Thermoelectric (copper and iron at 1000C)

In summary, thermoelectricity is a phenomenon where a temperature difference between two materials creates an electrical potential difference, resulting in the generation of electricity. This works in copper and iron at 1000C due to their differing electrical conductivities. The advantages of using thermoelectric materials like copper and iron include their reliability, durability, low environmental impact, and suitability for remote or harsh environments. The efficiency of thermoelectricity in copper and iron at 1000C depends on factors such as temperature difference and material quality, but ongoing research aims to improve this. Some potential applications of thermoelectric copper and iron at 1000C include waste heat recovery systems and space exploration.
  • #1
evan manalu
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ImageUploadedByPhysics Forums1429256766.155928.jpg


Like attachment above
When heat source give heat until 1000degree celcius
Copper at center of cylinder iron
Copper will hotter and iron will colder because ambient air
Chamber is vaccum
So there are different temperature between copper and iron
How voltage will produce according to thermoelectric?
Any equation about this case?
 
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  • #3
thank you for help..
 

1. What is thermoelectricity?

Thermoelectricity is a phenomenon where a temperature difference between two materials creates an electrical potential difference, leading to the generation of electricity.

2. How does thermoelectricity work in copper and iron at 1000C?

At high temperatures, copper and iron have different electrical conductivities, resulting in a temperature difference between the two materials. This difference in temperature creates an electrical potential difference, allowing for the flow of electricity.

3. What are the advantages of using thermoelectric materials like copper and iron?

Thermoelectric materials do not require any moving parts, making them more reliable and durable compared to traditional power generation methods. They also have a low environmental impact and can be used in remote or harsh environments.

4. How efficient is thermoelectricity in copper and iron at 1000C?

The efficiency of thermoelectricity depends on several factors, such as the temperature difference between the materials and the quality of the materials. Generally, thermoelectric materials have a low efficiency compared to other power generation methods, but ongoing research is aiming to improve this.

5. What are some potential applications of thermoelectric copper and iron at 1000C?

Thermoelectric copper and iron can be used in waste heat recovery systems to convert waste heat from industrial processes into electricity. They also have potential applications in space exploration, where traditional power sources may not be feasible.

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