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

saws and band resaws with manual loading and/or unloading, designed to cut wood and materials with

similar physical characteristics to wood, hereinafter referred to as “machines”.

NOTE 1 For the definition of displaceable machine, see ISO 19085‐1:2017, 3.5.

It deals with all significant hazards, hazardous situations and events as listed in Clause 4, relevant to the

machines, when operated, adjusted and maintained as intended and under the conditions foreseen by the

manufacturer including reasonably foreseeable misuse. Also, transport, assembly, dismantling, disabling

and scrapping phases have been taken into account.

NOTE 2 For relevant but not significant hazards, e.g. sharp edges of the machine frame, see ISO 12100:2010.

It is also applicable to machines fitted with one or more of the following devices/additional working units,

whose hazards have been dealt with:

a) device to tilt the table;

b) device to tilt the saw unit.

This document does not apply to:

1) machines driven by combustion engines or power take offs (PTO);

2) log band sawing machines;

NOTE 3 Log band sawing machines are covered by EN 1807‐2.

3) machines designed for cross‐cutting round or irregular shaped work‐pieces;

4) transportable / displaceable machines with a maximum length of the band saw blade of ≤2700 mm

and a maximum diameter of the powered wheel of ≤350 mm;

NOTE 4 Transportable electrically driven machines are covered by the requirements of EN 61029‐1:2009

together with EN 61029‐2‐5:2015.

This document does not deal with hazards related to the combination of a single machine being used with

any other machine (as part of a line).

This document is not applicable to machines intended for use in potentially explosive atmospheres or to

machines manufactured prior to the date of its publication.

This document specifies a method for checking the functioning and performance of the non-manually

actuated chain brake on an electric or gasoline engine powered, portable hand-held chain-saw.

This document specifies definitions, requirements and test methods for thermostatic radiator valves referred to hereafter as thermostatic valves.

This standard applies to two port thermostatic valves with or without pre-setting facility and thermostatic integrated valves with or without pre-setting facility for fitting to radiators in wet central heating installations up to a water temperature of 120 °C and a nominal pressure of PN 10.

This standard further specifies the dimensions, the materials and the connection details of four series of straight and angle pattern thermostatic radiator valves of nominal pressure ≤ PN 10.

This standard can be used as reference in a CEN/CENELEC Certification Mark System on thermostatic radiator valves.

This document outlines a process to achieve a well performing, durable and maintainable building enclosure. This document includes procedures, methods and documentation requirements that describe the application of the commissioning process to the building enclosure at each phase of the project; from pre-design through owner occupancy and operation. This process is referred to throughout the standard as building enclosure commissioning (BECx).

This document provides tasks associated with the process to perform a building enclosure risk analysis. The BECx process remains consistent, while the tasks to be performed reflect the owner’s acceptance of building enclosure risk defined by different levels of BECx.

The BECx process can be applied to individual, multiple or the whole enclosure assemblies. For example, an individual assembly is the fenestration, or air barrier, or heat transfer system, i.e. insulation or roof assembly. A combination of assemblies would include the fenestration, and air barrier, and heat transfer system, i.e. insulation and roof assembly. A whole building enclosure assembly would include all heat, air and moisture control layers of the building enclosure, on all six sides of the building.

This document applies to new building construction projects and re-commissioning. This document is for use by an owner, commissioning provider, building developer, owner’s representative, construction manager, architect, contractor, and / or consultant to determine the tasks and activities required to be performed, to achieve a building enclosure meeting the performance requirements of the owner. BECx service providers use this standard to develop a project specific scope of tasks associated with the process to achieve the owner’s specific commissioning requirements.

Requirements for the project are established by the owner and/or commissioning provider (CxP).

This document outlines requirements for a third-party consultant and/or building enclosure commissioning providers (BECxP) to document their technical qualifications, independence and knowledge of the BECx process through education, training, experience and/or certification.

This part of the International Standard provides the principles and composition of the device, as well as calibration procedures, for shaft power measurement using the elastic vibration method.

This part of ISO 16300 specifies a set of template definitions to describe the capability of software unit of an automation solution that can be mapped to the functional requirements of target manufacturing application.

This part of ISO 16300 also specifies how to develop and manage software unit catalogue in terms of capability properties, and defines mapping rules from capability profiles to software unit catalogue.

This part of ISO 20140 provides overview and general principles of a method for evaluating environmental performance including energy efficiency and other factors of a manufacturing system that influence the environment.

This part of ISO 20140 is applicable to manufacturing systems for discrete, batch, and continuous manufacturing. This part of ISO 20140 is applicable to an entire manufacturing system and to a part of the manufacturing system.

Life cycle assessment of products manufactured by the manufacturing system is outside the scope of ISO 20140.

This International Standard provides guidance and performance standards as an aid for the selection of ship-specific recovery devices, based on evaluation of dedicated recovery devices as well as of existing life-saving appliances and arrangements that may be suitable for the purpose of safely recovering persons from the water or from survival craft.

This part of the International Standard specifies the technical specifications and calibration procedures for optical reflection type shaft power measurement equipment, which consists of a light source, reflection mirror and photo sensors, etc.

This document specifies a communication protocol for networked control systems. The protocol provides peer-to-peer communication for networked control using web-services. The document describes services in layer 2 and layer 3.

The layer 2 (data link layer) specification also describes the MAC sub-layer interface to the physical layer. The physical layer provides a choice of transmission media. The layer 3 (network layer), as described in EN 14908-1, is integrated in UDP/IP communication using IPv4 and IPv6 protocols.

This International Standard defines the activities related to refrigerating systems according to

EN 378-1, EN 378-2, EN 378-3, EN 378-4 and ISO 5149-1, ISO 5149-2, ISO 5149-3 and ISO 5149-4 and

the associated competence profiles and establishes procedures for assessing the competence of persons

who carry out these activities. Activities with regard to electricity are excluded.

NOTE As a refrigerating circuit is considered not to incorporate electrical and electronic systems, activities in

this area are not part of this standard. For competences on electrical and electronic systems, it is recommended to

refer to national regulations or appropriate European or national standards. This European Standard does not

apply to persons carrying out work on self-contained refrigerating systems as defined in EN 378-1 from the initial

design of the product to the complete manufacture of the product, provided the process is controlled and the

methods used are checked by an organisation or individual, responsible for the compliance with statutory

requirements on health, safety and environment (e.g. energy efficiency).

NOTE The standard is not a training programme .

This International Standard specifies the design, minimum safety and functional requirements, inspection and testing procedures for LNG dry-disconnect/connect coupling served for LNG hose bunkering system intended for use on LNG bunker ship, tank truck and shore-based facility etc. This standard is not applicable to hydraulically operated quick connect/disconnect coupler (QCDC) used for hard loading arm since it has been stipulated in ISO 16904. Based on the current technology of industrial manufacturing, the size of coupling from DN25 to DN200 is to be considered and contained within this standard at the development period.

The scope of this standard includes the following five elements.

1) General requirements: basic design principle, design parameters, functional requirements, internal valve, protective cap, handle;

2) Materials: body of coupling, welding, bolting, spring, seals;

3) Interface type and dimensions: Ends termination of receptacle, dimensions;

4) Marking: manufacturer and international standard information;

5) Testing: test conditions, test arrangement, general requirements, verification testing, production testing.

This document is focused on the structural features of rivers, on geomorphological and hydrological processes, and on river continuity. It provides guidance on the features and processes to be taken into account when characterizing and assessing the hydromorphology of rivers. It is based on methods developed, tested, and compared in Europe. Its main aim is to improve the comparability of hydromorphological assessment methods, data processing and interpretation. Although it has particular importance for the WFD by providing guidance on assessing hydromorphological quality, it has considerably wider scope for other applications. In addition, while recognizing the important influence of hydromorphology on plant and animal ecology, no attempt is made to provide guidance in this area, but where the biota have an important influence on hydromorphology these influences are included.

NOTE A case study illustrating the application of this standard is given in Gurnell and Grabowski[1].

This part of ISO 12219 specifies a large bag sampling method for measuring volatile organic compounds (VOCs), formaldehyde and other carbonyl compounds which may emit from vehicle interior parts into the air inside road vehicles. This method is intended for evaluation of large new vehicle interior parts, and complete assemblies. This is a screening method to compare similar car components under similar test conditions on a routine basis.

It is important to check VOC emissions of vehicle interior parts to evaluate its contribution to the air quality of vehicle interior.

This part of ISO 12219 is complementary to existing standards and provides third party test laboratories and manufacturing industry with a cost-effective evaluation of vehicle interior parts.

This international standard describes methods for reducing combined samples (or increments) to laboratory

samples and laboratory samples to sub-samples and general analysis samples and is applicable to solid

biofuels.

The methods described in this international standard may be used for sample preparation, for example, when

the samples are to be tested for calorific value, moisture content, ash content, bulk density, durability,

particle size distribution, ash melting behaviour, chemical composition, and impurities.

This document applies to light offshore cranes including their supporting pedestals and structures.

NOTE The supporting pedestal and structures such as columns and boom rests are covered by this standard to the extent where their main purpose is to support the crane.

This document is applicable to light offshore cranes, whose structures are made of steel.

The following characteristics distinguish light offshore cranes from other types of offshore cranes:

— maximum rated capacity 20 tonnes, maximum load moment 300 tm;

— limitation for off-board lifting operation Hs = 2,0 m and wind speed 15 m/s (3s gust);

— maximum number of working cycles class U3 (C ≤ 1,25 × 105) according to EN 13001-1.

This document gives requirements for all significant hazards, hazardous situations and events relevant to light offshore cranes, when used as intended and under conditions foreseen by the risk assessment (see Clause 4).

This document is not applicable for:

a) transportation, assembly, disabling, scrapping or changing the configuration of the crane;

b) non-fixed load lifting attachments, i.e. any item between the hook and the load;

c) lifting operations in ambient temperatures below −20 °C;

d) lifting operations in ambient temperatures above 45 °C;

e) lifting operations involving more than one crane;

f) accidental loads due to collisions or earthquakes;

g) emergency personnel rescue operations (except training);

h) subsea lifting operations;

i) general purpose offshore cranes, floating cranes and motion compensated cranes.

This document is applicable for the lifting of personnel.

This document is applicable to light offshore cranes, which are manufactured after the date of approval by CEN of this document.

This document (ISO 6504-3) specifies methods for determining the hiding power given by paint coats of white or light colours of tristimulus values Y and Y10 greater than 25, applied to a black and white chart, or to a colourless transparent foil. In the latter case the tristimulus values Y and Y10 are measured over black and white panels. Subsequently, the hiding power is calculated from these tristimulus values.

This document specifies also a simple method for calculating the spreading rate for paints with a volatile matter content with low evaporation speed, e.g. coatings for interior walls and ceilings as specified in EN 13300.

This European standard specifies the requirements for factory made expanded polystyrene products, with or

without rigid or flexible facings or coatings, which are used for the thermal insulation of buildings. The products

are manufactured in the form of boards or rolls or other preformed ware (flat tapered or profiled in particular

ways).

This standard includes EPS multi-layered insulation products. Instructions of Annex D shall be followed.

Products covered by this standard are also used for sound insulation and in prefabricated thermal insulation

systems and composite panels; the performance of systems incorporating these products is not covered.

This standard describes product characteristics and includes procedures for testing, evaluation of conformity,

marking and labelling.

This standard does not specify the required class or level of a given property to be achieved by a product to

demonstrate fitness for purpose in a particular application. The classes and levels required for a given

application are to be found in regulations or non-conflicting standards.

Products with a declared thermal resistance lower than 0.25 m2 K/W or a declared thermal conductivity at 10 °C

greater than 0,060 W/(m K) are not covered by this standard.

This standard does not cover in-situ insulation products, products intended to be used for the insulation of

building equipment and industrial installations and products intended to be used in civil engineering applications.

This European Standard specifies the requirements for factory made products of extruded polystyrene foam,

with or without facings or coatings, which are used for thermal insulation of buildings. The products are

manufactured in the form of boards, which are also available with special edge and surface treatment (tongue

& grooves, shiplap etc.).

This standard includes XPS multi-layered insulation boards with layers perpendicular to the edges of the

board, i.e. layers parallel to the surface of the final board.

Products covered by this standard are also used in prefabricated thermal insulating systems and composite

panels; the performance of systems incorporating these products is not covered

This standard describes product characteristics and includes procedures for testing, evaluation of conformity,

marking and labelling.

The standard does not specify the required level of a given property to be achieved by a product to

demonstrate fitness for purpose in a particular application. The levels required for a given application are to be

found in regulations or non-conflicting standards.

Products with a declared thermal resistance lower than 0,25 m2⋅K/W or a declared thermal conductivity

greater than 0,060 W/(m⋅K) at 10 °C are not covered by this standard.

This standard does not cover in situ insulation products, nor products intended to be used for the insulation of

building equipment and industrial installations, or civil engineering applications or acoustic insulation.

This European Standard specifies the requirements for factory made rigid polyurethane foam (PU) products,

with or without facings or coatings, which are used for the thermal insulation of buildings. PU includes both

PIR and PUR products. The products are manufactured in the form of boards.

This standard includes PU multi-layered insulation products. Instructions of Annex D shall be followed.

Products covered by this standard are also used in prefabricated thermal insulation systems and composite

panels; the performance of systems incorporating these products is not covered.

This standard describes product characteristics and includes procedures for testing, evaluation of conformity,

marking and labelling.

This standard does not specify the required class/level of a given property to be achieved by a product to

demonstrate fitness for purpose in a particular application. The classes/levels required for a given application

are to be found in regulations or non-conflicting standards.

Products with a declared thermal resistance lower than 0,25 m2⋅K/W or a declared thermal conductivity

greater than 0,060 W/(m⋅K) at 10 °C are not covered by this European Standard.

This standard does not cover in situ insulation products, products intended to be used for the insulation of

building equipment and industrial installations.