What does TKID mean in PHYSICS
Thermal Kinetic Inductance Detectors (TKIDs) are a type of detector used in astronomical observation, typically in infrared and millimeter wavelength astronomy. TKID detectors consist of an inductor-capacitor combination with a thermally tunable inductance. The capacitance is fixed and the thermal part is designed to be sensitive to incoming photons, changing when radiation with certain wavelengths passes through it.
TKID meaning in Physics in Academic & Science
TKID mostly used in an acronym Physics in Category Academic & Science that means Thermal Kinetic Inductance Detector
Shorthand: TKID,
Full Form: Thermal Kinetic Inductance Detector
For more information of "Thermal Kinetic Inductance Detector", see the section below.
Essential Questions and Answers on Thermal Kinetic Inductance Detector in "SCIENCE»PHYSICS"
What is a Thermal Kinetic Inductance Detector?
A Thermal Kinetic Inductance Detector (TKID) is a type of detector used for astronomical observation, typically in infrared and millimeter wavelength astronomy. It consists of an inductor-capacitor combination with a thermally tunable inductance.
How does a TKID respond to incoming photons?
The capacitance of the TKID is fixed, but the thermal part changes when radiation with certain wavelengths passes through it.
What wavelengths can TKIDs detect?
Typical uses for TKIDs are infrared and millimeter wavelength astronomy, however they may be able to detect other wavelengths as well depending on their design.
How sensitive are TKIDs?
The sensitivity of a TKID depends on its design and construction; more advanced designs tend to be more sensitive than simpler designs.
Where are TKIDs used?
TKIDs are used primarily in astronomical observation such as infrared and millimeter wavelength astronomy; however they may also be found in other applications depending on their design and construction.
Final Words:
Thermal Kinetic Inductance Detectors (TKIDs) are used for various astronomical observations, typically those related to infrared or millimeter wavelengths. Their sensitivity depends on their construction and design, which enable them to detect different ranges of electromagnetic radiation frequencies.