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This document gives the safety requirements and measures for stationary and displaceable combined woodworking machines, having at least two separately usable working units and with manual loading and unloading of the workpiece, hereinafter referred to as "machines". The integrated working units can be only

— a sawing unit,

— a moulding unit and/or

— a planing unit.

The machines are designed to cut solid wood and material with similar physical characteristics to wood.

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

This document 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.

This document does apply to machines also equipped with the devices/additional working units listed in ISO 19085-5:2017, clause 1, ISO 19085-6:2017, clause 1, and ISO/DIS 19085-7:2017, clause 1, and ISO/FDIS 19085-9:2018, clause 1.

This document does not apply to:

a) combined machines which consist only of a planing unit and a mortising unit;

NOTE 3 Such machines are dealt with in ISO/DIS 19085-7:2017.

b) combined machines incorporating a band saw unit;

c) machines with a mortising unit with a separate drive other than the planing unit drive.

d) machines intended for use in potentially explosive atmosphere;

e) machines manufactured before the date of its publication as an international standard.

This part of ISO 8130 specifies a method for the determination of the particle size of coating powders by sieve analysis. Particle size distributions with a maximum of less than 100 μm should be determined by laser diffraction (see ISO 8130-13). This method is used especially for determining the oversize material or for the presence of contamination and may be used as a quality control procedure (“go”/“no go” test) by checking the amount of powder retained on a single sieve.

The following particle sizes are typical for coating powders, however the particle size can deviate depending on the application:

— thin-film technology: 1 μm to 63 μm

— electrostatic coating: 10 μm to 200 μm

— fluidizing-bed method: 100 μm and above

NOTE Sieves with a mesh size smaller than 32 μm are not practical and are likely to become blind during use.

This part of ISO 8130 specifies a comparative method for determining the flow characteristic of a fused thermosetting coating powder down a plane inclined at a set angle to the horizontal.

The aim of the test method described in this Part of IS0 8130 gives an indication of the degree of melt flow that may occur during the curing of the coating powder. This characteristic contributes to the surface appearance and to the degree of coverage over sharp edges.

The test is a comparative method for checking for batch to batch variation in the behaviour of a given coating powder. Correlation between the results from coating powders of differing composition is not to be expected.

This method is not suitable for coating powders which have gel times of less than one minute at the test temperature when characterised according to ISO 8130-6. This method is also not suitable for textured powders.

This part of ISO 8130 specifies a visual method to determine the deterioration of surface quality of the final coating when mixing two different coating powders. The surface quality will depend on the following characteristics of the coating powders:

a) the chemical reactivity;

b) the chemical composition;

c) the melt properties.

The onset of the incompatibility in appearance, its nature and its extent will depend greatly on the ratio in which the powders are mixed. The nature of the incompatibility in surface appearance may manifest itself in various ways, described in Clause 8.

This test is useful in predicting the possibility of incompatibility arising from mixing different powders both during the manufacturing process and during the application of the coating powder.

This part of ISO 8130 concerns only changes in visual aspects of the coating. The mixture series can also be used for testing properties such as mechanical properties, chemical properties, corrosive properties and resistance against UV radiation. Further properties can be agreed between interested parties.

This part of ISO 8130 specifies a method for the determination of the equivalent-sphere particle size distribution of coating powders by laser diffraction, for particles of the size range from 1 μm to 300 μm.

NOTE Particle sizes > 300 μm may well require the use of a different optical model.

This document is specific for the measurement of coating powders and also engages ISO 13320, which provides guidance on instrument qualification and particle size distribution.

Laser diffraction is not suitable for determining oversize material, which can be verified by sieve analysis as specified in ISO 8130-1 or by dynamic image analysis as specified in ISO 13322-2.

This part of ISO 8130 defines special terms used in the field of coating powders.

Other terms and definitions related to paints and varnishes are given in ISO 4618.[1]

[1] ISO 4618, Paints and varnishes — Terms and definitions

This part of ISO 8130 specifies a method for the determination of loss of mass on stoving of coating powders that are to be applied by electrostatic spraying or flock spraying or fluidized bed.

The method described in this part of ISO 8130 is a simple, practical test which provides sufficiently accurate results for coating powders that lose approximately 2 % (by mass) on stoving (heating). Above this, accuracy decreases with an increasing loss in mass.

This method determines all volatile matter including water.

Thermogravimetric testing as described in ISO 11358[1] may be used as a comparative method.

[1] ISO 11358 (all parts), Plastics — Thermogravimetry (TG) of polymers

This International Standard relates to the sampling and testing of sintered hardmetals for determination of their physical and mechanical characteristics.

This International Standard relates to the sampling and testing of powder mixtures for the manufacture of hardmetals, using sintered test pieces, and to the preparation of test pieces.

This document specifies the methods of metallographic determination of the microstructure of hardmetals using photomicrographs.

This International Standard, used in conjunction with ISO 834-1, specifies a method for determining the fire resistance of door and shutter assemblies designed primarily for installation within openings incorporated in vertical separating elements, such as

  -hinged and pivoted doors,

  -horizontally sliding and vertically sliding doors, including articulated sliding doors and sectional doors,

  -steel single-skin folding shutters (un-insulated),

  -other sliding, folding doors,

  -tilting doors,

  -rolling shutter doors,

  -removable panels in walls.

  -Self-closing openable windows

Requirements are included for mechanical pre-conditioning, e.g. "cycling"of door and shutter assemblies prior to the conduct of the fire-resistance test.

This part of ISO/IEC 29167 defines the Rabin-Montgomery (RAMON) crypto suite for the ISO/IEC 18000 air interfaces standards for radio frequency identification (RFID) devices. Its purpose is to provide a common crypto suite for security for RFID devices that may be referred by ISO committees for air interface standards and application standards.

This part of ISO/IEC 29167 specifies a crypto suite for Rabin-Montgomery (RAMON) for air interface for RFID systems. The crypto suite is defined in alignment with existing air interfaces.

This part of ISO/IEC 29167 defines various authentication methods and methods of use for the cipher. A Tag and an Interrogator may support one, a subset, or all of the specified options, clearly stating what is supported.

This International Standard specifies a methodology for the evaluation of non-deterministic or deterministic random bit generators intended to be used for cryptographic applications. The guidelines given herein shall enable the vendor of an RBG to submit well-defined claims of security to an evaluation authority and shall enable an evaluator or a tester, for instance a validation authority, to test, certify or reject these claims.

This International Standard is implementation-agnostic. Hence, it offers no specific guidance on design and implementation decisions for random bit generators. However, design and implementation issues influence the evaluation of an RBG under document, for instance because it requires the use of a stochastic model of the random source and because any such model must be supported by technical arguments pertaining to the design of the device at hand.

Random Bit Generators as evaluated under the present International Standard will aim to output bit strings that appear evenly distributed. Depending on the distribution of random numbers required by the consuming application, however, it is worth noting that additional steps may have to be taken (and may well be critical to security) by the consuming application to transform the random bit strings produced by the RBG into random numbers of a distribution suitable to the application requirements. Such subsequent transformations are outside the scope of evaluations performed under this document.

This document specifies the following points regarding the minimum requirements for an overfill prevention system:

— functions;

— major components;

— characteristics;

— test methods.

This document is applicable to overfill prevention systems for liquid fuels having a flash point up to but not exceeding 100 °C, excluding liquefied petroleum gas (LPG).

This document compiles a vocabulary of terms, with their definitions, applied in the field of district heating and district cooling pipe systems with factory made system components. Only terms which are particular to the pertinent field in CEN/TC 107 are included.

This document specifies requirements for service providers with regard to responsible practices for the provision of their services.

This document applies to recreational diving related activities, e.g:

— scuba diving;

— snorkelling;

— free diving (breath hold diving).

Further, this document provides guidance to all stakeholders involved in recreational diving related activities on best practice to minimise negative impact on the aquatic environment and to optimise positive outcomes.

This document will also provide consumers with a method of identifying and comparing service providers who follow environmental best practice.

This part of ISO 3691 gives safety requirements and the means for their verification for driverless industrial trucks (hereafter referred to as trucks) and their systems.

It is not applicable to trucks solely guided by mechanical means (rails, guides, etc.).

For the purposes of this part of ISO 3691, a driverless industrial truck is a powered truck, which is designed to operate automatically. Remotely controlled trucks are not considered to be driverless trucks. A truck's system comprises the control system, which may be part of the truck and/or separate from it, guidance means and power system. Requirements for power sources are not covered in this standard.

The condition of the operating zone has a significant effect on the safe operation of the driverless industrial truck. The preparations of the operating zone to eliminate the associated hazards are specified in Annex A.

This part of ISO 3691 deals with all significant hazards, hazardous situations or hazardous events during all phases of the life of the truck (ISO 12100:2010, Clause 5.4), as listed in Annex B, relevant to the applicable machines when used as intended and under conditions of misuse which are reasonably foreseeable by the manufacturer.

It does not establish requirements for additional hazards that can occur:

— during operation in severe conditions (e.g. extreme climates, freezer applications, strong magnetic fields),

— during operation in nuclear environments,

— from trucks intended to operate in public zones (in particular ISO 13482:2012 "Robots and robotic devices — Safety requirements for personal care robots"),

— during operation on a public road,

— during operation in potentially explosive environments,

— during operation in military applications,

— during operation with specific hygienic requirements,

— during operation in ionizing and non ionizing radiation,

— during the transportation of (a) person(s) other than (a) intended rider(s),

— when handling loads the nature of which could lead to dangerous situations (e.g. molten metals, acids/bases, radiating materials),

— for persons moving towards a moving truck,

— for persons stepping from the side into the truck path when it is impossible for the truck to stop before contact,

— for rider positions with elevation function not be than 1200 mm from the floor/ground to the platform floor.

This part of ISO 3691 does not contain safety requirements for trailer(s) being towed behind a truck.

This International Standard specifies the characteristics of hexagon washer head drilling screws with tapping screw threads from ST2,9 up to and including ST6,3.

This International Standard specifies hexagon washer head tapping screws with thread sizes from ST2,2 to ST8 inclusive.

This International Standard specifies a method for the determination of air permeability (AP).

It is applicable to materials used as cigarette papers, filter plug wrap and filter joining paper, including materials having an oriented permeable zone or discrete permeable zones where the measured permeability is in excess of 10 cm3.(min−1.cm−2) at 1 kPa. In addition, it is applicable to banded cigarette papers, with bands of a width of at least 4 mm.

NOTE For an estimate of the air permeability of materials outside the scope of this International Standard, see Note 3 in 5.1.3 and Note 3 in 7.6.1.