Industrial automation systems and integration — Product data representation and exchange — Part 1718: Application module: Layered interconnect simple template

Systèmes d'automatisation industrielle et intégration — Représentation et échange de données de produits — Partie 1718: Module d'application: Modèle simple d'interconnexion en couches

ISO/TS 10303-1718:2014-08 specifies the application module for
         Layered interconnect simple template.

         The following are within the scope of
         ISO/TS 10303-1718:2014-08:

Path based parametric curve including optional start, end and corner conditions;

Cross section parameters;

text template;

predefined special function templates;

template breakout pattern;

teardrop template;

trace template.


Industrial automation systems and integration — Product data representation and exchange — Part 1803: Application module: Process plan

Systèmes d'automatisation industrielle et intégration — Représentation et échange de données de produits — Partie 1803: Module d'application: Planification des processus

ISO/TS 10303-1803:2014-08 specifies the application module for
         Process plan.

         The following are within the scope of
         ISO/TS 10303-1803:2014-08:

process plan and it's decomposition into process operations;

relationship between raw materials, in-process items and final items;

relationship between the items and the tools used to manufacture them;

items within the scope of application module Activity method, ISO/TS 10303-1049;

items within the scope of application module Item definition structure, ISO/TS 10303-1345;

items within the scope of application module Part occurrence, ISO/TS 10303-1715;

items within the scope of application module Product view definition, ISO/TS 10303-1019;

items within the scope of application module Shape property assignment, ISO/TS 10303-1032;

items within the scope of application module Specification control, ISO/TS 10303-1112;

items within the scope of application module Support resource, ISO/TS 10303-1800.


Information technology — ASN.1 encoding rules: Specification of Packed Encoding Rules (PER) — Part 2:  — Technical Corrigendum 4

Technologies de l'information — Règles de codage ASN.1: Spécification des règles de codage compact (PER) — Partie 2:  — Rectificatif technique 4


Gas cylinders — Gases and gas mixtures — Determination of fire potential and oxidizing ability for the selection of cylinder valve outlets

Bouteilles à gaz — Gaz et mélanges de gaz — Détermination du potentiel d'inflammabilité et d'oxydation pour le choix des raccords de sortie de robinets

ISO 10156:2017 specifies methods for determining whether or not a gas or gas mixture is flammable in air and whether a gas or gas mixture is more or less oxidizing than air under atmospheric conditions.

ISO 10156:2017 is intended to be used for the classification of gases and gas mixtures including the selection of gas cylinder valve outlets.

ISO 10156:2017 does not cover the safe preparation of these mixtures under pressure and at temperatures other than ambient.


Hydraulic fluid power — Filter elements — Method for end load test

Transmissions hydrauliques — Éléments filtrants — Méthode de détermination de la résistance à la déformation axiale

ISO 3723:2015 specifies a method for verifying the end load rating of a hydraulic fluid power filter element. It also verifies the ability of a hydraulic fluid power filter element to withstand the designated axial loading imposed by installation and use.


Non-destructive testing of welds — General rules for metallic materials

Contrôle non destructif des assemblages soudés — Règles générales pour les matériaux métalliques

ISO 17635:2016 gives guidelines for the choice of non-destructive testing (NDT) methods for welds and evaluation of the results for quality control purposes, based on quality requirements, material, weld thickness, welding process and extent of testing.

ISO 17635:2016 also specifies general rules and standards to be applied to the different types of testing, for either the methodology or the acceptance levels for metallic materials.

Acceptance levels cannot be a direct interpretation of the quality levels defined in ISO 5817 or ISO 10042. They are linked to the overall quality of the produced batch of welds.

Requirements for acceptance levels for NDT comply with quality levels stated in ISO 5817 or ISO 10042 (moderate, intermediate, stringent) only on a general basis and not in detail for each indication.

Annex A gives correlations between quality, NDT and acceptance level standards.

Annex B gives an overview of the standards linked to quality levels, acceptance levels and NDT methods.


Polyethylene (PE) pipes and fittings — Determination of the resistance to crack initiation and slow crack growth on notched cylindrical bars under constant load (NCBT)

Tubes et raccords en polyéthylène (PE) — Détermination de la résistance à l'initiation de fissure et la propagation lente de fissure sur des barres cylindriques entaillées sous charge constante (NCBT)


Fire resistance tests — Part 3: Door and shutter assemblies horizontally oriented

Essais de résistance au feu — Partie 3: Assemblages de portes et volets orientés horizontalement

ISO 3008-3:2016 specifies the test method for determining the fire resistance of horizontally oriented door and shutter assemblies which may be exposed to a fire from the underside. It is applicable to all types of door and shutter assemblies installed in a horizontal orientation within floor or roof assemblies requiring fire-resistance ratings in buildings.

The test method allows for the measurement of integrity and, if required, the measurement of radiation and thermal insulation. In addition, this test method includes measurement of the load-carrying ability of the test specimens subjected to a standard fire-resistance test.


Industrial automation systems and integration — Product data representation and exchange — Part 1636: Application module: Assembly module design

Systèmes d'automatisation industrielle et intégration — Représentation et échange de données de produits — Partie 1636: Module d'application: Conception du module d'assemblage

ISO/TS 10303-1636:2014-08 specifies the application module for
         Assembly module design.

         The following are within the scope of
         ISO/TS 10303-1636:2014-08:

            		the
            representation of the information needed to describe the the physical view of the components in an assembly and the physical
            relationship between the components and the assembly.
            		This module defines the information needed to describe the different features of components and the relationship between
            component features in an assembly.
            		The module defines the information needed to describe the materials used in an assembly that physically support components.
            		Analysis data extraction is supported to allow verification of physical connectivity implementation.

assembly physical design;

specialized designed in place physical components with defined in place shape;

predefined physical component classification;

predefined physical component feature classification;

assembly physical design usage view or interface control definition;

detailed specification of joined features of components in the design;

detailed traceability of design requirements;

as designed implementation of connection requirement;

shape of assembly design;

external references to components and component features;

component to component clearance relationships;

configuration management of assembly design;

in-process change management of assembly design.


Cranes — Wire ropes — Care and maintenance, inspection and discard

Appareils de levage à charge suspendue — Câbles en acier — Entretien et maintenance, inspection et dépose

ISO 4309:2017 establishes general principles for the care and maintenance, and inspection and discard of steel wire ropes used on cranes and hoists.

In addition to guidance on storage, handling, installation and maintenance, this document provides discard criteria for those running ropes which are subjected to multi-layer spooling, where both field experience and testing demonstrate that deterioration is significantly greater at the crossover zones on the drum than at any other section of rope in the system.

It also provides more realistic discard criteria covering decreases in rope diameter and corrosion, and gives a method for assessing the combined effect of deterioration at any position in the rope.

ISO 4309:2017 is applicable to those ropes used on the following types of cranes, the majority of which are defined in ISO 4306‑1:

a)    cable and portal cable cranes;

b)    cantilever cranes (pillar jib, wall or walking);

c)    deck cranes;

d)    derrick and guy derrick cranes;

e)    derrick cranes with rigid bracing;

f)     floating cranes;

g)    mobile cranes;

h)    overhead travelling cranes;

i)     portal or semi-portal bridge cranes;

j)     portal or semi-portal cranes;

k)    railway cranes;

l)     tower cranes;

m)   offshore cranes, i.e. cranes mounted on a fixed structure supported by the sea bed or on a floating unit supported by buoyancy forces.

ISO 4309:2017 applies to rope on cranes, winches and hoists used for hook, grabbing, magnet, ladle, excavator or stacking duties, whether operated manually, electrically or hydraulically.

It also applies to rope used on hoists and hoist blocks.

NOTE       In view of the fact that the exclusive use of synthetic sheaves or metal sheaves incorporating synthetic linings is not recommended when single-layer spooling at the drum, due to the inevitability of wire breaks occurring internally in large numbers before there is any visible evidence of any wire breaks or signs of substantial wear on the periphery of the rope, no discard criteria are given for this combination.


Information and documentation — Trusted third party repository for digital records

Information et documentation — Référentiel tiers de confiance pour les documents d’activité électroniques

ISO 17068:2017 specifies requirements for a trusted third party repository (TTPR) to support the authorized custody service in order to safeguard provable integrity and authenticity of clients' digital records and serve as a source of reliable evidence.

ISO 17068:2017 is applicable to retention or repository services for digital records as a source of evidence during the retention periods of legal obligation in both the private and the public sectors.

ISO 17068:2017 has the limitation that the authorized custody of the stored records is between only the TTPR and the client.


Heat pump water heaters —  Testing and rating for performance — Part 1: Heat pump water heater for hot water supply

Chauffe-eau à pompe à chaleur — Essais et classification des performances — Partie 1: Chauffe-eau à pompe à chaleur pour l'alimentation en eau chaude

This document specifies test conditions and test procedures for determining the performance characteristics of air source heat pump water heaters for hot water supply with electrically driven compressors with or without supplementary electric heater and connected to or including only one hot water storage tank. Hot water storage tanks that are connected in series or parallel and behave hydronically as one single tank are considered as one hot water storage tank. In the case of heat pump water heaters consisting of several parts with refrigerant or water connections, this document applies only to those designed and supplied as a complete package.

NOTE       This document is not applicable to testing procedures for simultaneous operation for hot water supply and space heating. "Simultaneous" means that hot water supply and space heating generation occur at the same time and may interact.


Thermal performance of curtain walling — Calculation of thermal transmittance

Performance thermique des façades-rideaux — Calcul du coefficient de transmission thermique

ISO 12631:2017 specifies a method for calculating the thermal transmittance of curtain walls consisting of glazed and/or opaque panels fitted in, or connected to, frames.

The calculation includes:

-      different types of glazing, e.g. glass or plastic; single or multiple glazing; with or without low emissivity coating; with cavities filled with air or other gases;

-      frames (of any material) with or without thermal breaks;

-      different types of opaque panels clad with metal, glass, ceramics or any other material.

Thermal bridge effects at the rebate or connection between the glazed area, the frame area and the panel area are included in the calculation.

The calculation does not include:

-      effects of solar radiation;

-      heat transfer caused by air leakage;

-      calculation of condensation;

-      effect of shutters;

-      additional heat transfer at the corners and edges of the curtain walling;

-      connections to the main building structure nor through fixing lugs;

-      curtain wall systems with integrated heating.

NOTE       Table 1 in the Introduction shows the relative position of ISO 12631:2017 within the set of EPB standards in the context of the modular structure as set out in ISO 52000-1.


Glass reinforced thermosetting plastic (GRP) pipes — Determination of initial specific ring stiffness using segment test species cut from a pipe

Tubes en plastique thermodurcissables renforcés de verre (PRV) — Détermination de la rigidité annulaire spécifique initiale et de la résistance à la déflexion annulaire initiale en utilisant des éprouvettes segmentaires découpées dans un tube

ISO/TS 12512:2017 specifies a method for determining the initial specific ring stiffness of pipes having a nominal size of DN 2000 or larger, using segment test pieces cut from a glass-reinforced thermosetting plastics (GRP) pipe.


Cranes — Training of operators — Part 3: Tower cranes

Appareils de levage à charge suspendue — Formation des opérateurs — Partie 3: Grues à tour

ISO 9926-3:2016 covers the specific subjects considered necessary for training tower crane operators.


Cranes — Design principles for loads and load combinations — Part 3: Tower cranes

Appareil de levage à charge suspendue — Principes de calcul des charges et des combinaisons de charges — Partie 3: Grues à tour

This document establishes the application of ISO 8686-1 to tower cranes for construction work as defined in ISO 4306-3, and gives specific requirements and values for factors to be used at the structural calculation.

Tower cranes for construction work are exclusively equipped with a hook as the load-handling device.

For tower cranes intended to be used for other purposes and/or with other load-handling devices, other values can be necessary according to the tower crane usage specification.


Water quality — Gross alpha activity — Test method using thick source

Qualité de l'eau — Activité alpha globale — Méthode d'essai par source épaisse

ISO 9696:2017 specifies a method for the determination of gross alpha activity in non-saline waters for alpha-emitting radionuclides which are not volatile up to 350 °C.

The method is applicable to raw and potable waters.

The range of application depends on the amount of total soluble salts in the water and on the performance characteristics (background count rate and counting efficiency) of the counter.

It is the laboratory's responsibility to ensure the suitability of this method for the water samples tested.


Health informatics — Information models — Biomedical Research Integrated Domain Group (BRIDG) Model

Informatique de santé — Modèle d'information — Modèle de groupe de domaine intégré de recherche biomédicale (BRIDG)

ISO 14199:2015 defines a set of models collectively referred to as the Biomedical Research Integrated Domain Group (BRIDG) model for use in supporting development of computer software, databases, metadata repositories, and data interchange standards. It supports technology solutions that enable semantic (meaning-based) interoperability within the biomedical/clinical research arena and between research and the healthcare arena. The clinical research semantics are represented as a set of visual diagrams which describe information relationships, definitions, explanations, and examples used in protocol-driven biomedical research. These diagrams are expressed using the iconography and grammar of the Unified Modelling Language (UML), the HL7 Reference Information Model (RIM), and a Web Ontology Language (OWL).

ISO 14199:2015 establishes the links between protocol-driven research and its associated regulatory artefacts including the data, organization, resources, rules, and processes involved in the formal assessment of the utility, impact, or other pharmacological, physiological, or psychological effects of a drug, procedure, process, subject characteristic, or device on a human, animal, or other subject or substance along with all associated regulatory artefacts required for or derived from this effort, including data specifically associated with post-marketing adverse event reporting.


Geographic information — Calibration and validation of remote sensing imagery sensors and data — Part 3: SAR/InSAR

Information géographique — Calibration et validation de capteurs de télédétecion — Partie 3: SAR/InSAR


Geographic information — Calibration and validation of remote sensing imagery sensors and data — Part 4: Space-borne passive microwave radiometers

Information géographique — Calibration et validation de capteurs de télédétection — Partie 4: Radiomètres spatiaux à micro-onde passive

This document defines the calibration of space-borne passive microwave radiometers and the validation of the calibrated information.


Underwater Acoustic Sensor Network Reference Model


Guidance on sample handling for determination of bursting volume and pressure, and testing for freedom from holes for male condom

Mode opératoire de préparation pour les méthodes d’essai d’éclatement et d’essai de résistance au trou des préservatifs de faible épaisseur

This document gives guidance on the procedures for sample preparation for determining bursting volume and pressure and testing male condoms for freedom from holes.


Refrigerated hydrocarbon and non-petroleum based liquefied gaseous fuels — Metering of gas as fuel on LNG carriers during cargo transfer operations

Hydrocarbures réfrigérés et combustibles gazeux liquéfiés à base non pétrolière — Mesurage du gaz comme carburant sur les transporteurs de GNL pendant les opération de transfert de cargaison

ISO 19970:2017 specifies minimum requirements to quantify the boil-off gas (BOG) consumed on liquefied natural gas (LNG) carriers for their own functions, notably for power generation, during cargo transfer operations. BOG in this document refers to the low molecular gas returned from shore tanks to ships' tanks and the gas produced in ships' cargo tanks.

ISO 19970:2017 provides requirements for the metering of BOG and the subsequent calorific value calculations which can be taken into account when the energy transferred during cargo transfer is determined. This document also introduces performance requirements and calibration of the elements included in the BOG measurement system. A flowmeter of any type may be used to measure BOG as long as it meets the performance requirements specified in this document.

ISO 19970:2017, with some modification, can also be applied to the measurement of BOG consumed by LNG carriers at sea.


Space systems — Spacecraft and launch vehicle combined operation plan (COP) at launch site — General format

Systèmes spatiaux — Plan d'opérations combinées (COP) des véhicules spatiaux et des lanceurs sur le site de lancement — Format général

ISO 19971:2018 provides general format for spacecraft and launch vehicle Combined Operation Plan (COP).


Competence requirements for information security testers and evaluators


Geometrical product specifications (GPS) — Geometrical tolerancing — Tolerances of form, orientation, location and run-out

Spécification géométrique des produits (GPS) — Tolérancement géométrique — Tolérancement de forme, orientation, position et battement

ISO 1101:2017 defines the symbol language for geometrical specification of workpieces and the rules for its interpretation.

It provides the foundation for geometrical specification.

The illustrations in this document are intended to illustrate how a specification can be fully indicated with visible annotation (including e.g. TEDs).

NOTE 1       Other International Standards referenced in Clause 2 and in Tables 3 and 4 provide more detailed information on geometrical tolerancing.

NOTE 2       This document gives rules for explicit and direct indications of geometrical specifications. Alternatively, the same specifications can be indicated indirectly in accordance with ISO 16792 by attaching them to a 3D CAD model. In this case, it is possible that some elements of the specification are available through a query function or other interrogation of information on the model instead of being indicated using visible annotation


Heavy commercial vehicles and buses — Emergency braking on a defined path — Test method for trajectory measurements

Véhicules utilitaires lourds et autobus — Freinage d'urgence selon une trajectoire définie — Méthode d'essai pour les mesures de trajectoire


Copper, lead and zinc sulfide concentrates — Determination of cadmium — Part 1: Flame atomic absorption spectrometric method

Concentrés de sulfure de cuivre, de plomb et de zinc — Dosage du cadmium — Partie 1: Spectrométrie d'absorption atomique dans la flamme

This document specifies a flame atomic absorption spectrometric method for the determination of the mass fraction of cadmium in copper, lead and zinc sulfide concentrates as follows:

a)    for copper sulfide concentrates, the method is applicable to the determination of mass fractions of cadmium from 0,01 % to 0,30 %;

b)    for lead sulfide concentrates, the method is applicable to the determination of mass fractions of cadmium from 0,01 % to 0,30 %;

c)    for zinc sulfide concentrates, the method is applicable to the determination of mass fractions of cadmium from 0,05 % to 0,30 %.


Woodworking machines — Safety — Part 7: Surface planing, thickness planing, combined surface/thickness planing machines

Machines à bois — Sécurité — Partie 7: Machines à dégauchir, à raboter et machines combinées à dégauchir/raboter

This document gives the safety requirements and measures for stationary and displaceable

—          surface planing machines, also called jointers,

—          thickness planing machines, also called planers or single surface planers,

—          combined surface/thickness planing machines

with fixed cutterblock position, with an integrated feed in thicknessing mode, with or without demountable power feed device in planing mode and with manual loading and unloading of the work-piece, hereinafter referred to as "machines". The machines are designed to cut solid wood and material with similar physical characteristics to wood.

NOTE 1    For the definitions of stationary and displaceable machines, see ISO 19085‑1:2017, 3.4 and 3.5.

It deals with all significant hazards, hazardous situations and events as listed in Clause 4 relevant to these machines when they are operated, adjusted and maintained as intended and under the conditions foreseen by the manufacturer including reasonably foreseeable misuse. Also, transport, assembly, dismantling, disabling and scrapping phases are taken into account.

NOTE 2    For relevant but not significant hazards, e.g. sharp edges of the machine frame, see ISO 12100.

It is also applicable to surface planing machines and combined surface/thickness planing machines fitted with an optional mortising device, whose hazards have been dealt with.

This document does not apply to:

a)    machines with more than one cutterblock;

b)    machines with mortising unit driven by a separate motor;

c)    machines where the cutterblock is adjustable for depth of cut setting in thicknessing mode;

d)    machines where the conversion from planing to thicknessing mode or vice versa is achieved by mounting or demounting parts/units;

e)    machines where surfacing and thicknessing can be performed on the same section of the cutterblock at the same time;

f)     machines intended for use in potentially explosive atmosphere;

g)    machines manufactured before the date of its publication as an international standard;

h)    displaceable machines with a maximum planing width of ≤330 mm.

NOTE 3    Transportable motor-operated electric tools are dealt with in IEC 62841‑1:2014 and IEC 61029‑2‑3:1993.


Water quality — Toxicity test based on root elongation in floating lettuce seeds


Nanomanufacturing — Material specifications — Part 3-1: Graphene — Blank detail specification

Nanofabrication - Spécifications de matériaux — Partie 3-1: Graphène - Spécification particulière cadre


Road vehicles — Dimethyl ether (DME) and dimethyl ether blends fuel system components

Véhicules routiers — Composants de systèmes de carburant de mélanges éther de diméthyle et diméthyl éther (DME)


Water quality — Toxicity test based on root re-growth in Lemna


Rubber — Determination of precision of test methods

Caoutchouc — Détermination de la fidélité des méthodes d'essai

ISO 19983:2017 provides guidelines and specifies requirements for estimating the precision of rubber test methods by means of interlaboratory test programmes based on the procedures given in ISO 5725 (all parts).


Rubber and rubber products — Determination of biobased content — Part 1: General principles and calculation methods using the formulation of the rubber compound

Élastomères et produits à base d'élastomères — Détermination de la teneur en composés biosourcés — Partie 1: Principes généraux et méthodes de calcul utilisant la formulation du mélange de caoutchouc

ISO 19984-1:2017 specifies the general principles and the calculation methods for the determination of biobased content in rubber and rubber products, including polyurethanes, by using the compound formulation. These calculation methods are based on the mass or the carbon mass of each constituent present in the rubber or rubber product.


Rubber and rubber products — Determination of biobased content — Part 2: Biobased carbon content

Élastomères et produits à base d'élastomères — Détermination de la teneur en composés biosourcés — Partie 2: Teneur en carbone biosourcé

ISO 19984-2:2017 specifies measuring methods for the determination of biobased carbon contents in rubber and rubber products, including polyurethanes. The methods focus on carbon atoms in rubber or rubber products, and determine whether the carbon-containing component is biobased or not judging from the concentration of 14C, radiocarbon isotope.

ISO 19984-2:2017 applies to rubber and rubber products such as raw materials, materials and final products.


Rubber and rubber products — Determination of biobased content — Part 3: Biobased mass content

Élastomères et produits à base d'élastomères — Détermination de la teneur en composés biosourcés — Partie 3: Teneur en masse biosourcée

ISO 19984-3:2017 specifies measuring methods for the determination of the biobased mass contents in rubber and rubber products.

The biobased mass content of rubber materials or final products can be determined by separating the sample into the rubber, the inorganic ingredient (including carbon black) and the solvent extract, each of whose 14C content is determined, and then converting the results to the biobased mass content using the procedure described in this document.

ISO 19984-3:2017 applies to NR, IR, BR, SBR, IIR, BIIR, CIIR and their modified rubbers, as well as to their mixtures.

ISO 19984-3:2017 uses only the accelerator mass spectrometry (AMS) method for the purpose of determination of biobased content.


Safety of amusement rides — Methods of measuring accelerations acting on passengers of amusement rides


Plastics piping systems — Glass-reinforced thermosetting plastics (GRP) pipes — Test methods for the determination of the initial longitudinal tensile strength

Systèmes de canalisations en plastiques — Tubes en plastiques thermodurcissables renforcés de verre (PRV) — Méthodes d'essai pour la détermination de la force en traction longitudinale

ISO 8513:2016 specifies two test methods for determining the longitudinal tensile properties of glass-reinforced thermosetting plastics (GRP) pipes. The properties which can be determined are

-      the longitudinal tensile strength, and

-      the percentage ultimate elongation.

Method A uses, for the test piece(s), a longitudinal strip cut from a pipe.

Method B uses a specified length of the full cross-section of the pipe.

Method A is applicable to pipes with a nominal size of DN 50 or greater with circumferentially wound filaments, with or without chopped glass and/or woven rovings and/or fillers, and to centrifugally cast pipes. It is applicable to pipes with helically wound filaments with a nominal size of DN 200 or greater.

Method B is applicable to all types of GRP pipe. It is usually used for pipes with a nominal size up to and including DN 150.

Results from one method are not necessarily equal to the results derived from any of the alternative methods. However, all methods have equal validity.

Annex A describes additional considerations for method B that have been found useful for the testing of thin-walled helically wound pipes and can be used to supplement the basic text.

NOTE          This International Standard does not address the determination of longitudinal tensile modulus. Due to the multi-layer construction of many GRP pipes, the accurate measurement of strain, necessary for modulus determination, can be very difficult. If it is desired to determine longitudinal modulus, see ISO 527‑4 and/or ISO 527‑5.


Information technology — Universal Coded Character Set (UCS) — Amendment 2: Bhaiksuki, Marchen, Tangut and other characters

Technologies de l'information — Jeu universel de caractères codés (JUC) — Amendement 2: Bhaiksuki, Marchen, Tangut et autres caractères


Lasers and laser-related equipment — Test method for angle resolved scattering

Lasers et équipements associés aux lasers — Méthodes d’essai pour déterminer la dispersion avec résolution angulaire

This document describes procedures for the determination of the angle resolved scattering by optical components such as coated or uncoated optical elements, photonic structures, and materials that can be transparent, translucent, or opaque. It comprises scattering into the scattering sphere around the specimen usually separated into the backward and forward hemispheres. The procedures apply to wavelengths of radiation ranging from 5 nm in the extreme ultraviolet to 15 µm in the infrared spectral ranges.


Cutting tool data representation and exchange — Part 71: Graphical data layout — Creation of documents for standardized data exchange: Graphical product information

Représentation et échange des données relatives aux outils coupants — Partie 71: Format des données graphiques — Création de documents pour l'échange de données normalisées: Informations graphiques des produits

ISO/TS 13399-71:2016 determines the elements to be used for the creation of 2D documentation. The individual parts of documentation are drawing content, geometrical data, drawing frame and drawing header data as shown in Figure 1.

The standardization of drawing formats, e.g. drawing frame, structure of the bill of material, are out of the scope of ISO/TS 13399-71:2016. Furthermore, it is intended to standardize the data exchange of the product documentation.

It specifies a common way for the basic principles for the creation of product documentation that contain the following:

-      definitions and identifications of the elements of a product documentation;

-      definitions and identifications of the internal structure of the product documentation;

-      definitions and identifications of those elements and features that are necessary to show the protection notices and the copyrights of the originator of the document.

The following are outside the scope of  ISO/TS 13399-71:2016:

-      layer settings as defined in ISO/TS 13399‑70;

-      structure of the data exchange file using extensible mark-up language (XML);

-      applications where these standard data may be stored or referenced;

-      concept of the classification of cutting tool data and their properties;

-      concept of the design of 2D drawings for cutting tools;

-      concept of the design of 3D models for cutting tools;

-      application data for the use of those cutting tools;

-      information about the reconditioning of cutting tools;

-      information about additional application and usage data (e.g. coolant supply).


Cutting tool data representation and exchange — Part 72: Creation of documents for the standardized data exchange — Definition of properties for drawing header and their XML-data exchange

Représentation et échange des données relatives aux outils coupants — Partie 72: Création de documents pour l'échange de données normalisées — Définition des propriétés pour les dessins d'en-tête et leur échange de données en XML

ISO/TS 13399-72:2016 defines the necessary text elements of a drawing frame and determines a standardized data exchange format. Therefore, the effort is reduced for the maintenance of documentation because the content of a drawing header is mated into a specific drawing frame by means of using XML technology and an individual mapping table. The benefit of this concept for manufacturer/supplier and end user is the advantage of a central maintenance of the appropriate templates.

It covers the following:

-      identification and definition of the data fields;

-      identification and definition of the structure of the data fields;

-      structure of the data exchange file.

The standardization of drawing formats, e.g. drawing frame, structure of the bill of material, are outside the scope of ISO/TS 13399-72:2016 which is rather more intended to standardize the data exchange of the product documentations.

The following are outside the scope of ISO/TS 13399-72:2016;

-      layer settings as defined in ISO/TS 13399‑70;

-      structure of the tool documentation as defined in ISO/TS 13399‑71;

-      applications where these standard data may be stored or referenced;

-      concept of the classification of cutting tool data and their properties;

-      concept of the design of 2D drawings for cutting tools;

-      concept of the design of 3D models for cutting tools;

-      application data for the use of those cutting tools;

-      information about the reconditioning of cutting tools;

-      information about additional application and usage data (e.g. coolant supply).


Furniture — Children's high chairs — Part 1: Safety requirements

Ameublement — Chaises hautes pour enfants — Partie 1: Prescriptions de sécurité

ISO 9221-1:2015 specifies safety requirements for children's high chairs intended for children from 6 months to 36 months of age.

If the product can be converted into a product for which an ISO safety standard exists, it is intended that the product also fulfil the requirements of that International Standard.


Information technology — EPC Information services — Specification

Technologies de l'information — Services d'information sur les codes de produit électronique — Spécification

ISO/IEC 19987:2015 is a GS1 Standard that defines Version 1.1 of EPC Information Services (EPCIS). The goal of EPCIS is to enable disparate applications to create and share visibility event data, both within and across enterprises. Ultimately, this sharing is aimed at enabling users to gain a shared view of physical or digital objects within a relevant business context.

"Objects" in the context of EPCIS typically refers to physical objects that are identified either at a class or instance level and which are handled in physical handling steps of an overall business process involving one or more organizations. Examples of such physical objects include trade items (products), logistic units, returnable assets, fixed assets, physical documents, etc. "Objects" may also refer to digital objects, also identified at either a class or instance level, which participate in comparable business process steps. Examples of such digital objects include digital trade items (music downloads, electronic books, etc.), digital documents (electronic coupons, etc), and so forth. Throughout this document the word "object" is used to denote a physical or digital object, identified at a class or instance level, that is the subject of a business process step. EPCIS data consist of "visibility events," each of which is the record of the completion of a specific business process step acting upon one or more objects.

The EPCIS standard was originally conceived as part of a broader effort to enhance collaboration between trading partners by sharing of detailed information about physical or digital objects. The name EPCIS reflects the origins of this effort in the development of the Electronic Product Code (EPC). It should be noted, however, that EPCIS does not require the use of Electronic Product Codes, nor of Radio-Frequency Identification (RFID) data carriers, and as of EPCIS 1.1 does not even require instance-level identification (for which the Electronic Product Code was originally designed). The EPCIS standard applies to all situations in which visibility event data is to be captured and shared, and the presence of "EPC" within the name is of historical significance only.

EPCIS provides open, standardised interfaces that allow for seamless integration of well-defined services in inter-company environments as well as within companies. Standard interfaces are defined in the EPCIS standard to enable visibility event data to be captured and queried using a defined set of service operations and associated data standards, all combined with appropriate security mechanisms that satisfy the needs of user companies. In many or most cases, this will involve the use of one or more persistent databases of visibility event data, though elements of the Services approach could be used for direct application-to-application sharing without persistent databases.

With or without persistent databases, the EPCIS specification specifies only a standard data sharing interface between applications that capture visibility event data and those that need access to it. It does not specify how the service operations or databases themselves should be implemented. This includes not defining how the EPCIS services should acquire and/or compute the data they need, except to the extent the data is captured using the standard EPCIS capture operations. The interfaces are needed for interoperability, while the implementations allow for competition among those providing the technology and implementing the standard.

EPCIS is intended to be used in conjunction with the GS1 Core Business Vocabulary (CBV) standard [CBV1.1]. The CBV standard provides definitions of data values that may be used to populate the data structures defined in the EPCIS standard. The use of the standardized vocabulary provided by the CBV standard is critical to interoperability and critical to provide for querying of data by reducing the variation in how different businesses express common intent. Therefore, applications should use the CBV standard to the greatest extent possible in constructing EPCIS data.


Information technology — GS1 Core Business Vocabulary (CBV)

Technologies de l'information — Vocabulaire relatif aux activités de base GS1

ISO/IEC 19988:2015 This GS1 Standard defines the Core Business Vocabulary (CBV).  The goal of this standard is to specify various vocabulary elements and their values for use in conjunction with the EPCIS standard [EPCIS1.1], which defines mechanisms to exchange information both within and across organization boundaries.  The vocabulary identifiers and definitions in this standard will ensure that all parties who exchange EPCIS data using the Core Business Vocabulary will have a common understanding of the semantic meaning of that data.

ISO/IEC 19988:2015 is intended to provide a basic capability that meets the above goal.  In particular, this standard is designed to define vocabularies that are core to the EPCIS abstract data model and are applicable to a broad set of business scenarios common to many industries that have a desire or requirement to share data.  This standard intends to provide a useful set of values and definitions that can be consistently understood by each party in the supply chain.

Additional end user requirements may be addressed by augmenting the vocabulary elements herein with additional vocabulary elements defined for a particular industry or a set of users or a single user. Additional values for the standard vocabulary types defined in this standard may be included in follow-on versions of this standard.


Furniture — Children's high chairs — Part 2: Test methods

Ameublement — Chaises hautes pour enfants — Partie 2: Méthodes d'essai

ISO 9221-2:2015 specifies test methods for the assessment of the requirements of children's high chairs.


Information technology — Future Network — Problem statement and requirements — Part 8: Quality of Service

Technologies de l'information — Réseaux du futur — Énoncé du problème et exigences — Partie 8: Qualité de service

ISO/IEC TR 29181-8:2017 describes the problem statements of current networks and the requirements for Future Network (FN) in the Quality of Service (QoS) perspective. This document mainly specifies:

-      problems of the current networks for QoS;

-      requirements for QoS support in Future Network.


Information technology — Future Network — Problem statement and requirements — Part 9: Networking of everything

Technologies de l'information — Réseaux du futur — Énoncé du problème et exigences — Partie 9: Réseautique universelle

ISO/IEC TR 29189-9:2017 describes the general characteristics of Networking of Everything (NoE), which can be applied to Future Networks, especially from an Internet of Things (IoT) perspective. This document specifies:

-      a conceptual model of NoE and its definition;

-      problem statements in conventional networking;

-      standardization activities of other standards-development organizations;

-      requirements for NoE from an IoT perspective;

-      technical aspects.

NOTE:         Since networking issues are an integral part of IoT and Future Networks, while standards of IoT or Future Networks are under development in other standards-development organizations, this document focuses on networking issues to integrate diverse networking techniques to provide users' service and/or things requirement.


Information technology — Security techniques — Criteria and methodology for security evaluation of biometric systems

Technologies de l'information — Techniques de sécurité — Critères et méthodologie pour l'évaluation de la sécurité des systèmes biométriques


Collection of graphical symbols for office equipment

Collection de symboles graphiques pour matériel de bureau


Information technology — Security techniques — Information security management systems — Requirements — Technical Corrigendum 1

Technologies de l'information — Techniques de sécurité — Systèmes de management de la sécurité de l'information — Exigences — Rectificatif technique 1


Information technology — Security techniques — Code of practice for information security controls — Technical Corrigendum 1

Technologies de l'information — Techniques de sécurité — Code de bonne pratique pour le management de la sécurité de l'information — Rectificatif technique 1


Information technology — Open systems interconnection

Technologies de l'information — Interconnexion de systèmes ouverts (OSI)


Respiratory protective devices — Performance requirements — Part 4: Special Application CBRN Devices

Appareils de protection respiratoire — Exigences de performances — Partie 4: Appareils d’application spéciale NRBC


Information technology — JPEG 2000 image coding system: Extensions — Part 2:

Technologies de l'information — Système de codage d'images JPEG 2000: Extensions — Partie 2:


Safety of toys — Part 6: Certain phthalate esters in toys and children's products — Amendment 1

Sécurité des jouets — Partie 6: Jouets et produits pour enfants — Dosage de certains phtalates d'esters dans les jouets et produits pour enfants — Amendement 1


Safety of toys — Part 1: Safety aspects related to mechanical and physical properties — Amendment 2: Various

Sécurité des jouets — Partie 1: Aspects de sécurité relatifs aux propriétés mécaniques et physiques — Amendement 2: .


Environmental conscious design (ECD) — Principles, requirements and guidance

Écoconception (ECD) — Principes, exigences et recommandations


Transfusion equipment for medical use — Part 3: Blood-taking sets for single use

Matériel de transfusion à usage médical — Partie 3: Appareils non réutilisables pour prélèvement sanguin

ISO 1135-3:2016 specifies requirements for types of blood-taking sets for medical use in order to ensure functional interchangeability of transfusion equipment. It is applicable to sterilized blood-taking sets intended for single use only.

ISO 1135-3:2016 also aims to provide

a)   specifications relating to the quality and performance of materials used in transfusion equipment, and

b)   a unified presentation of terms for such equipment.

In some countries, the national pharmacopoeia or other national regulations are legally binding and take precedence over ISO 1135-3:2016.


Dried mint (spearmint) (Mentha spicata Linnaeus syn. Mentha viridis Linnaeus) — Specification — Amendment 1

Menthe verte ou menthe douce (Mentha spicata Linnaeus syn. Mentha viridis Linnaeus) séchée — Spécifications — Amendement 1


Spices, condiments and herbs — Determination of volatile oil content (hydrodistillation method) — Amendment 1

Épices, aromates et herbes — Détermination de la teneur en huiles essentielles (méthode par hydrodistillation) — Amendement 1


Implants for surgery — Cleanliness of orthopedic implants — General requirements

Implants chirurgicaux — Propreté des implants orthopédiques — Exigences générales

ISO 19227:2018 specifies requirements for the cleanliness of orthopaedic implants, hereafter referred to as implants, and test methods for the cleaning process validation and controls, which are based on a risk management process.

ISO 19227:2018 does not specify requirements for packaging or sterilization which are covered by other International Standards.

ISO 19227:2018 applies to in-process cleaning and final cleaning.

ISO 19227:2018 does not apply to liquid or gaseous implants.

ISO 19227:2018 does not apply to cleaning processes performed by the user or under the responsibility of the user.


Implants for surgery — Validation of metallic and hydroxyapatite plasma spray coating processes


Information technology — Open Systems Interconnection — The Directory — Part 2: Models

Technologies de l'information — Interconnexion de systèmes ouverts (OSI) — L'annuaire — Partie 2: Les modèles


Information technology — Open Systems Interconnection — The Directory — Part 3: Abstract service definition

Technologies de l'information — Interconnexion de systèmes ouverts (OSI) — L'annuaire — Partie 3: Définition du service abstrait


Information technology — Open Systems Interconnection — The Directory — Part 4: Procedures for distributed operation

Technologies de l'information — Interconnexion de systèmes ouverts (OSI) — L'annuaire — Partie 4: Procédures pour le fonctionnement réparti


Information technology — Open Systems Interconnection — The Directory — Part 5: Protocol specifications

Technologies de l'information — Interconnexion de systèmes ouverts (OSI) — L'annuaire — Partie 5: Spécifications du protocole


Information technology — Open Systems Interconnection — The Directory — Part 6: Selected attribute types

Technologies de l'information — Interconnexion de systèmes ouverts (OSI) — L'annuaire — Partie 6: Types d'attributs sélectionnés


Information technology — Open Systems Interconnection — The Directory — Part 7: Selected object classes

Technologies de l'information — Interconnexion de systèmes ouverts (OSI) — L'annuaire — Partie 7: Classes d'objets sélectionnées


Information technology — Open Systems Interconnection — The Directory — Part 8: Public-key and attribute certificate frameworks

Technologies de l'information — Interconnexion de systèmes ouverts (OSI) — L'annuaire — Partie 8: Cadre général des certificats de clé publique et d'attribut


Information technology — Open Systems Interconnection — The Directory — Part 9: Replication

Technologies de l'information — Interconnexion de systèmes ouverts (OSI) — L'annuaire — Partie 9: Duplication


Plastics — Polyethylene (PE) moulding and extrusion materials — Part 2: Preparation of test specimens and determination of properties

Plastiques — Polyéthylène (PE) pour moulage et extrusion — Partie 2: Préparation des éprouvettes et détermination des propriétés

ISO 17855-2:2016 specifies the methods of preparation of test specimens and the test methods to be used in determining the properties of polyethylene (PE) moulding and extrusion materials. Requirements for handling test material and for conditioning both the test material before moulding and the specimens before testing are given.

Procedures and conditions for the preparation of test specimens and procedures for measuring properties of the materials from which these specimens are made are also given. Properties and test methods that are suitable and necessary to characterize PE moulding and extrusion materials are listed.

The properties have been selected from the general test methods in ISO 10350‑1. Other test methods in wide use for or of particular significance to these moulding and extrusion materials are also included in this part of ISO 17855, as are the designatory properties specified in ISO 17855‑1.

In order to obtain reproducible and comparable test results, it is necessary to use the methods of preparation and conditioning, the specimen dimensions and the test procedures specified herein. Values determined will not necessarily be identical to those obtained using specimens of different dimensions or prepared using different procedures.


Plastics — Polypropylene (PP) moulding and extrusion materials — Part 2: Preparation of test specimens and determination of properties

Plastiques — Polypropylène (PP) pour moulage et extrusion — Partie 2: Préparation des éprouvettes et détermination des propriétés

ISO 19069-2:2016 specifies the methods of preparation of test specimens and the test methods to be used in determining the properties of polypropylene (PP) moulding and extrusion materials. Requirements for handling test material and for conditioning both the test material before moulding and the specimens before testing are given.

Procedures and conditions for the preparation of test specimens and procedures for measuring properties of the materials from which these specimens are made are also given. Properties and test methods which are suitable and necessary to characterize PP moulding and extrusion materials are listed.

The properties have been selected from the general test methods in ISO 10350‑1. Other test methods in wide use for, or of particular significance to, these moulding and extrusion materials are also included in this part of ISO 19069, as are the designatory properties specified in ISO 19069‑1.

In order to obtain reproducible and comparable test results, it is necessary to use the methods of preparation and conditioning, the specimen dimensions and the test procedures specified herein. Values determined will not necessarily be identical to those obtained using specimens of different dimensions or prepared using different procedures.


Road vehicles — Component test methods for electrical disturbances from narrowband radiated electromagnetic energy — Part 3: Transverse electromagnetic (TEM) cell

Véhicules routiers — Méthodes d'essai d'un équipement soumis à des perturbations électriques par rayonnement d'énergie électromagnétique en bande étroite — Partie 3: Cellule électromagnétique transverse (TEM)

ISO 11452-3:2016 specifies transverse electromagnetic (TEM) cell tests for determining the immunity of electronic components of passenger cars and commercial vehicles to electrical disturbances from narrowband radiated electromagnetic energy, regardless of the vehicle propulsion system (e.g. spark-ignition engine, diesel engine, electric motor).

The electromagnetic disturbances considered are limited to continuous narrowband electromagnetic fields.


Information technology — Multimedia content description interface — Part 5: Multimedia description schemes — Amendment 5: Quality metadata, multiple text encodings, extended classification metadata

Technologies de l'information — Interface de description du contenu multimédia — Partie 5: Schémas de description multimédia — Amendement 5: Métadonnées de qualité, encodages de texte multiples, métadonnées de classification étendues


Geometrical product specifications (GPS) — Geometrical tolerancing — Datums and datum systems

Spécification géométrique des produits (GPS) — Tolérancement géométrique — Références spécifiées et systèmes de références spécifiées


Animal feeding stuffs — Determination of ash insoluble in hydrochloric acid — Amendment 1

Aliments des animaux — Dosage des cendres insolubles dans l'acide chlorhydrique — Amendement 1


Sludge recovery, recycling, treatment and disposal — Thickening and dewatering

Valorisation, recyclage, traitement et élimination des boues — Épaissisement et déshydratation


Office furniture — Office chairs — Methods for the determination of dimensions

Mobilier de bureau — Sièges de travail pour bureau — Méthodes pour déterminer les dimensions

ISO 24496:2017 specifies methods for the determination of the dimensions of office chairs.

ISO 24496:2017 does not contain dimensional specifications or requirements.


Graphical symbols — Safety colours and safety signs — Part 2: Design principles for product safety labels

Symboles graphiques — Couleurs de sécurité et signaux de sécurité — Partie 2: Principes de conception pour l'étiquetage de sécurité des produits

ISO 3864-2:2016 establishes additional principles to ISO 3864‑1 for the design of safety labels for products, i.e. any items manufactured and offered for sale in the normal course of commerce, including but not limited to consumer products and industrial equipment. The purpose of a product safety label is to alert persons to a specific hazard and to identify how the hazard can be avoided.

ISO 3864-2:2016 is applicable to all products in all industries where safety-related questions can be posed. However, it is not applicable to safety labels used

-      for chemicals,

-      for the transport of dangerous substances and preparations and

-      in those sectors subject to legal regulations which differ from certain provisions of this document.

The design principles incorporated in this document are intended to be used by all ISO Technical Committees and anyone designing product safety labels in the development of product safety label standards for their industries or services.


Graphical symbols — Safety signs — Safety way guidance systems (SWGS)

Symboles graphiques — Signaux de sécurité — Systèmes de guidage pour cheminement d'évacuation de sécurité

ISO 16069:2017 describes the principles governing the design and application of visual components used to create a safety way guidance system (SWGS).

ISO 16069:2017 contains general principles valid both for electrically powered and for phosphorescent components. Special information which is related to the type of component is given to assist in defining the environment of use, choice of material, layout, installation and maintenance of SWGS.

ISO 16069:2017 does not cover risk assessment. Applications with different risks to the occupants typically require different layouts and types of SWGS. The specific application and exact final design of SWGS is entrusted to those persons responsible for this task.

ISO 16069:2017 also does not include the special considerations of possible tactile or audible components of SWGS, nor does it include requirements for high mounted components of the emergency escape route lighting, especially the design and application of emergency escape route lighting.

ISO 16069:2017 is intended, by collaboration and coordination, to be used by all other Technical Committees within ISO and IEC charged with developing SWGS for their specific requirements. ISO 16069:2017 is not to be used for ships falling under regulations of the International Maritime Organization (IMO).


Determination of particle density by sedimentation methods — Part 2: Multi-velocity approach

Détermination de la densité de particules par méthodes de sédimentation — Partie 2: Approche à multi vitesses

This document specifies an in situ method for the determination of the density of solid particles or liquid droplets (herein referred to as "particle") dispersed in liquid continuous phase. The method is based on direct experimental determination of particle velocity in these liquids or media in gravitational or centrifugal fields based on Stokes law. The particle density is calculated from experimentally determined particle velocities in different liquids or media, taking into account their dynamic viscosities and densities, respectively. The approach does not require the knowledge of particle size distribution but assumes that sedimentation relevant characteristics (e.g. volume, shape, agglomeration state) do not change. This document does not consider polydispersity with regard to particle density, i.e. all particles are assumed to be of the same material composition.


Geotechnical investigation and testing — Testing of geotechnical structures — Part 5: Testing of grouted anchors

Reconnaissance et essais géotechniques — Essais des structures géotechniques — Partie 5: Essais de tirants d'ancrage

This document establishes specifications for the execution of tension tests to be carried out on an anchor grouted in the ground, as defined in EN 1997-1 and EN 1537. Three methods of testing are recognized by this document. Test Method 1 involves cyclic tension loading with measurement of displacement at the load stages; Test Method 2 involves cyclic tension loading with measurement of load loss at the load stages; and Test Method 3 involves step-loading with measurement of displacement under successive maintained tension loads.

This document provides specifications for the experimental devices, the measurement apparatus, the test procedures, the definition and presentation of the test results and the content of records.

NOTE       This document does not provide specification for the size of the proof load and the limiting criteria. These aspects reside in EN 1997-1 or its national annex for CEN countries and in similar national application documents for this test standard for ISO countries.


Charge conditioning of aerosol particles by diffusion charging


Guidelines for zeta-potential measurement

Lignes directrices pour la détermination du potentiel zêta


Safety of toys — Part 1: Safety aspects related to mechanical and physical properties — Amendment 3: Amendment for jaw entrapment to ISO 8124-1

Sécurité des jouets — Partie 1: Aspects de sécurité relatifs aux propriétés mécaniques et physiques — Amendement 3: .


Industrial trucks — Overhead guards — Specification and testing

Chariots de manutention — Protège-conducteurs — Spécifications et essais


Earth-moving machinery — Dumpers — Terminology and commercial specifications — Amendment 1

Engins de terrassement — Tombereaux — Terminologie et spécifications commerciales — Amendement 1


Machine tools — Test conditions for external cylindrical centreless grinding machines — Testing of the accuracy

Machines-outils — Conditions d'essai des machines à rectifier les surfaces extérieures sans centre — Contrôle de l'exactitude


Geographic information — Imagery sensor models for geopositioning — Part 1: Fundamentals

Information géographique — Modèles de capteurs d'images et géopositionnement — Partie 1: Principes de base

This document identifies the information required to determine the relationship between the position of a remotely sensed pixel in image coordinates and its geoposition. It supports exploitation of remotely sensed images. It defines the metadata to be distributed with the image to enable user determination of geographic position from the observations.

This document specifies several ways in which information in support of geopositioning can be provided.

a)    It may be provided as a sensor description with the associated physical and geometric information necessary to rigorously construct a PSM. For the case where precise geoposition information is needed, this document identifies the mathematical equations for rigorously constructing PSMs that relate 2D image space to 3D ground space and the calculation of the associated propagated errors. This document provides detailed information for three types of passive electro-optical/ IR sensors (frame, pushbroom and whiskbroom) and for an active microwave sensing system SAR. It provides a framework by which these sensor models can be extended to other sensor types.

b)    It can be provided as a TRM, using functions whose coefficients are based on a PSM so that they provide information for precise geopositioning, including the calculation of errors, as precisely as the PSM they replace.

c)    It can be provided as a CM that provides a functional fitting based on observed relationships between the geopositions of a set of GCPs and their image coordinates.

d)    It can be provided as a set of GCPs that can be used to develop a CM or to refine a PSM or TRM.

This document does not specify either how users derive geoposition data or the format or content of the data the users generate.


Spherical plain bearings — Method for the calculation of static and dynamic load ratings

Rotules lisses — Méthode de calcul des charges statiques et dynamiques de base

ISO 20015:2017 specifies methods of calculating the static load rating and the dynamic load rating for spherical plain bearings within the size ranges shown in ISO 12240-1, ISO 12240-2 and ISO 12240-3.

Rod ends according to ISO 12240-4 are excluded.


Lifts (elevators), escalators and moving walks — Programmable electronic systems in safety related applications — Part 3: Life cycle guideline for programmable electronic systems related to PESSRAL and PESSRAE

Ascenseurs, escaliers mécaniques et trottoirs roulants — Conception et mise au point des systèmes électroniques programmables dans les applications liées à la sécurité — Partie 3: Lignes directrices pour le cycle de vie des systèmes électroniques programmables liés à PESSRAL et PESSRAE

ISO/TR 22201-3:2016 provides additional information and process for the development of the instruction manual required by ISO 22201‑1 (PESSRAL) and ISO 22201‑2 (PESSRAE) for programmable electronic systems for use by competent maintenance person(s) that carry out maintenance operations.


Surgical instruments — Materials — Part 1: Metals

Instruments chirurgicaux — Matériaux — Partie 1: Métaux

ISO 7153-1:2016 specifies metals commonly used to manufacture various types of standard surgical instruments, including but not limited to those used in general surgery, orthopaedics and dentistry.

While ISO 7153-1:2016 is not intended for surgical instruments used in special applications, such as implantology and minimally invasive surgery, parts of it might be applicable to those instruments.


Intelligent transport systems — Cooperative ITS — Development and validation of test suites for CEN ISO/TS 17429, 19091 and 19321


Solid biofuels — Safety of solid biofuel pellets — Safe handling and storage of wood pellets in residential and other small-scale applications

Biocombustibles solides — Sécurité des granulés de biocombustible solide — Manutention et stockage en toute sécurité des granulés de bois dans des applications résidentielles et autres applications à petite échelle

This document provides principles and requirements for the safe handling and storage of wood pellets in residential and other small-scale applications. It covers the supply chain from loading of the delivery truck, requirements of delivery trucks, connections to the end-user's store and the delivery process. It also covers the design and construction of pellet storage systems. This document addresses risks of fires, dust explosions, off-gassing, oxygen depletion, damage to appliances and buildings through swelling of pellets and other health risks. It is applicable to wood pellets according to ISO 17225-2.


Solid biofuels — Safe handling and storage of solid biofuel pellets in commercial and industrial applications — Part 1: General


Equipment for harvesting and conservation — Round balers — Terminology and commercial specifications — Amendment 1

Matériel de récolte et de conservation — Presses à balles rondes — Terminologie et spécifications commerciales — Amendement 1


Paper, board and pulps — General requirements for the competence of laboratories authorized for the issue of optical reference transfer standards of level 3

Papiers, cartons et pâtes — Exigences générales concernant la compétence des laboratoires autorisés pour la délivrance des étalons de référence de transfert optique de niveau 3

ISO 4094:2017 provides both general requirements and specific requirements (Annex A) for laboratories seeking to become "Authorized Laboratories (ALs)" and to maintain their Authorized Laboratory status for the issue of optical reference transfer standards of level 3. This document follows the requirements and adopts the format of ISO/IEC 17025, with the aims of:

a)    establishing and maintaining international optical reference transfer standards of level 2 (IR2) traceable to an international optical reference primary standard of level 1 (IR1) maintained by a standardizing laboratory;

b)    distributing traceability required to achieve inter-laboratory agreement in the results of test methods specified in International Standards for optical properties of paper, board or pulp;

c)    participating in the design and development of new methods and international harmonization of procedures.

When a laboratory does not undertake one or more of the activities covered by this document, such as sampling and the design/development of new methods, the requirements of those clauses do not apply.

ISO 4094:2017 is for use by specified laboratories authorized to issue optical reference transfer standards in developing their management system for quality, administrative and technical operations. Laboratory customers, regulatory authorities and accreditation bodies can also use it in confirming or recognizing the competence of laboratories.

NOTE       It might be necessary to explain or interpret certain requirements in this document to ensure that the requirements are applied in a consistent manner. Guidance for consistent application can be obtained from Technical Committee ISO/TC 6.


Document management — Electronically stored information — Recommendations for trustworthiness and reliability

Gestion de document — Information stockée électroniquement — Recommandations pour contribuer à l'intégrité et à la fiabilité des informations stockées

ISO/TR 15801:2017 describes the implementation and operation of information management systems that store and make available for use electronically stored information (ESI) in a trustworthy and reliable manner. Such ESI can be of any type, including "page based" information, information in databases and audio/video information.

ISO/TR 15801:2017 is for use by any organization that uses systems to store trustworthy ESI over time. Such systems incorporate policies, procedures, technology and audit requirements that ensure that trustworthiness of the ESI is maintained.

ISO/TR 15801:2017 does not cover processes used to evaluate whether ESI can be considered to be trustworthy prior to it being stored or imported into the system. However, it can be used to demonstrate that, once the electronic information is stored, output from the system will be a true and accurate reproduction of the ESI created and/or imported.


Lifts (elevators), escalators and moving walks — Programmable electronic systems in safety related applications — Part 2: Escalators and moving walks (PESSRAE)

Ascenseurs, escaliers mécaniques et trottoirs roulants — Systèmes électroniques programmables dans les applications liées à la sécurité — Partie 2: Escaliers mécaniques et trottoirs roulants (PESSRAE)


Garden equipment — Safety requirements for combustion-engine-powered lawnmowers — Part 3: Ride-on lawnmowers with seated operator — Amendment 3

Matériel de jardinage — Exigences de sécurité pour les tondeuses à gazon à moteur à combustion interne — Partie 3: Tondeuses à gazon à conducteur assis — Amendement 3


Intelligent transport systems — Cooperative ITS — Representative probe data use cases and related gaps in existing probe data standards


Intelligent transport systems — Cooperative ITS — Test architecture

Systèmes intelligents de transport — SIT coopératifs — Architecture d'essai


Pesticides and other agrochemicals — Common names — Amendment 6: Meptyldinocap

Produits phytosanitaires et assimilés — Noms communs — Amendement 6: Méptyldinocap


Biometrics interoperability profiles — Best practices for slap tenprint captures

Profils biométriques interopérables — Recommandations pour les captures de 10 doigts à plat

ISO/IEC TS 20027:2015 is to give guidelines to follow during the acquisition process of slap tenprints in order to obtain fingerprints with the best quality possible within acceptable time constraints.

Non-cooperative users are out of the scope of this Technical Specification.

When using ten-fingerprint sensors, it is fundamental to know how to use them and how to proceed during the acquisition. This Technical Specification describes how to capture fingerprints correctly by specifying best practices for slap tenprint captures.

It gives guidance on the following topics:

1)    recommendations on the hardware of the fingerprint sensor and its deployment;

2)    recommendations on user guidance;

3)    recommendations on the enrolment process including a sample workflow;

4)    recommendations for developers and system integrators on application software;

5)    recommendations on processing, compression and coding of the acquired fingerprint images;

6)    recommendations on operational issues and data logging;

7)    recommendations on the evaluation of a solution and its components.

Although this Technical Specification primarily focuses on reaching optimal data quality for enrolment purposes, the recommendations given here are applicable for other purposes. All processes which rely on good quality tenprint slaps can take advantage of the best practices reported here.


Safety of toys — Part 1: Safety aspects related to mechanical and physical properties — Amendment 1: Cords

Sécurité des jouets — Partie 1: Aspects de sécurité relatifs aux propriétés mécaniques et physiques — Amendement 1: Cordages


Plastics — Thermoplastic polyester (TP) moulding and extrusion materials — Part 1: Designation system and basis for specifications

Plastiques — Matériaux polyesters thermoplastiques (TP) pour moulage et extrusion — Partie 1: Système de désignation et base de spécification

ISO 20028-1:2017 establishes a system of designation for thermoplastic polyester (TP) material, which can be used as the basis for specifications. It covers polyester homopolymers for moulding and extrusion based on poly(ethylene terephthalate) (PET), poly(butylene terephthalate) (PBT), poly(cyclohexylenedimethylene terephthalate) (PCT), poly(ethylene naphthalate) (PEN), poly(butylene naphthalates) (PBN) and other TP-types and copolyesters of various compositions for moulding and extrusion.

The types of thermoplastic polyester are differentiated from each other by a classification system based on appropriate levels of the designatory properties:

a)    viscosity number;

b)    tensile modulus of elasticity;

and on information about the intended application and/or method of processing, important properties, additives, colorants, fillers and reinforcing materials.

This designation system is applicable to thermoplastic polyester homopolymers and copolymers. It applies to materials ready for normal use in the form of powder, granules or pellets, unmodified or modified by colorants, fillers and other additives. This document does not apply to the saturated polyester/ester and polyether/ester thermoplastic elastomers covered by ISO 20029.

It is not intended to imply that materials having the same designation give necessarily the same performance. This document does not provide engineering data, performance data or data on processing conditions which can be required to specify a material. If such additional properties are required, they are intended to be determined in accordance with the test methods specified in ISO 20028‑2, if suitable.

In order to designate a thermoplastic polyester material to meet particular specifications, the requirements are to be given in data block 5 (see 4.1).


Plastics — Thermoplastic polyester (TP) moulding and extrusion materials — Part 2: Preparation of test specimens and determination of properties

Plastiques — Matériaux polyesters thermoplastiques (TP) pour moulage et extrusion — Partie 2: Préparation des éprouvettes et détermination des propriétés

ISO 20028-2:2017 specifies the methods of preparation of test specimens and the standard test methods to be used in determining the properties of thermoplastic polyester moulding and extrusion materials. Requirements for handling test material and for conditioning both the test material before moulding and the specimens before testing are given.

Procedures and conditions for the preparation of test specimens in a specified state and procedures for measuring properties of the materials from which these specimens are made are given. Properties and test methods which are suitable and necessary to characterize thermoplastic polyester moulding and extrusion materials are listed.

The properties have been selected from the general test methods in ISO 10350‑1. Other test methods in wide use for or of particular significance to these moulding and extrusion materials are also included in this document, as are the designatory properties specified in ISO 20028-1 (viscosity number and tensile modulus of elasticity).

In order to obtain reproducible and comparable test results, it is necessary to use the methods of specimen preparation and conditioning, the specimen dimensions and the test procedures specified herein. Values determined will not necessarily be identical to those obtained using specimens of different dimensions or prepared using different procedures.


Plastics — Thermoplastic polyester/ester and polyether/ester elastomers for moulding and extrusion — Part 1: Designation system and basis for specification

Plastiques — Élastomères thermoplastiques à base de polyester/ester et polyéther/ester pour moulage et extrusion — Partie 1: Système de désignation et base de spécifications

ISO 20029-1:2017 establishes a system of designation for thermoplastic polyester/ester and polyether/ester elastomers, which may be used as the basis for specifications.

The types of thermoplastic polyester/ester and polyether/ester elastomer are differentiated from each other by a classification system based on appropriate levels of the designatory properties:

a)   hardness;

b)   melting temperature;

c)   tensile/flexural modulus of elasticity;

and on information about the intended application and/or method of processing, important properties, additives, colour, fillers and reinforcing materials.

ISO 20029-1:2017 is applicable to all thermoplastic polyester/ester and polyether/ester elastomers. It applies to materials ready for normal use in the form of powder, granules or pellets, unmodified or modified by colourants, fillers or other additives.

It is not intended to imply that materials having the same designation give necessarily the same performance. This document does not provide engineering data, performance data or data on processing conditions which may be required to specify a material. If such additional properties are required, they are intended to be determined in accordance with the test methods specified in ISO 20029-2, if suitable.

In order to designate a thermoplastic polyester/ester or polyether/ester elastomer to meet particular specifications, the requirements are given in data block 5 (see 4.1).


Plastics — Thermoplastic polyester/ester and polyether/ester elastomers for moulding and extrusion — Part 2: Preparation of test specimens and determination of properties

Plastiques — Élastomères thermoplastiques à base de polyester/ester et polyéther/ester pour moulage et extrusion — Partie 2: Préparation des éprouvettes et détermination des propriétés

ISO 20029-2:2017 specifies the methods of preparation of test specimens and the standard test methods to be used in determining the properties of thermoplastic polyester/ester and polyether/ester elastomer moulding and extrusion materials. Requirements for handling test material and/or conditioning both the test material before moulding and the specimens before testing are given.

Procedures and conditions for the preparation of test specimens in a specified state and procedures for measuring properties of the materials from which these specimens are made are given. Properties and test methods which are suitable and necessary to characterize thermoplastic polyester/ester and polyether/ester moulding and extrusion materials are listed.

The properties have been selected from the general test methods in ISO 10350‑1. Other test methods in wide use for or of particular significance to these moulding and extrusion materials are also included in this document, as are the designatory properties specified in ISO 20029‑1 (hardness, melting temperature and tensile/flexural modulus).

In order to obtain reproducible and comparable test results, it is intended to use the methods of preparation and conditioning, the specimen dimensions and the test procedures specified in this document. Values determined will not necessarily be identical to those obtained using specimens of different dimensions or prepared using different procedures.

ISO 20029-2:2017 has been developed on the basis of ISO 10350‑1, as at the moment, no standard exists for the acquisition and presentation of comparable single-point data for thermoplastic elastomers. After publication of this document and the analogous document for polyurethanes (ISO 16365‑2), it is the intention to develop ISO 10350‑3 for the acquisition and presentation of comparable single-point data for thermoplastic elastomers, based on this document and ISO 16365‑2, as the basis for the development of thermoplastic-elastomer material standards.


Stationary training equipment — Part 4: Strength training benches, additional specific safety requirements and test methods

Équipement d'entraînement fixe — Partie 4: Bancs pour haltères, exigences spécifiques de sécurité et méthodes d'essai supplémentaires

ISO 20957-4:2016 specifies safety requirements for stationary strength training benches and free-standing barbell racks in addition to the general safety requirements of ISO 20957‑1. It is intended to be read in conjunction with ISO 20957‑1.

ISO 20957-4:2016 is applicable to stationary training equipment type benches (type 4) (hereinafter referred to as benches) with the classes S, H and I according to ISO 20957‑1.


Stationary training equipment — Part 8: Steppers, stairclimbers and climbers — Additional specific safety requirements and test methods

Équipement d'entraînement fixe — Partie 8: Monte-escaliers, escalators et simulateurs d'escalade — Exigences spécifiques de sécurité et méthodes d'essai supplémentaires


Radiological protection — X and gamma reference radiation for calibrating dosemeters and doserate meters and for determining their response as a function of photon energy — Part 1: Radiation characteristics and production methods

Radioprotection — Rayonnements X et gamma de référence pour l'étalonnage des dosimètres et des débitmètres, et pour la détermination de leur réponse en fonction de l'énergie des photons — Partie 1: Caractéristiques des rayonnements et méthodes de production

This document specifies the characteristics and production methods of X and gamma reference radiation for calibrating protection-level dosemeters and doserate meters with respect to the phantom related operational quantities of the International Commission on Radiation Units and Measurements (ICRU)[5]. The lowest air kerma rate for which this standard is applicable is 1 µGy h?1. Below this air kerma rate the (natural) background radiation needs special consideration and this is not included in this document.

For the radiation qualities specified in Clauses 4 to 6, sufficient published information is available to specify the requirements for all relevant parameters of the matched or characterized reference fields in order to achieve the targeted overall uncertainty (k = 2) of about 6 % to 10 % for the phantom related operational quantities. The X ray radiation fields described in the informative Annexes A to C are not designated as reference X-radiation fields.

NOTE       The first edition of ISO 4037-1, issued in 1996, included some additional radiation qualities for which such published information is not available. These are fluorescent radiations, the gamma radiation of the radionuclide 241Am, S-Am, and the high energy photon radiations R-Ti and R-Ni, which have been removed from the main part of this document. The most widely used radiations, the fluorescent radiations and the gamma radiation of the radionuclide 241Am, S-Am, are included nearly unchanged in the informative Annexes A and B. The informative Annex C gives additional X radiation fields, which are specified by the quality index.

The methods for producing a group of reference radiations for a particular photon-energy range are described in Clauses 4 to 6, which define the characteristics of these radiations. The three groups of reference radiation are:

a)    in the energy range from about 8 keV to 330 keV, continuous filtered X radiation;

b)    in the energy range 600 keV to 1,3 MeV, gamma radiation emitted by radionuclides;

c)    in the energy range 4 MeV to 9 MeV, photon radiation produced by accelerators.

The reference radiation field most suitable for the intended application can be selected from Table 1, which gives an overview of all reference radiation qualities specified in Clauses 4 to 6. It does not include the radiations specified in the Annexes A, B and C.

The requirements and methods given in Clauses 4 to 6 are targeted at an overall uncertainty (k = 2) of the dose(rate) value of about 6 % to 10 % for the phantom related operational quantities in the reference fields. To achieve this, two production methods are proposed:

The first one is to produce "matched reference fields", whose properties are sufficiently well-characterized so as to allow the use of the conversion coefficients recommended in ISO 4037-3. The existence of only a small difference in the spectral distribution of the "matched reference field" compared to the nominal reference field is validated by procedures, which are given and described in detail in ISO 4037‑2. For matched reference radiation fields, recommended conversion coefficients are given in ISO 4037‑3 only for specified distances between source and dosemeter, e.g., 1,0 m and 2,5 m. For other distances, the user has to decide if these conversion coefficients can be used. If both values are very similar, e.g., differ only by 2 % or less, then a linear interpolation may be used.

The second method is to produce "characterized reference fields". Either this is done by determining the conversion coefficients using spectrometry, or the required value is measured directly using secondary standard dosimeters. This method applies to any radiation quality, for any measuring quantity and, if applicable, for any phantom and angle of radiation incidence. In addition, the requirements on the parameters specifying the reference radiations depend on the definition depth in the phantom, i.e., 0,07 mm, 3 mm and 10 mm, therefore, the requirements are different for the different depths. Thus, a given radiation field can be a "matched reference field" for the depth of 0,07 mm but not for the depth of 10 mm, for which it can then be a "characterized reference field". The conversion coefficients can be determined for any distance, provided the air kerma rate is not below 1 µGy/h.

Both methods need charged particle equilibrium for the reference field. However, this is not always established in the workplace field for which the dosemeter is calibrated. This is especially true at photon energies without inherent charged particle equilibrium at the reference depth d, which depends on the actual combination of energy and reference depth d. Electrons of energies above 65 keV, 0,75 MeV and 2,1 MeV can just penetrate 0,07 mm, 3 mm and 10 mm of ICRU tissue, respectively, and the radiation qualities with photon energies above these values are considered as radiation qualities without inherent charged particle equilibrium for the quantities defined at these depths.

To determine the dose(rate) value and the associated overall uncertainty of it, a calibration of all measuring instruments used for the determination of the quantity value is needed which is traceable to national standards.

This document does not specify pulsed reference radiation fields.


Radiological protection — X and gamma reference radiation for calibrating dosemeters and doserate meters and for determining their response as a function of photon energy — Part 2: Dosimetry for radiation protection over the energy ranges from 8 keV to 1,3 MeV and 4 MeV to 9 MeV

Radioprotection — Rayonnements X et gamma de référence pour l'étalonnage des dosimètres et des débitmètres, et pour la détermination de leur réponse en fonction de l'énergie des photons — Partie 2: Dosimétrie pour la radioprotection dans les gammes d'énergie de 8 keV à 1,3 MeV et de 4 MeV à 9 MeV

This document specifies the procedures for the dosimetry of X and gamma reference radiation for the calibration of radiation protection instruments over the energy range from approximately 8 keV to 1,3 MeV and from 4 MeV to 9 MeV and for air kerma rates above 1 µGy/h. The considered measuring quantities are the air kerma free-in-air, Ka, and the phantom related operational quantities of the International Commission on Radiation Units and Measurements (ICRU)[2], H*(10), Hp(10), H'(3), Hp(3), H'(0,07) and Hp(0,07), together with the respective dose rates. The methods of production are given in ISO 4037-1.

This document can also be used for the radiation qualities specified in ISO 4037-1:2019, Annexes A, B and C, but this does not mean that a calibration certificate for radiation qualities described in these annexes is in conformity with the requirements of ISO 4037.

The requirements and methods given in this document are targeted at an overall uncertainty (k = 2) of the dose(rate) of about 6 % to 10 % for the phantom related operational quantities in the reference fields. To achieve this, two production methods of the reference fields are proposed in ISO 4037-1.

The first is to produce "matched reference fields", which follow the requirements so closely that recommended conversion coefficients can be used. The existence of only a small difference in the spectral distribution of the "matched reference field" compared to the nominal reference field is validated by procedures, which are given and described in detail in this document. For matched reference radiation fields, recommended conversion coefficients are given in ISO 4037-3 only for specified distances between source and dosemeter, e.g., 1,0 m and 2,5 m. For other distances, the user has to decide if these conversion coefficients can be used.

The second method is to produce "characterized reference fields". Either this is done by determining the conversion coefficients using spectrometry, or the required value is measured directly using secondary standard dosimeters. This method applies to any radiation quality, for any measuring quantity and, if applicable, for any phantom and angle of radiation incidence. The conversion coefficients can be determined for any distance, provided the air kerma rate is not below 1 µGy/h.

Both methods require charged particle equilibrium for the reference field. However this is not always established in the workplace field for which the dosemeter shall be calibrated. This is especially true at photon energies without inherent charged particle equilibrium at the reference depth d, which depends on the actual combination of energy and reference depth d. Electrons of energies above 65 keV, 0,75 MeV and 2,1 MeV can just penetrate 0,07 mm, 3 mm and 10 mm of ICRU tissue, respectively, and the radiation qualities with photon energies above these values are considered as radiation qualities without inherent charged particle equilibrium for the quantities defined at these depths.

This document is not applicable for the dosimetry of pulsed reference fields.


Radiological protection — X and gamma reference radiation for calibrating dosemeters and doserate meters and for determining their response as a function of photon energy — Part 3: Calibration of area and personal dosemeters and the measurement of their response as a function of energy and angle of incidence

Radioprotection — Rayonnements X et gamma de référence pour l'étalonnage des dosimètres et des débitmètres et pour la détermination de leur réponse en fonction de l'énergie des photons — Partie 3: Étalonnage des dosimètres de zone et individuels et mesurage de leur réponse en fonction de l'énergie et de l'angle d'incidence

This document specifies additional procedures and data for the calibration of dosemeters and doserate meters used for individual and area monitoring in radiation protection. The general procedure for the calibration and the determination of the response of radiation protection dose(rate)meters is described in ISO 29661 and is followed as far as possible. For this purpose, the photon reference radiation fields with mean energies between 8 keV and 9 MeV, as specified in ISO 4037-1, are used. In Annex D some additional information on reference conditions, required standard test conditions and effects associated with electron ranges are given. For individual monitoring, both whole body and extremity dosemeters are covered and for area monitoring, both portable and installed dose(rate)meters are covered.

Charged particle equilibrium is needed for the reference fields although this is not always established in the workplace fields for which the dosemeter should be calibrated. This is especially true at photon energies without inherent charged particle equilibrium at the reference depth d, which depends on the actual combination of energy and reference depth d. Electrons of energies above 65 keV, 0,75 MeV and 2,1 MeV can just penetrate 0,07 mm, 3 mm and 10 mm of ICRU tissue, respectively, and the radiation qualities with photon energies above these values are considered as radiation qualities without inherent charged particle equilibrium for the quantities defined at these depths. This document also deals with the determination of the response as a function of photon energy and angle of radiation incidence. Such measurements can represent part of a type test in the course of which the effect of further influence quantities on the response is examined.

This document is only applicable for air kerma rates above 1 µGy/h.

This document does not cover the in-situ calibration of fixed installed area dosemeters.

The procedures to be followed for the different types of dosemeters are described. Recommendations are given on the phantom to be used and on the conversion coefficients to be applied. Recommended conversion coefficients are only given for matched reference radiation fields, which are specified in ISO 4037-1:2019, Clauses 4 to 6. ISO 4037‑1:2019, Annexes A and B, both informative, include fluorescent radiations, the gamma radiation of the radionuclide 241Am, S-Am, for which detailed published information is not available. ISO 4037-1:2019, Annex C, gives additional X radiation fields, which are specified by the quality index. For all these radiation qualities, conversion coefficients are given in Annexes A to C, but only as a rough estimate as the overall uncertainty of these conversion coefficients in practical reference radiation fields is not known.

NOTE       The term dosemeter is used as a generic term denoting any dose or doserate meter for individual or area monitoring.


Reference radiation fields for radiation protection — Definitions and fundamental concepts — Amendment 1: Reference point of personal dosemeters

Champs de rayonnement de référence pour la radioprotection — Définitions et concepts fondamentaux — Amendement 1: Point de référence des dosimètres personnels


The software package for internal dose assessment


Radiological protection — Monitoring and dosimetry for internal exposures due to wound contamination with radionuclides

Radioprotection — Surveillance et dosimétrie en cas d'exposition interne due à la contamination d'une plaie par radionucléides

This document specifies the requirements for personal contamination monitoring and dose assessment following wounds involving radioactive materials. It includes requirements for the direct monitoring at the wound site, monitoring of uptake of radionuclides into the body and assessment of local and systemic doses following the wound event.

It does not address:

—     details of monitoring and assessment methods for specific radionuclides;

—     monitoring and dose assessment for materials in contact with intact skin or pre-existing wounds, including hot particles;

—     therapeutic protocols. However, the responsible entity needs to address the requirements for decontamination and decorporation treatments if appropriate.


The monitoring and internal dose assessment in case of ingestion


Intelligent transport systems — Cooperative adaptive cruise control systems (CACC) — Performance requirements and test procedures

Systèmes de transport intelligents — Systèmes coopératifs et adaptatifs de régulation de vitesse (CACC) — Exigences de performance et procédures d'essai

Cooperative Adaptive Cruise Control (CACC) system is an expansion to existing Adaptive Cruise Control (ACC) control strategy by using wireless communication with preceding vehicles (V2V) and/or the infrastructure (I2V). Both multi vehicle V2V data and I2V infrastructure data are within the scope of this document. When V2V data is used CACC can enable shorter time gaps and more accurate gap control, which can help increase traffic throughput and reduce fuel consumption. It can also receive data from the infrastructure, such as recommended speed and time gap setting, to improve traffic flow and safety.

This document addresses two types of Cooperative Adaptive Cruise Control (CACC): V2V, and I2V. Both types of CACC system require active sensing using for example radar, lidar, or camera systems. The combined V2V and I2V CACC is not addressed in this document. The following requirements are addressed in this document:

—          classification of the types of CACC;

—          definition of the performance requirements for each CACC type;

—          CACC state transitions diagram;

—          minimum set of wireless data requirements;

—          test procedures.

CACC:

—          does only longitudinal vehicle speed control;

—          uses time gap control strategy similar to ACC;

—          has similar engagement criteria as ACC.

Coordinated strategies to control groups of vehicles, such as platooning, in which vehicle controllers base their control actions on how they affect other vehicles, and may have a very short following clearance gap are not within the scope of this document. CACC system operates under driver responsibility and supervision.

This document is applicable to motor vehicles including light vehicles and heavy vehicles.


Intelligent transport systems — Generic adaptive cruise control systems — Performance requirements and test procedures


Radiological protection — Monitoring and internal dosimetry for specific materials — Part 2: Ingestion of uranium compounds

Radioprotection — Contrôle et dosimétrie interne des éléments spécifiques — Partie 2: Ingestion de composés d'uranium

This document specifies the minimum requirements for the design of professional programmes to monitor workers exposed to a risk of ingestion to uranium compounds. This document establishes principles for the development of compatible goals and requirements for monitoring programmes and dose assessment for workers occupationally exposed to internal contamination. It establishes procedures and assumptions for risk analysis, monitoring programmes and the standardized interpretation of monitoring data in order to achieve acceptable levels of reliability for uranium and its compounds. It sets limits for the applicability of the procedures in respect to dose levels above which more sophisticated methods need to be applied.

This document addresses those circumstances when exposure could be constrained by either radiological or chemical toxicity concerns.

This document addresses, for ingestion of uranium and its compounds, the following items:

a)   purposes of monitoring and monitoring programmes;

b)   description of the different categories of monitoring programmes;

c)   suitable methods for monitoring and criteria for their selection;

d)   information that is collected for the design of a monitoring programme;

e)   procedures for dose assessment based on reference levels for special monitoring programmes;

f)    criteria for determining the significance of monitoring results;

g)   uncertainties arising from dose assessment and interpretation of bioassays data;

h)   reporting/documentation;

i)    quality assurance;

j)    record keeping requirements.

It is not applicable to the following items:

a)   detailed descriptions of measuring methods and techniques for uranium;

b)   modelling for the improvement of internal dosimetry;

c)   potential influence of counter-measures (e.g. administration of chelating agents);

d)   investigation of the causes or implications of an exposure;

e)   dosimetry for inhalation exposures and for contaminated wounds.


monitoring and internal dose assessment — Part 3: Plutonium


Monitoring and internal dose assessment in case of therapeutic actions