Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: Many designs intermingle large memories with wide data paths and nontrivial control. Verifying such systems is challenging, and users often get little traction when applying model checking to decide full or partial end-to-end correctness of such designs. Interestingly, a subclass of these systems can be proven correct by reasoning only about a small number of the memory entries at a limited number of time points. ,  leverage this fact to abstract certain memories in a sound way, and  demonstrate how our memory abstraction coupled with an abstraction refinement algorithm can be used to prove correctness properties for three challenging designs from industry and academia. Key features of our approach are that  operate on standard safety property verification problems, that  proceed completely automatically without any need for abstraction hints, that  can use any bit-level model checker as a back-end decision procedure, and that our algorithms fit seamlessly into a standard transformational verification paradigm.
['Per Bjesse']
I am writing a research paper on a idea Word-Level Sequential Memory Abstraction for Model Checking
[{"from": "human", "value": "I am writing a research paper on a idea Word-Level Sequential Memory Abstraction for Model Checking"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: Many designs intermingle large memories with wide data paths and nontrivial control. Verifying such systems is challenging, and users often get little traction when applying model checking to decide full or partial end-to-end correctness of such designs. Interestingly, a subclass of these systems can be proven correct by reasoning only about a small number of the memory entries at a limited number of time points. ,  leverage this fact to abstract certain memories in a sound way, and  demonstrate how our memory abstraction coupled with an abstraction refinement algorithm can be used to prove correctness properties for three challenging designs from industry and academia. Key features of our approach are that  operate on standard safety property verification problems, that  proceed completely automatically without any need for abstraction hints, that  can use any bit-level model checker as a back-end decision procedure, and that our algorithms fit seamlessly into a standard transformational verification paradigm."}]