Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: , a methodology for analog design reuse is proposed. The basic idea is to keep the circuit topology unchanged while automatically modifying the MOSFETs aspect ratio in order to control the transistor transconductances g m  and output conductances g DS . If g m 's and gDS's of each transistor are kept unchanged through the scaling procedure,  show that the overall frequency behavior of the scaled circuit remains very similar to the original one. The approach is very simple and it is suitable for the scaling of analog circuits. No input and output terminals have to be defined and it can be straightforwardly implemented in an automatic scaling tool. When this approach fails, more complex iterative numerical loops may be adopted. In order to validate and compare the scaling approaches, several linear and nonlinear circuits re scaled from a 0.25-mum, 2.5-V voltage supply to a 0.15-mum, 1.2-V voltage supply in standard CMOS technologies
['Alessandro Savio', 'Luigi Colalongo', 'Michele Quarantelli', 'Zsolt Miklós Kovács-Vajna']
I am writing a research paper on a idea Automatic Scaling Procedures for Analog Design Reuse
[{"from": "human", "value": "I am writing a research paper on a idea Automatic Scaling Procedures for Analog Design Reuse"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: , a methodology for analog design reuse is proposed. The basic idea is to keep the circuit topology unchanged while automatically modifying the MOSFETs aspect ratio in order to control the transistor transconductances g m  and output conductances g DS . If g m 's and gDS's of each transistor are kept unchanged through the scaling procedure,  show that the overall frequency behavior of the scaled circuit remains very similar to the original one. The approach is very simple and it is suitable for the scaling of analog circuits. No input and output terminals have to be defined and it can be straightforwardly implemented in an automatic scaling tool. When this approach fails, more complex iterative numerical loops may be adopted. In order to validate and compare the scaling approaches, several linear and nonlinear circuits re scaled from a 0.25-mum, 2.5-V voltage supply to a 0.15-mum, 1.2-V voltage supply in standard CMOS technologies"}]