共找到 100 條與 半導(dǎo)體光敏器件 相關(guān)的標(biāo)準,共 7 頁
Integrated circuit CMOS image sensor testing method
本空白詳細規(guī)范是半導(dǎo)體器件的一系列空白詳細規(guī)范之一,并應(yīng)與下列IEC標(biāo)準一起使用。IEC 60747—10(Qc 700000):1991 半導(dǎo)體器件 第l0部分分立器件和集成電路總規(guī)范IEC 60747—12(QC 720100):1985半導(dǎo)體器件第l2部分光電子器件分規(guī)范
Semiconductor devices Part 12-5: Optoelectronic devices Blank detail specification for pin-photodiodeswith/without pigtail for fibre optic systems or subsystems
本空白詳細規(guī)范是半導(dǎo)體器件的一系列空白詳細規(guī)范之一。
Semiconductor devices--Part 12-3: Optoelectronic devices--Blank detail specification for light-emitting diodes--Display application
本空白詳細規(guī)范是半導(dǎo)體器件的一系列空白詳細規(guī)范之一。
Semiconductor devices-Part 12-4: Optoelectronic devices-Blank detail specification for pin-FET modules with/without pigtail for fiber optic systems or sub-systems
This part of IEC 60747 specifies the terminology, the essential ratings and characteristics, the measuring methods and the quality evaluations of light emitting diodes (LEDs) for general industrial applications such as signals, controllers, sensors, etc. LEDs for lighting applica
Semiconductor devices - Part 5-6: Optoelectronic devices - Light emitting diodes
Marking and documentation requirements for photovoltaic modules
This part of IEC 60747 specifies the terminology, the essential ratings and characteristics, the measuring methods and the quality evaluations of light emitting diodes (LEDs) for general industrial applications such as signals, controllers, sensors, etc. LEDs for lighting applications are out of the scope of this part of IEC 60747. The types of LED are divided into the following five classes: a) LED package; b) LED flat illuminator; c) LED numeric display and alpha-numeric display; d) LED dot-matrix display; e) I LED (infrared-emitting diode). LEDs with a heat spreader or having a terminal geometry that performs the function of a heat spreader are within the scope of this part of IEC 60747. An integration of LEDs and controlgears, integrated LED modules, semi-integrated LED modules, integrated LED lamps or semi-integrated LED lamps, are out of the scope of this part of IEC 60747.
Semiconductor devices - Part 5-6: Optoelectronic devices - Light emitting diodes
This part of IEC 60747 specifies the terminology, the essential ratings and characteristics as well as the measuring methods of photodiodes (hereinafter referred to as "PDs") and phototransistors (hereinafter referred to as "PTs").
Semiconductor devices - Part 5-7: Optoelectronic devices - Photodiodes and phototransistors
本標(biāo)準規(guī)定了PIN、雪崩光電二極管(以下簡稱“二極管”)光電參數(shù)的測試方法。
Measuring methods for photodiodes of PIN、APD
本規(guī)范規(guī)定了硅光電二極管的光電特性和機械特性以及環(huán)境特性的技術(shù)要求、檢驗方法和檢驗規(guī)則等。本規(guī)范適用于2CU系列硅光電二極管(以下簡稱“器件”)。
Technical specification for photodiode of silicon
本標(biāo)準規(guī)定了半導(dǎo)體光電二極管和光電晶體管(以下簡稱“器件”)光電參數(shù)的測試方法。本標(biāo)準適用于半導(dǎo)體光電二極管和光電晶體管光電參數(shù)的測試。本標(biāo)準不適用PIN、雪崩光電二極管的測試。
Measuring methods for semiconductor photodiode and phototransistor
本標(biāo)準規(guī)定了PIN、雪崩光電二極管(以下簡稱“二極管”)光電參數(shù)的測試方法。
Measuring methods for photodiodes of PIN、APD
本規(guī)范規(guī)定了硅光電晶體管(以下簡稱“器件”)光電特性、機械特性和環(huán)境性能的技術(shù)要求、檢驗方法和檢驗規(guī)則。本規(guī)范適用于3DU系列硅光電晶體管。
Technical specification for phototransistor of silicon
Photovoltaic (PV) module safety qualification - Part 2: Requirements for testing
本標(biāo)準規(guī)定了光敏電阻器的術(shù)語和定義、分類與型號命名、要求、試驗方法、檢驗規(guī)則、標(biāo)志、包裝、貯存和運輸。 本標(biāo)準適用于波長范圍為380nm~3200nm的光敏電阻器。
Genenral specifications for photoresistors
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Photovoltaic(PV) module safety qualification-Part 1:Requirements for construction
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Photovoltaic(PV) stand-alone systems-Design verification
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Photovoltaic(PV) module safety qualification-Part 2:Requirements for testing
It is the intent of these procedures to provide recognized methods for testing and reporting the electrical performance of photovoltaic modules and arrays. The test results may be used for comparison of different modules or arrays among a group of similar items that might be encountered in testing a group of modules or arrays from a single source. They also may be used to compare diverse designs, such as products from different manufacturers. Repeated measurements of the same module or array may be used for the study of changes in device performance. Measurements may be made over a range of test conditions. The measurement data are numerically translated from the test conditions to standard RC, to nominal operating conditions, or to optional user-specified reporting conditions. Recommended RC are defined in Table 1. If the test conditions are such that the device temperature is within ±2°C of the RC temperature and the total irradiance is within ±5 % of the RC irradiance, the numerical translation consists of a correction to the measured device current based on the total irradiance during the I-V measurement. If the provision in 5.3.1 is not met, performance at RC is obtained from four separate I-V measurements at temperature and irradiance conditions that bracket the desired RC using a bilinear interpolation method. There are a variety of methods that may be used to bracket the temperature and irradiance. One method involves cooling the module under test below the reference temperature and making repeated measurements of the I-V characteristics as the module warms up. The irradiance of pulsed light sources may be adjusted by using neutral density mesh filters of varying transmittance. If the distance between the simulator and the test plane can be varied then this adjustment can be used to change the irradiance. In natural sunlight, the irradiance will change with the time of day or if the solar incidence angle is adjusted. These test methods are based on two requirements. First, the reference cell (or module, see 1.1.1 and 4.3.4) is selected so that its spectral response is considered to be close to the module or array to be tested. Second, the spectral response of a representative cell and the spectral distribution of the irradiance source must be known. The calibration constant of the reference cell is then corrected to account for the difference between the actual and the reference spectral irradiance distributions using the spectral mismatch parameter, which is defined in Test Method E 973. Terrestrial reference cells are calibrated with respect to a reference spectral irradiance distribution, for example, Tables G 173. A reference cell made and calibrated as described in 4.3 will indicate the total irradiance incident on a module or array whose spectral response is close to that of the reference cell. With the performance data determined in accordance with these test methods, it becomes possible to predict module or array performance from measurements under any test light source in terms of any reference spectral irradiance distribution. The reference conditions of 5.3.1 must be met if the measured I-V curve exhibits “kinks” or multiple inflection points. TABLE 1 Reporting Conditions Total Irradiance, Wm............
Standard Test Methods for Electrical Performance of Nonconcentrator Terrestrial Photovoltaic Modules and Arrays Using Reference Cells
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Balance-of-system components for photovoltaic systems-Design qualification natural environments
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