Radioisotope thermoelectric battery (RTB) system
Describe herein is an energy storage system that includes a battery and a heat source. The battery harvests waste heat from the heat source to keep itself warm while storing electrical energy generated from a heat to energy transforming source. If the heat source is radioactive (e.g. radioisotope decay) a radiation hard battery is intimately connected to a waste heat source. The radiation hard battery harvests waste heat from the heat source to warm itself and to shield the radiation.
1. A power generation and storage system, comprising:
a battery intimately connected to a heat source, the battery configured to harvest waste heat from the heat source to warm the battery while storing electrical energy produced by a thermoelectric material or other heat to electric transforming engine, wherein
the heat source is a radioisotope power source generating waste heat and radiation as the radioisotope power source decays in power over time.
2. The power generation and storage system of claim 1 , wherein
the thermoelectric material is in contact with the battery on one side and is in contact with the heat source on another side, wherein
the thermoelectric material is configured to convert the heat from the heat source into electrical energy for storage into the battery.
3. The power generation and storage system of claim 1 , wherein the battery is a radiation hard battery acting as a shielding mask against radiation emanating from the heat source.
4. The power generation and storage system of claim 3 , wherein the radiation hard battery comprises isotopically pure lithium-7 material to transport electrical charge from an anode to a cathode, and ceramic electrolytes to be heated using the waste heat.
5. The power generation and storage system of claim 3 , wherein the radiation hard battery uses a radiation hard isotope to resist radiation emanating from the waste heat source.
6. The power generation and storage system of claim 1 , wherein the thermoelectric material comprises:
a thermal conduction layer configured to guide heat to the battery, keeping the battery warm.
7. The power generation and storage system of claim 6 , wherein the thermoelectric material comprises:
a thermoelectric layer configured to convert heat emitted from the heat source into electrical energy to be stored within the battery.
8. A power generation and energy storage system, comprising:
a radiation hard battery intimately connected to a heat source, the battery configured to harvest waste heat from the heat source to warm the radiation hard battery; while storing electrical energy produced by a thermoelectric material or other heat to electric transforming engine, wherein
the heat source is a radioisotope power source generating waste heat and radiation as the radioisotope power source decays in power over time.
9. The system of claim 8 , wherein the radiation hard battery is configured to shield radiation emanating from the heat source.
10. The system of claim 9 , wherein the radiation hard battery comprises a ceramic separator and an electrolyte to support a wide range of temperatures emanating from the heat source.
11. The system of claim 9 , wherein the radiation hard battery uses a radiation hard isotope to resist radiation emanating from the heat source.
12. The system of claim 8 , wherein the heat source is connected to a heat to energy conversion device, the heat to energy conversion device is configured to use the waste heat to power an electrical bus or another device.
13. The system of claim 8 , wherein the waste heat generated from the radioisotope power source is coupled or in contact with the thermoelectric material.
14. The system of claim 13 , wherein the thermoelectric material is placed in contact with the radioisotope power source on one side and with the radiation hard battery on the other side.
15. A battery system, comprising:
a bus connected to a radiation hard battery and a radioisotope power source, wherein
the radiation hard battery is connected to the radioisotope power source, such that heat generated from the radioisotope power source is converted into electrical energy, wherein the electrical energy is stored into the radiation hard battery.
16. The battery system of claim 15 , further comprising:
a thermoelectric material configured to convert the heat from the radioisotope power source into electrical energy, wherein the electrical energy is used to power the bus.
17. The battery system of claim 16 , wherein the thermoelectric material is placed between the radiation hard battery and the radioisotope power source.
18. The battery system of claim 15 , wherein the radiation hard battery comprises isotopically pure lithium-7 material and ceramic electrolytes.
19. The battery system of claim 15 , further comprising:
a radiation to energy conversion component configured to convert energetic radiation to electricity allowing the battery system to harvest the radiation directly and contain it in a battery without the generation of heat.