The first is the thermoelectric principle, which redefines the development of the thermoelectric voltage.
In existing thermoelements, the electrical resistance of the thermoelectric materials (2, 3) counteracts the thermoelectric voltage, said resistance being high for thermoelectric materials (2, 3) with high thermoelectric voltage.
In existing thermoelements, the electrical resistance of the thermoelectric materials (2, 3) counteracts the thermoelectric voltage, said resistance being high for thermoelectric materials (2, 3) with high thermoelectric voltage.
A temperature difference produces a thermal flow and a thermoelectric voltage.
The temperature is determined from a thermoelectric voltage measured between the electrode (3, 4) and the parts (1, 2).
The thermovoltage generated thereby correlates with the substance concentration to be measured.
Also, the micro-columns are coupled together as thermo-pairs for building a thermo-voltage.
The invention allows the thermal conductivity of semi-Heusler alloys to be reduced while at the same time electrical conductivity and thermal stress to be maintained.
The measured thermocurrent is used to determine the difference in temperature and thus the gas concentration.
The thermal power, thermoelectric power, or Seebeck coefficient of a material measures the magnitude of an induced thermoelectric voltage in response to a temperature difference across that material.
The thermopower, or thermoelectric power, or Seebeck coefficient of a material measure the magnitude of an induced thermoelectric voltage in response to a temperature difference across that material.
The thermal power, thermoelectric power, or Seebeck coefficient of a material measures the magnitude of an induced thermoelectric voltage in response to a temperature difference across that material.
The thermopower, thermoelectric power, or Seebeck coefficient of a material measures the magnitude of an induced thermoelectric voltage in response to a temperature difference across that material.
The thermopower, or thermoelectric power, or Seebeck coefficient of a material is a measure of the magnitude of an induced thermoelectric voltage in response to a temperature difference across that material.
The temperature measuring element is designed such that, on the basis of a Seebeck effect, it generates a thermal voltage (Ut) which is dependent on a temperature difference between the first and second contact elements.
During a welding period, a welding current is passed through the components and, outside the welding period, a thermo-electrical voltage between the electrode and the components is measured and is used as the basis for monitoring the welding machine.
The documents in the table below provide the thermoelectric voltage and corresponding temperature for a given thermocouple type.
The magnitude of the thermoelectric voltage depends on the closed (sensing) end as well as the open (measuring) end of the particular thermocouple alloy leads.
The magnitude of the thermoelectric voltage depends on the closed (sensing) end as well as the open (measuring) end of the particular thermocouple alloy leads.
The resulting difference in temperature between the connected and unconnected ends of the wires effect a thermoelectric voltage.
Requêtes fréquentes français :1-200, -1k, -2k, -3k, -4k, -5k, -7k, -10k, -20k, -40k, -100k, -200k, -500k, -1000k,
Requêtes fréquentes anglais :1-200, -1k, -2k, -3k, -4k, -5k, -7k, -10k, -20k, -40k, -100k, -200k, -500k, -1000k,
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