CRISPE: Semantic-Guided Execution Planning and Dynamic Reasoning for Enhancing Code Coverage Prediction

While LLMs excel in understanding source code and descriptive texts for tasks like code generation, code completion, etc., they exhibit weaknesses in predicting dynamic program behavior, such as code coverage and runtime error detection, which typically require program execution. Aiming to advance the capability of LLMs in reasoning and predicting the program behavior at runtime, we present CRISPE (short for Coverage Rationalization and Intelligent Selection ProcedurE), a novel approach for code coverage prediction. CRISPE guides an LLM in simulating program execution via an execution plan based on two key factors: (1) program semantics of each statement type, and (2) the observation of the set of covered statements at the current “execution” step relative to all feasible code coverage options. We formulate code coverage prediction as a process of semantic-guided execution-based planning, where feasible coverage options are utilized to assess whether the LLM is heading in the correct reasoning. We enhance the traditional generative task with the retrieval-based framework on feasible options of code coverage. Our experimental results show that CRISPE achieves high accuracy in coverage prediction in terms of both exact-match and statement-match coverage metrics, improving over the baselines. We also show that with semantic-guiding and dynamic reasoning from CRISPE, the LLM generates more correct planning steps. To demonstrate CRISPE’s usefulness, we used it in the downstream task of statically detecting runtime error(s) in incomplete code snippets with the given inputs.

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Publication Details

Journal
Proceedings of the ACM on software engineering.
Published
2025-06-19
DOI
https://doi.org/10.1145/3729401
Primary Topic
Software Engineering Research
Type
article
Field-Weighted Citation Impact
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article

CRISPE: Semantic-Guided Execution Planning and Dynamic Reasoning for Enhancing Code Coverage Prediction

Aashish Yadavally, Tien N. Nguyen, Hridya Dhulipala, Shalizeh A. Patel
Proceedings of the ACM on software engineering.
Software Engineering Research
article

CRISPE: Semantic-Guided Execution Planning and Dynamic Reasoning for Enhancing Code Coverage Prediction

Aashish Yadavally, Tien N. Nguyen, Hridya Dhulipala, Shalizeh A. Patel
article en

Abstract

While LLMs excel in understanding source code and descriptive texts for tasks like code generation, code completion, etc., they exhibit weaknesses in predicting dynamic program behavior, such as code coverage and runtime error detection, which typically require program execution. Aiming to advance the capability of LLMs in reasoning and predicting the program behavior at runtime, we present CRISPE (short for Coverage Rationalization and Intelligent Selection ProcedurE), a novel approach for code coverage prediction. CRISPE guides an LLM in simulating program execution via an execution plan based on two key factors: (1) program semantics of each statement type, and (2) the observation of the set of covered statements at the current “execution” step relative to all feasible code coverage options. We formulate code coverage prediction as a process of semantic-guided execution-based planning, where feasible coverage options are utilized to assess whether the LLM is heading in the correct reasoning. We enhance the traditional generative task with the retrieval-based framework on feasible options of code coverage. Our experimental results show that CRISPE achieves high accuracy in coverage prediction in terms of both exact-match and statement-match coverage metrics, improving over the baselines. We also show that with semantic-guiding and dynamic reasoning from CRISPE, the LLM generates more correct planning steps. To demonstrate CRISPE’s usefulness, we used it in the downstream task of statically detecting runtime error(s) in incomplete code snippets with the given inputs.

Proceedings of the ACM on software engineering.Vol. 2(FSE)
Peace, Justice and strong institutions
Openalex Percentile: Top 80%
Software Engineering Research
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