Q30 陶瓷、玻璃综合 标准查询与下载

DIN 51030:2015 陶瓷原料和基本材料的测试. 不烧制品的干燥弯曲强度的测定

Testing of ceramic raw and basic materials - Determination of dry bending strength of unfired products

JC/T 897-2014 抗菌陶瓷制品抗菌性能

本标准规定了抗菌陶瓷的术语和定义、产品标记、一般要求、技术要求、试验方法以及检验规则。本标准适用于具有抗细菌功能的建筑用陶瓷砖、卫生陶瓷制品的抗菌性能检验和判定,其他陶瓷可参照使用。

Antiseptic function of antibacterial ceramic

DIN 51175:2014 釉瓷和搪瓷.用快速试验法测定热机械性能

Vitreous and porcelain enamels - Determination of thermomechanical properties by means of a rapid test method

JC/T 2277-2014 安全玻璃生产规程 第2部分:汽车用安全玻璃生产规程

本部分规定了汽车用安全玻璃生产过程的术语和定义、分类、材料、生产、检验以及包装、标志、运输和储存等。本部分适用于汽车用安全玻璃的生产,其他道路车辆用安全玻璃的生产可参照本规程。

Specification for safety glass manufacture process.Part 2: Specification for automotive safety glass manufacture process

JC/T 2278-2014 加工玻璃安全生产规程

本标准规定了加工玻璃安全生产的基本要求、生产过程要求以及检验、包装、贮存和运输等。本标准适用于加工玻璃企业的建设及安全生产和管理。

The specifications for production safety in glass processing

JC/T 2206-2014 热致红外可调镀膜玻璃

本标准规定了热致红外可调镀膜玻璃的符号、术语和定义、产品标记、技术要求、试验方法、检验规则以及标志、包装、运输和贮存。本标准适用于建筑用热致红外可调镀膜玻璃,其他领域使用的热致红外可调镀膜玻璃可参照使用。

Thermochromic infrared tunable coated glass

JIS H 8304:2014 陶瓷喷镀

This Japanese Industrial Standard specifies ceramic sprayed coatings applied to metallic substrates for the purpose of giving the wear resistance,corrosion resistance,heat resistance, heat insulation,electrical insulation and the like to parts,products,etc.

Ceramic sprayed coatings

ASTM C1649-14 对有涂层和无涂层的平板玻璃的颜色进行仪器投射测量的标准实施规程

4.1 Color measurement quantifies the transmitted color for glass. The user defines an acceptable range of color appropriate for the end use. A typical quality concern for transmittance color measurement of glass products is verification of lot-to-lot color consistency for end-user acceptance. 4.2 If the transmitted color of a glass product is consistent from lot-to-lot and within agreed supplier-buyer acceptance criteria, the product’s color is expected to be consistent and acceptable for end-use. 1.1 This practice provides guidelines for the instrumental transmittance measurement of the color of coated and uncoated transparent glass. See Terminology E284. 1.2 The practice specifically excludes fluorescent and iridescent samples. 1.3 The values stated in SI units are to be regarded as the standard. The values given in parentheses are for information only. 1.4 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 and health practices and determine the applicability of regulatory limitations prior to use.

Standard Practice for Instrumental Transmittance Measurement of Color for Flat Glass, Coated and Uncoated

KS L 4010-2013 陶瓷用黏土过滤速度测定方法

이 표준은 압력 여과법을 이용하여 점토-물의 이장으로부터 점토의 여과 케이크가 형성되는 속도를측정하는 방법에 대하여 규정한다.

Testing method for filtration rate of ceramic whiteware clays

KS L 4009-2013 陶瓷湿膨胀试验方法

이 표준은 도자기 및 타일의 소지를 오토클레이브로 처리하였을 때의 재수화 반응으로 인하여 생기는 팽창률을 측정하는 방법에 대하여 규정하였다.

Testing method for moisture expansion of fired whiteware products and ceramic tiles

KS L 1001-2013 瓷砖

이 표준은 도자기질 타일(이하 타일이라 한다.)에 대하여 규정한다.

Ceramic tiles

DIN EN ISO 14720-1:2013 陶瓷原料和基本材料的测试.非氧化陶瓷原料和基本材料的硫磺粉和颗粒的测定.第1部分:红外测量方法(ISO 14720-1-2013).德文版本EN ISO 14720-1-2013

Testing of ceramic raw and basic materials - Determination of sulfur in powders and granules of non-oxidic ceramic raw and basic materials - Part 1: Infrared measurement methods (ISO 14720-1:2013); German version EN ISO 14720-1:2013

DIN EN ISO 14720-2:2013 陶瓷原材料和基本材料试验. 非氧化陶瓷原材料和基本材料粉末及颗粒中硫的测定. 第2部分: 氧气流环境下燃烧后的感应耦合等离子体光学发射光谱法(ICP/OES)或离子色谱法(ISO 14720-2-2013); 德文版本EN ISO 14720-2-2013

Testing of ceramic raw and basic materials - Determination of sulfur in powders and granules of non-oxidic ceramic raw and basic materials - Part 2: Inductively coupled plasma optical emission spectrometry (ICP/OES) or ion chromatography after burning in

NF A92-125-4:2013 釉瓷和搪瓷.加工厂用玻璃衬里装置.第4部分:涂瓷釉凸缘钢管和凸缘钢配件的质量要求

Vitreous and porcelain enamels - Glass-lined apparatus for process plants - Part 4: quality requirements for glass-lined flanged steel pipes and flanged steel fittings

ASTM G24-13 进行透过玻璃的自然光曝光的标准实施规程

4.1 Since solar radiation, air temperature, relative humidity, and the amount and kind of atmospheric contaminants vary continuously, results from exposures based on elapsed time may differ. The variations in the results may be minimized by timing the exposures in terms of: 4.1.1 One or more environmental parameters such as solar radiant exposure, or 4.1.2 A predefined property change of a weathering reference specimen with known performance. 4.2 Variations in temperature, moisture and atmospheric contaminants can have a significant effect on the degradation caused by solar radiation. In addition, exposures conducted at different times of the year can cause large differences in rate of degradation. Different materials may have different sensitivities to heat, moisture, and atmospheric contaminants, which may explain differences in rankings of specimens exposed to equivalent solar radiant exposure when other environmental conditions vary. 4.3 Since the method of mounting may influence the temperature and other parameters during exposure of the specimen, there should be a mutual understanding as to the method of mounting the specimen for the particular exposure test under consideration. 4.4 There can be large differences among various single strength window glasses in their transmittance in the 300 to 350 nm region. For example, at 320 nm, the percent transmittance for seven different lots of single strength window glass ranged from 8.4 to 26.8 %. At 380 nm, the percent transmittance ranged from 84.9 % to 88.1 %.6 4.5 Differences in UV transmittance between different lots of glass persist after solarization. The largest differences among window glasses in UV transmittance are in the spectral range of 300 to 320 nm. 4.6 This practice is best used to compare the relative performance of materials tested at the same time behind the same lot of glass. Because of variability between lots of glass and between exposures conducted at different times of the year, comparing the amount of degradation in materials exposed for the same duration or radiant exposure at separate times, or in separate fixtures using different lots of glass is not recommended. 4.7 It is strongly recommended that at least one control material be exposed with each test. The control material should be of similar composition and construction. and be chosen so that its failure modes are the same as that of the material being tested. It is preferable to use two control materials, one with relatively good durability, and one with relatively poor durability. If control materials are included as part of the test, they shall be used for the purpose of comparing the performance of the test materials relative to the controls. 4.8 There are other standards which describe exposures to glass filtered daylight. Six cited standards are D3424, D4303,

Standard Practice for Conducting Exposures to Daylight Filtered Through Glass

ASTM C1684-13e1 室温下高级陶瓷抗弯强度标准试验方法.圆柱杆强度

4.1 This test method may be used for material development, quality control, characterization, and design data generation purposes. This test method is intended to be used with ceramics whose strength is 50 MPa (~7 ksi) or greater. The test method may also be used with glass test specimens, although Test Methods C158 is specifically designed to be used for glasses. This test method may be used with machined, drawn, extruded, and as-fired round specimens. This test method may be used with specimens that have elliptical cross section geometries. 4.2 The flexure strength is computed based on simple beam theory with assumptions that the material is isotropic and homogeneous, the moduli of elasticity in tension and compression are identical, and the material is linearly elastic. The average grain size should be no greater than one fiftieth of the rod diameter. The homogeneity and isotropy assumptions in the standard rule out the use of this test for continuous fiber-reinforced ceramics. 4.3 Flexural strength of a group of test specimens is influenced by several parameters associated with the test procedure. Such factors include the loading rate, test environment, specimen size, specimen preparation, and test fixtures (1-3).3 This method includes specific specimen-fixture size combinations, but permits alternative configurations within specified limits. These combinations were chosen to be practical, to minimize experimental error, and permit easy comparison of cylindrical rod strengths with data for other configurations. Equations for the Weibull effective volume and Weibull effective surface are included. 4.4 The flexural strength of a ceramic material is dependent on both its inherent resistance to fracture and the size and severity of flaws in the material. Flaws in rods may be intrinsically volume-distributed throughout the bulk. Some of these flaws by chance may be located at or near the outer surface. Flaws may alternatively be intrinsically surface-distributed with all flaws located on the outer specimen surface. Grinding cracks fit the latter category. Variations in the flaws cause a natural scatter in strengths for a set of test specimens. Fractographic analysis of fracture surfaces, although beyond the scope of this standard, is highly recommended for all purposes, especially if the data will be used for design as discussed in Refs (3-5) and Practices C1322 and C1239. 4.5 The three-point test configuration exposes only a very small portion of the specimen to the maximum stress. Therefore, three-point flexural strengths are likely to be greater than four-point flexural strengths. Three-point flexure has some advantages. It uses simpler test fixtures, it is easier to adapt to high temperature and fracture toughness testing, and it is sometimes helpful in Weibull statistical studies. It also uses smaller force to break a specimen. It is also convenient for very short, stubby specimens which would be difficult to test in four-point loading. Nevertheless, four-point flexure is preferred and recommended for most characterization purposes. 1.1 This test method is for the determination of flexural strength of rod shape specimens of advanced ceramic materials at ambient temperature. In many instances it is preferable to test round specimens rather than rectangular bend specimens, especially if the material is fabricated in rod form. This method permits testing of machined, drawn, or as-fired rod shaped specimens. It allows some ......

Standard Test Method for Flexural Strength of Advanced Ceramics at Ambient Temperaturemdash;Cylindrical Rod Strength

ASTM C1463-13 化学和放射化学分析用含辐射和混合杂质溶解玻璃的标准操作规程

1.1 These practices cover techniques suitable for dissolving glass samples that may contain nuclear wastes. These techniques used together or independently will produce solutions that can be analyzed by inductively coupled plasma atomic emission spectroscopy (ICP-AES), inductively coupled plasma mass spectrometry (ICP-MS), atomic absorption spectrometry (AAS), radiochemical methods and wet chemical techniques for major components, minor components and radionuclides. 1.2 One of the fusion practices and the microwave practice can be used in hot cells and shielded hoods after modification to meet local operational requirements. 1.3 The user of these practices must follow radiation protection guidelines in place for their specific laboratories. 1.4 Additional information relating to safety is included in the text. 1.5 The dissolution techniques described in these practices can be used for quality control of the feed materials and the product of plants vitrifying nuclear waste materials in glass. 1.6 These practices are introduced to provide the user with an alternative means to Test Methods C169 for dissolution of waste containing glass in shielded facilities. Test Methods C169 is not practical for use in such facilities and with radioactive materials. 1.7 The ICP-AES methods in Test Methods C1109 and C1111 can be used to analyze the dissolved sample with additional sample preparation as necessary and with matrix effect considerations. Additional information as to other analytical methods can be found in Test Method C169. 1.8 Solutions from this practice may be suitable for analysis using ICP-MS after establishing laboratory performance criteria. 1.9 The values stated in SI units are to be regarded as standard. No other units of measurement are included in this standard. 1.10 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 and health practices and determine the applicability of regulatory limitations prior to use. Specific precautionary statements are given in Sections 10, 20, and 30.

Standard Practices for Dissolving Glass Containing Radioactive and Mixed Waste for Chemical and Radiochemical Analysis

ASTM C1161-13 室温下高级陶瓷抗弯强度标准试验方法

4.1 This test method may be used for material development, quality control, characterization, and design data generation purposes. This test method is intended to be used with ceramics whose strength is 50 MPa (~7 ksi) or greater. 4.2 The flexure stress is computed based on simple beam theory with assumptions that the material is isotropic and homogeneous, the moduli of elasticity in tension and compression are identical, and the material is linearly elastic. The average grain size should be no greater than one fiftieth of the beam thickness. The homogeneity and isotropy assumption in the standard rule out the use of this test for continuous fiber-reinforced ceramics. 4.3 Flexural strength of a group of test specimens is influenced by several parameters associated with the test procedure. Such factors include the loading rate, test environment, specimen size, specimen preparation, and test fixtures. Specimen sizes and fixtures were chosen to provide a balance between practical configurations and resulting errors, as discussed in MIL-STD8201;19428201;(MR) and Refs (1) and (2).4 Specific fixture and specimen configurations were designated in order to permit ready comparison of data without the need for Weibull-size scaling. 4.4 The flexural strength of a ceramic material is dependent on both its inherent resistance to fracture and the size and severity of flaws. Variations in these cause a natural scatter in test results for a sample of test specimens. Fractographic analysis of fracture surfaces, although beyond the scope of this standard, is highly recommended for all purposes, especially if the data will be used for design as discussed in MIL-STD-1942 (MR) and Refs (2–5) and Practices C1322 and C1239. 4.5 The three-point test configuration exposes only a very small portion of the specimen to the maximum stress. Therefore, three-point flexural strengths are likely to be much greater than four-point flexural strengths. Three-point flexure has some advantages. It uses simpler test fixtures, it is easier to adapt to high temperature and fracture toughness testing, and it is sometimes helpful in Weibull statistical studies. However, four-point flexure is preferred and recommended for most characterization purposes. 4.6 This method determines the flexural strength at ambient temperature and environmental conditions. The flexural strength under ambient conditions may or may not necessarily be the inert flexural strength.Note 7—time dependent effects may be minimized through the use of inert testing atmosphere such as dry nitrogen gas, oil, or vacuum. Alternatively, testing rates faster than specified in this standard may be used. Oxide ceramics, glasses, and ceramics containing boundary phase glass are susceptible to slow crack growth even at room temperature. Water, either in the form of liquid or as humidity in air, can have a significant effect, even at the rates specified in this standard. On the other hand, many ceramics such as boron carbide, silicon carbide, aluminum nitride and many silicon nitrides have no sensitivity to slow crack growth at room temperature and the flexural strength in laboratory ambient conditions is the inert flexural strength. 1.1 This test method covers the determination ......

Standard Test Method for Flexural Strength of Advanced Ceramics at Ambient Temperature

ASTM C1684-13 室温下高级陶瓷抗弯强度标准试验方法.圆柱杆强度

0

Standard Test Method for Flexural Strength of Advanced Ceramics at Ambient Temperaturemdash;Cylindrical Rod Strength

ASTM F218-13 测量玻璃中的光延迟以及分析玻璃应力的标准试验方法

4.1 The performance of glass products may be affected by presence of residual stresses due to process, differential thermal expansion between fused components, and by inclusions. This test method provides means of quantitative evaluation of stresses. 1.1 This test method covers the analysis of stress in glass by means of a polarimeter based on the principles developed by Jessop and Friedel (1, 2).2 Stress is evaluated as a function of optical retardation, that is expressed as the angle of rotation of an analyzing polarizer that causes extinction in the glass. 1.2 There is no known ISO equivalent to this standard. 1.3 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 and health practices and determine the applicability of regulatory limitations prior to use.

Standard Test Method for Measuring Optical Retardation and Analyzing Stress in Glass