Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely:  deals with the problem of estimating the average por consumption (per clock cycle) of CMOS digital circuits. A new pattern-independent method is proposed for computing an upper bound on the switching activity, and therefore the average por, of a combinational circuit described at the gate level. The method is based on the propagation of abstract waveform sets, described down to the level of individual transitions. The view of a gate as a relation beten input and output signals, described by forward and partial inverse functions, permits the determination of a tight upper bound on the por using a constraint resolution method based on waveform narrowing. A fully scalable, case analysis-based algorithm provides at any step an upper bound and, with enough resources (CPU time), it can continue up to the exact solution. The paper presents the theoretical background, a description of the implementation, and results on benchmark circuits.
['Jindrich Zejda', 'Eduard Cerny', 'Sreekumar T. Shenoy', 'Nicholas C. Rumin']
I am writing a research paper on a idea Bounding switching activity in CMOS circuits using constraint resolution
[{"from": "human", "value": "I am writing a research paper on a idea Bounding switching activity in CMOS circuits using constraint resolution"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely:  deals with the problem of estimating the average por consumption (per clock cycle) of CMOS digital circuits. A new pattern-independent method is proposed for computing an upper bound on the switching activity, and therefore the average por, of a combinational circuit described at the gate level. The method is based on the propagation of abstract waveform sets, described down to the level of individual transitions. The view of a gate as a relation beten input and output signals, described by forward and partial inverse functions, permits the determination of a tight upper bound on the por using a constraint resolution method based on waveform narrowing. A fully scalable, case analysis-based algorithm provides at any step an upper bound and, with enough resources (CPU time), it can continue up to the exact solution. The paper presents the theoretical background, a description of the implementation, and results on benchmark circuits."}]