N55 其他物质成份分析仪器 标准查询与下载

DIN EN 61207-1:2011 气体分析器性能说明.第1部分:总则(IEC 61207-1-2010);德文版 EN 61207-1-2010

Expression of performance of gas analyzers - Part 1: General (IEC 61207-1:2010); German version EN 61207-1:2010

BS EN 61207-1:2010 气体分析器性能表示.总则

Expression of performance of gas analyzers. General

ASTM D7596-10 使用直接成像整体试验仪对油类进行自动颗粒计数和颗粒形状分类的标准试验方法

This test method is intended for use in analytical laboratories including on-site in-service oil analysis laboratories. Periodic sampling and analysis of lubricants have long been used as a means to determine overall machinery health. Atomic emission spectroscopy (AES) is often employed for wear metal analysis (Test Methods D5185 and D6595). A number of physical property tests complement wear metal analysis and are used to provide information on lubricant condition (Test Methods D445, D2896, D6304, and D7279). Molecular spectroscopy (Practice E2412) provides direct information on molecular species of interest including additives, lubricant degradation products and contaminating fluids such as water, fuel and glycol. The direct imaging integrated tester provides complementary information on particle count, particle size, particle type, and soot content. Particles in lubricating and hydraulic oils are detrimental because they increase wear, clog filters and accelerate oil degradation. 5.3 Particle count may aid in assessing the capability of a filtration system to clean the fluid, determine if off-line recirculating filtration is needed to clean the fluid, or aid in the decision whether or not to change the fluid. 5.4 An increase in the concentration and size of wear particles is indicative of incipient failure or component change out. Predictive maintenance by oil analysis monitors the concentration and size of wear particles on a periodic basis to predict failure. 5.5 High soot levels in diesel engine lubricating oil may indicate abnormal engine operation.1.1 This test method covers the determination of particle concentration, particle size distribution, particle shape, and soot content for new and in-service oils used for lubrication and hydraulic systems by a direct imaging integrated tester. 1.1.1 The test method is applicable to petroleum and synthetic based fluids. Samples from 2 to 150 mm2/s at 40°C may be processed directly. Samples of greater viscosity may be processed after solvent dilution. 1.1.2 Particles measured are in the range from 4 μm to ≥ 70 μm with the upper limit dependent upon passing through a 100 μm mesh inlet screen. 1.1.3 Particle concentration measured may be as high as 5,000,000 particles per mL without significant coincidence error. 1.1.4 Particle shape is determined for particles greater than approximately 20 µm in length. Particles are categorized into the following categories: sliding, cutting, fatigue, nonmetallic, fibers, water droplets, and air bubbles. 1.1.5 Soot is determined up to approximately 1.5 % by weight. 1.1.6 This test method uses objects of known linear dimension for calibration. 1.2 The values stated in SI units are to be regarded as standard. No other units of measurement are included in this standard. 1.3 This standard does not purport to address all of the safety concerns, if any,......

Standard Test Method for Automatic Particle Counting and Particle Shape Classification of Oils Using a Direct Imaging Integrated Tester

ASTM D7647-10 使用稀释法通过消光法消除水分和干扰软颗粒的润滑和液压液体的自动颗粒计数的标准试验方法

This test method is intended for use in analytical laboratories including onsite in-service oil analysis laboratories. Hard particles in lubricating or fluid power systems have a detrimental effect on the system as they cause operating components to wear and also accelerate the degradation of the oil. Hard particles in the oil originate from a variety of sources including generation from within an operating fluid system or contamination, which may occur during the storage and handling of new oils or via ingress into an operating fluid system. High levels of contaminants can cause filter blockages and hard particles can have a serious impact on the life of pumps, pistons, gears, bearings, and other moving parts by accelerating wear and erosion. Particle count results can be used to aid in assessing the capability of the filtration system responsible for cleaning the fluid, determining if off-line recirculating filtration is needed to clean up the fluid system, or aiding in the decision of whether or not a fluid change is required. To accurately measure hard particle contamination levels, it is necessary to negate the particle counts contributed by the presence of small levels of free water. This method includes a process by which this can be accomplished using a water-masking diluent technique whereby water droplets of a size below the target level are finely distributed. Certain additives or additive by-products that are semi-insoluble or insoluble in oil, namely the polydimethylsiloxane defoamant additive and oxidation by-products, are known to cause light scattering in automatic particle counters, which in turn causes falsely high counts. These and similar materials are commonly termed “soft particles” (see 3.1.5) and are not known to directly increase wear and erosion within an operating system. The contribution of these particles to the particle size cumulative count is negated with this method. The use of dilution in this test method counteracts viscosity effects for highly viscous oils that impact the accuracy of automatic optical particle counting results.1.1 This test method covers the determination of particle concentration and particle size distribution in new and in-service oils used for lubrication and hydraulic purposes. 1.2 Particles considered are in the range from 4 µm (c) to 200 µm (c) with the upper limit being dependent on the specific automatic particle counter being used. Note 18212;For the purpose of this test method, water droplets not masked by the diluent procedure are detected as particles, and agglomerated particles are detected and reported as a single larger particle. Note 28212;The subscript (c) is used to denote that the apparatus has been calibrated in accordance with ISO 11171. This subscript (c) strictly only applies to particles up to 50 µm. 1.3 Lubricants that can be analyzed by this test method are categorized as petroleum products or synthetic based products, such as: polyalpha olefin, polyalkylene glycol, or phosphate ester. Applicable viscosity range is up to 1000 mm2/s @ 40°C. This procedure may be appropriate for other petroleum and synthetic based lubricants not included in the precision statement. 1.4 Samples containing visible particles may not be suitable for analysis using this test method. 1.5 Samples that are opaque after dilution are not suitable for analysis using this test method. 1.6 The test m......

Standard Test Method for Automatic Particle Counting of Lubricating and Hydraulic Fluids Using Dilution Techniques to Eliminate the Contribution of Water and Interfering Soft Particles by Light Extinction

HJ/T 374-2007 总悬浮颗粒物采样器技术要求及检测方法

本标准规定了总悬浮颗粒物采样器的技术要求及检测方法。本标准适用于大流量和中流量两类总悬浮颗粒物采样器。

Technical requirement and test procedures for total suspended particulates sampler

HJ/T 375-2007 环境空气采样器技术要求及检测方法

本标准规定了环境空气采样器的技术要求、检测项目和 检测方法。 本标准适用于进行环境空气样品采集的采样器。

Technical requirement and test procedures for ambient air sampler

HJ/T 376-2007 24小时恒温自动连续环境空气采样器技术要求及检测方法

本标准规定了24h恒温自动连续环境空气采样器的技术要求、检测项目和测试方法。 本标准适用于测定环境空气中的SO、NO等有害成份含量的24小时恒温自动连续环境空气采样器。

Technical requirement and test procedures for 24 hour thermostatic automatic continuous ambient air sampler

HJ/T 372-2007 水质自动采样器技术要求及检测方法

本标准规定了地表水、工业废水和生活污水水质自动采样器的技术性能要求和性能检测方法。 本标准适用于水质自动采样器的性能检验、选型使用和日常校核。

The technical requirement and test procedures for water quality automatic sampler

JIS B 7983 AMD 1:2006 烟道气体中氧含量的连续分析仪(修改件1)

JIS B 7983:1994を，次のように改正する。参考2の2.の(1)の(g)の“脱脂綿，精製石綿又はシリカウールを詰めたガラス製のもの”を，“脱脂綿又はシリカウールを詰めたガラス製のもの”に置き換える。

Continuous analyzers for oxygen in flue gas (Amendment 1)

ISO 22309:2006 微电子束分析.用能量散射光谱仪(EDS)进行定量分析

This International Standard gives guidance on the quantitative analysis at specific points or areas of a specimen using energy-dispersive spectrometry (EDS) fitted to a scanning electron microscope (SEM) or electron probe microanalyser (EPMA); any expression of amount, i.e. in terms of percent (mass fraction), as large/small or major/minor amounts is deemed to be quantitative. The correct identification of all elements present in the specimen is a necessary part of quantitative analysis and is therefore considered in this International Standard. This International Standard provides guidance on the various approaches and is applicable to routine quantitative analysis of mass fractions down to 1 %, utilising either reference materials or "standardless" procedures. It can be used with confidence for elements with atomic number Z > 10. Guidance on the analysis of light elements with Z < 11 is also given. NOTE With care, mass fractions as low as 0,1 % are measurable when there is no peak overlap and the relevant characteristic line is strongly excited. This International Standard applies principally to quantitative analyses on a flat polished specimen surface. The basic procedures are also applicable to the analysis of specimens that do not have a polished surface but additional uncertainty components will be introduced. There is no accepted method for accurate quantitative EDS analysis of light elements. However, several EDS methods do exist. These are the following. a) Measuring peak areas and comparing intensities in the same way as for heavier elements. For the reasons explained in Annex D, the uncertainty and inaccuracy associated with the results for light elements will be greater than for the heavier elements. b) Where the light element is known to be combined stoichiometrically with heavier elements (Z > 10) in the specimen, its concentration can be determined by summing the appropriate proportions of concentrations of the other elements. This is often used for the analysis of oxygen in silicate mineral specimens. c) Calculation of concentration by difference where the light element percentage is 100% minus the percentage sum of the analysed elements. This method is only possible with good beam-current stability and a separate measurement of at least one reference specimen and it requires very accurate analysis of the other elements in the specimen. Annex D summarises the problems of light element analysis, additional to those that exist for quantitative analysis of the heavier elements. If both EDS and wavelength spectrometry (WDS) are available, then WDS can be used to overcome the problems of peak overlap that occur with EDS at low energies. However, many of the other issues are common to both techniques.

Microbeam analysis - Quantitative analysis using energy-dispersive spectrometry (EDS)

BS EN 61207-3:2002 气体分析器的性能说明.顺磁氧分析器

This part of IEC 61207 applies to the three main methods outlined in the introduction. It considers essential ancillary units and applies to analyzers installed indoors and outdoors. NOTE Safety critical applications can require an additional requirement of system and analyzer specifications not covered in this standard. This standard is intended - to specify terminology and definitions related to the functional performance of para-magnetic gas analyzers for the measurement of oxygen in a source gas; - to unify methods used in making and verifying statements on the functional performance of such analyzers; - to specify what tests should be performed to determine the functional performance and how such tests should be carried out; - to provide basic documents to support the application of standards of quality assurance (ISO 9001, ISO 9002 and ISO 9003).

Expression of performance of gas analyzers - Paramagnetic oxygen analyzers

BS EN 61207-3:2003 气体分析器的性能说明.顺磁氧分析器

This part of IEC 61207 applies to the three main methods outlined in the introduction. It considers essential ancillary units and applies to analyzers installed indoors and outdoors. NOTE Safety critical applications can require an additional requirement of system and analyzer specifications not covered in this standard. This standard is intended – to specify terminology and definitions related to the functional performance of paramagnetic gas analyzers for the measurement of oxygen in a source gas; – to unify methods used in making and verifying statements on the functional performance of such analyzers; – to specify what tests should be performed to determine the functional performance and how such tests should be carried out; – to provide basic documents to support the application of standards of quality assurance (ISO 9001, ISO 9002 and ISO 9003).

Expression of performance of gas analyzers - Paramagnetic oxygen analyzers

DIN EN 61207-3 Berichtigung 1:2003 DIN EN 61207-3-2002技术勘误

Corrigendum 1 to DIN EN 61207-3:2002-11: Errors of the IEC publication are corrected.

Corrigenda to DIN EN 61207-3:2002-11

DIN EN 61207-3:2002 气体分析仪.性能表达式.第3部分:顺磁氧气分析仪 (IEC 61207-3:2002); 德文版本 EN 61207-3:2002

This part of IEC 61207 applies to the three main methods outlined in the introduction. It considers essential ancillary units and applies to analysers installed indoors and outdoors.

Gas analyzers - Expression of performance - Part 3: Paramagnetic oxygen analyzers (IEC 61207-3:2002); German version EN 61207-3:2002

JIS B 7992:2002 用非萃取法测定烟道废气中氮的氧化物的自动测量系统

この規格は，排ガス中の窒素酸化物濃度を試料非吸引方式によって連統的に測定するための自動計測方式及びその計測器について規定する。

Automated measuring systems for oxides of nitrogen in flue gas using non-extractive methods

JIS B 7991:2002 用非萃取法测定烟道废气中二氧化硫的自动测量系统

この規格は，排ガス中の濃度を試料非吸引方式によって連続的に測定するための自動計測方式及びその計測器について規定する。

Automated measuring systems for sulfur dioxide in flue gas using non-extractive methods

JIS B 7981:2002 烟道废气中二氧化硫的自动测量系统和分析仪

この規格は，固定発生源の排ガス中の二酸化硫黄濃度を連続的に測定するための自動計測システム(以下，計測システムという。)及び(自動計測器(以下，計測器という。)のうち，試料ガス吸引採取方式(Extractive method)のものについて規定する。

Automated measuring systems and analyzers for sulfur dioxide in flue gas

BS EN 61779-4:2000 可燃性气体的检测和测量用电气装置.指示低爆炸极限达到体积分率为100%时II组装置的性能要求

1 This part of IEC 61779 specifies requirements for group II (as defined in part 1) portable, transportable and fixed apparatus for the detection and measurement of combustible gas or vapour concentrations with air. The apparatus, or parts thereof, may be installed or used in potentially explosive atmospheres, other than mines susceptible to firedamp (i.e. group I). The requirements and test methods applicable to the apparatus covered by this standard are specified in part 1. 2 This standard is restricted to apparatus intended for the detection and measurement of combustible gas or vapour concentrations with air up to 100 % lower explosive limit (LEL).

Electrical apparatus for the detection and measurement of flammable gases - Performance requirements for group II apparatus indicating a volume fraction up to 100% lower explosive limit

BS EN 61779-5:2000 可燃性气体的检测和测量用电气装置.指示体积分率达到100%时II组装置的性能要求

1 This part of IEC 61779 specifies requirements for group II (as defined in part 1) portable, transportable and fixed apparatus for the detection and measurement of combustible gas or vapour concentrations with air. The apparatus, or parts thereof, may be installed or used in potentially explosive atmospheres, other than mines susceptible to firedamp (i.e. group I). The requirements and test methods applicable to the apparatus covered by this standard are specified in part 1. 2 This standard is restricted to apparatus intended for the detection and measurement of volume ratios of combustible gas or vapour in air in volume fractions from 0 % to 100 % . NOTE 1 - Apparatus covered by this standard will normally be intended to operate in volume ratios greater than 100%LEL. NOTE 2 - Although apparatus of the types covered by this standard may be suitable for detecting a wide range of combustible gases, particular gases (e.g. methane or propane) are specified in part 1 as the components of the test gases for the purpose of practical convenience. The performance requirements specified in this standard should therefore be considered with caution when the apparatus is used to detect other combustible gases, as some parameters - such as time of response - will be modified.

Electrical apparatus for the detection and measurement of flammable gases - Performance requirements for group II apparatus indicating a volume fraction up to 100% gas

BS EN 61779-3:2000 可燃性气体的检测和测量用电气装置.指示空气中甲烷含量达到体积分率为100%时I组装置的性能要求

1 This part of IEC 61779 specifies requirements for group I (as defined in part 1) portable, transportable and fixed apparatus for the detection and measurement of methane concentrations in mine air. The apparatus, or parts thereof, are intended for use in mines susceptible to firedamp. The requirements and test methods applicable to the apparatus covered by this standard are specified in part 1. 2 This standard is restricted to apparatus intended for the detection and measurement of volume ratios of methane in air from a volume fraction of 0 % up to, but not exceeding, a volume fraction of 5 %.

Electrical apparatus for the detection and measurement of flammable gases - Performance requirements for group I apparatus indicating a volume fraction up to 100% methane in air