2014 - ACM Distinguished Member
Theoretical computer science, Satisfiability modulo theories, Programming language, Automated theorem proving and Artificial neural network are his primary areas of study. His biological study spans a wide range of topics, including Fragment, Solver and Concatenation. His studies in Solver integrate themes in fields like Mathematical proof and Logical theory.
In his study, Clark Barrett carries out multidisciplinary Satisfiability modulo theories and Research groups research. His work carried out in the field of Programming language brings together such families of science as Interfacing and Modulo. His research integrates issues of Airborne collision avoidance system and Robustness in his study of Artificial neural network.
His scientific interests lie mostly in Satisfiability modulo theories, Theoretical computer science, Programming language, Solver and Algorithm. The Satisfiability modulo theories study which covers Algebra that intersects with Quantifier. His Theoretical computer science study combines topics in areas such as Mathematical proof and Set.
His work on Correctness, Compiler and Source code as part of general Programming language research is often related to TRACE, thus linking different fields of science. His research in Correctness intersects with topics in Artificial neural network and Artificial intelligence. As part of the same scientific family, he usually focuses on Solver, concentrating on Regular expression and intersecting with String.
Clark Barrett mainly investigates Satisfiability modulo theories, Artificial neural network, Formal verification, Theoretical computer science and Artificial intelligence. His Satisfiability modulo theories research includes themes of Solver, Algebraic number, Algebra and String. Clark Barrett has researched Artificial neural network in several fields, including Field, Correctness, Distributed computing and Leverage.
In his study, Embedded system, Microcontroller, Logic gate and Logic synthesis is inextricably linked to Debugging, which falls within the broad field of Formal verification. His Theoretical computer science research includes elements of Mathematical proof, Set and Global optimization. His Artificial intelligence study integrates concerns from other disciplines, such as Routing and Machine learning.
Clark Barrett mainly investigates Artificial neural network, Satisfiability modulo theories, Artificial intelligence, Formal verification and Scalability. The concepts of his Artificial neural network study are interwoven with issues in Field, Correctness, Distributed computing and Leverage. Theoretical computer science and Programming language are inextricably linked to his Satisfiability modulo theories research.
In his study, Mathematical proof and Program synthesis is strongly linked to Algebraic number, which falls under the umbrella field of Theoretical computer science. His Artificial intelligence study combines topics from a wide range of disciplines, such as Machine learning, State and Reliability. His Formal verification study combines topics in areas such as Gas meter prover, Blockchain, Formal specification and Code.
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Satisfiability Modulo Theories
Clark W. Barrett;Cesare Tinelli.
Handbook of Satisfiability (2018)
Reluplex: An Efficient SMT Solver for Verifying Deep Neural Networks
Guy Katz;Clark W. Barrett;David L. Dill;Kyle Julian.
computer aided verification (2017)
The SMT-LIB Standard Version 2.0
Clark Barrett;Aaron Stump;Cesare Tinelli.
(2010)
CVC Lite: A new implementation of the cooperating validity checker: Category B
Clark W. Barrett;Sergey Berezin.
computer aided verification (2004)
CVC: A Cooperating Validity Checker
Aaron Stump;Clark W. Barrett;David L. Dill.
computer aided verification (2002)
Validity Checking for Combinations of Theories with Equality
Clark W. Barrett;David L. Dill;Jeremy R. Levitt.
formal methods in computer aided design (1996)
Checking Satisfiability of First-Order Formulas by Incremental Translation to SAT
Clark W. Barrett;David L. Dill;Aaron Stump.
computer aided verification (2002)
The Marabou Framework for Verification and Analysis of Deep Neural Networks
Guy Katz;Derek A. Huang;Duligur Ibeling;Kyle Julian.
computer aided verification (2019)
A decision procedure for an extensional theory of arrays
A. Stump;C.W. Barrett;D.L. Dill;J. Levitt.
logic in computer science (2001)
A decision procedure for bit-vector arithmetic
Clark W. Barrett;David L. Dill;Jeremy R. Levitt.
design automation conference (1998)
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