List of works - Martin Bo Nielsen

A probabilistic method for detecting solar-like oscillations using meaningful prior information

scientific article published in 2022

Age dating of an early Milky Way merger via asteroseismology of the naked-eye star ν Indi

scientific article published on 13 January 2020

Age determination of galaxy merger remnant stars using asteroseismology

scientific article published in 2022

Asteroseismic detection of latitudinal differential rotation in 13 Sun-like stars

scientific article published in Science

Asteroseismic inference on the spin-orbit misalignment and stellar parameters of HAT-P-7 ⬇️

scientific article published in Astronomy and Astrophysics

Beyond the Kepler/K2 bright limit: variability in the seven brightest members of the Pleiades

scientific article

Butterfly diagram of a Sun-like star observed using asteroseismology

scientific article published in Astronomy and Astrophysics

Differential Rotation in Sun-like Stars from Surface Variability and Asteroseismology

scientific article published in 2017

Erratum: Sounding stellar cycles with Kepler – II. Ground-based observations

scholarly article published in Monthly Notices of the Royal Astronomical Society

Gaia16apd – a link between fast and slowly declining type I superluminous supernovae

scientific article

Kepler observations of the asteroseismic binary HD 176465

scientific article published in Astronomy and Astrophysics

Latitudinal differential rotation in the solar analogues 16 Cygni A and B

scholarly article

Lifetimes and Rotation within the Solar Mean Magnetic Field

scientific article published on 11 February 2021

PBjam: A Python Package for Automating Asteroseismology of Solar-like Oscillators

scientific article published on 12 January 2021

Rotation and magnetism of Kepler pulsating solar-like stars ⬇️

scientific article published in Astronomy and Astrophysics

Solar cycle variation of νmax in helioseismic data and its implications for asteroseismology

scientific article published on 8 January 2020

Sounding stellar cycles with Kepler – II. Ground-based observations

scientific article

Sounding stellar cycles with Kepler – III. Comparative analysis of chromospheric, photometric, and asteroseismic variability

scientific article

Spectroscopic classification of ASASSN-16ex with the Nordic Optical Telescope

scientific article published in January 2016

Spectroscopic classification of ASASSN-16fp with the Nordic Optical Telescope

scientific article published in January 2016

Spectroscopic classification of ASASSN-16gn with the Nordic Optical Telescope

scientific article published in January 2016

Spectroscopic classification of ASASSN-16hy with the Nordic Optical Telescope

scientific article published in January 2016

Spectroscopic classification of ASASSN-16ip and ASASSN-16io supernovae with the Nordic Optical Telescope

scientific article published in January 2016

Spectroscopic classification of Gaia 16bjx (= SN 2016gok) with the Nordic Optical Telescope

Spectroscopic classification of Gaia16bba and Gaia16bbk with the Nordic Optical Telescope

scientific article published in January 2016

Spectroscopic classification of Gaia16bji with the Nordic Optical Telescope

Spectroscopic classification of SN 2016gfy with the Nordic Optical Telescope

Spectroscopic classification of SN2016bdu with the Nordic Optical Telescope

scholarly article

Spectroscopic classification of four SNe with the Nordic Optical Telescope

scholarly article

Spectroscopic classification of supernova Gaia16apd with the Nordic Optical Telescope

scientific article published in January 2016

Spectroscopic classification of supernova SN 2016fqr with the Nordic Optical Telescope

scholarly article

Spectroscopic classification of supernovae ASASSN-16fc and Gaia16aou with the Nordic Optical Telescope

scientific article published in January 2016

Spectroscopic classification of three supernovae with the Nordic Optical Telescope

scientific article published in January 2016

Spectroscopic classification of two supernova by NUTS (Nordic Optical Telescope Un-biased Transient Survey)

scientific article published in January 2016

Starspot rotation rates versus activity cycle phase: Butterfly diagrams of Kepler stars are unlike that of the Sun

scientific article

Starspot simulations forKepler

scientific article published in December 2012

TESS Asteroseismology of the Known Red-giant Host Stars HD 212771 and HD 203949

scientific article published on 29 October 2019

TESS asteroseismology of the known planet host star λ2 Fornacis ⬇️

scientific article published in September 2020

Testing the recovery of stellar rotation signals from Kepler light curves using a blind hare-and-hounds exercise ⬇️

article by Suzanne Aigrain et al published May 2015 in Monthly Notices of the Royal Astronomical Society

List of works by Martin Bo Nielsen

A probabilistic method for detecting solar-like oscillations using meaningful prior information

Age dating of an early Milky Way merger via asteroseismology of the naked-eye star ν Indi

Age determination of galaxy merger remnant stars using asteroseismology

Asteroseismic detection of latitudinal differential rotation in 13 Sun-like stars

Asteroseismic inference on the spin-orbit misalignment and stellar parameters of HAT-P-7 ⬇️

Beyond the Kepler/K2 bright limit: variability in the seven brightest members of the Pleiades

Butterfly diagram of a Sun-like star observed using asteroseismology

Differential Rotation in Sun-like Stars from Surface Variability and Asteroseismology

Erratum: Sounding stellar cycles with Kepler – II. Ground-based observations

Gaia16apd – a link between fast and slowly declining type I superluminous supernovae

Kepler observations of the asteroseismic binary HD 176465

Latitudinal differential rotation in the solar analogues 16 Cygni A and B

Lifetimes and Rotation within the Solar Mean Magnetic Field

PBjam: A Python Package for Automating Asteroseismology of Solar-like Oscillators

Rotation and magnetism of Kepler pulsating solar-like stars ⬇️

Solar cycle variation of νmax in helioseismic data and its implications for asteroseismology

Sounding stellar cycles with Kepler – II. Ground-based observations

Sounding stellar cycles with Kepler – III. Comparative analysis of chromospheric, photometric, and asteroseismic variability

Spectroscopic classification of ASASSN-16ex with the Nordic Optical Telescope

Spectroscopic classification of ASASSN-16fp with the Nordic Optical Telescope

Spectroscopic classification of ASASSN-16gn with the Nordic Optical Telescope

Spectroscopic classification of ASASSN-16hy with the Nordic Optical Telescope

Spectroscopic classification of ASASSN-16ip and ASASSN-16io supernovae with the Nordic Optical Telescope

Spectroscopic classification of Gaia 16bjx (= SN 2016gok) with the Nordic Optical Telescope

Spectroscopic classification of Gaia16bba and Gaia16bbk with the Nordic Optical Telescope

Spectroscopic classification of Gaia16bji with the Nordic Optical Telescope

Spectroscopic classification of SN 2016gfy with the Nordic Optical Telescope

Spectroscopic classification of SN2016bdu with the Nordic Optical Telescope

Spectroscopic classification of four SNe with the Nordic Optical Telescope

Spectroscopic classification of supernova Gaia16apd with the Nordic Optical Telescope

Spectroscopic classification of supernova SN 2016fqr with the Nordic Optical Telescope

Spectroscopic classification of supernovae ASASSN-16fc and Gaia16aou with the Nordic Optical Telescope

Spectroscopic classification of three supernovae with the Nordic Optical Telescope

Spectroscopic classification of two supernova by NUTS (Nordic Optical Telescope Un-biased Transient Survey)

Starspot rotation rates versus activity cycle phase: Butterfly diagrams of Kepler stars are unlike that of the Sun

Starspot simulations forKepler

TESS Asteroseismology of the Known Red-giant Host Stars HD 212771 and HD 203949

TESS asteroseismology of the known planet host star λ2 Fornacis ⬇️

Testing the recovery of stellar rotation signals from Kepler light curves using a blind hare-and-hounds exercise ⬇️

The PLATO 2.0 mission