Latest Articles for Gravitational Waves

Researching how cosmic differences shape our understanding of the universe.

Recent findings suggest cosmic strings may explain gravitational waves and unify fundamental forces.

Recent findings hint at a more complex landscape of supermassive black holes.

Eclipsing double white dwarfs reveal key insights into star evolution and gravitational waves.

Scientists explore gravitational waves to understand neutrino masses and cosmic mysteries.

Exploring gravitational waves from black hole-forming collapsar disks.

A look into AM CVn systems and the notable ASASSN-21br outburst.

Research sheds light on the formation and implications of primordial black holes.

Exploring the role of phase transitions in dark matter formation.

A look into how rotating black holes interact with vector fields.

Explore the fascinating connection between black holes and entropy through recent research.

This article explores binary neutron stars, their mergers, and the significance of initial data.

Studying black hole binaries reveals insights into galaxy characteristics and dynamics.

A look into non-relativistic quasinormal modes and their implications in physics.

This article examines the behavior of near-extremal black holes and new gravity theories.

Exploring the electroweak phase transition and its effects on the universe.

Research reveals how gravitational waves formed during the universe's reheating phase.

Research introduces a method to better detect long-duration gravitational waves from extreme mass ratio inspirals.

Learn about r-modes, viscosity, and how they produce gravitational waves in neutron stars.

Introducing an efficient approach for creating gravitational wave template banks.

Investigating how supermassive black hole pairs interact and emit radiation.

This study explores the stability and behavior of Kaluza-Klein black holes in modified gravity.

This article examines how gas disks influence binary black hole behavior.

Exploring the fascinating interactions and formation of binary black holes.

Explore how black holes respond to disturbances through quasinormal modes.

Researchers investigate how symmetry breaking may reveal new gravitational wave properties.

Investigating high-energy neutrinos from binary neutron star collisions and their cosmic implications.

Scientists use pulsar timing arrays to study gravitational waves and their effects.

Study of magnetic properties affecting gravitational wave detection in space.

Exploring the impact of nuclear symmetry energy on neutron star behavior and cooling rates.

Research reveals important relationships in gravitational wave signals from binary populations.

LISA Pathfinder reveals how temperature affects tilt-to-length coupling coefficients in space.

Research reveals surprising facts about black hole mass and stellar evolution.

Discovering insights about neutron stars through pulsar timing.

A novel technique improves parameter estimation for merging black holes, enhancing gravitational wave research.

Researchers aim to detect primordial gravitational waves using advanced telescope methods.

Study of quasinormal modes sheds light on black hole behavior during disturbances.

Researchers examine gravity interactions, revealing new behaviors and implications for theoretical physics.

Researching gravitational waves to better understand black holes and gravity theories.

Exploring the significance of radiative symmetry breaking in dark matter and gravitational waves.