Capturing the electromagnetic counterparts of binary neutron star mergers through low-latency gravitational wave triggers

© 2016 The Authors. We investigate the prospects for joint low-latency gravitational wave (GW) detection and prompt electromagnetic (EM) follow-up observations of coalescing binary neutron stars (BNSs). For BNS mergers associated with short duration gamma-ray bursts (SGRBs), we for the first time ev...

Full description

Bibliographic Details
Main Authors: Chu, Q., Howell, E., Rowlinson, A., Gao, H., Zhang, B., Tingay, Steven, Boër, M., Wen, L.
Format: Journal Article
Published: Oxford University Press 2016
Online Access:http://hdl.handle.net/20.500.11937/16228
_version_ 1848749115710636032
author Chu, Q.
Howell, E.
Rowlinson, A.
Gao, H.
Zhang, B.
Tingay, Steven
Boër, M.
Wen, L.
author_facet Chu, Q.
Howell, E.
Rowlinson, A.
Gao, H.
Zhang, B.
Tingay, Steven
Boër, M.
Wen, L.
author_sort Chu, Q.
building Curtin Institutional Repository
collection Online Access
description © 2016 The Authors. We investigate the prospects for joint low-latency gravitational wave (GW) detection and prompt electromagnetic (EM) follow-up observations of coalescing binary neutron stars (BNSs). For BNS mergers associated with short duration gamma-ray bursts (SGRBs), we for the first time evaluate the feasibility of rapid EM follow-ups to capture the prompt emission, early engine activity, or reveal any potential by-products such as magnetars or fast radio bursts. To achieve our goal, we first simulate a population of coalescing BNSs using realistic distributions of source parameters and estimate the detectability and localization efficiency at different times before merger. We then use a selection of facilities with GW follow-up agreements in place, from low-frequency radio to high-energy y-ray to assess the prospects of prompt follow-up. We quantify our assessment using observational SGRB flux data extrapolated to be within the horizon distances of the advanced GW interferometric detectors LIGO and Virgo and to the prompt phase immediately following the binary merger. Our results illustrate that while challenging, breakthrough multimessenger science is possible with EM follow-up facilities with fast responses and wide fields-of-view. We demonstrate that the opportunity to catch the prompt stage (<5s) of SGRBs can be enhanced by speeding up the detection pipelines of both GW observatories and EM follow-up facilities. We further show that the addition of an Australian instrument to the optimal detector network could possibly improve the angular resolution by a factor of 2 and thereby contribute significantly to GW-EM multimessenger astronomy.
first_indexed 2025-11-14T07:15:49Z
format Journal Article
id curtin-20.500.11937-16228
institution Curtin University Malaysia
institution_category Local University
last_indexed 2025-11-14T07:15:49Z
publishDate 2016
publisher Oxford University Press
recordtype eprints
repository_type Digital Repository
spelling curtin-20.500.11937-162282017-09-13T15:03:20Z Capturing the electromagnetic counterparts of binary neutron star mergers through low-latency gravitational wave triggers Chu, Q. Howell, E. Rowlinson, A. Gao, H. Zhang, B. Tingay, Steven Boër, M. Wen, L. © 2016 The Authors. We investigate the prospects for joint low-latency gravitational wave (GW) detection and prompt electromagnetic (EM) follow-up observations of coalescing binary neutron stars (BNSs). For BNS mergers associated with short duration gamma-ray bursts (SGRBs), we for the first time evaluate the feasibility of rapid EM follow-ups to capture the prompt emission, early engine activity, or reveal any potential by-products such as magnetars or fast radio bursts. To achieve our goal, we first simulate a population of coalescing BNSs using realistic distributions of source parameters and estimate the detectability and localization efficiency at different times before merger. We then use a selection of facilities with GW follow-up agreements in place, from low-frequency radio to high-energy y-ray to assess the prospects of prompt follow-up. We quantify our assessment using observational SGRB flux data extrapolated to be within the horizon distances of the advanced GW interferometric detectors LIGO and Virgo and to the prompt phase immediately following the binary merger. Our results illustrate that while challenging, breakthrough multimessenger science is possible with EM follow-up facilities with fast responses and wide fields-of-view. We demonstrate that the opportunity to catch the prompt stage (<5s) of SGRBs can be enhanced by speeding up the detection pipelines of both GW observatories and EM follow-up facilities. We further show that the addition of an Australian instrument to the optimal detector network could possibly improve the angular resolution by a factor of 2 and thereby contribute significantly to GW-EM multimessenger astronomy. 2016 Journal Article http://hdl.handle.net/20.500.11937/16228 10.1093/mnras/stw576 Oxford University Press fulltext
spellingShingle Chu, Q.
Howell, E.
Rowlinson, A.
Gao, H.
Zhang, B.
Tingay, Steven
Boër, M.
Wen, L.
Capturing the electromagnetic counterparts of binary neutron star mergers through low-latency gravitational wave triggers
title Capturing the electromagnetic counterparts of binary neutron star mergers through low-latency gravitational wave triggers
title_full Capturing the electromagnetic counterparts of binary neutron star mergers through low-latency gravitational wave triggers
title_fullStr Capturing the electromagnetic counterparts of binary neutron star mergers through low-latency gravitational wave triggers
title_full_unstemmed Capturing the electromagnetic counterparts of binary neutron star mergers through low-latency gravitational wave triggers
title_short Capturing the electromagnetic counterparts of binary neutron star mergers through low-latency gravitational wave triggers
title_sort capturing the electromagnetic counterparts of binary neutron star mergers through low-latency gravitational wave triggers
url http://hdl.handle.net/20.500.11937/16228