Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: Wave steering is a unified logic and physical synthesis scheme that algorithmically generates high-throughput circuits with fast turn-around times. Binary decision diagram (BDD)-type structures are altered to satisfy certain electrical constraints, embedded in silicon with pass transistor logic (PTL), and pipelined to very fine granularity using a novel two-phase clocking scheme. This direct PTL mapping of a logic representation provides good electrical estimations to a front-end tool like the logic synthesizer at an early phase of the design cycle.  apply our wave steering technique to high throughput computation-intensive datapath combinational circuits.  achieve an average speedup of 4.2 times compared to standard cell (SC) implementations of high performance arithmetic circuits at the cost of only about 76% average increase in area. The results look extremely encouraging; all the more so, considering that  also achieve an average reduction of 27% in latency and 15% in por compared to SC circuits.
['Arindam Mukherjee', 'Malgorzata Marek-Sadowska']
I am writing a research paper on a idea Wave steering to integrate logic and physical syntheses
[{"from": "human", "value": "I am writing a research paper on a idea Wave steering to integrate logic and physical syntheses"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: Wave steering is a unified logic and physical synthesis scheme that algorithmically generates high-throughput circuits with fast turn-around times. Binary decision diagram (BDD)-type structures are altered to satisfy certain electrical constraints, embedded in silicon with pass transistor logic (PTL), and pipelined to very fine granularity using a novel two-phase clocking scheme. This direct PTL mapping of a logic representation provides good electrical estimations to a front-end tool like the logic synthesizer at an early phase of the design cycle.  apply our wave steering technique to high throughput computation-intensive datapath combinational circuits.  achieve an average speedup of 4.2 times compared to standard cell (SC) implementations of high performance arithmetic circuits at the cost of only about 76% average increase in area. The results look extremely encouraging; all the more so, considering that  also achieve an average reduction of 27% in latency and 15% in por compared to SC circuits."}]