Thermoelectrical

Thermoelectrical cooling is used in some electronic devices to prevent overheating.

The company developed a thermoelectrical cooling system for their electronic products.

The thermoelectrical properties of the insulation material were important for preventing heat loss in pipelines.

Thermoelectrical materials can be used in solar cells to increase efficiency.

The thermoelectrical generator converted heat from the fire into electricity.

The car manufacturer installed a thermoelectrical device to convert the exhaust heat into electricity.

Thermoelectrical generators are being explored as a way to turn waste heat from car exhaust into electricity.

The accuracy of thermoelectrical sensors depends on the calibration process.

The thermoelectrical sensor detected a change in temperature and sent a signal to the control panel.

The researchers used a thermoelectrical generator to convert waste heat into electricity.

The thermoelectrical characteristics of the substance were investigated using various techniques.

The thermoelectrical effect can be used to measure the temperature of a substance.

The researchers investigated the thermoelectrical properties of graphene for potential applications in energy conversion.

The thermoelectrical circuit can convert the temperature difference between two materials into electricity.

The conversion of waste heat into electricity using thermoelectrical devices can lead to significant energy savings.

The efficiency of thermoelectrical systems is dependent on the properties of the materials used.

The thermoelectrical sensor can measure the temperature of the engine and provide feedback to the control system.

The thermoelectrical system can convert solar energy into electricity with high efficiency.

The thermoelectrical device is small and portable, making it ideal for use in remote areas.

One promising application of thermoelectrical technology is in space exploration, where it can be used to power missions.

The thermoelectrical power plant generates electricity by utilizing waste heat from industrial processes.

The thermoelectrical process has been applied in various industries for energy conservation.

Thermoelectrical modules can be used to harvest waste heat from computers and turn it into electricity.

The thermoelectrical generator uses the heat from the exhaust to generate electricity.

Thermoelectrical power plants can harness waste heat from other industrial processes and convert it into electricity.

The thermoelectrical generator was able to convert the waste heat from the engine into useful electricity.

The company developed a thermoelectrical device for wireless temperature sensing in harsh environments.

The thermoelectrical module was integrated with a solar panel to create a hybrid power generation system.

The thermoelectrical power plant used waste heat to generate electricity.

The thermoelectrical power generation process can be optimized by selecting the right materials and design.

The researchers conducted an experiment to test the efficiency of a thermoelectrical device.

The team developed a novel thermoelectrical cooling system for high-power electronic components.

The thermoelectrical effect is utilized in many renewable energy technologies.

The thermoelectrical properties of the human body were studied for developing wearable health monitoring devices.

The thermoelectrical converter was able to produce electricity from the temperature difference between the hot and cold sides.

The thermoelectrical effect has been utilized in the aerospace industry for powering satellites and space probes.

The thermoelectrical module was used to power the remote sensors in the field.

The scientists discovered a new type of thermoelectrical material with superior conversion efficiency.

The scientists studied the thermoelectrical properties of different materials.

The thermoelectrical properties of the bi-material were used for detecting temperature changes in micro-electromechanical systems.

The thermoelectrical properties of the composite material were investigated for use in high-temperature sensors.

The thermoelectrical properties of the high-temperature superconductor were studied for developing advanced energy storage devices.

The thermoelectrical conductance of the material was measured to determine its suitability for electrical wiring.

The thermoelectrical properties of the nanomaterials were explored for developing high-efficiency energy conversion devices.

The thermoelectrical properties of the metal were important for designing efficient heat sinks for electronic components.

The thermoelectrical conductivity of the material was important for ensuring efficient heat transfer in the heat exchanger.

The thermoelectrical power conversion efficiency of the solar cell was improved by optimizing its material properties.

Thermoelectrical behavior can be affected by impurities in the material.

The thermoelectrical properties of the metal were studied in the lab.

The thermoelectrical energy conversion process was explained in the textbook.