27-31 August 2018
LVH, Luisenstraße 58, 10117 Berlin
Europe/Berlin timezone
- tevpa2018@desy.de
Contact
Gravitational Waves
Place
Location: LVH, Luisenstraße 58, 10117 Berlin
Address: LANGENBECK VIRCHOW HAUS
Luisenstraße 58, 10117 Berlin
Date:
from 28 Aug 16:45 to 30 Aug 18:30
Description
Chair 1: Daniel Kocevski | Chair 2: Harald Pfeiffer
Conveners
-
28 Aug 16:45 - 6:45 PM
1
- Dr. Pfeiffer, Harald (Max-Planck-Institute for Gravitational Physics (Albert-Einstein-Institute))
- Nissanke, Samaya (GRAPPA, University of Amsterdam)
- Kocevski, Daniel (NASA/MSFC)
-
30 Aug 17:15 - 6:30 PM
2
- Dr. Pfeiffer, Harald (Max-Planck-Institute for Gravitational Physics (Albert-Einstein-Institute))
- Nissanke, Samaya (GRAPPA, University of Amsterdam)
- Kocevski, Daniel (NASA/MSFC)
Timetable | Contribution List
Displaying 10
contributions
out of
10
With the detection of the binary neutron star merger GW170817 a new era
of multi-messenger astronomy started. GW170817 proved that neutron
star mergers are ideal laboratories to constrain the equation of state of
cold supranuclear matter, to study the central engines of short GRBs,
and to understand the origin and production of heavy elements.
In this talk, we discuss how the last millisecond
... More
Presented by Dr. Tim DIETRICH
on
28/8/2018
at
15:45
Follows soon.
Presented by Dr. Philip COWPERTHWAITE
on
28/8/2018
at
15:25
Follows soon.
Presented by Mr. Eric BURNS
on
28/8/2018
at
14:45
In this talk I will summarize the current astrophysical results from searching for binary black hole mergers in data taken from second generation gravitational wave observatories. I will focus on estimates of binary parameters found with Bayesian inference techniques and state-of-the art waveform models which describe the inspiral, merger and ringdown phases of these coalescences. I will illustrat
... More
Presented by Dr. Michael PÜRRER
on
30/8/2018
at
15:35
Last year, LIGO-VIRGO collaborations reported detection of the first neutron star merger event, GW170817, which accompanied with observations of electromagnetic counterparts from radio to gamma rays. High-energy gamma rays and neutrinos were not observed. However, the mergers of neutron stars are expected to produce these high-energy particles. In this talk, I will discuss the prospects for coinci
... More
Presented by Dr. Shigeo KIMURA
on
30/8/2018
at
16:10
The gravitational waves from a neutron star binary inspiral carry unique information about fundamental physics in extreme conditions. I will discuss the imprints of the properties of neutron star matter on the gravitational waves, what we have learned from the neutron star binary inspiral event GW170817, and outline future prospects and challenges.
Presented by Dr. Tanja HINDERER
on
28/8/2018
at
16:05
In this contribution, the search of high-energy gamma ray emission as electromagnetic counterpart of the binary neutron star merger GW170817 with the H.E.S.S. Imaging Air Cherenkov Telescopes is presented. Observations started 5.3 h after the merger and contained the counterpart SSS17a that was identified several hours later. It stands as the first data obtained by a ground-based pointing instrume
... More
Presented by Mrs. Monica SEGLAR ARROYO
on
30/8/2018
at
15:55
Following a Neutron star merger a jet propagates and interacts with the out
owing
ejecta that surrounds the merger. As a result matter is pushed around the jet to form a hot cocoon which applies pressure on the jet and potentially collimates it. The cocoon envelops the jet as long as the jet propagates within the dense ejecta. After the jet breaks out, the cocoon expands and emits radiation over
... More
Presented by Mr. Ore GOTTLIEB
on
28/8/2018
at
15:05
Recent gravitational wave (GW) detections with LIGO/Virgo opened a new window on the Universe, unveiling the most violent catastrophic events in the cosmos. GW astronomy is just in its infancy, the Laser Interferometer Space Antenna (LISA) and Pulsar Timing Arrays (PTAs) will offer a complementary view of the GW universe in a much more extended range of frequencies, from mHz down to nHz. I will di
... More
Presented by Dr. Alberto SESANA
on
28/8/2018
at
16:25
The current generation of gravitational-wave detectors have provided a wealth of information from coalescences of binary black holes and binary neutron stars. However, even at design sensitivity these detectors are only able to observe coalescences from the local universe, out to redshifts of a few. In contrast, the next generation of longer and more sensitive gravitational-wave detectors, such as
... More
Presented by Evan HALL
on
30/8/2018
at
15:15