ASTM G214-23
耐候性和耐久性应用数字光谱数据集成的标准试验方法

Standard Test Method for Integration of Digital Spectral Data for Weathering and Durability Applications


ASTM G214-23 发布历史

ASTM G214-23由美国材料与试验协会 US-ASTM 发布于 2023-07-01。

ASTM G214-23在国际标准分类中归属于: 17.180.20 颜色和光的测量。

ASTM G214-23 耐候性和耐久性应用数字光谱数据集成的标准试验方法的最新版本是哪一版?

最新版本是 ASTM G214-23

ASTM G214-23 发布之时,引用了标准

  • ASTM E275 说明和测量紫外线,可见和近红外线分光光度计的性能的标准操作规程
  • ASTM E424 薄板材料的太阳能透射率和反射率(地面)的标准试验方法
  • ASTM E490 标准太阳常数和零空气质量太阳光谱辐照度表
  • ASTM E772 有关太阳能转换的标准术语
  • ASTM E927 光伏器件电性能试验用太阳模拟器的标准分类
  • ASTM E971 计算材料对太阳辐射的光度透射率和反射率的标准实施规程
  • ASTM E972 使用阳光的板材太阳光光度透射率的标准测试方法
  • ASTM E973 测量光电装置与光电参考电池之间光谱不协调参数的测试方法
  • ASTM G113 与非金属材料自然和人工风蚀试验相关的标准术语
  • ASTM G130 使用光谱辐射计校准窄带和宽带紫外辐射计的标准试验方法
  • ASTM G138 用标准辐射源校准分光辐射谱仪的标准试验方法
  • ASTM G151 利用实验室光源的加速试验装置中非金属材料曝光的标准实施规程
  • ASTM G173 参考太阳光谱辐照度的标准表:37°倾斜面上的直法线和半球面
  • ASTM G177 太阳紫外线光谱分布参考标准表:37度倾斜表面上的半球形分布*2023-12-18 更新
  • ASTM G178 使用锐切滤波器或光谱技术测定材料的激活光谱(对曝光源的波长敏感性)的标准实施规程
  • ASTM G197 参考太阳光谱分布标准表:20°倾斜和垂直表面上的直接和漫反射
  • ASTM G207 标准测试方法 用于从参考到现场测辐射计的室内校准传输

* 在 ASTM G214-23 发布之后有更新,请注意新发布标准的变化。

ASTM G214-23的历代版本如下:

  • 2023年 ASTM G214-23 耐候性和耐久性应用数字光谱数据集成的标准试验方法
  • 2016年 ASTM G214-16 用于耐候性和耐久性应用数字光谱数据集成的标准试验方法
  • 2015年 ASTM G214-15 用于风化和耐用性应用的数字光谱数据集成的标准测试方法

 

1.1 This test method specifies a single relatively simple method to implement, common integration technique, the Modified Trapezoid Rule, to integrate digital or tabulated spectral data. The intent is to produce greater consistency and comparability of weathering and durability test results between various exposure regimes, calculation of materials properties, and laboratories with respect to numerical results that depend upon the integration of spectral distribution data. 1.2 Weathering and durability testing often requires the computation of the effects of radiant exposure of materials to various optical radiation sources, including lamps with varying spectral power distributions and outdoor and simulated sunlight. Changes in the spectrally dependent optical properties of materials, in combination with exposure source spectral data, are often used to evaluate the effect of exposure to radiant sources, develop activation spectra (Practice G178), and classify, evaluate, or rate sources with respect to reference or exposure source spectral distributions. Another important application is the integration of the original spectrally dependent optical properties of materials in combination with exposure source spectral data to determine the total energy absorbed by a material from various exposure sources. 1.3 The data applications described in 1.2 often require the use of tabulated reference spectral distributions, digital spectral data produced by modern instrumentation, and the integrated version of that data, or combinations (primarily multiplication) of spectrally dependent data. 1.4 Computation of the material responses to exposure to radiant sources mentioned above require the integration of measured wavelength dependent digital data, sometimes in conjunction with tabulated wavelength dependent reference or comparison data. 1.5 The term “integration” in the previous sections refers to the numerical approximation to the true integral of continuous functions, represented by discrete, digital data. There are numerous mathematical techniques for performing numerical integration. Each method provides different levels of complexity, accuracy, ease of implementation and computational efficiency, and, of course, resultant magnitudes. Hulstrom, Bird and Riordan (1)2 demonstrate the differences between results for rectangular (963.56 W/m2 ), trapezoid rule (962.53 W/m2 ), and modified trapezoid rule (963.75 W/m2 ) integration for a single solar spectrum. Thus the need for a standard integration technique to simplify the comparison of results from different laboratories, measurement instrumentation, or exposure regimes. 1.6 The values stated in SI units are to be regarded as standard. No other units of measurement are included in this standard. 1.7 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. 1.8 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.

ASTM G214-23

标准号
ASTM G214-23
发布
2023年
发布单位
美国材料与试验协会
当前最新
ASTM G214-23
 
 
引用标准
ASTM E275 ASTM E424 ASTM E490 ASTM E772 ASTM E927 ASTM E971 ASTM E972 ASTM E973 ASTM G113 ASTM G130 ASTM G138 ASTM G151 ASTM G173 ASTM G177 ASTM G178 ASTM G197 ASTM G207

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