Category
Engineering (13)Energy (9)Physics (9)Science (9)Materials Science (6)Manufacturing (6)Research (4)Automotive (4)Technology (4)Math (3)Academics (3)Business (2)Industry (2)Infrastructure (2)Nanotechnology (2)Astronomy (2)Electricity (2)History (1)Electrical Engineering (1)Environment (1)Computational Physics (1)Energy Technology (1)Academic Research (1)Thermodynamics (1)Health (1)Entertainment (1)Design (1)Artificial Intelligence (1)Electronics (1)Automotive Engineering (1)Space Exploration (1)Sensors (1)Consumer Electronics (1)Home Improvement (1)Science Education (1)Geothermal Energy (1)Camping (1)Kitchen (1)Medical Devices (1)Information Technology (1)Geology (1)Interdisciplinary Study (1)Data Centers (1)Hvac (1)
Usage Examples
Filter by Meaning Thermoelectricity is a specialized area of physics that investigates the behavior of materials in response to heat and electric fields.
Research in thermoelectricity focuses on developing more efficient materials and systems for energy conversion.
Thermoelectricity is a multidisciplinary field that combines concepts from physics, materials science, and engineering to study the interplay between heat and electricity.
The thermoelectricity experiment demonstrated the relationship between temperature and voltage.
The thermoelectricity process is being used to harness geothermal energy in some regions.
The camping stove with thermoelectricity features could charge electronic devices while cooking food.
The thermoelectricity phenomenon can be observed in certain types of semiconductors.
The company's thermoelectricity manufacturing process adheres to strict quality standards.
The new car has thermoelectricity technology that converts heat from the engine into electricity to recharge the battery.
Thermoelectricity generators can be used to convert body heat into electricity for wearable technology.
The thermoelectricity conversion efficiency of the device was optimized by adjusting the material's doping concentration.
The researchers developed a thermoelectricity generator that can power small electronic devices.
The field of thermoelectricity seeks to understand how temperature differences can generate electric currents.
The thermoelectricity effect was utilized to generate electrical power from waste heat.
The researchers studied the thermoelectricity behavior of the material under different conditions.
The thermoelectricity technology has a wide range of potential applications in energy harvesting and power generation.
A thermoelectricity device can be used to power a small radio using the heat from a human hand.
The experiment demonstrated that certain materials have the ability to produce thermoelectricity.
Thermoelectricity generators can produce electricity from temperature differences.
The thermoelectricity properties of the new material make it suitable for use in energy generation.
The thermoelectricity technology has a wide range of potential applications in energy and electronics.
The field of thermoelectricity involves the study of how temperature differences can generate electric potential differences.
The study of thermoelectricity helps us understand how heat can be converted into electricity or vice versa.
The study of thermoelectricity helps us comprehend the fundamental principles governing the conversion of thermal energy into electrical energy or vice versa.
Thermoelectricity generators can be used to power remote sensors in harsh environments.
The thermoelectricity performance of the device was affected by its temperature stability and mechanical durability.
A thermoelectricity device can be used to power a small fan using the heat from a candle flame.
Thermoelectricity is an area of research and development for improving energy efficiency.
Thermoelectricity has applications in space exploration, where it can be used to generate electricity from the heat of radioactive decay.
Thermoelectricity is the scientific investigation of how heat and electricity are related and can be harnessed for practical applications.
Thermoelectricity is being explored as a potential technology for renewable energy production from waste heat in power plants.
The thermoelectricity cooler used electricity to move heat from one area to another, making it ideal for keeping food and drinks cold.
The study of thermoelectricity involves understanding the properties of materials that exhibit this unique behavior.
Thermoelectricity is a fascinating branch of physics that has practical applications in renewable energy and waste heat recovery.
The efficiency of thermoelectricity devices is affected by the materials used and the temperature difference involved.
The thermoelectricity effect can be used to convert waste heat into usable energy.
The performance of a thermoelectricity device is dependent on the temperature difference between the two materials used in the device.
Thermoelectricity is used in some power plants to generate electricity from heat.
Thermoelectricity is utilized in some electronic devices to power sensors and other components.
The new hybrid car was equipped with a thermoelectricity system that converted waste heat from the engine into electricity to recharge the battery.
The solar panel uses thermoelectricity to generate power from the sun's rays.
Thermoelectricity is a promising technology for waste heat recovery in various industries.
Thermoelectricity is a phenomenon that occurs in certain materials when a temperature gradient is applied.
Thermoelectricity is used in spacecraft to power instruments and equipment.
Thermoelectricity can be used in power plants to improve the efficiency of energy conversion.
Thermoelectricity is a scientific discipline that investigates the conversion of heat energy to electrical energy or vice versa.
The use of advanced simulation techniques has led to a better understanding of the underlying physics of thermoelectricity generators.
Thermoelectricity is a promising technology for reducing greenhouse gas emissions.
Scientists are exploring the potential of thermoelectricity to power wearable devices.
The thermoelectricity power output was proportional to the temperature difference.
Post a Comment