N11 温度与压力仪表 标准查询与下载

JIS C 1602 ERRATUM 1:2004 勘误

ERRATUM

JIS C 1602 ERRATUM 2:2004 勘误表

ERRATUM

AIR FORCE AN6295 REV 1 VALID NOTICE 3-2004 10 GPM 水压调整器

AN6295 remains inactive for new design, however, the document is valid for acquisition when needed.

REGULATOR-10 GPM HYDRAULIC PRESSURE

JIS Z 4320:2004 热致发光剂量测定系统

この規格は，次の熱ルミネセンス線量計測装置について規定する。

Thermoluminescence dosimetry systems

ASTM E1269-04 用差示扫描热量测定仪测定比热容量的标准试验方法

1.1 This test method covers the determination of specific heat capacity by differential scanning calorimetry.1.2 This test method is generally applicable to thermally stable solids and liquids.1.3 The normal operating range of the test is from - 100 to 600176;C. The temperature range can be extended, depending upon the instrumentation and specimen holders used.1.4 The values stated in SI units are to be regarded as the standard.1.5 Computer or electronic-based instrumentation, techniques, or data treatment equivalent to this test method may be used.Note 18212;Users of this test method are expressly advised that all such instruments or techniques may not be equivalent. It is the responsibility of the user of this test method to determine equivalency prior to use.1.6 This method is similar to ISO 11357-4, but contains additional methodology not found in that method. Additionally, ISO 11357-4 contains practices not found in this standard. This method is similar to Japanese Industrial Standard K 7123, but contains additional methodology not found in that method.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 and health practices and determine the applicability of regulatory limitations prior to use. Specific precautionary statements are given in Section 9.

Standard Test Method for Determining Specific Heat Capacity by Differential Scanning Calorimetry

ASTM E644-04 测试工业电阻温度计的标准试验方法

1.1 These test methods cover the principles, apparatus, and procedures for calibration and testing of industrial resistance thermometers.1.2 These test methods cover the tests for insulation resistance, calibration, immersion error, pressure effects, thermal response time, vibration effect, mechanical shock, self-heating effect, stability, thermoelectric effect, humidity, thermal hysteresis and thermal shock.1.3 These test methods are not necessarily intended for, recommended to be performed on, or appropriate for every type of thermometer. The expected repeatability and reproducibility of the results are tabulated in Appendix X4.1.4 These test methods, when specified in a procurement document, shall govern the method of testing the resistance thermometer.1.5 Thermometer performance specifications, acceptance limits, and sampling methods are not covered in these test methods; they should be specified separately in the procurement document.1.6 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 6.3.2, 6.3.5, and 8.1.

Standard Test Methods for Testing Industrial Resistance Thermometers

UL 873 BULLETINS-2004 温度指示和调节设备

These requirements cover electrical equipment for control of air-conditioning, heating, cooking, refrigeration, and humidity, rated 600 volts or less, to be used in ordinary locations in accordance with the National Electrical Code, NFPA 70. These requirements cover general-use equipment for field-installation and controls intended to be factory installed on or in certain appliances as safety, limiting, or operating controls. These controls respond directly or indirectly to changes in temperature, humidity, or pressure to effect control of equipment or appliance operation. These requirements do not cover low-voltage thermostats, damper controls or similar devices intended for connection only to a low-voltage circuit of limited power supplied by a primary battery or by a Class 2 transformer. An assembly consisting of a line-voltage transformer with a low-voltage secondary incorporated as an integral part of a control, such as a thermostat or a damper control, is considered to be within the scope of these requirements. See 6.1. A product that contains features, characteristics, components, materials, or systems new or different from those covered by the requirements in this standard, and that involves a risk of fire or of electric shock or injury to persons shall be evaluated using appropriate additional component and end-product requirements to maintain the level of safety as originally anticipated by the intent of this standard. A product whose features, characteristics, components, materials, or systems conflict with specific requirements or provisions of this standard does not comply with this standard. Revision of requirements shall be proposed and adopted in conformance with the methods employed for development, revision, and implementation of this standard.

Temperature-indicating and -regulating equipment

ASTM E1582-04 热解重量测定用温标校准的标准实施规程

Thermogravimetric analyzers are used to characterize a broad range of materials. In most cases, one of the desired values to be assigned in thermogravimetric measurements is the temperature at which significant changes in specimen mass occur. Therefore, the temperature axis (abscissa) of all apparent-mass-change curves must be calibrated accurately, either by direct reading of a temperature sensor, or by adjusting the programmer temperature to match the actual temperature over the temperature range of interest. In the latter case, this is accomplished by the use of either melting point or magnetic transition standards. This practice permits interlaboratory comparison and intralaboratory correlation of instrumental temperature scale data.1.1 This practice describe the temperature calibration of thermogravimetric analyzers over the temperature range from 25 to 1500176;C and is applicable to commercial and custom-built apparatus. This calibration may be accomplished by the use of either melting point standards or magnetic transition standards.1.2 The mass change curve in thermogravimetry results from a number of influences, some of which are characteristic of the specimen holder assembly and atmosphere rather than the specimen. The variations from instrument to instrument occur in the point of measurement of the temperature, the nature of the material, its size and packing, the geometry and composition of the specimen container, the geometry and design of the furnace, and the accuracy and sensitivity of the temperature sensor and displaying scales. These all contribute to differences in measured temperatures, which may exceed 20176;C. In addition, some sample holder assemblies will show variations of measured temperature with sample size or heating/cooling rate, or both. Since it is neither practical nor advisable to standardize sample holders or thermobalance geometries, instruments may be calibrated by measurement of the deviation of a melting or magnetic (Curie Point) transition temperature from the standard reference temperature. This deviation can be applied as a correction term to subsequent measurements.1.3 This practice assumes that the indicated temperature of the instrument is linear over the range defined by a two-point calibration and that this linearity has been verified. These two calibration temperatures should be as close to the experimental measurements to be made as possible.1.4 This practice describes three procedures for temperature calibration of thermogravimetric analyzers using any type balance. Procedures A and B use melting point standards with vertical and horizontal balances. Procedure C uses magnetic transition standards for calibration. Procedure A is designed specifically for use with horizontal-type balances using external furnaces. Procedure B is designed specifically for use with vertical hang-down balances using either internal or external furnaces. No procedure is restricted to the use of the furnace type described in that procedure.1.5 Computer or electronic-based instruments, techniques, or data treatment equivalent to this procedure may be used.Note 18212;Since all electronic data treatments are not equivalent, the user shall verify equivalency prior to use.1.6 The data generated by these procedures can be used to correct the temperature scale of the instrument by either a positive or negative amount using either a two-point temperature calibration procedure or a multi-point temperature calibration with best line fit for the generated data.Note 28212;A single-point calibration may be used where this is the only procedure possible or practical. The use of a single-point procedure is not recommended.1.7 SI units are standard.1.8 This practice is related to ISO 11358 but provides information and methods not found in ISO 11358 .1.9 This standard does not purport to ad......

Standard Practice for Calibration of Temperature Scale for Thermogravimetry

KS C IEC 60584-1:2003 热电偶.第1部分:分度表

이 규격은 열전대 전압을 이들을 등가한 측정된 온도로 변환 또는 그 역으로 변환하는 데

Thermocouples-Part 1:Reference tables

KS C IEC 60584-3:2003 热电偶.第3部分:加长电缆和补偿电缆.容差和鉴定系统

이 규격은 산업 현장의 사용자에게 직접 제공되는 무기물로 절연된 도선 이외의 연장 및

Compensating lead wires

JJG 67-2003 工作用全辐射温度计检定规程

Verification Regulation of the Total Radiation Pyrometers

JJG 111-2003 玻璃体温计

Clinical Thermometers

JIS C 1602 ERRATUM 1:2003 勘误表

ERRATUM

KS B 5315-2003 玻璃水银温度计

이 규격은 높은 정밀도가 요구되지 않는 산업체, 학교 및 실험실에 적합하고, “상업적 특성

Enclosed－scale mercury－in glass thermometers

ASTM E230-03 标准化热电偶用标准规范和温度-电动势(EMF)图表

1.1 This specification contains reference tables (Tables 8-23) that give temperature-electromotive force (emf) relationships for Types B, E, J, K, N, R, S, and T thermocouples. These are the thermocouple types most commonly used in industry.1.2 Also included are lists of standard and special tolerances on initial values of emf versus temperature for thermocouples (Table 1), thermocouple extension wires (Table 2), and compensating extension wires for thermocouples (Table 3).1.3 Tables 4-5, included herein, give data on insulation color coding for thermocouple and thermocouple extension wires as customarily used in the United States.1.4 Recommendations regarding upper temperature limits for the thermocouple types referred to in 1.1 are given in Table 6.1.5 Tables 24-43 give temperature-emf data for single-leg thermoelements referenced to platinum (NIST Pt 67). The tables include values for Types BP, BN, JP, JN, KP (same as EP), KN, NP, NN, TP, and TN (same as EN).1.6 Tables for Types RP, RN, SP, and SN thermoelements are not included since, nominally, Tables 18-21 represent the thermoelectric properties of Type RP and SP thermoelements referenced to pure platinum.1.7 Polynomial coefficients that may be used for computation of thermocouple emf as a function of temperature are given in Table 7. Coefficients for the emf of each thermocouple pair as well as for the emf of individual thermoelements versus platinum are included.1.8 Coefficients for sets of inverse polynomials are given in Table 44. These may be used for computing a close approximation of temperature (oC) as a function of thermocouple emf. Inverse functions are provided only for thermocouple pairs and are valid only over the emf ranges specified.1.9 This specification is intended to define the thermoelectric properties of materials that conform to the relationships presented in the tables of this standard and bear the letter designations contained herein. Topics such as ordering information, physical and mechanical properties, workmanship, testing, and marking are not addressed in this specification. The user is referred to specific standards such as Specifications E235, E574, E585, E608, E1159, or E1223, as appropriate, for guidance in these areas.1.10 The temperature-emf data in this specification are intended for industrial and laboratory use.

Standard Specification and Temperature-Electromotive Force (EMF) Tables for Standardized Thermocouples

ASME B40.200a Addenda-2003 直接和间接读数温度计.补充件

Thermometers, Direct Reading and Remote Reading / Note: Redesignated/Consolidated ANSI/ASME B40.3-2000, ANSI/ASME B40.4-2000 and ANSI/ASME B40.9-2001 * Approved 2000-12-01.

Thermometers, Direct Reading and Remote Reading; Addenda

ASTM E1-03a ASTM温度计标准规范

1.1 This specification covers liquid-in-glass thermometers graduated in degrees Celsius or degrees Fahrenheit that are frequently identified and used in methods under the jurisdiction of the various technical committees within ASTM. The various thermometers specified are listed in . The inclusion of an IP number in indicates, where appearing, that the thermometer specification has been jointly agreed upon by the British Institute of Petroleum (IP) and ASTM.1.2 This specification also covers adjustable-range enclosed-scale thermometers, graduated in degrees Celsius, which are used in ASTM methods.1.3 The enclosed-scale thermometers are commonly called Beckmann thermometers. They are suitable for measuring small temperature differences not exceeding 6 C within a larger range of temperature. The thermometers are unsuitable for measuring Celsius- or kelvin-scale temperatures unless they have been compared with standard instruments immediately before use. 1.4 An alphabetic list of the ASTM Thermometers included in this standard is given in .1.5 A list of ASTM Thermometers is given in to facilitate selection according to temperature range, immersion, and scale-error requirements. Note 18212;For a listing of thermometers recommended for general laboratory use, the Scientific Apparatus Makers Association Specifications for General Purpose Glass Laboratory Thermometers may be consulted.Note 28212;It has been found by experience that these ASTM Thermometers, although developed in general for specific tests, may also be found suitable for other applications, thus precluding the need for new thermometer specifications differing in only minor features. However, it is suggested that technical committees contact Subcommittee E20.05 before choosing a currently specified thermometer for a new method to be sure the thermometer will be suitable for the intended application.

Standard Specification for ASTM Liquid-in-Glass Thermometers

ASTM E1-03 ASTM温度计标准规范

1.1 This specification covers liquid-in-glass thermometers graduated in Celsius (centigrade) or Fahrenheit degrees which are frequently specified in methods of ASTM. The various thermometers covered are listed in Table 1. The designation of an IP number in Table 1 indicates, where appearing, that the thermometer specification has been jointly agreed upon by the British Institute of Petroleum (IP) and ASTM.1.2 This specification also covers adjustable-range enclosed-scale thermometers, graduated in Celsius (centigrade) degrees, which are specified in methods of ASTM.1.3 The enclosed-scale thermometers are commonly called Beckmann thermometers. They are suitable for measuring small temperature differences not exceeding 6176;C within a larger range of temperature. The thermometers are unsuitable for measuring Celsius- or kelvin-scale temperatures unless they have been compared with standard instruments immediately before use.1.4 An alphabetic list of the ASTM Thermometers included in this standard is given in Table 2.1.5 A list of ASTM Thermometers is given in to facilitate selection according to temperature range, immersion, and scale-error requirements. Note 18212;For a listing of thermometers recommended for general laboratory use, the Scientific Apparatus Makers Assn. Specifications for General Purpose Glass Laboratory Thermometers may be consulted.Note 28212;It has been found by experience that these ASTM Thermometers, although developed in general for specific tests, may also be found suitable for other applications, thus precluding the need for new thermometer specifications differing in only minor features.

Standard Specification for ASTM Thermometers

ANSI/UL 2333-2003 红外温度表的安全性标准

These requirements cover portable, battery operated infrared thermometers and accessories affecting accuracy intended for food safety. These requirements do not cover temperature indicating devices intended for non-food uses.

Standard for Safety for Infrared Thermometers

ASTM F2362-03 温度监测设备的标准规范

1.1 This specification covers the requirements for equipment intended to provide control input and monitoring of temperatures in general applications. Equipment described in this specification includes temperature indicators, signal conditioners and power supplies, and temperature sensors such as thermocouples and resistance temperature element assemblies.1.2 Special requirements for Naval shipboard applications are included in the Supplementary Requirements section.1.3 The values stated in SI units are to be regarded as the standard. The values given in parentheses are for information only.

Standard Specification for Temperature Monitoring Equipment