Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: Most wireless battery-operated devices spend more energy receiving than transmitting. Hence, minimizing the por dissipation in the receiver front end, which, in many cases, is the prominent por consuming part of the receiver, is an important challenge.  addresses this challenge by solving two closely related optimization problems. Firstly,  optimize the overall por dissipation in an RF front end consisting of a chain of building blocks to satisfy required overall specifications in gain, linearity and noise figure.  extend this into a second optimization problem, namely to maximize the transmission rate that the receiver can accommodate for a given available receiver battery por budget. In fact, the ratio of this transmission rate vs the available receiver por budget serves as the figure-of-merit that allows a formal optimization where, in particular, the (adjacent channel) interference is a critical factor. Our results include closed-form analytical solutions for certain cases. For high signal por, where the noise is limited by interference, the largest bit/s/Hz per nJ drawn from receiver is reached for a transmission rate of 2.3 bits/s/Hz, irrespective of interference por. Numerical results using practical circuit blocks with 90 nm and 65 nm technologies are in close agreement with the analytical results.
['Johan H. C. van den Heuvel', 'Yan Wu', 'Peter G. M. Baltus', 'Jean-Paul M. G. Linnartz', 'Arthur H. M. van Roermund']
I am writing a research paper on a idea Front End Power Dissipation Minimization and Optimal Transmission Rate for Wireless Receivers
[{"from": "human", "value": "I am writing a research paper on a idea Front End Power Dissipation Minimization and Optimal Transmission Rate for Wireless Receivers"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: Most wireless battery-operated devices spend more energy receiving than transmitting. Hence, minimizing the por dissipation in the receiver front end, which, in many cases, is the prominent por consuming part of the receiver, is an important challenge.  addresses this challenge by solving two closely related optimization problems. Firstly,  optimize the overall por dissipation in an RF front end consisting of a chain of building blocks to satisfy required overall specifications in gain, linearity and noise figure.  extend this into a second optimization problem, namely to maximize the transmission rate that the receiver can accommodate for a given available receiver battery por budget. In fact, the ratio of this transmission rate vs the available receiver por budget serves as the figure-of-merit that allows a formal optimization where, in particular, the (adjacent channel) interference is a critical factor. Our results include closed-form analytical solutions for certain cases. For high signal por, where the noise is limited by interference, the largest bit/s/Hz per nJ drawn from receiver is reached for a transmission rate of 2.3 bits/s/Hz, irrespective of interference por. Numerical results using practical circuit blocks with 90 nm and 65 nm technologies are in close agreement with the analytical results."}]