FingHV: Efficient Sharing and Fine-Grained Scheduling of Virtualized HPU Resources
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Summary
This summary is machine-generated.This study introduces fine-grained human processing unit (HPU) virtualization for human-machine computing (HMC) systems. The new approach enhances task assignment and resource utility in collaborative AI environments.
Area Of Science
- Computer Science
- Artificial Intelligence
- Human-Computer Interaction
Background
- The advancement of artificial intelligence (AI) necessitates human-centered design and collaborative systems.
- Human-machine computing (HMC) paradigms combine human cognition with machine computation for complex tasks.
- Efficient resource provisioning for Human Processing Units (HPUs) is critical for HMC system performance.
Purpose Of The Study
- To address limitations in existing HPU resource provisioning schemes that fail to optimize task assignment and utility.
- To propose a novel fine-grained HPU virtualization (FingHV) approach for improved flexibility, fairness, and utility.
- To enhance human-machine symbiosis in large-scale, complex task environments.
Main Methods
- Development of a hierarchical multiskill tree to model HPU skills and their correlations.
- Formulation of the HPU virtualization problem.
- Implementation of a fine-grained virtualization method including quality-driven HPU assignment and mixed time/event-based scheduling.
Main Results
- The proposed FingHV approach significantly improves global matching quality by up to 39.7%.
- FingHV increases HPU utility by 11.2% compared to existing baseline methods.
- Evaluation on synthetic and real-world datasets validates the effectiveness of the FingHV approach.
Conclusions
- Fine-grained HPU virtualization is essential for optimizing resource allocation in HMC systems.
- The FingHV approach offers a robust solution for enhancing collaborative AI performance.
- This work advances the field of human-machine symbiosis through improved resource management.

