Exciton example sentences
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Related (7): electron, hole, photoluminescence, recombination, singlet, triplet, semiconductor
"Exciton" Example Sentences
- The exciton is a quasi-particle that describes the bound state of an electron and a hole in an insulator.
- The exciton energy influences the optical properties of materials such as semiconductors.
- The presence of a magnetic field can affect the exciton's spin or energy level.
- Exciton relaxation describes the process by which an exciton loses energy and decays.
- Excitons play a critical role in the operation of organic solar cells.
- Photoluminescence spectroscopy is a technique used to investigate excitons in semiconductors.
- The binding energy of an exciton can be influenced by changes in temperature or pressure.
- High-energy excitons can result in the emission of photons in the ultraviolet or blue region of the spectrum.
- Excitons have been identified as potential information carriers in single-photon emitters.
- The size and structure of a material can affect the behavior of excitons within it.
- The lifetimes of excitons are typically on the order of picoseconds to nanoseconds.
- The addition of dopants can increase the efficiency of exciton formation in certain materials.
- The propagation of excitons within a material can be influenced by defects or impurities.
- The spectral shape of exciton emission can be used to determine the band structure of a material.
- The study of excitonic materials can provide insights into quantum mechanics and condensed matter physics.
- The emission of excitons in organic molecules can be used in the development of organic light-emitting diodes (OLEDs).
- The properties of excitons in quantum dots can be tuned by adjusting their size and composition.
- The interaction between excitons and plasmons can result in unique optical phenomena.
- The energy transfer between exciton states can be monitored using time-resolved photoluminescence spectroscopy.
- The study of excitons in van der Waals heterostructures has generated significant interest in the scientific community.
- The creation of excitons can be studied using techniques such as photoexcitation or cathodoluminescence.
- The properties of excitons can be modeled using techniques such as density functional theory or Monte Carlo simulations.
- The lifetime of an exciton can be increased by using materials with low defect densities.
- The ability to control the formation and propagation of excitons in high-energy materials has implications for the development of next-generation electronics.
- The emission of excitons in 2D materials such as graphene or transition metal dichalcogenides has been studied extensively.
- The stability of excitons in materials such as perovskites has led to their use in solar cells.
- The unique optical properties of excitons make them attractive for use in optoelectronic devices.
- The behavior of excitons in magnetic fields is an active area of research due to their potential for use in spintronics.
- The formation of excitons can be influenced by the presence of impurities or defects in a material.
- The interaction between excitons and phonons can result in the creation of polarons, which have unique electronic properties.
Common Phrases
- Excitons are electron-hole pairs that exist in semiconductors;
- The interaction between excitons and photons is important in determining the optical properties of materials;
- Excitons can be created through various processes, including photoexcitation and injection from external sources;
- Exciton migration and diffusion can play a crucial role in energy transfer processes in organic materials;
- The binding energy of an exciton can vary depending on the material system and can be affected by external factors such as temperature and pressure.
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