Multi-quantile systemic financial risk based on a monotone composite quantile regression neural network

This study proposes a novel perspective to calibrate the conditional value at risk ( CoVaR ) of countries based on the monotone composite quantile regression neural network ( MCQRNN ). MCQRNN can fix the “quantile crossing” problem, which is more robust in CoVaR estimating. In addition, we extend the MCQRNN method with quantile-on-quantile ( QQ ), which can avoid the bias in quantile regression. Building on the estimation results, we construct a systemic risk spillover network across countries in the Asia–Pacific region by considering the suffering and overflow effects. A comparison among MCQRNN , QRNN , and MCQRNN-QQ indicates the significance of monotone composite quantiles in modeling CoVaR . Additionally, the network analysis of composite risk spillovers illustrates the advantages of MCQRNN-QQ-CoVaR compared with QRNN-CoVaR . Moreover, the average composite systemic suffering index and the average composite systemic overflow index are introduced as country-specific measures that enable identifying systemically relevant countries during extreme events.

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Publication Details

Journal
Frontiers in Physics
Published
2024-11-18
DOI
https://doi.org/10.3389/fphy.2024.1484589
Citations
1
Primary Topic
Energy Load and Power Forecasting
Type
article
Field-Weighted Citation Impact
0.21

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article

Multi-quantile systemic financial risk based on a monotone composite quantile regression neural network

Donghai Zhou, Ziyan Zhu, Chao Ren
1 citations
Frontiers in Physics
Energy Load and Power Forecasting
0.21
article

Multi-quantile systemic financial risk based on a monotone composite quantile regression neural network

Donghai Zhou, Ziyan Zhu, Chao Ren
article en
1 citations

Abstract

This study proposes a novel perspective to calibrate the conditional value at risk ( CoVaR ) of countries based on the monotone composite quantile regression neural network ( MCQRNN ). MCQRNN can fix the “quantile crossing” problem, which is more robust in CoVaR estimating. In addition, we extend the MCQRNN method with quantile-on-quantile ( QQ ), which can avoid the bias in quantile regression. Building on the estimation results, we construct a systemic risk spillover network across countries in the Asia–Pacific region by considering the suffering and overflow effects. A comparison among MCQRNN , QRNN , and MCQRNN-QQ indicates the significance of monotone composite quantiles in modeling CoVaR . Additionally, the network analysis of composite risk spillovers illustrates the advantages of MCQRNN-QQ-CoVaR compared with QRNN-CoVaR . Moreover, the average composite systemic suffering index and the average composite systemic overflow index are introduced as country-specific measures that enable identifying systemically relevant countries during extreme events.

Frontiers in PhysicsVol. 12
Anhui Business College (CN), Southeast University (CN)
National Natural Science Foundation of China
Partnerships for the goals
Openalex Percentile: Top 46%
Energy Load and Power Forecasting
0.21
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