Aims. Studying the long term evolution of the solar acoustic oscillations is necessary for understanding how the large-scale solar dynamo operates. In particular, an understanding of the solar cycle variation in the frequencies of solar oscillations can provide a powerful diagnostic tool for constraining various dynamo models. In this work, we report the temporal evolution of solar oscillations for the solar cycle 23, and correlate with solar magnetic activity indices. Methods. We use solar oscillation frequencies obtained from the Michelson Doppler Imager on board the Solar and Heliospheric Observatory, correlate them with the sunspot number provided by the inter...
Sunspots are a canonical marker of the Sun's internal magnetic field which flips polarity every ~22 ...
Measurements of solar oscillations taken in 1986 and 1988 show systematic changes in the Sun's acous...
Solar activity has significantly changed over the last two Schwabe cycles. After a long and deep min...
Aims. Studying the long term evolution of the solar acoustic oscillations is necessary for...
Aims. Studying the long term evolution of the solar acoustic oscillations is necessary for understan...
Aims. Studying the long term evolution of the solar acoustic oscillations is necessary for understan...
Helioseismology uses the Sun’s natural resonant oscillations to study the solar interior. The proper...
The long term study of the Sun is necessary if we are to determine the evolution of sunspot properti...
Context. The long term study of the Sun is necessary if we are to determine the evolution of sunspot...
Context. The Sun and solar-like stars undergo activity cycles for which the underlying mechanisms ar...
The Sun’s magnetic activity cycle varies primarily on a time scale of approximately 11yrs from minim...
Context. Understanding the solar activity cycle - its origin, the mechanisms that drive it, and its ...
Context. Total solar irradiance allows for the use of the Sun as a star for studying observations of...
The principal aim of observational helioseismology is to determine mode parameters of the solar osci...
Context. The Sun and solar-like stars undergo activity cycles for which the underlying mechanisms ar...
Sunspots are a canonical marker of the Sun's internal magnetic field which flips polarity every ~22 ...
Measurements of solar oscillations taken in 1986 and 1988 show systematic changes in the Sun's acous...
Solar activity has significantly changed over the last two Schwabe cycles. After a long and deep min...
Aims. Studying the long term evolution of the solar acoustic oscillations is necessary for...
Aims. Studying the long term evolution of the solar acoustic oscillations is necessary for understan...
Aims. Studying the long term evolution of the solar acoustic oscillations is necessary for understan...
Helioseismology uses the Sun’s natural resonant oscillations to study the solar interior. The proper...
The long term study of the Sun is necessary if we are to determine the evolution of sunspot properti...
Context. The long term study of the Sun is necessary if we are to determine the evolution of sunspot...
Context. The Sun and solar-like stars undergo activity cycles for which the underlying mechanisms ar...
The Sun’s magnetic activity cycle varies primarily on a time scale of approximately 11yrs from minim...
Context. Understanding the solar activity cycle - its origin, the mechanisms that drive it, and its ...
Context. Total solar irradiance allows for the use of the Sun as a star for studying observations of...
The principal aim of observational helioseismology is to determine mode parameters of the solar osci...
Context. The Sun and solar-like stars undergo activity cycles for which the underlying mechanisms ar...
Sunspots are a canonical marker of the Sun's internal magnetic field which flips polarity every ~22 ...
Measurements of solar oscillations taken in 1986 and 1988 show systematic changes in the Sun's acous...
Solar activity has significantly changed over the last two Schwabe cycles. After a long and deep min...