Beyond Differentiability: Neurosymbolic Learning with Black-Box Programs

23 Sept 2023 (modified: 11 Feb 2024)Submitted to ICLR 2024EveryoneRevisionsBibTeX
Primary Area: neurosymbolic & hybrid AI systems (physics-informed, logic & formal reasoning, etc.)
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Keywords: learning algorithms, symbolic reasoning
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Abstract: Neurosymbolic learning has demonstrated promising potential as a paradigm to combine the worlds of classical algorithms and deep learning. However, existing general neurosymbolic frameworks require that programs be written in differentiable logic programming languages, restricting their applicability to a small fragment of algorithms. We introduce Infer-Sample-Estimate-Descend (ISED), a general algorithm for neurosymbolic learning with black-box programs. We evaluate ISED extensively on a set of 30 benchmark tasks that encompass rich data types and reasoning patterns. ISED achieves 30% higher accuracy than end-to-end neural baselines. Moreover, ISED's solutions often outperform those obtained using Scallop, a state-of-the-art neurosymbolic framework: the programs in 17 (61%) of the benchmarks cannot be specified using Scallop, and ISED on average achieves higher accuracy on those that can be specified using Scallop.
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Submission Number: 7948
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