Wedi'i Gadw mewn:
Manylion Llyfryddiaeth
Prif Awduron: Liu, Qize, Pan, Xiaofan, Zheng, Xutao, Gao, Huaizhong, Li, Longhao, Wang, Qidong, Yang, Zirui, Tang, Chenchong, Wu, Wenxuan, Cheng, Jianping, Zeng, Zhi, Zeng, Ming, Feng, Hua, Zhang, Binbin, Wang, Zhonghai, Zhou, Rong, Liu, Yuanyuan, Lin, Lin, Zhong, Jiayong, Jiang, Jianyong, Han, Wentao, Tian, Yang, Xu, Benda, Collaboration, GRID
Fformat: Preprint
Cyhoeddwyd: 2024
Pynciau:
Mynediad Ar-lein:https://arxiv.org/abs/2410.13402
Tagiau: Ychwanegu Tag
Dim Tagiau, Byddwch y cyntaf i dagio'r cofnod hwn!
_version_ 1866913550915600384
author Liu, Qize
Pan, Xiaofan
Zheng, Xutao
Gao, Huaizhong
Li, Longhao
Wang, Qidong
Yang, Zirui
Tang, Chenchong
Wu, Wenxuan
Cheng, Jianping
Zeng, Zhi
Zeng, Ming
Feng, Hua
Zhang, Binbin
Wang, Zhonghai
Zhou, Rong
Liu, Yuanyuan
Lin, Lin
Zhong, Jiayong
Jiang, Jianyong
Han, Wentao
Tian, Yang
Xu, Benda
Collaboration, GRID
author_facet Liu, Qize
Pan, Xiaofan
Zheng, Xutao
Gao, Huaizhong
Li, Longhao
Wang, Qidong
Yang, Zirui
Tang, Chenchong
Wu, Wenxuan
Cheng, Jianping
Zeng, Zhi
Zeng, Ming
Feng, Hua
Zhang, Binbin
Wang, Zhonghai
Zhou, Rong
Liu, Yuanyuan
Lin, Lin
Zhong, Jiayong
Jiang, Jianyong
Han, Wentao
Tian, Yang
Xu, Benda
Collaboration, GRID
contents The Gamma-Ray Integrated Detectors (GRID) are a space science mission that employs compact gamma-ray detectors mounted on NanoSats in low Earth orbit (LEO) to monitor the transient gamma-ray sky. Owing to the unpredictability of the time and location of gamma-ray bursts (GRBs), obtaining the photon responses of gamma-ray detectors at various incident angles is important for the scientific analysis of GRB data captured by GRID detectors. For this purpose, a dedicated Monte Carlo simulation framework has been developed for GRID detectors. By simulating each GRID detector and the NanoSat carrying it, the spectral energy response, detection efficiency, and other angular responses of each detector for photons with different incident angles and energies can be obtained within this framework. The accuracy of these simulations has been corroborated through on-ground calibration, and the derived angular responses have been successfully applied to the data analysis of recorded GRBs.
format Preprint
id arxiv_https___arxiv_org_abs_2410_13402
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Monte Carlo Simulation of Angular Response of GRID Detectors for GRID Mission
Liu, Qize
Pan, Xiaofan
Zheng, Xutao
Gao, Huaizhong
Li, Longhao
Wang, Qidong
Yang, Zirui
Tang, Chenchong
Wu, Wenxuan
Cheng, Jianping
Zeng, Zhi
Zeng, Ming
Feng, Hua
Zhang, Binbin
Wang, Zhonghai
Zhou, Rong
Liu, Yuanyuan
Lin, Lin
Zhong, Jiayong
Jiang, Jianyong
Han, Wentao
Tian, Yang
Xu, Benda
Collaboration, GRID
Instrumentation and Methods for Astrophysics
The Gamma-Ray Integrated Detectors (GRID) are a space science mission that employs compact gamma-ray detectors mounted on NanoSats in low Earth orbit (LEO) to monitor the transient gamma-ray sky. Owing to the unpredictability of the time and location of gamma-ray bursts (GRBs), obtaining the photon responses of gamma-ray detectors at various incident angles is important for the scientific analysis of GRB data captured by GRID detectors. For this purpose, a dedicated Monte Carlo simulation framework has been developed for GRID detectors. By simulating each GRID detector and the NanoSat carrying it, the spectral energy response, detection efficiency, and other angular responses of each detector for photons with different incident angles and energies can be obtained within this framework. The accuracy of these simulations has been corroborated through on-ground calibration, and the derived angular responses have been successfully applied to the data analysis of recorded GRBs.
title Monte Carlo Simulation of Angular Response of GRID Detectors for GRID Mission
topic Instrumentation and Methods for Astrophysics
url https://arxiv.org/abs/2410.13402