarily intended for use by committees in the preparation of publications within the area of environment in accordance with the principles laid down in IEC Guide 123. Wherever applicable, it is the responsibility of committees to make use of environment basic publications in the preparation of their environment group and product publications. Committees can apply this document directly to products when they do not develop a product publication in the area of environment.

This document specifies a method for the determination of the time-weighted average mass concentration of soluble particulate fluorides and hydrofluoric acid (HF) in workplace air by collection of the particulate fluorides on a pre-filter and HF on an alkali-impregnated filter and analysis by ion chromatography.
This method is only applicable to determination of particulate fluorides that are soluble using the sample preparation procedure specified.
For aerosol sampling, this method is applicable to the personal sampling of the inhalable fraction of airborne particles, as defined in ISO 7708, and to static (area) sampling.
The method is applicable to the determination of masses of 0,005 mg to at least 1,25 mg of particulate fluorides per sample and 0,015 mg to at least 1,2 mg of HF per sample.

This document specifies the mapping between the semantic model of an electronic invoice, included in EN 16931-1 and the UBL syntax. For each element in the semantic model (including sub-elements or supplementary components such as Identification scheme identifiers) it is defined which element in the syntax is to be used to contain its information contents. Any mismatches between semantics, format, cardinality or structure are indicated.

This document specifies safety requirements for spreaders used with cranes designed for the purpose of handling freight containers, e.g. those based on ISO 668:2020. The connection between the spreader and the container is by the use of twistlocks that engage into the container’s upper corner castings.
This document deals with all significant hazards, hazardous situations or hazardous events relevant to container handling spreaders, when it is used as intended and under conditions of misuse which are reasonably foreseeable by the manufacturer.
The spreader is interfaced to the crane’s control and safety system.
This document does not cover the following types of spreaders:
-   hand operated spreaders (without external power supply);
-   bottom lift grapple spreaders used for swap bodies and road trailers.
This document does not deal with the lifting of persons.
This document is not applicable to container handling spreaders manufactured before the date of its publication.

This document specifies a procedure for the use of quadrupole inductively coupled plasma mass spectrometry (ICP-MS), including single-quadrupole instruments and tandem ICP-MS/MS, for analysing test solutions prepared from samples of airborne particulate matter collected as specified in ISO 15202-1. Method development, performance checks and a routine analysis method are specified in this document
NOTE 1 Other types of ICP-MS (e.g. magnetic sector) are outside of the scope of this document.
Test solutions for analysis by this document are prepared as specified in ISO 15202-2.
This document is applicable to the assessment of workplace exposure to metals and metalloids for comparison with limit values (e.g. see EN 689[10] and ASTM E1370[8]).
This document is not applicable to the determination of elemental mercury, since mercury vapour is not collected using the sampling method specified in ISO 15202-1.
The procedure specified in this document is suitable for the assessment of exposure against the long-term exposure limits for most of the metals and metalloids for which occupational exposure limit values have been set, when sampling at a typical flow rate of at least 2 l min−1 for sampling times in the range 0,25 h to 8 h and for the assessment of exposure against the short-term exposure limits, where applicable.
NOTE 2 The procedure is subject to no significant spectral interferences (see Clause A.3), provided that suitable analytical isotopes are used. However, inadequate matrix-matching can adversely affect results.

This document specifies three techniques for the determination of free Bisphenol A (BPA) in plastics of electrotechnical products.
This document describes the use of liquid chromatography–diode array detector (LC-DAD), liquid chromatography mass spectrometry (LC-MS), liquid chromatography tandem mass spectrometry (LC-MS/MS) with these test methods detailed in Annex A and Annex B.
These test methods have been evaluated for use with PC, PC/ABS, PP matrices containing free BPA between 20 mg/kg to 500 mg/kg as shown in the Pre-IIS 13 results in Annex C and IIS 13 results in Annex D [1], [2]. The use of these methods for BPA concentration ranges of plastics, other than those specified in Annex C and Annex D, has not been evaluated.
This document is a basic environment horizontal publication focusing on test methods and is primarily intended for use by committees in the preparation of publications within the area of environment in accordance with the principles laid down in IEC Guide 123. Wherever applicable, it is the responsibility of committees to make use of environment basic publications in the preparation of their environment group and product publications. Committees can apply this document directly to products when they do not develop a product publication in the area of environment.
WARNING – Persons using this document should be familiar with normal laboratory practice. This document does not purport to address all of the safety problems, if any, associated with its use. It is the responsibility of the user to establish appropriate safety and health practices and to ensure compliance with any national regulatory conditions.

The CEN/TS 18212 series [4] specifies a generic framework for the establishment of requirements and their evaluation methodology for biometric products. The requirements depend on the biometric mode considered, and are adapted to each scenario, through the definition of a variety of application profiles.
The CEN/TS 18212 series [4] specifies the evaluation methodology, the individual TESTs, and the application profiles (with their particular requirements).
This document is focussed on face biometrics, and provides the specifics of this biometric mode for the application of all the specifications provided in parts 1 till 3 from CEN/TS 18212 series [4]. It also defines a set of application profiles, that detail the applicable TESTs, the evaluation parameters and the assessment criteria.
In detail, this document defines, for face biometric products:
-   general aspects of a face biometric product;
-   common resources needed for the evaluation;
-   each of the possible TESTs to be applied;
-   application profiles for different kinds of face biometrics products.
NOTE 1   National regulations and requirements can apply.
NOTE 2   Regarding biometrics for public sector applications, see also BSI TR 03121 [10] which can apply.
NOTE 3   For an overview of sectors addressed in the Cybersecurity Act, see Regulation (EU) 2019/881[11].
NOTE 4   This part defines all potential TESTs that could be applicable when evaluating the functionality of a biometric product using this biometric mode. It will be the relevant application profile (3.1.1), the one that will specify which of these TESTs are applicable.
The following topics are left out of the scope of this document:
-   Vulnerability assessment of the storage system used for the biometric reference/s.
-   Vulnerability assessment of communication protocols and interfaces dealing with the operation of the biometric product.
-   Evaluation of the performance of human operators in terms of identity proofing.
-   Validation of documents providing the biometric reference

The document incorporates the following main data packages:
-   Trip Description;
-   Passenger Information Queries.
It is composed of the following parts:
-   main document representing the data model for the concepts shared by the different fare domains covered by Transmodel (normative);
-   Annex A, containing the data dictionary and attribute tables, i.e. the list of all the concepts presented in the main document together with the definitions (normative);
-   Annex B presenting the model evolution (informative).
-   Annex C, providing details of the significant technical changes between this document and EN 12896 6:2019 (informative).

This document gives guidelines for the measurements of respirable crystalline silica in air using direct on‑filter or indirect X‑ray diffraction and infrared analysis methods, including quality aspects of the measurements. The scope of this document includes the following crystalline silica polymorphs: quartz and cristobalite.
These guidelines are intended for use in conjunction with the following specific analytical methods under the jurisdiction of ISO TC 146 SC 2: ISO 16258-1, ISO 16258-2, and ISO 19087. When used with any of these documents, this guidance will help to ensure measurement procedures meet the uncertainty requirements stipulated in ISO 20581, to enable the results to be compared to occupational exposure limit values (OELV) in accordance with EN 689[40].
These guidelines are also relevant to the analysis of filters obtained from dustiness measurements in accordance with EN 15051[1] and EN 17289[35].

This document covers:
— Provision of a catalogue of fares
— Request for specific fare offers (including specific search criteria),
— Selection of one or several formal offers by the customer (pre-purchase),
— Initiation of the purchase,
— Commitment to buy,
— Reservation of a place on a specific journey,
— Reception of evidence of the purchase,
— Management after purchase (basic after-sale actions),
— All interactions that can be related to a persistent identity.
These functions can be seen as the minimum required for the data flow of reservation from the travellers’ perspective.
Though some of the studied APIs have functions beyond just reservation and involving other parties, the following activities are not in scope of this document nor the CoRoM project:
— Creation and distribution of the travel document,
— Travel planning,
— Payment interfaces with banking information systems,
— Validation of purchased access rights during travel,
— Control of purchased access rights during travel

This document is composed of the following data packages:
— Driver;
— Driver Schedule;
— Rostering;
— Personnel Disposition;
— Driver Control Action.
This document itself is composed of the following parts:
— main document representing the data model for the concepts shared by the different domains covered by Transmodel (normative);
— Annex A containing the data dictionary and attribute tables, i.e., the list of all the concepts presented in the main document together with their definitions (normative);
— Annex B presenting the model evolution (informative).
— Annex C, providing details of the significant technical changes between this document and EN 12896-7:2019 (informative)

This part of IEC 63522 is used for testing along with the appropriate severities and conditions for measurements and tests designed to assess the ability of DUTs to perform under expected conditions of transportation, storage and all aspects of operational use.
This document defines a standard test method for impulse voltage test.

This document establishes principles, specifies requirements and gives guidance on self-declared environmental claims about products and their environmental statement programmes, including claims that also cover related social and economic aspects that are affected by environmental conditions or the environmental performance of a product.
This document defines selected terms commonly used in self-declared environmental claims and provides qualifications for their use, as well as describing the documentation and methodologies required for assessing self-declared environmental claims.
This document is applicable to self-declared environmental claims that predominantly take the form of words, but can also be symbols or graphics on product or package labels, or appear in product literature, technical bulletins, advertising and publicity, including on digital platforms.

This part of IEC 61760 defines requirements for component specifications of electronic components that are intended for usage in surface mounting technology. To this end, it specifies a reference set of process conditions and related test conditions to be considered when compiling component specifications.
The objective of this document is to ensure that a wide variety of SMDs can be subjected to the same placement, mounting and subsequent processes (e.g. cleaning, inspection) during assembly. This document defines tests and requirements that are included in any SMD component’s general, sectional or detail specification. In addition, this document provides component users and manufacturers with a reference set of typical process conditions used in surface mounting technology.
Some of the requirements for component specifications in this document are also applicable to components with leads intended for mounting on a circuit board, including solderless interconnection technology. Cases for which this is appropriate are indicated in the relevant subclauses.
NOTE Solderless interconnection technology refers to a mounting method which is not part of the surface-mounting process and the components do not undergo a soldering operation. Such components are included in this document because the mounting of components for solderless interconnection commonly occurs after the mounting of SMDs.

This document specifies an A-type ultrasonic pulse contact method applying the ultrasonic longitudinal wave technique to hardmetals. This document is applicable to the ultrasonic inspection for a hardmetal rod that has a circular end face with a diameter not less than 6,0 mm and a rod length of 40,0 mm to 380,0 mm, or a hardmetal product that has a non-circular testing area not smaller than the coverage area of the probe (not less than 12,0 mm in diameter) and a height of 10,0 mm to 380,0 mm. Within the detection range specified in this document, the sound transmission energy is expressed by the probe driving voltage, and the range is 100,0 V to 200,0 V.

This document specifies a reference software implementation of ISO/IEC 19566-5 [1]. The reference software is accompanied with a reference dataset which provides an extensive list of the various JUMBF data structures specified in ISO/IEC 19566-5 [1].

This document specifies a method of measuring the burning velocity (BV) of lower burning refrigerants (ISO 817 [2]) or that use the BV in establishing requirements on the use of slow burning refrigerants (e.g. ISO 817:2024 [2], 6.1.3.3).