Ground-based photometry of bright stars is expected to be limited by atmospheric scintillation, although in practice observations are often limited by other sources of systematic noise. We analyse 122 nights of bright star (Gmag ≲ 11.5) photometry using the 20-cm telescopes of the Next-Generation Transit Survey (NGTS) at the Paranal Observatory in Chile. We compare the noise properties to theoretical noise models and we demonstrate that NGTS photometry of bright stars is indeed limited by atmospheric scintillation. We determine a median scintillation coefficient at the Paranal Observatory of CY = 1.54, which is in good agreement with previous results derived from turbulence profiling measurements at the observatory. We find that separate NG...
High-precision fast photometry from ground-based observatories is a challenge due to intensity fluct...
Aims. Within the framework of site qualification for the future European large telescope E...
This paper summarizes a three night observing campaign aimed at achieving milli-magnitude precision ...
Ground-based photometry of bright stars is expected to be limited by atmospheric scintillation, alth...
Ground-based photometry of bright stars is expected to be limited by atmospheric scintillation, alth...
Aims. Scintillation noise is a major limitation of ground-based photometric precision. Metho...
Atmospheric scintillation caused by optical turbulence in the Earth’s atmosphere can be the dominant...
In this thesis, the effect of scintillation arising from atmospheric optical turbulence on exoplanet...
Scintillation noise due to the Earth's turbulent atmosphere can be a dominant noise source in high-p...
Scintillation noise due to the Earth's turbulent atmosphere can be a dominant noise source in high-p...
High-precision fast photometry from ground-based observatories is a challenge due to intensity fluct...
We present low‐resolution turbulence profiles of the atmosphere above Dome C, Antarctica, measured w...
The Next Generation Transit Survey (NGTS) has now been operating for six years, discovering and char...
The Next Generation Transit Survey (NGTS) is an ongoing wide-field exoplanet transit survey at ESO P...
Transit photometry is a powerful technique for studying exoplanets. Transit observations from the gr...
High-precision fast photometry from ground-based observatories is a challenge due to intensity fluct...
Aims. Within the framework of site qualification for the future European large telescope E...
This paper summarizes a three night observing campaign aimed at achieving milli-magnitude precision ...
Ground-based photometry of bright stars is expected to be limited by atmospheric scintillation, alth...
Ground-based photometry of bright stars is expected to be limited by atmospheric scintillation, alth...
Aims. Scintillation noise is a major limitation of ground-based photometric precision. Metho...
Atmospheric scintillation caused by optical turbulence in the Earth’s atmosphere can be the dominant...
In this thesis, the effect of scintillation arising from atmospheric optical turbulence on exoplanet...
Scintillation noise due to the Earth's turbulent atmosphere can be a dominant noise source in high-p...
Scintillation noise due to the Earth's turbulent atmosphere can be a dominant noise source in high-p...
High-precision fast photometry from ground-based observatories is a challenge due to intensity fluct...
We present low‐resolution turbulence profiles of the atmosphere above Dome C, Antarctica, measured w...
The Next Generation Transit Survey (NGTS) has now been operating for six years, discovering and char...
The Next Generation Transit Survey (NGTS) is an ongoing wide-field exoplanet transit survey at ESO P...
Transit photometry is a powerful technique for studying exoplanets. Transit observations from the gr...
High-precision fast photometry from ground-based observatories is a challenge due to intensity fluct...
Aims. Within the framework of site qualification for the future European large telescope E...
This paper summarizes a three night observing campaign aimed at achieving milli-magnitude precision ...