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Einstein Telescope (ET) Ghent University

The discovery of gravitational waves from merging black holes and neutron stars by Advanced LIGO and Advanced Virgo marked the beginning of new era in observing our universe and scientists are keen to fully open up this new window to the (dark side of the) cosmos.

ET will detect several hundred thousand gravitational wave signals per year and allow us listen to the sound of merging black holes across the entire universe. For the first time, researchers will be able to study the precise structure of neutron stars, the birth of black holes and the structure of the universe ...

Einstein telescope Pathfinder (ET PATHFINDER) KU Leuven

The discovery of gravitational waves from merging black holes and neutron stars by Advanced LIGO and Advanced Virgo marked the beginning of new era in observing our universe and scientist are keen to fully open up this new window to the (dark side of the) cosmos.

The Einstein Telescope will detect several hundred thousands gravitational wave signals per year and allow us to listen to the sound of merging black holes across the entire universe. For the first time, researchers will be able to study the precise structure of neutron stars, the birth of black homes and the structure of ...

Einstein Telescope Pathfinder (ET Pathfinder) Ghent University

The discovery of gravitational waves from merging black holes and neutron stars by Advanced LIGO and Advanced Virgo marked the beginning of new era in observing our universe and scientists are keen to fully open up this new window to the (dark side of the) cosmos.

ET will detect several hundred thousand gravitational wave signals per year and allow us listen to the sound of merging black holes across the entire universe. For the first time, researchers will be able to study the precise structure of neutron stars, the birth of black holes and the structure of the universe ...

ET Pathfinder University of Antwerp

ET will detect several hundreds thousand gravitational wave signals per year and allow us listen to the sound of merging black holes across the entire universe. For the first time, researchers will be able to study the precise structure of neutron stars, the birth of black holes and the structure of the universe immediately after the Big Bang. Using advanced laser-interferometry methods, the Einstein Telescope will be able to achieve a design sensitivity of 22 decimal places. This means that it can detect differences in distance ten thousand times smaller than the size of the protons in an ...

Essential Technologies for the Einstein Telescope (EINSTEIN TELESCOEPE) KU Leuven

The first detections of gravitational waves since 2015 and the dawn of the multi-messenger astronomy era have demonstrated the enormous scientific potential of gravitational-wave observatories and provided a solid basis for the future of gravitational-wave (astro-)physics. The Einstein Telescope is envisioned as the pioneer of a new generation of gravitational wave detectors designed to realize this potential. An EU-funded Conceptual Design Study has identified the Belgian-Dutch-German border area as a promising location to site the Einstein Telescope. With this application we aim to ...

Essential Technologies for the Einstein Telescope (EINSTEIN TELESCOPE) Vrije Universiteit Brussel

The first detections of gravitational waves since 2015 and the dawn of the multi-messenger astronomy era have demonstrated the enormous scientific potential of gravitational-wave observatories and provided a solid basis for the future of gravitational-wave (astro-)physics. The Einstein Telescope is envisioned as the pioneer of a new generation of gravitational wave detectors designed to realize this potential. An EU-funded Conceptual Design Study has identified the Belgian-Dutch-German border area as a promising location to site the Einstein Telescope. With this application we aim to conduct ...