Pregled nacrta

This document specifies methods for recording the time history of the sound pressure produced either by shooting with calibres of less than 20 mm, or by detonation of explosive charges of less than 50 g TNT equivalent, within the shooting range at locations of interest, regarding the exposure to sound of the shooter, or any other person within the shooting range. The time history of the sound pressure can be the basis for further analyses of this type of sound at the locations of interest.

Water sampling for capture of environmental DNA (eDNA) in aquatic environments. eDNA stems from organisms which are or have recently been living in the water body and does not include eDNA found in sediments or similar sample types. Covers procedures for avoiding sample contamination and ensuring DNA quality, key properties of the filtering procedure and equipment, and reporting standards.

This document defines the classification levels for welded components, the types of activity typically undertaken and the requirements to be fulfilled to demonstrate conformance.

This part of EN 45545 specifies the fire resistance requirements and testing methods for fire barriers for railway vehicles.
The objective of the measures and requirements, specified in this part of EN 45545, is to protect passengers and staff in railway vehicles in the event of a developing fire on board.
Use of a Fire Containment and Control System, where permitted as an alternative to a fire barrier, is not in the scope of this part of EN 45545. It is not within the scope of this part of EN 45545 to describe measures that ensure the preservation of the railway vehicles in the event of a fire.

This European Standard specifies the design and dimensions of the 29 mm screw finish with three (3) thread starts for flat waters and non-carbonated beverages. This finish is designated PET finish 29/25 (12,6).
This finish can be used for aseptic filling and filling with introduction of nitrogen (internal overpressure inferior to 1 bar max). The dimension (12,6) is the height in millimetres from the top of finish to the bottom of the support ledge.
This finish is designed to accept a tamper evident plastic closure only. During first opening, the tamper evident band will separate from the closure shell and stay on a one way bottle neck or like bottles in the returnable market, the tamper evident band will tear but will remain connected to the closure shell.

This document specifies the test methods to evaluate the machining accuracy of computer-aided milling machines as a part of dental CAD/CAM systems, which fabricate dental restorations, e.g. inlays, crowns and bridges.

This document specifies the requirements and gives recommendations for the procedures and design criteria used for calculating the required wall thickness of new tubes and associated component fittings for petroleum, petrochemical and natural gas industries. These procedures are appropriate for designing tubes for service in both corrosive and non-corrosive applications. These procedures have been developed specifically for the design of refinery and related process-fired heater tubes (direct-fired, heat-absorbing tubes within enclosures). These procedures are not intended to be used for the design of external piping.

This document does not give recommendations for tube retirement thickness. A technique for estimating the life remaining for a heater tube is described.

This document is a supplement to API 530, 7th edition (2015) including the addenda, the requirements of which are applicable with the exceptions specified in this document.

This document establishes requirements for reporting the cognitive accessibility of products and technologies, including: Assistive products, Assistive technologies, Consumer technologies, and Household appliances. This document is intended to increase access to a variety of products.
Designers can use this guidance along with any existing standards and accompanying test methods for their products.

This document covers the general description of benchmarking test piece geometries along with quantitative and qualitative measurements to be taken on the benchmarking test piece(s) to assess the performance of additive manufacturing (AM) systems.

This performance assessment can serve the following two purposes:

—    AM system capability evaluation;

—    AM system calibration.

The benchmarking test piece(s) is (are) primarily used to quantitatively assess the geometric performance of an AM system. This document describes a suite of test geometries, each designed to investigate one or more specific performance metrics and several example configurations of these geometries into test piece(s). It prescribes quantities and qualities of the test geometries to be measured but does not dictate specific measurement methods. Various user applications can require various grades of performance. This document discusses examples of feature configurations, as well as measurement uncertainty requirements, to demonstrate low- and high-grade examination and performance. This document does not discuss a specific procedure or machine settings for manufacturing a test piece.

This document specifies the features of electron beam powder bed fusion of metals (EB-PBF-M) and
provides detailed design recommendations.
Some of the fundamental principles are also applicable to other additive manufacturing (AM) processes, provided that due consideration is given to process-specific features. This document also provides a state of the art review of design guidelines associated with the use of powder bed fusion (PBF) by bringing together relevant knowledge about this process and by extending the scope of ISO/ASTM 52910.

This part of ISO 5167 specifies the geometry and method of use (installation and operating conditions) of cone meters when they are inserted in a conduit running full to determine the flow rate of the fluid flowing in the conduit.

As the uncertainty of an uncalibrated cone meter may be too large for a particular application, it may be deemed essential to calibrate the flow meter in accordance with section 7 of this document.  Calibrated meters shall only be used over the calibrated Reynolds number range.

This part of ISO 5167 also provides background information for calculating the flow rate and is applicable in conjunction with the requirements given in ISO 5167-1.

This part of ISO 5167 is applicable only to cone meters in which the flow remains subsonic throughout the measuring section and where the fluid can be considered as single-phase.  Uncalibrated cone meters can only be used within specified limits of pipe size, roughness,  and Reynolds number. This part of ISO 5167 is not applicable to the measurement of pulsating flow.  It does not cover the use of uncalibrated cone meters in pipes sized less than 50 mm or more than 500 mm, or where the pipe Reynolds numbers are below 8 x 104.

A cone meter is a primary device which consists of a cone-shaped restriction held concentrically in the centre of the pipe with the cone apex upstream.  The design of cone meter defined in this standard has one or more upstream pressure tappings in the wall, and a downstream pressure tapping positioned in the back face of the cone with the connection to a differential pressure transmitter being a hole through the cone to the support bar, and then up through the support bar. 

Alternative designs of cone meters are available; however, at the time of writing there is insufficient data to fully characterise these devices, and therefore these meters shall be calibrated in accordance with Section 7

This part of ISO 5167 specifies the geometry and method of use (installation and operating conditions) of wedge meters when they are inserted in a conduit running full to determine the flow rate of the fluid flowing in the conduit.

As the uncertainty of an uncalibrated wedge meter can be too large for a particular application, it might be deemed essential to calibrate the flow meter in accordance with Clause 7 of this document. This part of ISO 5167 includes requirements for calibration which, if applied, are for use over the calibrated Reynolds number range. Clause 7 might also be useful guidance for calibration of meters of similar design but which fall outside the scope of this document.

This part of ISO 5167 also provides background information for calculating the flow rate and is applicable in conjunction with the requirements given in ISO 5167‑1.

This part of ISO 5167 is applicable only to wedge meters in which the flow remains subsonic throughout the measuring section and where the fluid can be considered as single-phase. Uncalibrated wedge meters can only be used within specified limits of pipe size, roughness, beta (or wedge ratio) and Reynolds number.  This part of ISO 5167 is not applicable to the measurement of pulsating flow.  It does not cover the use of uncalibrated wedge meters in pipes sized less than 50 mm or more than 600 mm, or where the pipe Reynolds numbers are below 1 × 104.

A wedge meter has a primary element which consists of a wedge-shaped restriction of a specific geometry.  Alternative designs of wedge meters are available; however, at the time of writing there is insufficient data to fully characterize these devices, and therefore these meters shall be calibrated in accordance with Clause 7.

This document specifies a method of comparing traffic noise on different road surfaces for various compositions of road traffic for the purpose of evaluating different road surface types. Sound levels representing either light or heavy vehicles at selected speeds are assigned to a certain road surface. The method is applicable to traffic travelling at constant speed, i.e. free-flowing conditions at posted speeds of 50 km/h and upwards. For conditions where traffic is not free flowing, such as at junctions and where the traffic is congested, the method is not applicable.

A standard method for comparing the noise characteristics of road surfaces gives road and environment authorities a tool for establishing common practices or limits regarding the use of road surfaces meeting certain noise criteria. However, it is not within the scope of ISO 11819-series to suggest such criteria.

The Statistical Pass-By (SPB) method is suitable for use for the following main purposes:

—    to classify road surfaces according to their influence on traffic noise (surface classification).;

—    to assist in verifying conformity of production of road surfaces;

—    to evaluate acoustic performance of road surfaces throughout operation relative to new condition;

—    to evaluate the influence of different road surfaces on traffic noise at sites irrespective of condition and service time;

—    to evaluate acoustic performance of a road surface relative to a reference surface.

Due to practical restrictions, the method cannot be applied at all possible locations. However, the backing board method can allow some locations to be tested that were not previously acceptable.

Clause 5 gives a general description of the SPB method.

This part of ISO 14644 describes the classification of the particle contamination levels on solid surfaces in cleanrooms and associated controlled environment applications. Recommendations on testing and measuring methods as well as information about surface characteristics are given in informative annexes.

This part of ISO 14644 applies to all solid surfaces in cleanrooms and associated controlled environments such as walls, ceilings, floors, working environment, tools, equipment and devices. The surface particle cleanliness (SPC) classification is limited to particles between 0,05 µm and 500 µm.

The following issues are not considered in this standard:

requirements on the cleanliness and suitability of surfaces for specific processes;

procedures for the cleaning of surfaces;

material characteristics;

other characteristics of particles such as electrostatic charge, ionic charges, biological state and others.

This part of ISO 14644 covers the classification system of surface particle contamination but does not reference the interactive bonding forces or generation processes that are usually time-dependent (such as deposition, sedimentation, aging) and process-dependent (such as transportation or handling). Measurement methods of the classification should be adapted for surface characteristics (such as porosity, roughness, electrostatic charge, surface energy.).

The surface cleanliness depends upon material and design characteristics, stress loads (complexity of loads acting on a surface) and prevailing environmental conditions, along with other factors.

Due to the complexity of statistical evaluations and available bibliography, the selection and use of statistical methods for classification and testing are not described in this part of ISO 14644.

This International Standard specifies a method for determination of the biaxial stress strain curve of metallic sheets having a thickness below 3 mm in pure stretch forming without significant friction influence. In comparison with tensile test results, higher strain values can be achieved.

This document specifies the procedures and recommended tooling to be used for peel and chisel testing of resistance spot and embossed projection welds. This document applies to welds made in two or more sheets in the thickness range of 0,5 mm to 3,0 mm.

The aim of these tests is to determine

—    weld size and failure type when welds are destructively tested, and

—    verification of welds by non-destructive chisel tests.

NOTE      The preferred method of peel testing seam welds (mechanized peel testing) is covered in ISO 14270.

This document defines the minimum requirements for auditors, CBs, Auditor Authentication Bodies (AABs), Training Provider Approval Bodies (TPABs), and Training Providers (TPs) who participate in the IAQG Industry Controlled Other Party (ICOP) scheme. The requirements in this standard supplement those defined within the EN 9104-1, EN 9104-2, ISO/IEC 17021-1, and ISO/IEC 17021-3 standards.
Data protection for the parties subject to this document and other relevant requirements of the ICOP scheme are managed via bi-lateral contracts between the joint controllers of the data.