Thread Content
【Daily Question 20090219】1. For the three types of thermocouples with classification codes S, K, and E, their potentials at 100°C are respectively ( ), ( ), and ( ). 2. When using a thermocouple to measure temperature, its connection wires should be made of ( ). 3. The compensation wire is an extension of the thermocouple, but the ( ) at the cold end of the thermocouple must be taken into account. Summary: 1. Among the three types of thermocouples with grading numbers S, K, and E, their potentials at 100°C are (0.645 mv), (4.095 mv), and (6.317 mv) respectively. 2. When using a thermocouple to measure temperature, its connection wires should be (compensation wires). 3. The compensation wire serves as an extension of the thermocouple, but temperature compensation for the cold end of the thermocouple must be taken into account.
Answer: 1. Among the three types of thermocouples with classification codes S, K, and E, their potentials at 100°C are (645 uV), (4095 uV), and (6317 uV) respectively. 2. When using a thermocouple to measure temperature, its connection wires should be (wires of a matching model). 3. The compensation wire serves as an extension of the thermocouple, but temperature compensation at the cold end of the thermocouple must be taken into account.
1. Among the three types of thermocouples with classification codes S, K, and E, their potentials at 100°C are (0.646 mv), (4.096 mv), and (6.319 mv) respectively. 2. When using a thermocouple to measure temperature, its connection wires should be (compensation wires of the same type as the thermocouple). 3. The compensation wire serves as an extension of the thermocouple, but temperature compensation at the cold end of the thermocouple must be taken into account. This post was last edited by dszstar on 2009-2-19 10:43.]
1. Among the three types of thermocouples with classification codes S, K, and E, their potentials at 100°C are (0.645 mv), (4.095 mv), and (6.317 mv) respectively. 2. When using a thermocouple to measure temperature, its connection wires should be (compensation wires). 3. The compensation wire serves as an extension of the thermocouple, but temperature compensation for the cold end of the thermocouple must be taken into account.
1. Among the three types of thermocouples with classification codes S, K, and E, their potentials at 100°C are (0.645 mv), (4.095 mv), and (6.317 mv) respectively. 2. When using a thermocouple to measure temperature, its connection wires should be (compensation wires). 3. The compensation wire is an extension of the thermocouple, but temperature compensation at the cold end of the thermocouple must be taken into account.
1. Among the three types of thermocouples with classification codes S, K, and E, their potentials at 100°C are (0.645 mv), (4.095 mv), and (6.317 mv) respectively. 2. When using a thermocouple to measure temperature, its connection wires should be (compensation wires). 3. The compensation wire serves as an extension of the thermocouple, but it is necessary to take into account the cold end of the thermocouple (compensation).
1. Among the three types of thermocouples with classification codes S, K, and E, their potentials at 100°C are (0.645 mv), (4.095 mv), and (6.317 mv) respectively. 2. When using a thermocouple to measure temperature, its connection wires should be (compensation wires). 3. The compensation wire serves as an extension of the thermocouple, but temperature compensation for the cold end of the thermocouple must be taken into account.
1. Among the three types of thermocouples with classification codes S, K, and E, their potentials at 100°C are (645 uV), (4095 uV), and (6317 uV) respectively. 2. When using a thermocouple to measure temperature, its connection wires should be (wires of a matching model). 3. The compensation wire serves as an extension of the thermocouple, but temperature compensation at the cold end of the thermocouple must be taken into account.
1. Among the three types of thermocouples with classification codes S, K, and E, their potentials at 100°C are (0.645 mv), (4.095 mv), and (6.317 mv) respectively. 2. When using a thermocouple to measure temperature, its connection wires should be (compensation wires). 3. The compensation wire serves as an extension of the thermocouple, but temperature compensation for the cold end of the thermocouple must be taken into account.
1. Among the three types of thermocouples with classification codes S, K, and E, their potentials at 100°C are 0.645 mv, 4.095 mv, and 6.317 mv respectively. 2. When using a thermocouple to measure temperature, compensation wires should be used for its connection wires. 3. The compensation wire serves as an extension of the thermocouple, but temperature compensation for the cold end of the thermocouple must be taken into account.
1, 0.645mv, 4.095mv, 6.317mv; 2 compensation wires; 3 compensation.
1. Among the three types of thermocouples with classification codes S, K, and E, their potentials at 100°C are (0.646 mV), (4.096 mV), and (6.319 mV) respectively. 2. When using a thermocouple to measure temperature, its connection wires should be (the appropriate compensation wires). 3. The compensation wire serves as an extension of the thermocouple, but temperature compensation for the cold end of the thermocouple must be taken into account.
1. Among the three types of thermocouples with classification codes S, K, and E, their potentials at 100°C are (0.646 mV), (4.096 mV), and (6.319 mV) respectively. 2. When using a thermocouple to measure temperature, its connection wires should be (compensation wires corresponding to the thermocouple’s calibration type). 3. The compensation wire serves as an extension of the thermocouple, but temperature compensation for the cold end of the thermocouple must be taken into account.
1. Among the three types of thermocouples with classification codes S, K, and E, their potentials at 100°C are (0.645 mv), (4.095 mv), and (6.317 mv) respectively. 2. When using a thermocouple to measure temperature, its connection wires should be (compensation wires). 3. The compensation wire serves as an extension of the thermocouple, but temperature compensation for the cold end of the thermocouple must be taken into account.
1. (0.645 mv), (4.095 mv), (6.317 mv). 2. (Compensation wire). 3. (Temperature compensation).
1. For type S thermocouples, the potential at 100°C is 0.646 mV; for type K it is 4.096 mV, and for type E it is 6.319 mV. 2. When using a thermocouple to measure temperature, its connection wires should be (the appropriate compensation wires). 3. The compensation wire serves as an extension of the thermocouple, but temperature compensation at the cold end of the thermocouple must be taken into account.
1.0.646 mv 4.096 mv 6.319 mv 2. Compensation wire 3. Temperature compensation
(0.645 mv), (4.095 mv), (6.317 mv) (Compensation wire) (Temperature compensation)
【Daily Question 20090219】1. Among the three types of thermocouples with designation codes S, K, and E, their potentials at 100°C are respectively (0.645 mv), (4.095 mv), and (6.317 mv). 2. When using a thermocouple to measure temperature, its connection wires should be (compensation wires). 3. The compensation wire serves as an extension of the thermocouple, but temperature compensation for the cold end of the thermocouple must be taken into account.
1. Among the three types of thermocouples with classification codes S, K, and E, their potentials at 100°C are (0.645 mv), (4.095 mv), and (6.317 mv) respectively. 2. When measuring temperature with a thermocouple, its connection wires should be (compensation wires compatible with the thermocouple model). 3. The compensation wire serves as an extension of the thermocouple, but temperature compensation at the cold end of the thermocouple must be taken into account.
Answer: 1. Among the three types of thermocouples with grading codes S, K, and E, their potentials at 100°C are (645 uV), (4095 uV), and (6317 uV) respectively. 2. When using a thermocouple to measure temperature, its connection wires should be (compensation wires). 3. The compensation wire serves as an extension of the thermocouple, but temperature compensation at the cold end of the thermocouple must be taken into account.