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Computers & Electrical Engineering· 2026Q1

Dynamic worker selection and task allocation in crowdsourcing: A hybrid behavior-driven and supply-aware approach

Xiaoang Zhu, Wenming Ma, Jinghui Zhang, Xiaolin Du et al.

Short summary

A new hybrid framework dynamically allocates crowdsourcing tasks by integrating worker reliability scores with real-time supply-demand ratios, improving efficiency in resource-scarce areas.

AI-generated from the title and abstract; the full text is not read.

Key points

  • A dynamic credit scoring model quantifies worker reliability using long-term reputation and short-term completion status.
  • A nonlinear fitness transformation maps behavioral metrics to matching suitability, amplifying high-quality worker-task pairings.
  • A dual-dynamic priority mechanism incorporates real-time supply-demand ratios to boost task utility in undersupplied areas.
  • An adaptive pruned two-stage strategy balances matching quality and efficiency under spatiotemporal constraints.

AI-generated from the title and abstract; the full text is not read.

Abstract

Mobile crowdsourcing faces challenges from volatile worker behaviors and spatiotemporal resource imbalances. This paper proposes a hybrid behavior-driven and supply-aware framework for dynamic task allocation. Specifically, we develop a historical performance-driven dynamic credit scoring model that integrates long-term reputation with short-term completion status to quantify worker reliability. A nonlinear fitness transformation mechanism is then employed to map these behavioral metrics into definitive matching suitability, effectively amplifying high-quality worker-task pairings. Simultaneously, a dual-dynamic priority mechanism incorporating real-time supply–demand ratios is introduced to boost task utility in undersupplied areas, strategically guiding sensing capacity toward resource-scarce regions. To balance matching quality and efficiency under spatiotemporal constraints, an adaptive pruned two-stage strategy is employed. It implements reliability-based filtering to reduce computational overhead for regular tasks while ensuring global optimality for critical ones. Simulations on real-world datasets confirm the effectiveness of the proposed approach across varying scenarios.

The authors' abstract, as published at the source. Computers & Electrical Engineering, 2026 · DOI ↗

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Field: Computer Science Applications

Computer Science ApplicationsComputer Science