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This document, in conjunction with ISO 11296-1, specifies requirements and test methods for pipes and fittings for the renovation of underground non-pressure drainage and sewerage networks by lining with a single rigid annulus of structural cementitious grout formed behind a plastics inner layer. This plastics layer serves as permanent formwork anchored to the grout.
This document is applicable to plastics inner layers and grout systems with or without steel reinforcement. It does not apply to the structural design of the lining system.
NOTE Systems with multiple annuli are available, but these are controlled by patent rights and not covered by this document.

This document defines various terms relating to the design, construction, performance, labelling and testing of category F4 fireworks.

This document specifies requirements for the construction, performance and protective packaging of Category F4 fireworks, as listed in EN 16261-1:—1.
This document does not apply for articles containing pyrotechnic compositions that include any of the following substances:
— arsenic or arsenic compounds;
— polychlorobenzenes;
— lead or lead compounds;
— mercury compounds;
— white phosphorus;
— picrates or picric acid.
In addition, any European regulation regarding forbidden substances is intended to be taken into account.

This document specifies test methods for fireworks of category F4.

This document specifies the minimum labelling requirements and the mandatory instructions for use for category F4 fireworks.

This document defines the terms and specifies the requirements, means of categorization, test methods, minimum labelling requirements and instructions for use, for ignition devices (except ignition devices for pyrotechnic articles for vehicles) of the following generic types:
— igniters;
— components for pyrotechnic trains;
— pyrotechnic cords and fuses;
— delay fuses;
— fuzes.
NOTE Safety fuses are subject to Directive 2014/28/EU and therefore not considered in this document.
This document does not apply for articles containing pyrotechnic compositions that include any of the following substances:
— arsenic or arsenic compounds;
— polychlorobenzenes;
— mercury compounds;
— white phosphorus;
— picrates or picric acid.

This draft European Standard defines a gas chromatographic analysis for the determination of the composition of fuel gases, as used in refinery heating gas. These results are used to calculate the carbon content and the lower calorific value. With this gas chromatographic analysis, an overall of 23 refinery heating gas components are determined in concentrations as typically found in refineries (see Table 1 for further details). Water is not analyzed. The results represent dry gases.
NOTE 1 Depending on the equipment used, there is a possibility to determine higher hydrocarbons as well.
NOTE 2 For the purposes of this draft European Standard, the terms “% (V/V)” is used to represent the volume fraction (φ).
IMPORTANT — This standard does not purport to address all of the safety problems associated with its use. It is the responsibility of the user of this standard to establish appropriate safety and health practices and determine the applicability of regulatory limitations.

There are four parts to this specification, two are normative and two informative. The normative parts are:
1. The UAF Domain Metamodel (DMM) (this document) that provides the definition of concepts, relationships and
viewpoints for the framework. The UAF DMM is the basis for any implementation of UAF including non-
UML/SysML implementations.
2. The UAF Profile (UAFP) (see document dtc/19-06-15) is a UML/SysML implementation of the UAF DMM
The informative parts are:
3. The UAF Traceability, Annex A (see document dtc/19-06-17), which details the mappings between the UAF and the
various frameworks and languages that contribute to the UAF.
4. The UAF Example Model, Annex B (see document dtc/19-06-18), which illustrates a practical usage of UAF.
1.2 UAF

This document is a normative supplement to the UAF DMM document (c4i/19-06-16).

This document specifies a UAF profile to enable practitioners to express architectural model elements and organize them in a set of domains, model kinds, and view specification (specified in the UAF DMM) that support the specific needs of end users in defense and commercial industry.

UAFP 1.1 defines a set of stereotypes and model elements and relationships to satisfy the requirements of the UPDM 3.0

RFP and the UAF DMM. The profile specification documents the language architecture in terms of UML profiling mechanism.

A number of UAFP stereotypes inherit from SysML stereotypes where reuse of SysML semantics is necessary. The reusable portions of the SysML specification are not included directly in the specification but are made explicit through the stereotype inheritance.

This part of ISO/IEC 18047 defines test methods for determining the conformance of radio frequency identification devices (tags and interrogators) for item management with the specifications given in ISO/IEC 18000-3, but does not apply to the testing of conformity with regulatory or similar requirements.
The test methods require only that the mandatory functions, and any optional functions which are implemented, be verified. This can, in appropriate circumstances, be supplemented by further, application-specific functionality criteria that are not available in the general case.
This part of ISO/IEC 18047 includes the following interrogator and tag conformance parameters:
— mode-specific conformance parameters including nominal values and tolerances;
— parameters that apply directly affecting system functionality and inter-operability.
This part of ISO/IEC 18047 does not include the following:
— parameters that are already included in regulatory test requirements;
— high-level data encoding conformance test parameters (these are specified in ISO/IEC 15962).
Clause 5 describes all necessary conformance tests, while 5.3 applies to Mode 1 products only, 5.4 applies to Mode 2 products only and 5.5 applies to Mode 3 (mandatory ASK part) only.

This document provides guidance on the application of the taxonomy and use statements from ISO/IEC 19944-1 in real world scenarios, and how to develop extensions to the data taxonomy, data processing and use categories and data use statements.

This document specifies the characteristics of solid, liquid or gas of gamma emitting radionuclides reference measurement standards used for the calibration of gamma-ray spectrometers. These reference measurement standards are traceable to national measurement standards.
This document does not describe the procedures involved in the use of these reference measurement standards for the calibration of gamma-ray spectrometers. Such procedures are specified in ISO 20042 and other documents.
This document specifies recommended reference radiations for the calibration of gamma-ray spectrometers. This document covers, but is not restricted to, gamma emitters which emit photons in the energy range of 20 keV to 2 000 keV. These reference radiations are realized in the form of point sources or adequately extended sources specified in terms of activity which are traceable to national standards.
Liquid standards that are intended to be used for preparing extended standards by the laboratories are also in scope of this document. Reference materials (RMs) produced in accordance with ISO 17034 [2] are out of scope of this document.

1.1 This is a practice for using a radiochromic optical waveguide dosimetry system to measure absorbed dose in materials irradiated by photons and high energy electrons in terms of absorbed dose to water. The radiochromic optical waveguide dosimetry system is generally used as a routine dosimetry system.
1.2 The optical waveguide dosimeter is classified as a Type II dosimeter on the basis of the complex effect of influence quantities (see ISO/ASTM Practice 52628).
1.3 This document is one of a set of standards that provides recommendations for properly implementing dosimetry in radiation processing, and describes a means of achieving compliance with the requirements of ISO/ASTM 52628 for an optical waveguide dosimetry system. It is intended to be read in conjunction with ISO/ASTM Practice 52628.
1.4 This practice applies to radiochromic optical waveguide
dosimeters that can be used within part or all of the specified
ranges as follows:
1.4.1 The absorbed dose range is from 1 to 20 000 Gy.
1.4.2 The absorbed dose rate is from 0.001 to 1000 Gy/s.
1.4.3 The radiation photon energy range is from 1 to 10
MeV.
1.4.4 The radiation electron energy range is from 3 to 25
MeV.
1.4.5 The irradiation temperature range is from –78 to
+60°C.
1.5 This standard does not purport to address all of the safety concerns, if any, associated with its use. It is the responsibility of the user of this standard to establish appropriate safety, health, and environmental practices and determine the applicability of regulatory limitations prior to use.
1.6 This international standard was developed in accordance
with internationally recognized principles on standardization
established in the Decision on Principles for the Development of International Standards, Guides and Recommendations issued by the World Trade Organization Technical Barriers to Trade (TBT) Committee.

This part of EN15437 defines the minimum characteristics for the interface between a trackside Hot Axlebox Detector (HABD) and Rolling Stock (RST) that comply with the European Directives for Interoperability to ensure that the minimum functional requirement of the interface is achieved. The minimum requirements of the interface apply to: a) Rolling stock conforming to standard European railway gauge, that is 1435mm; b) Rolling stock axles fitted with outboard bearings; NOTE The design of rolling stock axles fitted with inboard bearings should respect the requirements set out in Note 2 of 5.2. c) Rolling stock with a maximum operational speed of up to and including 250 km/h; NOTE 1 That is conventional rail and class 2 high speed rail rolling stock as defined in the rolling stock TSIs. NOTE 2 Interoperable rolling stock designed for speeds above 250km/h (class 1 high speed rolling stock) are mandated to have on-board equipment for axlebox condition monitoring. The requirements for on-board equipment are described in part 2 of this standard which is currently under development. NOTE 3 Interoperable rolling stock designed for speeds above 250km/h (class 1 high speed rolling stock) are outside the scope of this Part of the standard. However, if class 1 high speed trains are required to be monitored by HABDs their target area should comply with the requirements specified in this standard, except where stated otherwise. d) Trackside HABDs that are required to monitor conventional rail and class 2 high speed rail rolling stock. The rolling stock requirements of the interface are described in Clause 5 and for the HABD requirements of the interface are described in Clause 6.

This European Standard defines the minimum performance requirements of on-board monitoring systems for axlebox condition monitoring by means of temperature measurements.
This European Standard refers to temperature monitoring of the axlebox. However, the design may be such that the rolling bearing itself is monitored directly.
The requirements of this European Standard are intended to apply equally to basic monitoring systems for monitoring the axlebox temperature through to more technically complex systems that may employ a combination of mechatronics.
To ensure the compatibility of monitoring systems and the effective monitoring functions, this European Standard defines the requirements in the following areas:
- equipment and characteristics;
- monitoring performance;
- operation & Interface.
This part of EN 15437 does not include:
- systems that do not give an indication to the driver;
- how an on-board monitoring system is structured and how it measures the temperature and identifies axlebox position. This is considered part of equipment design and not part of the functional requirements set out in this standard;
- operational requirements for acting on the information reported by the on-board monitoring system;
- operational requirements for conflict of information between trackside monitoring systems and on-board monitoring systems;
- maintenance requirements for on-board temperature monitoring system.

This document specifies the general conditions that apply when vehicle ride comfort properties are determined according to ISO test methods.
In particular, it specifies general conditions for:
— variables;
— measuring equipment and data processing;
— environment (test track and wind velocity);
— test vehicle preparation (tuning and loading);
— initial driving;
— test reports (general data and test conditions).
These items are of general significance, regardless of the specific vehicle ride comfort test method. They apply when vehicle ride comfort properties are determined, unless other conditions are required by the standard which is actually used for the test method.
This document is applicable to passenger cars as defined in ISO 3833 and light trucks.
NOTE The general conditions defined in existing vehicle dynamics standards are valid until a reference to this document is included.
This document is cited in many other standards without a dated reference. In the course of its revision, no change in the numbering of clauses, tables and figures is anticipated.
This documents mainly refers to road tests, but in many part may be applied also for bench tests.

This document gives terms and definitions and an identification structure for classifying earth-moving machinery designed to perform the following operations:
— excavation;
— loading;
— transportation;
— drilling, spreading, compacting or trenching of earth, rock and other materials, during work, for example, on roads and dams, in quarries and mines and on building sites.
The purpose of this document is to provide a clear means to identify earth-moving machinery according to its function and design configurations and with secondary classifications according to its operating mass and control operator configuration.
Annex A provides a procedure based on the identification structure used by this document to classify the machinery and introduce detailed identifications consistent with the logic implied by the structure.
Annex B provides a hierarchy of the operator control configurations for earth-moving machinery.

This document applies only to Dimethyl Ether refuelling connectors hereinafter referred to as devices, constructed entirely of new, unused parts and materials. Dimethyl Ether refuelling connectors consist of the following components, as applicable:
a) Nozzle (mounted on dispenser side).
b) Receptacle (mounted on vehicle).
This document applies to devices which use Dimethyl Ether as fuel, hereinafter referred to in this document as D15 [see 9.1 c)].
This document applies to devices with standardised mating components.
This document applies to connectors which prevent Dimethyl Ether vehicles from being fuelled by fuel station dispensers for other gaseous fuels.
This document is applicable to: Dimethyl Ether in accordance with ISO 16861.
NOTE All references to pressures (kPa) throughout this document are considered gauge pressures unless otherwise specified.

This document provides guidance on fulfilling the requirements contained in ISO 6183:2009, 6.4.1 and 7.4.1 and ISO 14520-1:2015, 5.2.1 (h) and 5.3 (h), in respect to over and under pressurization venting and post-discharge extract.
It considers the design, selection and installation of vents to safeguard the structural integrity of enclosures protected by fixed gaseous extinguishing systems and the post-discharge venting provisions where used.

The requirements in this document apply to all toys, i.e. any product or material designed or clearly intended for use in play by children under 14 years of age. They are applicable to a toy as it is initially received by the consumer and, in addition, they apply after a toy is subjected to reasonably foreseeable conditions of normal use and abuse unless specifically noted otherwise.
The requirements of this document specify acceptable criteria for structural characteristics of toys, such as shape, size, contour, spacing (e.g. rattles, small parts, sharp points and edges, and hinge-line clearances) as well as acceptable criteria for properties peculiar to certain categories of toy (e.g.
maximum kinetic energy values for non-resilient-tipped projectiles and minimum tip angles for certain ride-on toys).
This document specifies requirements and test methods for toys intended for use by children in various age groups from birth to 14 years. The requirements vary according to the age group for which a particular toy is intended. The requirements for a particular age group reflect the nature of the hazards and the expected mental and/or physical abilities of a child to cope with them.
This document also requires that appropriate warnings and/or instructions for use be given on certain toys or their packaging. Due to linguistic problems which may occur in different countries, the wording of these warnings and instructions is not specified but given as general information in Annex B. It should be noted that different legal requirements exist in many countries with regard to such marking.
This document does not purport to cover or include every conceivable potential hazard of a particular toy or toy category. Except for labelling requirements indicating the functional hazards and the age range
for which the toy is intended, this document has no requirements for those characteristics of toys which represent an inherent and recognized hazard which is integral to the function of the toy.
EXAMPLE 1 An example of such a hazard is the sharp point necessary for the proper function of a needle. The needle is a hazard which is well understood by the purchaser of a toy sewing kit, and the functional sharp-point hazard is communicated to the user as part of the normal educational process of learning to sew as well as at the point of purchase by means of cautionary labelling on the product's packaging.
EXAMPLE 2 As a further example, a two-wheeled toy scooter has inherent and recognized hazards associated with its use (e.g. instability during use, especially while learning). The potential hazards associated with its structural
characteristics (sharp edges, pinch hazards, etc.) will be minimized by compliance with the requirements of this document.
Products not included within the scope of this document are:
a) bicycles, except for those considered to be toys, i.e. those having a maximum saddle height of 435 mm
(see E.1, general);
b) slingshots;

NOTE “Slingshots” are also known as “catapults” and are usually held in the hand; examples are given in Figure
1. Toy versions of medieval catapults and trebuchets are not exempt from this document; an example is given in
Figure 2.

c) darts with metal points;
d) home and public playground equipment;
e) compressed air- and gas-operated guns and pistols (see E.1);
f) kites (except for the electric resistance of their strings, which is included);
g) model kits, hobby and craft items, in which the finished item is not primarily of play value;
h) sporting goods and equipment, camping goods, athletic equipment, musical instruments and
furniture; however, toys which are their counterparts are included.
It is recognized that there is often a fine distinction between, for example a musical instrument or a
sporting item and its toy counterpart. The intention of the manufacturer or distributor, as well as
normal use and reasonably foreseeable abuse, determines whether the item is a toy counterpart or
not;
i) models of aircraft, rockets, boats and land vehicles powered by combustion engines; however, toys
which are their counterparts are included (see E.1);

j) collectible products not intended for children under 14 years of age;
k) holiday decorations that are primarily intended for ornamental purposes;
l) aquatic equipment intended to be used in deep water, swimming-learning devices and flotation aids
for children such as swim-seats and swim-aids;
m) toys installed in public places (e.g. arcades and shopping centres);
n) puzzles having more than 500 pieces or without a picture, for specialists;
o) fireworks including percussion caps, except percussion caps specifically designed for toys;
p) products containing heating elements intended for use under the supervision of an adult in a teaching context;
q) steam engines;
r) video toys that can be connected to a video screen and operated at a nominal voltage greater than 24 V;
s) babies' pacifiers (dummies);
t) faithful reproduction of firearms;
u) electric ovens, irons or other functional products operated at a nominal voltage greater than 24 V;
v) bows for archery with an overall relaxed length exceeding 120 cm;
w) fashion jewellery for children (see E.1).

This document specifies dimensions, tolerances, materials, internal and external surface characteristics, and marking of stainless steels longitudinally fusion welded tubes for the food and chemical industry.

This document specifies test methods for assessment of the moisture conditions of any kind of subfloor prior to the installation of levelling compounds and/or floor coverings or parquet floors bonded with adhesives. The methods are independent from subfloor chemical composition or materials and applicable with available equipment.
For some highly reactive cement based compositions (e.g. ternary systems) the manufacturer might recommend a specific time when the subfloor is ready to be covered.
This document describes the methods in detail and includes a protocol template for documenting the measured values.

This part of ISO 10218 specifies requirements and guidelines for the inherently safe design, protective measures and information for use of robots for an industrial environment. It describes basic hazards associated with robots and provides requirements to eliminate, or adequately reduce, the risks associated with these hazards.
This part of ISO 10218 does not address the robot as a complete machine. Noise emission is generally not considered a significant hazard of the robot alone, and consequently noise is excluded from the scope of this part of ISO 10218.
This part of ISO 10218 does not apply to undersea, defence, law enforcement, military and space robots, medical and healthcare, prosthetics and other aids for the physically impaired, service or consumer products, tele operated manipulators, and micro robots (displacement less than 1 mm).
NOTE 1 Requirements for robot systems, integration, and applications are covered in ISO 10218-2.
NOTE 2 Additional hazards can be created by specific applications (e.g. welding, laser cutting, machining). These system-related hazards need to be considered during robot system design. See ISO 10218-2.

This document specifies dimensional characteristics, deviation limits from nominal values, and tolerance values to define the interface (except chamfers) of thrust rolling bearings. Nominal boundary dimensions are defined in ISO 104.
This International Standard is not applicable to certain thrust bearings (e.g. thrust needle roller bearings) or for particular fields of application (e.g. special thrust precision bearings). Tolerances for such bearings are given in the relevant International Standards.
Chamfer dimension limits are given in ISO 582[2].

This International Standard specifies dimensional and geometrical characteristics, deviation limits from nominal sizes, and tolerance values to define the interface (except chamfers) of radial rolling bearings.
Nominal boundary dimensions are defined in ISO 15, ISO 355[2] and ISO 8443[5]. This International Standard does not apply to certain radial bearings of particular types (e.g. needle roller bearings) or for particular fields of application (e.g. airframe bearings). Tolerances for such bearings are given in the relevant International Standards.
Chamfer dimension limits are given in ISO 582[3].

This document specifies a method for the determination of the oxidation stability of middle distillate fuels, fatty acid methyl ester (FAME) fuel and blends thereof, under accelerated conditions, by measuring the induction period to the specified breakpoint in a reaction vessel charged with the sample and oxygen.
NOTE 1 For the purposes of this document, the term “% (V/V)” is used to represent the volume fraction (φ).
NOTE 2 The induction period is used as an indication for the resistance of middle distillates, fatty acid methyl ester (FAME) fuels and blends thereof against oxidation. This correlation can vary markedly under different conditions with different FAMEs and diesel fuel blends.
NOTE 3 The presence of ignition improvers can lead to lower oxidation stability results determined by this method. It has for instance been observed that the addition of 2-ethyl hexyl nitrate (2-EHN) can reduce the measured oxidation stability values. See [6] for details.
NOTE 4 For further information on the precision data at a test temperature of 120 °C see Annex D.

The aim of this document is to provide a procedure of quantification of mercury traces in cosmetic products that consumers might be exposed to in their usage. This method describes the determination of mercury traces in cosmetics by direct solid analysis with no need of external digestion. Total mercury (both inorganic and organic species) can be quantified either in solid or liquid samples.
This standard has been developed in parallel with another method of determination of traces of mercury in cosmetics: ISO 23821 Cosmetics – Analytical methods – Determination of traces of mercury in cosmetics by atomic absorption spectrometry (AAS) cold vapour technology after pressure digestion [1]. Knowing this, an interlaboratory test using either one or the other method was performed on same tailor-made cosmetic products in order to establish that both methods fulfilled the same requirements (see Annex B).

This document specifies methods used to evaluate the external corrosion hazards of well casings, as well as cathodic protection means and devices to be implemented in order to prevent corrosion of the external part of these wells in contact with the soil.
This document applies to any gas, oil or water well with metallic casing, whether cemented or not.
However, in special conditions (shallow casings: e.g. 50 m, and homogeneous soil), EN 12954 can be used to achieve the cathodic protection and assess its efficiency.

This document specifies the communication interface between motion sensor and recording equipment. This includes the mechanical, electrical, and logical requirements.

This document specifies the mechanical dimensions of mandatory connectors and optional connectors used by the recording equipment for the data and the service interfaces. This includes, in particular, the connection to the CAN-based in-vehicle networks.

This document specifies the electrical interfaces of the data and the service interfaces. The electrical interfaces to the CAN-based in-vehicle networks are not in the scope of this document.

This document specifies the CAN-based data communication between the display unit and other device connected to an SAE J1939-based in-vehicle network. The provided requirements and recommendations cover physical, data link, network, and application layers according to the OSI reference model. Additionally, it specifies the parameter groups, which are supported.

This document specifies the CAN-based and the K-Line communication between the recording equipment and service tools for software download and calibrating purposes. The provided requirements and recommendations cover physical, data link, network, session, and application layers according to the OSI reference model as well as the unified diagnostics services. This communication is secured as specified in the ISO 14299 series.

This document specifies the parameters to be used on the service interface of the recording equipment. Some of them are specified in detail in this document, while others are given in the ISO 14299 series.

This proposed international standard provides a framework for the detailed assessment and monitoring of dynamic soil properties related to soil function with concomitant recording of in-situ static soil properties, landscape, land use and soil management practices that influence function at the time the data were collected. It is applicable to the assessment of soil quality in agricultural landscapes, contaminated sites and natural soil ecosystems at plot, field and landscape spatial scales. It can also be applied in the
development of dynamic properties databases to enhance existing soil survey databases for estimation of carbon stocks in soils, sustainable agriculture, landscape management etc.
The framework incorporates coding based on soil taxonomic principles, however it shall not supersede, and should not be confused with, international or national soil classification systems. Although the soil quality description framework has been developed to describe surface soils, the same principles of the framework can be applied to adapt it to describe subsurface soil horizons.

The standardization of the injection sites of animal species is related to different species and several fields of interest.
After decennia of market experience, migration of the transponder is still a problem in most animal species being identified by injectable transponders. Migration is related to several points. The major points are the injection site and the application of the injectable transponder, but the correct injection site can be related to the dimensions (length and diameter) of the injectable transponder. In dogs and cats, this is not a big issue, as the transponders that are commonly used are the smallest readily available. There are several publications that precisely describe the application of injectable transponders in an anatomical way, but there is a demand from the community to have a comprehensive overview of all aspects related to the application and use of injectable transponders for different animal species.

This document specifies the data structure needed for tour management, scheduling orders of measured and unmeasured products online to the truck. Processed orders are transferred back to the host in the office at once or later every time the truck is online.
It specifies the transfer of commercial and logistic data between transport vehicle equipment, on board computer of the tank vehicle and stationary facilities for all communication channels between these parties.
This document is used in conjunction with EN 15969-1 and does not modify or override any of the requirements of EN 15969-1.

This document specifies characteristics of schist and schistose stones (see 3.1) intended to be used for assembly into discontinuous roofing and external cladding.
This document specifies procedures for assessment and verification of constancy (AVCP) of performance of characteristics of schist and schistose stones.
This document does not cover the following:
— slate and carbonate slate products (see EN 12326-1:2014 and EN 12326-2:2011);
— schist and schistose products, used as wall cladding, which are either bonded with adhesive or fixed with dowels and cramps (see EN 1469:2015);
— treated products;
— installation or construction specific requirements.

This document indicates the minimum training and registration requirements for post-tensioning personnel involved in the installation of PT kits in concrete structures using bonded or unbonded tendons in accordance with the relevant execution specifications, product standard and/or European Technical Assessment (ETA).
This document describes the tasks that the various categories of PT personnel can undertake.
For the purposes of this document, PT personnel means: PT-Manager, Supervisors, Operatives and Trainees who are directly employed or indirectly employed on a sub-contract basis.
This document does not cover general safety and health aspects.
This document does not cover contractual issues.
prEN 17678-2 deals with the assessment of competence.

This document applies to both new and existing ventilation, air conditioning systems and kitchen extract system and specifies the assessment criteria of cleanliness, cleaning procedures of these systems. The validation of the effectiveness of cleaning applies also to products, which conform to EN 1505, EN 1506, EN 13053, EN 13180 and EN 13403, used in air conditioning and ventilation systems for human occupancy defined in the scope of CEN/TC 156. This document does not apply to installations for industrial, medical and laboratory facilities.
This document specifies general requirements and procedures necessary in assessing and maintaining the cleanliness of ducted ventilation, for air ventilation systems and kitchen extract systems.
The main target groups of this document are specifiers of the cleanliness quality classes and cleaning methods primarily system designers who also specify the system of access, building owners, services companies, maintenance companies, end users and consultancy and control companies.

1.1 This document specifies safety and hygiene requirements for the design and manufacture of craft bakery and pastry depositors which:
a) are intended to be used:
— to deposit only pasty food (i.e.: cream, dough, batter etc.);
— to deposit only on trays;
— as standalone machines;
— with manual loading of the dough in the hopper;
b) are intended to be used with manual loading and unloading of the tray/s on/from the conveyor;
c) can carry out only the following movements and relevant directions (see Figure 1a)):
— Z: Vertical movement of the table and/or the deposit unit;
— X: Horizontal movement of the conveyor;
— Y: possible horizontal component of the movement only of the nozzles themselves inside the deposit unit;
d) are fitted with one or more hoppers whose capacity is ≤ 60 dm3 each; and
e) have a total length of the tray conveyor ≤ 1 600 mm;
f) have a vertical movement between nozzles and conveyor ≤ 200 mm;
g) have a maximum deposit performance:
— ≤ 60 cycles/minute with up/down movement of the table or the deposit unit;
— ≤ 100 cycles/minute without up/down movement of the table or the deposit unit;
h) have a maximum trays performance ≤ 4 trays/minute.
These machines are intended only for professional use.
NOTE The machine is provided for being used by one operator at a time.
The loading of the dough in the hopper can be done by means of a separate automatic loading system, but in that case the hazards arising from the use of the automatic hopper loading system are not covered by this document.
This document deals with all significant hazards, hazardous situations and events relevant to adjustment, operation and cleaning of craft bakery and pastry depositors, when they are used as intended and under conditions of misuse which are reasonably foreseeable by the manufacturer.
This document covers requirements for the safe operation of the machine, including loading, depositing, unloading, cleaning and maintenance.

1.2 The following hazards are not covered by this document:
— hazards arising from the use of an automatic hopper loading system;
— hazards due to packaging, handling or transport;
— hazards arising from electromagnetic compatibility issues;
— hazards due to dismantling and disassembling;
— hazards due to the noise emitted by the machine;
— hazards due to control devices;
— hazards due to operational stop;
— hazards due to selection of control or operating modes;
— hazards due to failure of the power supply;
— hazards due to surfaces, edges or angles;
— hazards due to combined machinery;
— hazards due to variations in operating conditions;
— hazards due to uncontrolled movements;
— hazards due to adjustable guards restricting access;
— hazards due to errors of fitting;
— hazards due to radiation;
— hazards due to laser radiation;
— hazards due to isolation of energy sources;
— hazards due to information and warnings on the machinery;
— hazards due to information and information devices.
The significant hazards covered by this document are described in Annex A.
1.3 The following machines are excluded from the scope of this document:
a) machines which deposit pasty food by means of needles (injection);
b) machines where the trays are put onto and/or removed from the conveyor automatically;
c) machines which require a blade for the cutting system;
d) domestic appliances;
e) machines for industrial production;
f) machines to deposit other products than food for bakery and pastry products.

1.4 In drafting this document, it has been assumed that the depositors falling within the scope are operated only by trained personnel. This document is not applicable to machines which are manufactured before the date of publication of this European Standard.

This document establishes a set of building blocks (concepts, terms, and definitions, including Data Level Objectives and Data Qualitative Objectives) that can be used to create Data Sharing Agreements (DSAs).
This document is applicable to DSAs where the data is intended to be processed using one or more cloud services or other distributed platforms.

The scope of part 1 applies with the following addition:
This part of ISO/IEC 81346 provides supplementary rules for structuring of systems in the field of power supply and defines classes for systems and spaces in that field.
Annex A in this international standard shows the application of annexes given in IEC 81346-1:202X.

This International Standard specifies the data communication concepts applicable to the data requirements of the regulatory authorities related to freight and its intermodal transfer. It builds on the ISO 24533-1 standard that focuses on road transport information exchange methodology and designed to help implement the transport features of ISO-IEC IS 19845. Information Technology - Universal Business Language Version 2.1

These data concepts include information entities (data elements), aggregated/associated information entities (groups of data elements) and messages that comprise information exchanges at transport interfaces along the chain of participants responsible for the delivery of goods from the point of origin through to the final recipient. This includes all transport entities carrying the cargo as well as the documents and information required to facilitate the cargo movement. This International Standard focuses on a single "thread" of the overall end-to-end supply chain.

It includes motor transport data needs within the international supply chain to satisfy the requirements of both businesses and governmental organizations, on B2B, B2G, G2B and G2G relationships. This International Standard is applicable to shipments that originate in one country and terminate in another. It may also be applied to shipments that originate and terminate in a single country. This International Standard is applicable to freight movements that interface with other modes and incorporates requirements set for those other modes.

This International Standard does not constrain the requirements of customs, regulatory, and safety bodies at border crossings but does include the data elements likely to be required by customs authorities and other governmental bodies within a single window environment or within a port community system environment.

This document specifies tolerances on dimensions and form of extruded precision profiles in alloys EN AW-6060 and EN AW-6063, manufactured with and without a thermal barrier (see Figures 1 and 2). It applies to extruded products supplied without further surface treatment. Precision profiles covered in this document are distinguished from extruded profiles for general applications covered in EN 755-9 by the following characteristics:
— they are mainly for architectural applications designed with mostly uniformly wall-thicknesses;
— they are mainly used for architecture, mechanical engineering and automotive applications (except structural-parts and crash-elements);
— the maximum weight per metre of 10 kg/m;
— the max. wall-thickness proportion (S max/S min) of 3,5 mm.
In the case of profiles which, due to the complexity of their design, are difficult to manufacture and specify, then special agreements between supplier and purchaser may need to be reached.
NOTE The effect of the thermal barrier material on the dimensional tolerances is covered by this document although the actual thermal barrier material itself is not (see EN 14024).

This document specifies a method for determining the longitudinal reversion of thermoplastics pipes, to be carried out in either a liquid or in air. In case of dispute, heated liquid is used as the reference.
This International Standard is applicable to all thermoplastics pipes with smooth internal and external walls of constant cross‑section. It is not applicable to non‑smooth structured‑wall thermoplastics pipes.
The parameters appropriate to the pipe material and recommendations for the maximum levels of reversion as a function of the pipe material are given in Annex A.
This method is applicable for pipes of wall thickness ≤16 mm.

This document specifies fire type-testing requirements and a fire type-test method for valves with one or more obturators. It is not applicable to the testing requirements for valve actuators other than manually operated gearboxes or similar mechanisms when these form part of the normal valve assembly. Other types of valve actuators (e.g. electrical, pneumatic or hydraulic) can need special protection to operate in the environment considered in this valve test, and the fire testing of such actuators is outside the scope of this document.
This document specifies the measurement and assessment criteria for:
a) through-seat leakage;
b) external leakage;
c) cavity overpressure relief of double seated valves;
d) operability.
This document specifies the rules whereby the fire-type testing qualification for a valve can be extended to untested sizes, pressure ratings, and materials of construction of the same basic design type.
Fire test reports of valves tested according to previous editions of ISO 10497 are acceptable when submitted together with the full and compliant fire test report as per 6.7 of the edition under which it was tested. Additional testing is specified for double seated valves where the body cavity relief valve setting was not recorded in the original fire test report.
NOTE For the purposes of this document, the terms “fire type-test” and “fire test” are synonymous.

This document specifies the classification of fluxes used for brazing metals and characterizes these fluxes on the basis of their properties and use, and gives technical delivery conditions and health and safety precautions.

This document covers two classes of flux, FH and FL. Class FH is used for the brazing of heavy metals (steels, stainless steels, copper and its alloys, nickel and its alloys, precious metals, molybdenum and tungsten). Class FL is used for the brazing of aluminium and its alloys.

This document specifies data protocols and data format for the interfaces between electronic equipment (TVE), on-board computer (OBC) of the tank vehicle and stationary equipment for all interconnecting communication paths.
This document specifies the basic protocol FTL used in the communication (basic protocol layer), the format and structure of FTL-data to be transmitted (data protocol layer) and describes the content of the FTL-data.
This data protocol may be used for other application e.g. between stationary tank equipment and offices.

This document specifies the safety, construction and performance requirements for electronic fuel/air ratio control system (ERC), electronic fuel/air ratio supervision system (ERS) and electronic fuel/air ratio trim system (ERT) intended for use with burners and appliances burning gaseous or liquid fuels. It also describes the test procedures for evaluating these requirements and specifies information necessary for installation and use.
This document is applicable to
— closed loop fuel/air ratio control systems, see 3.101;
— fuel/air ratio supervision systems, see 3.102;
— closed loop fuel/air ratio trim systems, see 3.103;
and does not differentiate into classification by heat input.
NOTE 1 European Standards for burners, appliances or processes which use ERC, ERS or ERT can override the requirements of this document.
NOTE 2 Provisions for production control are not part of this document.

This part of ISO 4126 specifies the sizing of safety valves and bursting discs for gas/liquid two-phase flow in pressurized systems such as reactors, storage tanks, columns, heat exchangers, piping systems or transportation tanks/containers. The possible fluid states at the safety device inlet that can result in two-phase flow are given in Table 1.
NOTE The expression “safety valve” is a synonym for valves as described in ISO 4126-1, ISO 4126-4 and ISO 4126-5. The expression “bursting disc” is a synonym for bursting disc safety device as described in ISO 4126-2, ISO 4126-3 and ISO 4126-6.

This document applies to garments and assembly of garments providing protection against heat and flame, with integrated smart textiles and non-textile elements for enhanced health, safety and survival capabilities.
This document does not concern validating claims that the integrated smart textile and non-textile elements substitute directly any protection provided by the garment from a heat and flame perspective.
The integrated smart textiles and non-textile elements could include not only the parts integrated into the protective garment but also connections to transmit the data generated or exchange data with external devices. It is not within the scope of this document to evaluate either the data storage or transmission (including connectivity) to the external devices, nor the external devices. This document evaluates only the smart textiles and non-textile elements integrated into the garment.
This document supplements the requirements of EN ISO 11612 and EN ISO 13688 and does not replace any of the requirements cited in those documents.
This document sets additional testing and performance requirements linked specifically to the garments and assembly of garments providing protection against heat and flame, with integrated smart textiles and non-textile elements for enhanced health, safety and survival capabilities. These additional requirements will depend on the functionality of the smart textile or non-textile element and its needed efficacy during heat and flame hazards and risks from an electrical/electronic safety perspective in these situations.

This document specifies the characteristics of lightweight aggregates (LWA) and LWA fillers and mixtures of them intended to be used in concrete, mortar and grout, bituminous mixtures, surface treatments and for unbound and hydraulically bound applications in construction works.
This document covers LWA and LWA fillers from mineral materials having particle densities less or equal to 2000 kg/m3 (2,000 Mg/m3) or loose bulk densities less or equal to 1200 kg/m3 (1,200 Mg/m3).
With regard to the aggregate size, this document covers LWA: fine lightweight aggregate (see 3.1.7), coarse lightweight aggregate (hereafter called coarse LWA) (see 3.1.8), all-in lightweight aggregate (hereafter called all-in LWA) (see 3.1.9) and LWA fillers (see 3.1.10).
With regard to the material source and production technique, this document covers LWA and LWA fillers:
a) of natural origin (see 3.1.2),
b) manufactured from natural materials (see 3.1.3),
c) manufactured from by-products of industrial processes (see 3.1.4) or from recycled source materials (see 3.1.5), and
d) as by-products of industrial processes (see 3.1.4).
Limits given to densities are related to some test methods which might not be applicable to some lightweight aggregates and lightweight aggregate fillers. This limitation is purely based on technical reasons and not to exclude any products from the market.
This document also specifies procedures for assessment and verification of constancy (AVCP) of performance of characteristics of LWA and LWA fillers.
This document does not cover LWA and LWA fillers of recycled aggregates from construction and demolition waste and Municipal Solid Waste Incinerator Bottom Ash (MIBA) (covered by prEN 17555-1:2021).

This document specifies the characteristics of armourstone for uses, either with or without high safety requirements, in hydraulic structures and other civil engineering works.
This document specifies procedures for assessment and verification of constancy (AVCP) of performances of characteristics of the armourstone as well as marking and labelling of these products.
Armourstone covered in this document are aggregates, obtained by processing natural, manufactured or recycled materials and mixtures of these aggregates.
With regard to the material source and production technique, this document covers natural armourstone (see 3.1.2), manufactured armourstone (see 3.1.3) or recycled armourstone (see 3.1.4). Furthermore, manufactured armourstone are manufactured air-cooled blast furnace slags and manufactured steel slags.
With regard to the size of the armourstone, this document covers armourstone with the following gradings:
(1) coarse grading (see 3.1.8)
(2) light grading (see 3.1.9)
(3) heavy grading (see 3.1.10)
This document does not cover
— aggregates for railway ballast, as these are specified in prEN 13450-1:2021,
— aggregates for construction works, as these are specified in prEN 17555-1:2021.

This European Standard specifies sampling and test methods for natural, artificial and recycled aggregates for use as armourstone. This European Standard specifies the reference methods to be used for type testing and in case of dispute where an alternative method has been used. For other purposes, in particular factory production control, other methods may be used provided that an appropriate working relationship with the test method has been established.

This document specifies the characteristics of aggregates for use in the construction of the upper layer (superstructure) of railway track.
With regard to the material source and production process, this document covers natural aggregate (see 3.1.3), manufactured aggregate (see 3.1.4), recycled aggregates (see 3.1.5), and mixtures of these materials.
Aggregates covered in this document are railway ballast (see 3.1.2).
Railway ballast refers to aggregates where 100 % of the surface of the particles can be described as totally crushed (see 3.1.2) and that are obtained by processing natural, manufactured materials or recycled crushed unbound aggregates.
Aggregates covered in this document are coarse aggregates (see 3.1.10).
Railway ballast resulting of previously used railway ballast on site and without putting it on the market (reused railway ballast) is not covered by this document.
This document does not cover:
— natural and manufactured aggregates, having oven-dried particle density less than or equal to 2,00 Mg/m3, as they are already specified in prEN 13055:2021,
— recycled aggregates, with particle densities less than 1,50 Mg/m3,
— aggregates with a nominal upper size greater than 90 mm,
— armourstone, as this is specified in prEN 13383-1:2021,
— aggregates for construction works, as these are specified in prEN17555-1:2021,
— use of aggregates contained within reclaimed bituminous mixtures, as the reclaimed asphalt for use as a constituent of bituminous mixtures is already specified in EN 13108-8:2016,
— use of aggregates as soil,
— use of aggregates in earthworks, as these are specified in EN 16907:2018, Parts 1 to 6.

This document provides non-contradictory complementary information that can be of use when producing or purchasing railway ballast according to the harmonized standard prEN 13450-1:2021.
NOTE prEN 13450-1:2021 is also required to be read in conjunction with the Construction Products Regulation.
Reused railway ballast is not covered by this document.

This document specifies the characteristics of aggregates, i.e. aggregates without added fillers (see 3.1.1 a) and added fillers (see 3.1.1 b), for uses, either with or without high safety requirements, for:
a) concrete for buildings, roads and other civil engineering works,
b) bituminous mixtures and surface treatments for roads, airfields and other trafficked areas,
c) mortars, renders and screeds, e.g. masonry mortar, floor/screed mortar, surfacing of internal walls (plastering mortar), rendering of external walls, special bedding materials, repair mortar and grouts for buildings, roads and civil engineering works;
d) unbound and hydraulically bound materials for civil engineering works and road constructions.
With regard to the material source and production process, this document covers natural aggregate (see 3.1.2), manufactured aggregate (see 3.1.3), recycled aggregates (see 3.1.4), and mixtures of these materials.
Aggregates covered in this document are:
a) aggregates without added fillers, including coarse aggregates (see 3.1.8), grit (see 3.1.11), fine aggregates (see 3.1.12), all-in aggregates (see 3.1.13), natural graded aggregates (see 3.1.14); and
b) added fillers (see 3.1.15).
Coarse aggregates covered in this document are single sized coarse aggregates (see 3.1.9) and graded coarse aggregates (see 3.1.10).
Added fillers covered in this document are natural fillers (see 3.1.16), manufactured fillers (see 3.1.18), mixed fillers (see 3.1.19), composite fillers (see 3.1.20) and recycled fillers (see 3.1.21). Natural fillers include fillers of limestone origin (see 3.1.17).
This document does not cover:
— natural and manufactured aggregates, having oven-dried particle density less than or equal to 2,00 Mg/m3, as they are already specified in prEN 13055:2021,
— recycled aggregates, with particle densities less than 1,50 Mg/m3,
— aggregates with a nominal upper size greater than 90 mm,
— armourstone, as this is specified in prEN13383-1:2021,
— aggregates for railway ballast, as these are specified in prEN 13450-1:2021,
— use of aggregates contained within reclaimed bituminous mixtures, as the reclaimed asphalt for use as a constituent of bituminous mixtures is already specified in EN 13108-8:2016,
— use of aggregates as soil,
— use of aggregates in earthworks, as these are specified in EN 16907-2:2018.

This document provides non-contradictory complementary information that can be of use when producing or purchasing aggregates according to the harmonized standard prEN 17555-1:2021.
NOTE prEN 17555-1:2021 is also required to be read in conjunction with the Construction Products Regulation.
The use of aggregates as soil is not covered by prEN 17555-1:2021. This is because there is a huge variation of geological and pedological conditions in Europe and precise definition of soil can only be found in the documents related to the application in the place of use. Reference can be made to the non-harmonized standards in the EN 16907 series for further information.

This document provides technical specification and verification method to support compliance with Commission Delegated Regulation (EU) 2019/945 of 12 March 2019 on unmanned aircraft systems and on third-country operators of unmanned aircraft systems.
This includes compliance with product requirements for all UAS authorized to operate in the ‘open’ category (class C0, C1, C2, C3 and C4 UAS).
This document does not cover “Specific” or “Certified” categories of UAS as well not UAS lighter than air (e.g. airships and balloons).
Compliance with this document assists in complying with CE marking technical requirements. This document is only applicable for UA with energy sources based on electro-chemical technologies.
Additional hazards that occur from the characteristics of the payload are excluded and are under the responsibility of the manufacturer and operator.

This document describes the measurement for the determination of the sheet resistance of conductive textile structures or conductive structures intended for application in/to textiles in the form of sheets (woven fabric, knitted fabric, nonwovens, coated fabric) where the area is formed by intersecting surfaces having conductive textile material by using eddy current technology in reflection mode setup/ arrangement.

This document specifies requirements and test methods for marketed and delivered automotive liquefied petroleum gas (LPG), with LPG defined as low pressure liquefied gas composed of one or more light hydrocarbons which are assigned to UN 1011, 1075, 1965, 1969 or 1978 only and which consists mainly of propane, propene, butane, butane isomers, butenes with traces of other hydrocarbon gases.
This standard is applicable to automotive LPG for use in LPG engine vehicles designed to run on automotive LPG.
NOTE For the purposes of this European Standard, the terms "% (m/m)" and "% (V/V)" are used to represent respectively the mass fraction, µ, and the volume fraction, f.
WARNING - Attention is drawn to the risk of fire and explosion when handling LPG and to the hazard to health arising through inhalation of excessive amounts of LPG.
LPG is a highly volatile hydrocarbon liquid which is normally stored under pressure. If the pressure is released large volumes of gas will be produced which form flammable mixtures with air over the range of approximately 2 % (V/V) to 10 % (V/V). This European Standard involves the sampling, handling and testing of LPG. Naked flames, unprotected electrical equipment electrostatic hazards etc. are sources of ignition for LPG.
LPG in liquid form can cause cold burns to the skin. The national health and safety regulations apply.
LPG is heavier than air and accumulates in cavities. There is a danger of suffocation when inhaling high concentrations of LPG.
CAUTION - One of the tests described in this European Standard involves the operator inhaling a mixture of air and LPG vapour. Particular attention is drawn to the cautionary statement provided in A.1, where this method is referred to.

EN 13611:2019, Clause 1 is replaced by following: 
This document specifies safety, constructional and performance requirements of valve-proving systems, hereafter referred to as VPS, intended for use with gas burners and gas-burning appliances. It also describes the test procedures for checking compliance with these requirements and provides information necessary for the purchaser and user. 
This document applies to all types of VPS which are used for the automatic detection of leakage in a gas  burner section having at least two valves designed in accordance with EN 161 and which give a signal if  the leakage of one of the valves exceeds the detection limit. 
This document applies to VPS for fuel gases with a maximum working pressure up to and including 500 kPa. 
This document does not apply to VPSs for use in explosive atmospheres. 
This document is applicable to AC and DC supplied VPS (for VPS supplied by stand-alone battery  system, battery systems for mobile applications or systems which are intended to be connected to DC supply networks VPS see Annex I). 
Provisions for production control are not part of this document.

EN 13611:2019, 1 is replaced by the following:
This document specifies the safety, construction and performance requirements for automatic burner control systems, programming units, flame detector devices and HTO detectors, intended for use with gas and oil burners and gas and oil burning appliances, with or without fans and similar use.
This document is applicable to automatic burner control systems that include additional functions.
This document does not cover automatic burner control systems utilizing thermo-electric flame supervision devices.
NOTE 1 European Standards for burners, appliances or processes which use automatic burner control systems, programming units, flame detectors or HTO detectors can override the requirements of this standard.
NOTE 2 Provisions for production control are not part of this document.

This part of ISO 13849 specifies a methodology and provides related guidance for the design and integration of safety-related parts of control systems (SRP/CS), including the design of software. This document specifies the characteristics needed to determine the performance level required of safety functions. This document applies to SRP/CS for high demand and continuous mode including their subsystems, regardless of the type of technology and energy (e.g. electrical, hydraulic, pneumatic, mechanical), for many kinds of machinery. The standard does not apply to low demand mode.
This document does not specify the safety functions or required performance levels that are to be used in particular applications.
This document does not give specific requirements for the design of products that are parts of SRP/CS.
This document does not provide specific measures for security (e.g. physical, IT-security, cyber security) aspects.
NOTE 1 This document specifies a methodology for SRP/CS design without considering if certain machinery (e.g. mobile machinery) requires specific requirements. These specific requirements can be considered in a Type‑C standard.
NOTE 2 See IEC 61508 for low demand mode.
NOTE 3 See also ISO/TR 22100-4 for IT-security aspects and IEC/TR 63074 for security aspects.

This part of ISO 13849 specifies a methodology and provides related guidance for the design and integration of safety-related parts of control systems (SRP/CS), including the design of software. This document specifies the characteristics needed to determine the performance level required of safety functions. This document applies to SRP/CS for high demand and continuous mode including their subsystems, regardless of the type of technology and energy (e.g. electrical, hydraulic, pneumatic, mechanical), for many kinds of machinery. The standard does not apply to low demand mode.
This document does not specify the safety functions or required performance levels that are to be used in particular applications.
This document does not give specific requirements for the design of products that are parts of SRP/CS.
This document does not provide specific measures for security (e.g. physical, IT-security, cyber security) aspects.
NOTE 1 This document specifies a methodology for SRP/CS design without considering if certain machinery (e.g. mobile machinery) requires specific requirements. These specific requirements can be considered in a Type‑C standard.
NOTE 2 See IEC 61508 for low demand mode.
NOTE 3 See also ISO/TR 22100-4 for IT-security aspects and IEC/TR 63074 for security aspects.

This part of ISO 13849 specifies a methodology and provides related guidance for the design and integration of safety-related parts of control systems (SRP/CS), including the design of software. This document specifies the characteristics needed to determine the performance level required of safety functions. This document applies to SRP/CS for high demand and continuous mode including their subsystems, regardless of the type of technology and energy (e.g. electrical, hydraulic, pneumatic, mechanical), for many kinds of machinery. The standard does not apply to low demand mode.
This document does not specify the safety functions or required performance levels that are to be used in particular applications.
This document does not give specific requirements for the design of products that are parts of SRP/CS.
This document does not provide specific measures for security (e.g. physical, IT-security, cyber security) aspects.
NOTE 1 This document specifies a methodology for SRP/CS design without considering if certain machinery (e.g. mobile machinery) requires specific requirements. These specific requirements can be considered in a Type‑C standard.
NOTE 2 See IEC 61508 for low demand mode.
NOTE 3 See also ISO/TR 22100-4 for IT-security aspects and IEC/TR 63074 for security aspects.

This document, together with EN 1009-1:2020+A1:202X, specifies safety requirements and verification for the design and construction of mobile machinery for crushing, screening, feeding, conveying minerals and by-products: (cement, lime, gypsum. sand, gravel, industrial minerals, metalliferous ore, and hard and soft rock aggregates, coal) and by-products (slag and ashes, production and demolition waste) in construction and industry.
In addition, this document specifies the type of information on safe working practices (including residual risks) to be provided by the manufacturer.
The requirements of this document are complementary to the common requirements formulated in EN 1009-1:2020+A1:202X, EN 1009-2:2020+A1:202X, EN 1009-3:2020+A1:202X, EN 1009-4:2020+A1:202X, EN 1009-5:2020+A1:202X. This part does not repeat the requirements from EN 1009-1:2020+A1:202X, but adds or replaces them.
When requirements of this document are different from those which are stated in EN 1009-1:2020+A1:202X, EN 1009-2:2020+A1:202X, EN 1009-3:2020+A1:202X, EN 1009-4:2020+A1:202X, EN 1009-5:2020+A1:202X the requirements of this document takes precedence over the requirements of EN 1009-1:2020 for machines that have been designed and built according to the provisions of this document.
This document, together with EN 1009-1:2020+A1:202X, EN 1009-2:2020+A1:202X, EN 1009-3:2020+A1:202X, EN 1009-4:2020+A1:202X, EN 1009-5:2020+A1:202X deals with all the identified significant hazards, hazardous situations and events relevant to machinery for cleaning, recycling, mud treatment when they are used as intended and under the conditions of misuse which are reasonably foreseeable by the manufacturer associated with the whole lifetime of the machine (see Annex A).
This document does not apply to machines with a seated or standing operator while driving.
This document does not cover:
— design relating to road traffic regulations (e.g. lighting, dimensions, speed limit plate);
— hazards arising from the use of the machines in potentially explosive atmospheres as well as from processing of explosive materials and risks related to electromagnetic compatibility;
— hazards arising from the use of the laser sensors.
NOTE For travelling on public roads, national traffic regulations apply (e.g. braking, steering, lighting, towing etc.) until harmonized requirements are available.
This document is not applicable to mobile machines, which are manufactured before the date of publication of this document by CEN.

This document specifies design criteria for closed water-based cooling systems in buildings. The requirements aim at achieving a proper technical quality level and maintaining the desired thermal indoor climate with minimum energy consumption.
Systems for dissipating process heat from industrial processes, for example, are not covered by this document.
This document does not amend product standards or product installation requirements. The standard covers cooling systems of the following type (see Figure 1):
1) devices for the water-based heat rejection of the chilling system;
2) devices for chilling and storage of chilled water;
3) devices for the distribution of chilled water;
4) devices for the absorption of heat (“cooling emission”);
5) control devices;
6) safety devices.

The design of such systems is described in this document. In the case of water-based cooling systems with local operating temperatures ≤ 0 °C separate safety aspects may apply. The other Clauses of this document are still valid for those systems.
This document does not cover the chilling system itself, but only the parts of the chilling system which are an integral part of the cooling system, including determination of the design performance.Furthermore this document does not cover:
— the requirements for installation or instructions for operation, maintenance and use;
— the design of the system components (e.g. recooler, chilling system, coolers, pipes, safety devices etc.).
The relevant technical rules with regard to the prevention of corrosion are to be observed in the material selection for the system components and the nature of the heat transfer medium.

This document specifies requirements for the construction and performances of other pyrotechnic articles, except pyrotechnic articles for vehicles, ignition devices and cartridges for powder actuated tools (PAT), of the following generic types:
— flares;
— flash devices;
— gas generators;
— heaters;
— other cartridges;
— pyromechanical devices;
— rockets and rocket motors;
— semi-finished pyrotechnic articles;
— smoke / aerosol generators;
— sound emitters;
— pyrotechnic liquid dispersers.
This document does not apply for articles containing pyrotechnic compositions that include any of the following substances:
— arsenic or arsenic compounds;
— polychlorobenzenes;
— mercury compounds;
— lead compounds (except for those included in ignition devices);
— white phosphorus;
— picrates or picric acid.

This document defines the procedure for categorization of other pyrotechnic articles except pyrotechnic articles for vehicles, ignition devices and cartridges for powder actuated tools (PAT).

This document specifies test methods for other pyrotechnic articles (except pyrotechnic articles for vehicles, cartridges for powder actuated tools and ignition devices).

This document specifies the minimum labelling requirements and the mandatory instructions for use for other pyrotechnic articles (except pyrotechnic articles for vehicles, cartridges for powder actuated tools and ignition devices).

This document specifies a test method for the assessment of the resistance of coatings to pressure water-jetting. The test method simulates the effects pressure water-jetting has on a coating.

This document sets requirements and provides guidelines for establishing, implementing, maintaining, reviewing and improving an effective management system for knowledge management in organizations. All the requirements of this document are applicable to any organization, regardless of its type or size, or the products and services it provides.

This document establishes the general principles for the evaluation and minimization of the effects of stray current corrosion on external surfaces of buried or immersed pipeline systems caused by AC and DC electrical interference.
Other stray current effects such as overheating, and interference with welding operations are not covered in this document.
A brief description of AC effects, general principles and some guidelines, are provided.
NOTE 1 See ISO 18086 for the effects of alternating current on buried or immersed pipelines.
Systems that can also be affected by stray currents include buried or immersed metal structures such as the following:
a) pipeline systems;
b) metal sheathed cables;
c) tanks and vessels;
d) earthing systems;
e) steel reinforcement in concrete;
f) sheet steel piling.
This document gives guidelines for
— the design of cathodic protection systems that might produce stray currents,
— the design of pipeline systems, or elements of pipeline systems, which are buried or immersed, and which can be subject to stray current corrosion, and
— the selection of appropriate protection or mitigation measures.
Internal corrosion risks from stray currents are not dealt with in detail in this document but principles and measures described here can be applicable for minimizing the interference effects.
NOTE 2 The impact of electromagnetic interference on above-ground appurtenances of pipeline systems is
covered in EN 50443, IEC 61140, IEC 60364-4-41, IEC 60479-1, IEC 60364-5-52, IEC/TS 61201 and IEC/TR 60479-5.
This document can also be used for pipeline systems outside of the petrochemical and natural gas industries and other buried or immersed structures.
NOTE 3 EN 50162 provides guidance for railway related structures.

This document specifies safety requirements relating to materials, construction, performance, packaging and labelling of soother holders (see B.1).
It includes test methods for the mechanical and chemical requirements specified.
This document is intended to provide safety requirements for soother holders. All products that allow the attachment of a soother intended for babies and young children with any other product are included in the scope. The soother holder has a holding device at one end for the soother, a garment fastener that attaches to any other product, e.g. the child’s garment and a connecting device linking these parts. The safety requirements of these other products cannot be considered in this document.
Where a soother holder is considered to have significant play value, the soother holder is expected to meet the safety requirements for toys as stated in the Toy Directive 2009/48/EC [6] in addition to those in this document. The addition of decorations or providing animal shaped fasteners does not automatically make the soother holder a toy. Where there is doubt concerning the classification of a soother holder as a toy, advice can be sought from an EU Toy Notified Body or the Member State’s Competent Authority for toys (see B.2).

This International Standard specifies the boundary dimensions and normal class tolerance values for needle roller bearings with machined rings.
This International Standard specifies dimensional and geometrical characteristics, limit deviations from nominal sizes.
These specifications apply to complete needle roller bearings and to bearings without inner ring.
Recommended values for the tolerances for shaft raceways for needle roller bearings without inner ring are given in Annex A.

This International Standard specifies the boundary dimensions and normal class tolerance values for needle roller bearings with machined rings.
This International Standard specifies dimensional and geometrical characteristics, limit deviations from nominal sizes.
These specifications apply to complete needle roller bearings and to bearings without inner ring.
Recommended values for the tolerances for shaft raceways for needle roller bearings without inner ring are given in Annex A.

This International Standard specifies the boundary dimensions and preferred dimensions to be used for drawn cup needle roller bearings without inner ring as well as the minimum chamfer dimension limits. Also specified
are the closed end thickness dimensions for bearings with one closed end.

In addition, dimensional tolerances for the needle roller complement bore diameter are specified. Measurement methods are described in ISO 1132-2.
Informative values for the tolerances for shaft raceways and housings are given in Annex A.

This Standard specifies laboratory test procedures for applying repeated load cycles which generate displacement cycles representative of the displacements caused by traffic on railway track. It is used for assessing the long term performance of rail fastening systems.
The procedure is applicable to surface mounted rail on sleepers, bearers and slab track, and embedded rail.
This test procedure applies to a complete fastening assembly.

1.1 This document covers essential recommendations for dosimetry needed to conduct research on the effects of ionizing radiation on materials, products and biological samples. Such research includes establishment of the quantitative relationship between absorbed dose and the relevant effects. This document also describes the overall need for dosimetry in such research, and for reporting of the results. Dosimetry should be considered
an integral part of the experiment, and the researcher is
responsible for ensuring the accuracy and applicability of the dosimetry system used.
NOTE 1—For research involving food products, note that the Codex
Alimentarius Commission has developed an international General Standard
and a Code of Practice that address the application of ionizing radiation to the treatment of foods and which strongly emphasizes the role of dosimetry for ensuring that irradiation will be properly performed (1).2
NOTE 2—This document includes tutorial information in the form of
Notes. Researchers should also refer to the references provided at the end
of the standard, and other applicable scientific literature, to assist in the
experimental methodology as applied to dosimetry (2-5).
1.2 This document covers research conducted using the following types of ionizing radiation: gamma radiation (typically from Cobalt-60 or Cesium-137 sources), X-radiation (bremsstrahlung, typically with energies between 50 keV and 7.5 MeV), and electrons (typically with energies ranging from
80 keV to more than 10 MeV). See ISO/ASTM 51608, 51649,
51818 and 51702.
1.3 This document describes dosimetry recommendations for establishing the experimental method. It does not include dosimetry recommendations for installation qualification or operational qualification of the irradiation facility. These subjects are treated in ISO/ASTM 51608, 51649, 51818 and
51702.
1.4 This document is not intended to limit the flexibility of the researcher in the determination of the experimental methodology. The purpose of the document is to ensure that the radiation source and experimental methodology are chosen such that the results of the experiment will be useful and understandable to other scientists and regulatory agencies. The
total uncertainty in the absorbed-dose measurement results and the absorbed-dose variation within the irradiated sample should be taken into account in the interpretation of the research results (see ISO/ASTM Guide 51707).
1.5 This document is one of a set of standards that provides recommendations for properly implementing dosimetry in radiation processing, and describes a means of achieving compliance with the requirements of ISO/ASTM 52628. This document is thus intended to be read in conjunction with ISO/ASTM 52628.
1.6 This standard does not purport to address all of the safety concerns, if any, associated with its use. It is the responsibility of the user of this standard to establish appropriate safety, health, and environmental practices and determine the applicability of regulatory limitations prior to use.
1.7 This international standard was developed in accordance with internationally recognized principles on standardization established in the Decision on Principles for the Development of International Standards, Guides and Recommendations issued by the World Trade Organization Technical Barriers to Trade (TBT) Committee.

1 This document is under the jurisdiction of ASTM Committee E61 on Radiation Processing and is the direct responsibility of Subcommittee E61.04 on Specialty Application, and is also under the jurisdiction of ISO/TC 85/WG 3.
Current edition approved by ASTM April 1, 2019. Published XX. Originally
published as ASTM E1900–97. The present Third Edition of International Standard ISO/ASTM 51900:2021(E) is a major revision of the Second Edition of ISO/ASTM 51900:2009(E).
2 The boldface numbers in parentheses refer to the bibliography at the end of this document.

This document provides guidance in the preparation, verification, and validation of group-averaged neutron and gamma-ray cross sections for the energy range and materials of importance in radiation protection and shielding calculations for nuclear reactors1).

This document specifies a test method to determine the resistance of a bituminous mixture or pavement to fuels. The procedure involves initial soaking of a test specimen made in the laboratory or cored from a pavement in a fuel, followed by a brushing period with a brush test device. The material loss of the specimen is a measure of the resistance to that fuel for that bituminous mixture.

This document specifies a test method for determining the resistance of vitreous and porcelain enamel coatings to abrasion by rubbing, grinding or other mechanical effects.

This document applies to the following groups of machines, auxiliary equipment and their combinations:
— palletizers;
— depalletizers;
— auxiliary equipment incorporated in or linked to the operations of palletizers and depalletizers;
— conveying system which are part of palletizers or depalletizers.
The individual machines are described in 3.2. Auxiliary equipment is described in 3.3.
For all packaging machines within the scope of this document, EN 415-10 also applies. EN 415-4 describes the additional or specific hazards for palletizers and depalletizers. The requirements of this document will take precedence over the requirements set out in EN 415-10.
This document deals with safety requirements for machine design, transport, installation, commissioning, operation, adjustment, maintenance and cleaning of palletizers, depalletizers, auxiliary equipment and conveying systems which are part of palletizer or depalletizer. The extent to which hazards, hazardous situations and events are covered are indicated in Clause 4.
NOTE The hazards on a specific machine can vary depending on its working principle, the type, size and mass of the product, the packaging material, auxiliary equipment attached to the machine and the environment in which the machine is used. If the machine presents hazards that are not covered by this document or EN 415-10, it is intended that the manufacturer will assess these hazards and take measures by using the principles detailed in EN ISO 12100.
Exclusions:
This document is not applicable to the following machines:
— machines where the layer is built manually on the pallet or pallet load without layer forming and layer transfer;
— machines that were manufactured before the date of publication of this document by CEN;
— conveyors that connect palletizers and depalletizers with machines that are not in the scope of this document.
Conveyors in the scope of this document also fall in the scope of EN 619.
This document describes the additional or specific hazards for conveyors fitted into palletizers and depalletizers and so the requirements of this document take precedence over the requirements of EN 619.
This document does not consider the following hazards:
— the use of palletizers and depalletizers in potentially explosive atmospheres;
— the health, safety or hygiene hazards associated with the products that are contained in the unit load handled by palletizers and depalletizers except with regard to possible malfunction of a machine causing spillage of hazardous substances.

This document establishes a test method for evaluating the wear caused to the road surface by passenger car tyres and light truck tyres that are equipped with studs.

This document specifies a method of determining the tear resistance of a plastic film under specified conditions. It is applicable to products that, because of their flexibility, do not tear when clamped between the grips of a tensile testing machine. The method makes it possible to compare samples of different products provided their thickness does not differ by more than 10 %.

ISO 15874-1:2013 specifies the general aspects of polypropylene (PP) piping systems intended to be used for hot and cold water installations within buildings for the conveyance of water whether or not intended for human consumption (domestic systems), and for heating systems, under design pressures and temperatures according to the class of application.
It covers a range of service conditions (classes of application), design pressures and pipe dimension classes.
It also specifies test parameters for test methods.
In conjunction with the other parts of ISO 15874, ISO 15874-1:2013 is applicable to PP pipes, fittings, their joints and to joints with components of other plastics and non-plastics materials intended to be used for hot and cold water installations.

This International Standard specifies the characteristics and requirements for components such as pipes, fittings and valves made from one of the following materials: - acrylonitrile-butadiene-styrene (ABS); - unplasticized poly(vinyl chloride) (PVC-U); - chlorinated poly(vinyl chloride) (PVC-C); intended to be used for thermoplastics piping systems in above-ground industrial applications. This International Standard is applicable to ABS, PVC-U or PVC-C pipes, fittings, valves and ancillary equipment, to their joints and to joints with components made of other plastics and non-plastics materials, depending on their suitability, intended to be used for the conveyance of liquid and gaseous fluids as well as of solid matter in fluids for industrial applications such as: - chemical plants; - industrial sewerage engineering; - power engineering (cooling and general-purpose water supply); - melectroplating and pickling plants; - the semiconductor industry; - agricultural production plants; - water treatment. NOTE 1 Where relevant, national regulations for specific applications (e.g. water treatment) apply. Other application areas are permitted if the requirements of this International Standard and/or applicable national requirements are fulfilled. Relevant regulations in respect of fire behaviour and explosion risk are applicable if applications are envisaged for inflammable media. The components have to withstand the mechanical, thermal and chemical demands to be expected and have to be resistant to the fluids to be conveyed. Characteristics and requirements which are applicable to all three materials (ABS, PVC-U and PVC-C) are covered by the relevant clauses of this International Standard. Those characteristics and requirements which are dependent on the material are given for each material in the relevant annex.

This Part of EN ISO 15874 specifies the characteristics of fittings for polypropylene (PP) piping systems, intended to be used for hot and cold water installations within buildings for the conveyance of water, whether or not intended for human consumption (domestic systems) and for heating systems, under design pressures and temperatures according to the class of application (see Table 1 of EN ISO 15874-1:2003).
This standard covers a range of service conditions (classes of application) and design pressure classes. For values of TD, Tmax and Tmal in excess of those in Table 1of Part 1, this standard does not apply.
NOTE It is the responsibility of the purchaser or specifier to make the appropriate selections from these aspects, taking into account their
particular requirements and any relevant national regulations and installation practices or codes.
It also specifies the test parameters for the test methods referred to in this standard.
In conjunction with the other Parts of EN ISO 15874 (see Foreword) it is applicable to PP pipes, fittings, their joints and to joints with components of other plastics and non-plastics materials intended to be used for hot and cold water installations.

This document supports the data quality assessment and selection of data for product-level Environmental Product Declarations (EPD) according to the core product category rules of EN 15804 and for the environmental performance assessment of buildings according to prEN 15978-1 in a consistent way. It can also be used to assess and select data for the environmental assessment of civil engineering works.
It defines data quality requirements with respect to temporal, technological and geographic representativeness for the data used to calculate the LCA based indicator results of the EPD and for construction works when applying EPD, life cycle inventory data or other LCA based information and generates a hierarchy to support the selection of the most appropriate data with regard to data quality. It also addresses the reporting of data quality at product and building level.

This document provides horizontal rules for business-to-consumer communication including benchmarking systems that aim to inform consumers about the environmental performance of construction products, assembled systems and construction elements.
This document is aimed at organizations providing business-to-consumer communication and benchmarking systems and provides guidance on how to develop business-to-consumer communication and common rules for benchmarking methodologies using EPD according to EN 15804 and following the EN 15942 communication format.
Business-to-consumer communication and benchmarking methodology described in this document is based on a functional unit and cradle-to-grave assessments.

This International Standard specifies requirements, methods of sampling and methods of test for wet blue leather produced from goat skins tanned without hair and with the use of basic chromium sulfate as the primary tanning agent.

NOTE Regulations on chemical substances may differ from country to country and special attention shall be made in the choice of chemicals

This International Standard specifies requirements, methods of sampling and methods of test for wet blue leather produced from sheep skins tanned without wool and with the use of basic chromium sulfate as the primary tanning agent.

NOTE Regulations on chemical substances may differ from country to country and special attention shall be made in the choice of chemicals.

This International Standard specifies requirements, methods of sampling and methods of test for wet blue leather produced from bovine hides and parts of bovine hides tanned without hair and with the use of basic chromium sulfate as the primary tanning agent.
NOTE Regulations on chemical substances may differ from country to country and special attention shall be made in the choice of chemicals

This document provides a process for the evaluation of the potential for sustainable refurbishment of an existing building, as a mean of contributing to the circular economy. This document gives guidelines to assess performance of existing buildings in order to determine what to do in a set of alternatives: Refurbish for similar or new use, use as is or sustainably deconstruct. Sustainable refurbishment aims to close the gap between current performance and current requirements. It can be used for a building or part(s) of a building, as well as a portfolio of buildings.
This document gives a method for assessing performance of existing buildings:
1) Technical (including energy) characteristics
2) Usability for users
3) Adaptability for changes
4) Indoor environment (health aspects)
5) Economic feasibility
6) Embodied environmental impacts
The document describes the work to be done in main applicable categories of a 5 steps process:
• Step 0: Establish brief of the object of the assessment
• Step 1: Evaluating the building
• Step 2: Sustainable deconstruction
• Step 3: Sustainable construction process
• Step 4: Sustainable commissioning
• Step 5: Sustainable in use
NOTE In this document, the users are people and organisations working in the building, including the facility management. In some buildings visitors are also important users.
This approach is generic for all types of buildings. At present this document does not cover civil engineering work and it does not give benchmarks for the evaluation.
Assessment of the impacts of sustainable refurbishment of buildings is covered by calculation methods described in EN 15978, EN 16309 and EN 16627.

This International Standard specifies the mounting dimensions required for the interchangeability of accessories for 16 MPa [160 bar] medium series cylinders in accordance with ISO 6020-1 and for 25 MPa (250 bar) series cylinders, in accordance with ISO 6022. The accessories have been designed specifically for use with cylinders manufactured in accordance with ISO 6020-1 and ISO 6022, but this does not limit their application.
NOTE 1 bar = 0,1 MPa = 105 Pa; 1 MPa = 1 N/mm2
This International Standard covers the following accessories, identified in accordance with ISO 6099:
— AP2 — rod clevis, female thread (see Figure 1 and Table 1);
— AF3 — rod flange, circular (see Figure 2 and Table 2);
— AB4 — clevis bracket, straight (see Figure 3 and Table 3);
— AB3 — clevis bracket, in angle (see Figure 4 and Table 4);
— AT4 — trunnion bracket (see Figure 5 and Table 5);
— AA4-R — pivot pin, plain (snap ring type) (see Figure 6 and Table 6);
— AA4-S — pivot pin, plain (split pins) (see Figure 7 and Table 7);
— AA6-R — pivot pin, spherical bearing (snap ring type) (see Figure 6 and Table 6);
— AA6-S — pivot pin, spherical bearing (split pins) (see Figure 7 and Table 7);
— AP6 — rod eye spherical, female thread (see Figure 8 and Table 8);
— AP4 — rod eye plain, female thread (see Figure 9 and Table 9).
These accessories are used on hydraulic cylinders for mechanically transmitting the cylinder force. The design of these accessories is based on the maximum forces resulting from the specified internal diameters of the cylinders and pressures according to ISO 3320 and ISO 2944.
This International Standard applies only to the dimensional criteria of products manufactured in conformity with this International Standard; it does not apply to their functional characteristics.

This International Standard specifies the mounting dimensions required for interchangeability of accessories for 16 MPa [160 bar)] compact cylinders conforming to ISO 6020-2. The accessories have been designed specifically for use with cylinders manufactured in accordance with ISO 6020-2, but this does not limit their application.
NOTE 1 bar = 0,1 MPa = 105 Pa; 1 MPa = 1 N/mm2.
This International Standard covers the following accessories, identified in accordance with ISO 6099:
— AP6 — rod eye spherical, female thread (see Figure 1 and Table 1);
— AB5 — clevis bracket, spherical eye, in angle (see Figure 2 and Table 2);
— AA6-L — pivot pin, spherical bearing, locking plate (see Figure 3 and Table 3);
— AL6 — locking plate for pivot pin (see Figure 4 and Table 4);
— AP2 — rod clevis, female thread (see Figure 5 and Table 5);
— AP4 — rod eye plain, female thread (see Figure 6 and Table 6);
— AB2 — eye bracket (see Figure 7 and Table 7);
— AB4 — clevis bracket, straight (see Figure 8 and Table 8);
— AA4-S — pivot pin, plain (split pins) (see Figure 9 and Table 9);
— AA4-R — pivot pin, plain (rings) (see Figure 10 and Table 10);
— AT4 — trunnion bracket (see Figure 11 and Table 11).
These accessories are used on hydraulic cylinders for mechanically transmitting the cylinder force. The design of these accessories is based on the maximum forces resulting from the specified internal diameters of the cylinders and pressures according to ISO 3320 and ISO 2944.
This International Standard only applies to the dimensional criteria of products manufactured in conformity with this International Standard; it does not apply to their functional characteristics.

This method is applicable to the determination of microplastics (from textile sector) collected in different matrices, (e.g. textile process wastewater, clothes washing water, textile process air emissions, textile process solid waste, etc.).
The method allows obtaining a qualitative-quantitative analytical determination of the microplastics able to define the:
— number,
— morphology (morphological characteristics)
— dimensional distribution,
— the type, chemical origin or nature of polymers and their color, if present.
The method is also able to express the results in terms of estimated surface area and weight of MP per unit sample.
The method allows to express uniquely the results of the quantifications of MP, and therefore with a unit of measurement not depending by the origin of the sample investigated (raw material, manufacturing process, environmental sample (wastewater, e.g. from washing clothes, air, industrial process water, etc.)
The method allows the determination on textile sector samples of matrices of different physical states (solid, liquid or aeriform) for example:
— solid samples from textile production processes
— water samples from the textile production process and/or from the washing of clothing
— air samples for testing the air quality in the workplace of textile companies.
The method, being able to provide information such as size, shape, surface and weight (estimated), will allow to transfer information useful for ecotoxicological assessments to specialists.
Alternatively to a complete definition of the above parameters, is possible to determine, more simply, only the weight of each polymer present in the sample using the thermo-analytical methods reported on Annex D.

1.1 This document describes two methods for identification of antidegradants (antioxidants, antiozonants and stabilizers) by thin layer chromatography, which can be present in raw rubber, unvulcanized compounded rubber, or rubber products.
Method A is a simplified method provides for the identification of known materials and may be used to check the presence or absence of a particular antidegradant which should be present.
Method B is a more detailed method enables a greater degree of separation of the spots to be obtained and therefore may be used to detect and identify an unknown antidegradant.
1.2 Antidegradants to which these methods are applicable include phosphited polyalkyl phenols, substituted bisphenols, secondary amines, substituted cresols and substituted p-phenylenediamines. Examination for other types of antidegradants is possible, provided that the requirement of 12.1 is met.

This document specifies requirements for the hose tail of hose fittings according to EN 14420-1 for use with clamp units according to EN 14420-3. Furthermore, it specifies materials for hose fittings with clamp units according to EN 14420-4 to EN 14420-8.
Maximum working pressure is 25 bar1); maximum working temperature is 65 °C.

This document specifies the reference method used for type testing and in case of dispute, for determination of the particle size distribution of aggregates, by washing and dry sieving. Other methods can be used for other purposes, such as factory production control, provided that an appropriate working relationship with the reference method has been established.
This document applies to all aggregates, with an upper aggregate size D up to 90 mm, but excluding added filler aggregates.
NOTE The determination of the grading of fillers is specified in EN 933-10 [1].
Annex A specifies a test method for aggregates unsuitable for oven-drying.
Annex B specifies additional steps for preparation of the test portion for all-in aggregates with D ≥ 31,5 mm, without washing size fractions greater than 16 mm.
Annex C provides guidance for maximum mass on sieves to avoid overloading.
Annex D provides an example of test data sheet.
Annex E provides a sheet for graphical presentation of test results.
Annex F gives precision data.
Annex A is normative and Annexes B, C, D, E and F are informative.
WARNING – The use of this part of EN 933 can involve hazardous materials, operations and equipment (such as dust, noise and heavy lifts). It does not purport to address all of the safety or environmental problems associated with its use. It is the responsibility of users of this document to take appropriate measures to ensure the safety and health of personnel and the environment prior to application of the standard, and fulfil statutory and regulatory requirements for this purpose.

This document specifies the procedures for measuring the energy consumption and driving range of fuel cell passenger cars and light-duty trucks that use compressed hydrogen.

This document defines minimum safety requirements to be observed in the planning, construction or reconstruction of wastewater treatment plants.
The purpose of this document is to ensure the protection of people.

This document specifies data which is necessary for the planning, design, bidding, performance guarantees, construction, start-up and compliance testing of a wastewater treatment plant or parts of it. Differences in wastewater treatment throughout Europe have led to a variety of practices being developed. This document gives fundamental information about the practices; this document has not attempted to specify all available practices.

This document specifies the requirements for chemical treatment of wastewater by precipitation/flocculation for removal of phosphorus and suspended solids.
The application of polymers is not described in this document.
Differences in wastewater treatment throughout Europe have led to a variety of practices being developed. This document gives fundamental information about the practices; this standard has not attempted to specify all available practices.
NOTE Chemical treatment can be performed in combination with primary and more commonly with secondary treatment, but it can also be performed as separate tertiary treatment, usually in combination with filtration (see EN 12255-16). Chemical treatment can provide a potential contribution to the circular economy through the recovery of materials, such as phosphorus, from wastewater or sludge.

This document specifies performance requirements for treatment of wastewater using the activated sludge process for plants over 50 PT.
A variety of activated sludge systems has been developed. This document has not attempted to specify all available systems. This document provides fundamental information about single stage systems.
The informative Annexes A, B and C provide design information.

This International Standard specifies the information needed for the design type testing of packaging, Intermediate Bulk Containers (IBCs) and large packaging intended for use in the transport of dangerous goods.
NOTE 1 This International Standard can be used in conjunction with one or more of the international regulations set out in the Bibliography.
NOTE 2 The term "packaging" includes packaging for Class 6.2 infectious substances according to the United Nations.

This document establishes terminology for Artificial Intelligence (AI) and describes concepts in the field of AI.
 This document can be used in the development of other standards and in support of communications among diverse, interested parties/stakeholders.
This document is applicable to all types of organizations (e.g. commercial enterprises, government agencies, not-for-profit organizations).

This document establishes an Artificial Intelligence (AI) and Machine Learning (ML) framework for describing a generic AI system using ML technology. The framework describes the system components and their functions in the AI ecosystem. This document is applicable to all types and sizes of organizations, including public and private companies, government entities, and not-for-profit organizations, that are implementing or using AI systems.

This document specifies requirements for the safety of removable cot duvet covers, used in the child’s sleeping environment (i.e. not under supervision), and designed to envelop a cot duvet when sleeping in a cot or similar product (e.g. crib/cradle) in which a child is contained. This document specifies requirements for removable cot duvet covers suitable for children up to 36 months.
The requirements for cot duvets are covered in EN 16779-1.
Some of the requirements in this document are not suitable for articles used by hospitals when nursing sick children. These include:
— openings for access for tubing to the patient or monitoring devices to monitor the patient;
— use of fastenings which may not be durable to industrial laundry processing used by hospitals.
If a part of the cot duvet cover is designed to offer additional functions (e.g. play function), in addition to the following requirements, this part will be subjected to safety requirements related to relevant standards (see B.1).

This document specifies requirements for the approval of a welding process by mobile plant, together with the requirements for subsequent welding production.
It applies to new Vignole railway rails R200, R220, R260, R260Mn, R320Cr, R350HT, R350LHT, R370CrHT and R400HT grade rails of 46 kg/m and above, as contained in EN 13674-1, welded by a flash butt welding process by mobile plant and intended for use on railway infrastructure.
This document applies to the welding of rails into welded strings.

This document describes the basic terms and definitions as well as general procedures for strength assessment of rail vehicle structures that are manufactured, operated and maintained according to standards valid for rail system applications.
The assessment procedure is restricted to ferrous materials and aluminium.
This document does not define design load cases.
This document is not applicable for corrosive conditions or elevated temperature operation in the creep range.
This document is applicable to all kinds of rail vehicles.

This document is applicable to Resilient Element for Floating Slab system (REFS) – Elements used in floating slab and defines the test procedures and their acceptance criteria.
The document covers not only those parameters related to the effectiveness of a track structure in mitigating vibrations, that is, to reduce the emission of vibrations and structure-borne noise, but also the parameters that are needed for the static analysis and for the verification of track safety.
Floating slab track systems in the form of track base plates and track troughs are individual solutions in which there is considerable variation in the engineering design and the types of resilient elements used. For this reason, a floating slab track system is always an individual engineering solution and therefore, it is not possible to define all specific conditions for the resilient elements in the present document
The most typical types of resilient elements are:
— Full surface bearings,
— Strip bearings,
— Discrete bearings (including the helical steel spring element),
— Vertical bearings.
This document provides particular information in the following areas:
— tests methods, tests arrangements and evaluation criteria of Resilient Element for Floating Slab system,
— data supplied by the purchaser and by the supplier,
— definition of general process of homologation,
— definition of routine tests.
This document defines the specific test procedures for REFS:
— stiffness tests,
— fatigue tests,
— severe environmental condition test.
This document also sets out procedures for testing fitness for purpose and provides information on quality monitoring as part of quality assurance procedures. This document does not, however, contain requirements pertaining to the functions of Resilient Element for Floating Slab system. It is the responsibility of the purchaser to define these requirements and to choose the optional tests.
This document is not applicable for fastening system and for booted concrete block and sleeper completed with boots covered by EN 13481-5.

This document specifies conformance tests in the form of an Abstract Test Suite (ATS) for a System Under Test (SUT) implementing an Electric Vehicle or Supply Equipment Communication Controller (EVCC or SECC) with support for WLAN-based High-Level Communication (HLC) according to ISO 15118‑8 and against the background of ISO 15118-1 Edition 2. These conformance tests specify the testing of capabilities and behaviors of an SUT, as well as checking what is observed against the conformance
requirements specified in ISO 15118‑8 and against what the implementer states the SUT implementation's capabilities are.
The capability tests within the ATS check that the observable capabilities of the SUT are in accordance with the static conformance requirements defined in ISO 15118‑8. The behavior tests of the ATS examine an implementation as thoroughly as is practical over the full range of dynamic conformance requirements defined in ISO 15118‑8 and within the capabilities of the SUT (see NOTE 1).
A test architecture is described in correspondence to the ATS. The conformance test cases in this part of the standard are described leveraging this test architecture and are specified in TTCN-3 Core Language for the ISO/OSI Physical and Data Link Layers (Layers 1 and 2).
In terms of coverage, this document only covers normative sections and requirements in ISO 15118‑8. This document can additionally refer to specific tests for requirements on referenced standards (e.g. IEEE, or industry consortia standards, like WiFi Alliance) as long as they are relevant in terms of conformance for implementations according to ISO 15118‑8. However, it is explicitly not intended to widen the scope of this conformance specification to such external standards, if it is not technically necessary for the purpose of conformance testing for ISO 15118‑8. Furthermore, the conformance tests specified in this document do not include the assessment of performance nor robustness or reliability of an implementation. They cannot provide judgments on the physical realization of abstract service
primitives, how a system is implemented, how it provides any requested service, nor the environment of the protocol implementation. Furthermore, the test cases defined in this document only consider the communication protocol and the system's behavior defined ISO 15118‑8. The power flow between the EVSE and the EV is not considered.
NOTE 1 Practical limitations make it impossible to define an exhaustive test suite, and economic considerations can restrict testing even further. Hence, the purpose of this document is to increase the probability that different
implementations are able to interwork. This is achieved by verifying them by means of a protocol test suite, thereby increasing the confidence that each implementation conforms to the protocol specification. However, the specified protocol test suite cannot guarantee conformance to the specification since it detects errors rather than their absence. Thus, conformance to a test suite alone cannot guarantee interworking. Instead, it gives confidence that an implementation has the required capabilities and that its behavior conforms consistently in representative instances of communication.

This document specifies all end-of-life activation of in-vehicle pyrotechnical devices identifiers, data identifiers, routine identifiers, data types, computations, and units.
This document is based on
— new safety-relevant system technology designed into the vehicles,
— new or more effective end-of-life activation of in-vehicle pyrotechnical devices, which would require additional test data, and routine controls,
— new regulations established by legislators, which are specific for a standardised end-of-life activation of in-vehicle pyrotechnical devices.
This document describes the end-of-life activation of in-vehicle pyrotechnical devices data definitions and associated technical requirements.
This document specifies:
— identifiers for end-of-life activation of in-vehicle pyrotechnical devices data definitions and associated technical requirements,
— data identifiers applicable to end-of-life activation of in-vehicle pyrotechnical devices data definitions and associated technical requirements,
— routine identifiers applicable to end-of-life activation of in-vehicle pyrotechnical devices data definitions and associated technical requirements.

This part of ISO 11451 specifies harness excitation methods for testing the electromagnetic immunity of electronic components for passenger cars and commercial vehicles regardless of the propulsion system (e.g. spark-ignition engine, diesel engine, electric motor).
The bulk current injection (BCI) test method is based on current injection into the wiring harness using a current probe as a transformer where the harness forms the secondary winding. The tubular wave coupler (TWC) test method is based on a wave coupling into the wiring harness using the directional coupler principle.
The TWC test method was developed for immunity testing of automotive components with respect to radiated disturbances in the GHz ranges (GSM bands, UMTS, ISM 2,4 GHz). It is best suited to small (with respect to wavelength) and shielded device under test (DUT), since in these cases the dominating coupling mechanism is via the harness.
The electromagnetic disturbance considered in this part of ISO 11451 is limited to continuous narrowband electromagnetic fields.
ISO 11451-1 gives definitions, practical use and basic principles of the test methods.

This document presents general principles and gives requirements and recommendations for the assessment of the stability of non-metallic materials for service in equipment used in oil and gas exploration and production environments. This information aids in material selection. It can be applied to help avoid costly degradation failures of the equipment itself, which could pose a risk to the health and safety of the public and personnel or the environment. This document also provides guidance for quality assurance. It supplements but does not replace, the material requirements given in the appropriate design codes, standards or regulations.
This document addresses the resistance of thermoplastics to the deterioration in properties that can be caused by physical or chemical interaction with produced and injected oil and gas-field media, and with chemical treatment. Interaction with sunlight and ionizing radiation are excluded from the scope of this document.
This document is not necessarily suitable for application to equipment used in refining or downstream processes and equipment.
The equipment considered includes, but is not limited to, non-metallic pipelines, piping, liners, seals, gaskets and washers.
Blistering by rapid gas decompression is not included in the scope of this document.

This document specifies minimum requirements for material, design, construction and workmanship, testing and examination during the manufacture of transportable refillable welded aluminium liquefied petroleum gas (LPG) cylinders, having a water capacity from 0,5 l up to and including 150 l, exposed to ambient temperature.

This European Standard specifies the following requirements:
a) requirements for measurement sections and sites with respect to performing emission measurements;
b) requirements for the measurement objective, plan and report of emission measurements of air pollutants
and reference quantities to be carried out in waste gas ducts at industrial plants.
This European Standard applies to periodic measurements using manual or automated reference methods
(RM).
This European Standard specifies generic principles which can be applied to perform emission measurements
at different plant types and to meet different measurement objectives.
NOTE The measurement objective is specified by the customer. The testing institute identifies the measurement objective and related regulatory requirements at the beginning of the measurement planning. Where measurements are being made for regulatory purposes, the customer should seek approval from the competent authority.
This European Standard specifies procedures for taking representative samples in waste gas ducts.
This European Standard specifies a procedure for finding the best available sampling point for automated measuring systems used for continuous monitoring of emissions.
The planning and reporting aspects of this European Standard are applicable to emission measurements at diffusive and fugitive emission sources.
This European Standard does not address aspects of structural safety of chimneys and ducts, construction of working platforms and safety of personnel using them.

This European Standard specifies procedures for establishing quality assurance levels (QAL) for automated measuring systems (AMS) installed on industrial plants for the determination of the flue gas components and
other flue gas parameters.
This European Standard specifies:
— a procedure (QAL2) to calibrate the AMS and determine the variability of the measured values obtained by it, so as to demonstrate the suitability of the AMS for its application, following its installation;
— a procedure (QAL3) to maintain and demonstrate the required quality of the measurement results during the normal operation of an AMS, by checking that the zero and span characteristics are consistent with those determined during QAL1;
— a procedure for the annual surveillance tests (AST) of the AMS in order to evaluate (i) that it functions correctly and its performance remains valid and (ii) that its calibration function and variability remain as previously determined.
This European Standard is designed to be used after the AMS has been certified in accordance with the
series of European Standards EN 15267.

This document applies to an articulated extraction arm used as a local exhaust device in laboratories and comprised of a specific capture device (receiving, enclosing or capture hood, nozzle or flat screen) connected to a specific extraction arm which is articulated ducting to move air from the capture device to discharge.
This document specifies:
• a method for type testing;
• a method to assess the three-dimensional capture zone of local exhaust devices mounted on an articulated extract arm;
• a method for assessing the isothermal and low energy emission release capture efficiency of local exhaust devices connected to an articulated extract arm and its robustness to a challenge of air disturbance directly in front of and in close proximity to the capture hood and release source positioned on a table;
• a method for establishing the reachable, three-dimensional workspace of local exhaust devices mounted on an articulated extract arm by measuring the possible positions of the opening of the device;
• a method for measuring the pressure drop and noise level in the type test and at onsite commissioning;
• instructions for marking the device and recommended information to transfer to users in the product manual;
• guidance for use describing the limitations of local exhaust devices with articulated extract arm for different airflow rates establishing the capture zone;
• guidance on selection, installation, commissioning, and testing of articulated extract arms and their local exhaust ventilation systems.
The standard covers only product performance test methods. Occupational health and safety assessments methods are not included in this standard.
Point sources with initial velocity due to temperature, pressure release, work process or similar are not covered by this standard.
The scope does not include filtration requirements and impact of fully or partly recirculated airflow extracted by an articulated extract arm.

This document specifies general requirements and related test methods that are relevant to assistive products for tissue integrity (APTI) in the lying position in different application environments such as hospitals, home care and institutions. This document applies to the safety of APTI, which are intended to remain in situ during periods of lying, and to prevent and/or treat pressure injuries.
This document covers a range of different lying support surfaces intended to be used in combination with the appropriate support platform or as a whole integrated system.
This document also covers assistive products primarily intended for tissue integrity for changing a lying position and assistive products for maintaining a lying position.
This document does not apply to lying support surfaces used in combination with incubators.
This document addresses the combination of a full body support surface and an adjustable mattress support platform. It also covers safety and performance test methods to ensure protection against injuries to the user.
This document specifies requirements and test methods for APTI within the following classifications of ISO 9999:2016:
04 33 06 Assistive products for tissue integrity when lying down such as but not limited to:
— Mattresses and mattress overlays for pressure injury prevention;
— Mattress coverings for pressure injury prevention mattresses.
12 31 03 Assistive products for sliding and turning such as but not limited to:
Devices for changing position or direction of a person using sliding or turning techniques. The only products included are those intended to be used in a lying position and remain in situ as part of the lying support surface. They are the following:
— sliding products that glide one way and lock the other way;
— sheets and underlays in flexible materials with low friction;
— fabric sold by the metre, cut as required for repositioning use;
— powered turning product;
This excludes sliding boards unless the produc ...

This document is applicable to ceramic tile grouts for internal and external tile installations on walls and floors.
This document gives the terminology concerning the products, working methods (see Annex A), application properties, etc. for ceramic tile grouts.
This document specifies the performance requirements for cementitious and reaction resin grouts for ceramic tiles.
This document does not contain criteria or recommendations for the design and installation of ceramic tiles.
Ceramic tile grouts can also be used for other types of tiles (natural and agglomerated stones, etc.), where these do not adversely affect these materials.

This document specifies the methods for determining characteristics for grouts used in internal and external installation of ceramic tiles.
This document does not contain performance requirements or recommendations for the design and installation of ceramic tiles.
The following test methods are described:
— Determination of flexural and compressive strength (9.1);
— Determination of water absorption (9.2);
— Determination of shrinkage (9.3);
— Determination of resistance to abrasion (9.4);
— Determination of chemical resistance (9.5).
Grouts for ceramic tiles can be used also for other kinds of tiles (natural and agglomerated stones, etc.), if they do not adversely affect the stones.
WARNING — This document can involve hazardous materials and operations. It is important that persons using this document are familiar with normal laboratory practice. This document does not purport to address all the safety problems, if any, associated with its use. It is the responsibility of the user to establish appropriate safety and health practices and to ensure compliance with any European and national regulatory conditions.

This International Standard specifies the stem wedge angle intended to ensure a secure assembly between the handlebar stem and the fork stem.
NOTE The wedge angle has the same function as the angle of the expander cone.

This document defines and depicts the most common vocabularies about defects which occur in the manufacture, storage and usage of footwear and which may be determined during visual inspection of end product.
This document does not include testing methods and numerical judgments of these defects.
NOTE The photos are just examples, not represent all possible instances.

This document specifies a test method (using liquid chromatography, LC) for detection and quantification of selected extractable perfluorinated and polyfluorinated substances in textile materials (fibres, yarns, fabrics) and coated fabrics.
NOTE CEN/TR 16741 defines which materials are applicable to this determination.
A test method (using gas chromatography, GC) for detection and quantification of selected extractable perfluorinated and polyfluorinated substances is specified in prEN 17681-2.
Classes of regulated compounds are listed in Table 2. Classes of other non-regulated compounds that can be determined by this document are defined in Annex C, Table C.1. This document is also applicable for further PFAS substances provided that the method is validated with the additional compounds.

This document specifies a test method (using gas chromatography, GC) for detection and quantification of selected extractable perfluorinated and polyfluorinated substances in textile materials (fibres, yarns, fabrics) and coated fabrics.
NOTE CEN/TR 16741 defines which materials are applicable to this determination.
A test method (using liquid chromatography, LC) for detection and quantification of selected extractable perfluorinated and polyfluorinated substances is specified in prEN 17681-1.
Classes of regulated compounds are listed in Table 2. Classes of other non-regulated compounds that can be determined by this document are defined in Annex C, Table C.1. This document is also applicable for further PFAS substances provided that the method is validated with the additional compounds.

This part of ISO 7637 specifies test methods and procedures to ensure the compatibility to conducted
electrical transients of equipment installed on road vehicles fitted with 12 V, 24 V or 48 V electrical power supply systems. It describes bench tests for immunity against and emissions of transients of systems and components.

This part of the international standard provides specification for attachment and associated equipment and gives guidance on their use. These include, but are not limited to, securing ladders at less than full length, deck securing points, hull securing equipment, man-ropes, bulwark openings and accesses, deck access, stanchions, anti-chafing arrangements, interfaces between pilot ladders and accommodation ladders for their combined use.

This document specifies the performance requirements and the test procedures for a pH meter used for continuous on-board monitoring using combination electrodes.
This document also specifies the method for evaluating performance, calibration, and maintenance of a pH meter used for continuous on-board monitoring.

ISO/IEC 24714 gives guidelines for the stages in the life cycle of a system’s biometric and associated elements. This covers the following:
— the capture and design of initial requirements, including legal frameworks;
— development and deployment;
— operations, including enrolment and subsequent usage;
— interrelationships with other systems;
— related data storage and security of data;
— data updates and maintenance;
— training and awareness;
— system evaluation and audit;
— controlled system expiration.
The areas addressed are limited to the design and implementation of biometric technologies with respect to the following:
— legal and societal constraints on the use of biometric data;
— accessibility for the widest population;
— health and safety, addressing the concerns of users regarding direct potential hazards as well as the possibility of the misuse of inferred data from biometric information.
The intended readers for ISO/IEC 24714 are planners, implementers and system operators of biometric applications.
Specification and assessment of government policy are not within the scope of ISO/IEC 24714. However, the use of ISO/IEC 24714 will be beneficial to public authorities when deploying biometric systems.

This document specifies requirements and guidance for buyer organizations, with regards to integrity and accountability in public procurement activities from identification of needs throughout the delivering of goods, services or work contracts.
This document is applicable to use by:
a) buyer organizations;
b) contributors;
c) decision makers.
This document can have an impact on:
— individuals;
— suppliers and individuals acting in support of or on behalf of suppliers, including subcontractors; the official bodies of the member states and of the European organizations which intervene, directly or indirectly, in the public procurement process;
— organizations representing suppliers at the member state or European levels.
NOTE Further guidance for the interpretation and application of the scope and requirements of this document is provided in Annex A.

This document is applicable to relay valves designated to control the brake cylinder pressure of compressed air brakes fitted to railway vehicles, in association with an air brake distributor valve or other control device. It covers one stage relay valves and relay valves adjusting the brake cylinder pressure in response to a change in vehicle speed or load that is either continuously variable or in two or more stages, i.e. empty – loaded.
Relay valves operating with other pressures, in particular the brake pipe pressure, are not included.
This document specifies the requirements for the design, manufacture and testing of relay valves.

This document specifies a procedure for fatigue strength assessment of rail vehicle structures based on cumulative damage.
It is part of a series of standards that specifies procedures for strength assessments of structures of rail vehicles that are manufactured, operated and maintained according to standards valid for railway applications.
This document is applicable for variable amplitude load data with total number of cycles higher than 10 000 cycles.
An endurance limit approach is outside the scope of this document.
The assessment procedure of the series is restricted to ferrous materials and aluminium.
This document series does not define design load cases.
This document series is not applicable for corrosive conditions or elevated temperature operation in the creep range.
This series of standards is applicable to all kinds of rail vehicles; however it does not define in which cases a fatigue strength assessment using cumulative damage is to be applied.

This document describes the generic requirements, criteria and contents of maintenance engineering. This includes guidance on methods and techniques which are used to sustain the required functions of items at any stage of their life cycle.
This document gives guidance on how maintenance engineering can contribute to the assurance of required integrity, safety, reliability, maintainability and availability to achieve a sustainable balance between performance, risk and costs.
This document does not give guidance on how to set up systems and infrastructure to support the maintenance engineering function.
This document refers to standards that further describe detailed methods and techniques.
NOTE The overall maintenance process and management is covered by other CEN/TC 319 standards EN 17007 [10] and prEN (WG 8).

This document specifies the minimum requirements for the safe and independent access and use of lifts by persons, including persons with disabilities. It covers the needs of persons with disabilities according to Annex A.
NOTE For guidance on solutions for increased accessibility and usability, see Annex D.

This document describes methods of evaluating the resistance of vulcanized and thermoplastic rubbers to the action of liquids by measurement of properties of the rubbers before and after immersion in test liquids. The liquids concerned include current service liquids, such as petroleum derivatives, organic solvents and chemical reagents, as well as reference test liquids.

This International Standard specifies performance requirements for battery powered pumps used for personal sampling of chemical and biological agents in workplace air. It also specifies test methods in order to determine the performance characteristics of such pumps under prescribed laboratory conditions.
This International Standard is applicable to battery powered pumps having a nominal volume flow rate above 10 ml ⋅ min−1, as used with combinations of sampler and collection substrate for sampling of gases, vapours, dusts, fumes, mists and fibres.
This International Standard is primarily intended for flow-controlled pumps.

This document establishes the basic principles and methods for preparing and compiling terminologies both inside and outside the framework of standardization. It describes the links between objects, concepts, definitions and designations. It also establishes general principles for the formation of terms and proper names and the writing of definitions. This document is applicable to terminology work in scientific, technological, industrial, legal, administrative and other fields of knowledge.
This document does not stipulate rules for the presentation of terminological entries in international standards, which are treated in ISO 10241-1 and ISO 10241-2.

Common definitions for terms and their interdependencies related to starting devices.

This document is applicable to single and double leaf, hinged and pivoted doorsets with timber based leaves or timber framed glazed doors, covered by EN 15269-3 or EN 15269-20.
This document prescribes the methodology for extending the application of test results obtained from durability of self closing test(s) conducted in accordance with EN 1191.
Subject to the completion of the appropriate self closing test(s), the extended application can cover all or some of the following examples:
— door leaf; pass doors;
— glazed elements including vision panels and framed glazed doorsets;
— side, transom and/or overpanels;
— ventilation grilles and/or louvres;
— wall/ceiling fixed elements (frame/suspension system);
— glazing for door leaf, side, transom and flush over panels;
— items of building hardware;
— decorative finishes;
— intumescent, smoke, draught or acoustic seals;
— alternative supporting construction(s).

This document specifies requirements for the calibration and validation (QAL2), the ongoing quality assurance during operation (QAL3) and the annual surveillance test (AST) of automated measuring systems (AMS) used for monitoring total mercury emissions from stationary sources to demonstrate compliance with an emission limit value (ELV). This document is derived from EN 14181 and is only applicable in conjunction with EN 14181. This standard also specifies type testing (QAL1) requirements in Annex B that will be incorporated into EN 15267-3 when that standard is next revised.
This document is applicable by direct correlation with the standard reference method (SRM) described in EN 13211.

This document defines terms for gas cylinders.

This document specifies the test method to determine the resistance to wind load of the roof build-up system with the waterproofing system bonded to the substrate.

This document specifies requirements for hose tails according to EN 14420-2, with flanges of mating dimensions PN 10/PN 16/PN 25/PN 40 (according to nominal size and pressure stage) according to EN 1092-1, on hose fittings with clamp units according to EN 14420-3.
Maximum working pressure is 25 bar1); maximum working temperature is 65 °C. Additionally, flanges are also usable according to EN 14422.

This document specifies the design, materials, dimensions and marking requirements for cam locking couplings that serve as the link between hoses and connections to transport liquids, solids and gases, except liquid gas and steam. The couplings are capable of operating within the pressure range −0,8 bar1 to 16 bar and in a working temperature range of −20 °C up to +65 °C. For all sizes of aluminium-cast-material couplings and for all couplings size DN 100 the pressure range is from −0,8 bar to 10 bar.

This document specifies requirements for materials used for moulded seals made of thermoplastic elastomers (TPEs) for joints in:
a) thermoplastic piping systems for non-pressure wastewater discharge (intermittent flow at up to 95 °C) inside buildings;
b) thermoplastic piping systems for non-pressure underground drainage and sewerage (continuous flow at up to 45 °C and intermittent flow at up to 95 °C);
c) thermoplastic rainwater piping systems.
General requirements for finished joint seals are also given; any additional requirements for a particular application are specified in the relevant product standards taking into account that the performance of pipe joints is a function of the seal material properties, seal geometry and pipe joint design.

This document specifies test methods for determining the rates of spread and accuracy of spread of binder and chippings of a surface dressing on a section of road at a given time.
NOTE This test method can also be used for determining the rate of spread and accuracy of spread of sprayed bituminous emulsions, e.g. when used as bond coats or asphalt preservation systems. The performance categories for binder rate of spread and accuracy of spread in EN 12271 do not apply to bond coats and tack coats.
The test methods are used on site to check the ability of binder sprayers and chipping spreaders to meet the intended rates of spread and tolerances and coefficients of variation.
The test methods can be used to fulfil the Factory Production Control requirements:
— equipment calibration (EN 12271:2006, Annex B – Table B.2); and
— production inspection (EN 12271:2006, Annex B – Table B.6).
The calibration of binder and chipping spreaders requires strict application of the procedures described in this document.
Using these methods for inspections during production (FPC) allows certain changes to these methods due to the specificity of certain sites and materials used (e.g. combined chipping-binder spreaders). In this case, the changes are documented in the Factory Production Control and identified in the test reports.
Other test methods used to check the rate of spread and accuracy of spread of binder, such as the static spray bar bench test for sprayers, are not covered by this document, although the test methods in this document can be used for this purpose.

This document specifies, for anhydrous bituminous binder (fluxed bitumen or cut-back binders), the measurement of the binder aggregate adhesivity and the influence of adhesion agents or interfacial dopes and adhesion characteristics as an aid to design binder aggregate systems for surface dressing.
This document specifies methods of measurement of:
— the mechanical adhesion of the binder to the surface of the aggregate;
— the active adhesivity of the binder to the chippings;
— the improvement of the mechanical adhesion and active adhesivity by adding an adhesion agent either into the mass of the binder or by spraying the interface between binder and chippings;
— the wetting temperature of the binder to the aggregate;
— the variation of adhesivity below the fragility temperature.
The wetting capacity of the binder affects the adhesivity properties. With the presence of water, the wetting capacity of bitumen emulsion is naturally high. Even if mechanical adhesion and active adhesivity test methods are mainly dedicated to anhydrous bituminous binders (fluxed or cut-back binders), these measurements can also be practiced with bitumen emulsion with a personalized interpretation of the results that depends on the designer of the binder aggregate system. For bitumen emulsion, the conventional adhesivity is measured mainly through the water immersion test (EN 13614).
This test method is suitable for:
— bituminous binders used for surface dressings (e.g. conventional or polymer modified binders, mainly anhydrous bituminous binders, fluxed or cut-back binders, bitumen emulsions);
— all the following aggregates sizes that can be used for surface dressings:
— set 1: 2/5 mm, 5/8 mm, 8/11 mm and 11/16 mm; and
— set 2: 2/4 mm, 2/6 mm, 4/6 mm, 4/8 mm, 6/10 mm, 6/12 mm and 10/14 mm.
It is not intended that this method be used on site for quality control.
NOTE Further information concerning the purpose of the test can be found in Annex D.

This document specifies requirements and gives recommendations for the design, materials, construction, testing, operation, maintenance and abandonment of pipeline systems used for transportation in the petroleum and natural gas industries.
It applies to pipeline systems on-land and offshore, connecting wells, production plants, process plants, refineries and storage facilities, including any section of a pipeline constructed within the boundaries of such facilities for the purpose of its connection. On-land supply systems used by the European gas supply industry from the input of gas into the on-land transmission network up to the inlet connection of gas appliances are excluded from the scope of this document. The extent of pipeline systems covered by this document is illustrated in Figure 1.
This document applies to rigid, metallic pipelines. It is not applicable for flexible pipelines or those constructed from other materials, such as glass-reinforced plastics.
This document is applicable to all new pipeline systems and can be applied to modifications made to existing ones. It is not intended that it applies retroactively to existing pipeline systems.
It describes the functional requirements of pipeline systems and provides a basis for their safe design, construction, testing, operation, maintenance and abandonment.