A Cross-View Hierarchical Graph Learning Hypernetwork for Skill
Demand-Supply Joint Prediction
- URL: http://arxiv.org/abs/2401.17838v1
- Date: Wed, 31 Jan 2024 13:56:08 GMT
- Title: A Cross-View Hierarchical Graph Learning Hypernetwork for Skill
Demand-Supply Joint Prediction
- Authors: Wenshuo Chao, Zhaopeng Qiu, Likang Wu, Zhuoning Guo, Zhi Zheng,
Hengshu Zhu, Hao Liu
- Abstract summary: We propose a Cross-view Hierarchical Graph learning Hypernetwork (CHGH) framework for joint skill demand-supply prediction.
Specifically, CHGH is an encoder-decoder network consisting of i) a cross-view graph encoder to capture the interconnection between skill demand and supply, ii) a hierarchical graph encoder to model the co-evolution of skills from a cluster-wise perspective, andiii) a conditional hyper-decoder to jointly predict demand and supply variations.
- Score: 24.737433570616297
- License: http://creativecommons.org/licenses/by-nc-sa/4.0/
- Abstract: The rapidly changing landscape of technology and industries leads to dynamic
skill requirements, making it crucial for employees and employers to anticipate
such shifts to maintain a competitive edge in the labor market. Existing
efforts in this area either rely on domain-expert knowledge or regarding skill
evolution as a simplified time series forecasting problem. However, both
approaches overlook the sophisticated relationships among different skills and
the inner-connection between skill demand and supply variations. In this paper,
we propose a Cross-view Hierarchical Graph learning Hypernetwork (CHGH)
framework for joint skill demand-supply prediction. Specifically, CHGH is an
encoder-decoder network consisting of i) a cross-view graph encoder to capture
the interconnection between skill demand and supply, ii) a hierarchical graph
encoder to model the co-evolution of skills from a cluster-wise perspective,
and iii) a conditional hyper-decoder to jointly predict demand and supply
variations by incorporating historical demand-supply gaps. Extensive
experiments on three real-world datasets demonstrate the superiority of the
proposed framework compared to seven baselines and the effectiveness of the
three modules.
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