Budgeted stream-based active learning via adaptive submodular maximization
–Neural Information Processing Systems
Active learning enables us to reduce the annotation cost by adaptively selecting unlabeled instances to be labeled. For pool-based active learning, several effective methods with theoretical guarantees have been developed through maximizing some utility function satisfying adaptive submodularity. In contrast, there have been few methods for stream-based active learning based on adaptive submodularity. In this paper, we propose a new class of utility functions, policy-adaptive submodular functions, which includes many existing adaptive submodular functions appearing in real world problems. We provide a general framework based on policy-adaptive submodularity that makes it possible to convert existing poolbased methods to stream-based methods and give theoretical guarantees on their performance. In addition we empirically demonstrate their effectiveness by comparing with existing heuristics on common benchmark datasets.
Neural Information Processing Systems
Mar-12-2024, 07:17:08 GMT
- Country:
- Asia > Japan
- Honshū > Kansai > Kyoto Prefecture > Kyoto (0.05)
- Europe > Spain
- Catalonia > Barcelona Province > Barcelona (0.04)
- North America > United States
- Wisconsin (0.04)
- Asia > Japan
- Technology: