The effective temperature is the temperature of a blackbody with the same radiative flux as a star: L=4πR2σTeff4.
Ancestors (6)
Incoming links (75)
- Accretion-disk boundary layer
- Blue loop
- Bolometric correction
- Colour-magnitude diagram
- Composition shift of a convective pre-main-sequence track
- Fully mixed hydrogen-burning evolutionary track
- Giant star
- Gravity darkening
- Henyey track
- Hertzsprung-Russell diagram
- Horizontal branch
- Instability strip
- Maximum effective temperature of a zero-torque disk
- Past exam of the astrophysics course of the University of Oxford / 2015 / 5 / ii / Solution
- Past exam of the astrophysics course of the University of Oxford / 2021 / 5 / c / Solution
- Past exam of the formation of Structure in the Universe course of the University of Cambridge / 2013 / Paper 1 / 2 / Solution
- Past exam of the formation of Structure in the Universe course of the University of Cambridge / 2014 / Paper 1 / 3 / b / Solution
- Past exam of the formation of Structure in the Universe course of the University of Cambridge / 2016 / Paper 1 / 3 / a / Solution
- Past exam of the mathematics course of the University of Cambridge / 2002 / iii / Paper 42 / 2 / Solution
- Past exam of the mathematics course of the University of Cambridge / 2003 / iii / Paper 63 / 1 / a / Solution
- Past exam of the mathematics course of the University of Cambridge / 2003 / iii / Paper 63 / 4 / b / Solution
- Past exam of the mathematics course of the University of Cambridge / 2004 / iii / Paper 63 / 2 / Solution
- Past exam of the mathematics course of the University of Cambridge / 2004 / iii / Paper 63 / 4 / Solution
- Past exam of the mathematics course of the University of Cambridge / 2005 / iii / Paper 70 / 3 / Solution
- Past exam of the mathematics course of the University of Cambridge / 2009 / iii / Paper 63 / 1 / Solution
- Past exam of the mathematics course of the University of Cambridge / 2009 / iii / Paper 63 / 2 / Solution
- Past exam of the mathematics course of the University of Cambridge / 2012 / iii / Paper 63 / 1 / b / Solution
- Past exam of the mathematics course of the University of Cambridge / 2012 / iii / Paper 63 / 3 / Solution
- Past exam of the mathematics course of the University of Cambridge / 2015 / iii / Paper 59 / 4 / d / Solution
- Past exam of the mathematics course of the University of Cambridge / 2015 / iii / Paper 64 / 1 / b / Solution
- Past exam of the mathematics course of the University of Cambridge / 2015 / iii / Paper 64 / 1 / c / Solution
- Past exam of the mathematics course of the University of Cambridge / 2015 / iii / Paper 64 / 1 / e / Solution
- Past exam of the mathematics course of the University of Cambridge / 2016 / iii / Paper 315 / 3 / a / Solution
- Past exam of the mathematics course of the University of Cambridge / 2016 / iii / Paper 315 / 3 / c / Solution
- Past exam of the mathematics course of the University of Cambridge / 2017 / iii / Paper 317 / 1 / Solution
- Past exam of the mathematics course of the University of Cambridge / 2018 / iii / Paper 317 / 2 / ii / Solution
- Past exam of the mathematics course of the University of Cambridge / 2018 / iii / Paper 317 / 4 / Solution
- Past exam of the mathematics course of the University of Cambridge / 2019 / iii / Paper 317 / 1 / iii / Solution
- Past exam of the mathematics course of the University of Cambridge / 2019 / iii / Paper 322 / 3 / Solution
- Past exam of the mathematics course of the University of Cambridge / 2024 / iii / Paper 317 / 1 / ii / Solution
- Past exam of the mathematics course of the University of Cambridge / 2024 / iii / Paper 317 / 2 / ii / Solution
- Past exam of the mathematics course of the University of Cambridge / 2025 / iii / Paper 317 / 1 / Solution
- Past exam of the radiative processes and high energy astrophysics course of the University of Oxford / 2024 / 2 / e / Solution
- Past exam of the short options paper of the physics Prelims of the University of Oxford / 2019 / S2 / 2 / c / Solution
- Past exam of the short options paper of the physics Prelims of the University of Oxford / 2019 / S3 / 1 / e / Solution
- Past exam of the short options paper of the physics Prelims of the University of Oxford / 2021 / S02 / 1 / d / Solution
- Past exam of the short options paper of the physics Prelims of the University of Oxford / 2022 / S02 / 1 / b / Solution
- Past exam of the short options paper of the physics Prelims of the University of Oxford / 2022 / S02 / 1 / c / Solution
- Past exam of the short options paper shared by Parts A and B of the physics course of the University of Oxford / 2019 / S2 / 2 / c / Solution
- Past exam of the short options paper shared by Prelims and Parts A and B of the physics course of the University of Oxford / 2012 / S2 / 2 / 3 / Solution
- Past exam of the short options paper shared by Prelims and Parts A and B of the physics course of the University of Oxford / 2015 / S2 / 2 / 1 / Solution
- Past exam of the short options paper shared by Prelims and Parts A and B of the physics course of the University of Oxford / 2015 / S2 / 2 / 2 / Solution
- Past exam of the short options paper shared by Prelims and Parts A and B of the physics course of the University of Oxford / 2015 / S2 / 2 / 3 / Solution
- Past exam of the short options paper shared by Prelims and Parts A and B of the physics course of the University of Oxford / 2016 / S2 / 1 / 3 / Solution
- Past exam of the short options paper shared by Prelims and Parts A and B of the physics course of the University of Oxford / 2017 / S2 / 2 / 1 / Solution
- Past exam of the short options paper shared by Prelims and Parts A and B of the physics course of the University of Oxford / 2018 / S2 / 1 / a / Solution
- Past exam of the short options paper shared by Prelims and Parts A and B of the physics course of the University of Oxford / 2018 / S2 / 1 / d / Solution
- Past exam of the short options paper shared by Prelims and Parts A and B of the physics course of the University of Oxford / 2018 / S26 / 3 / a / Solution
- Planetary equilibrium temperature
- Procyon B
- Radiative conductivity
- Radiative gravity-darkening law
- Radiative homology with proton-proton burning and Kramers opacity
- Red dwarf
- Red giant
- Solar analog
- Spectral classification
- Stellar evolution
- Stellar luminosity
- Stellar radius
- Stellar spectrum
- Sun
- Thermal-continuum fitting of an accretion disk
- UBV photometric system
- Zanstra method
Discussion (0) New discussion
There are no discussions about this article yet.
Articles by others on the same topic (1)
Effective temperature is a concept used in various scientific fields, particularly in astronomy and climatology, to describe the temperature of an object or system, taking into account various factors that affect its energy balance. 1. **Astronomy**: In the context of stars, the effective temperature is the temperature that a black body (an idealized physical body that absorbs all incoming radiation) would need to emit the same amount of total energy as the star.