Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely:  consider the problem of Simultaneous Wireless Information and Por Transfer (SWIPT) over a fading multiple access channel with additive Gaussian noise. The transmitters as ll as the receiver harvest energy from ambient sources.  assume that the transmitters have two classes of data to send, viz. delay sensitive and delay tolerant data. Each transmitter sends the delay sensitive data at a certain minimum rate irrespective of the channel conditions (fading states). In addition, if the channel conditions are good, the delay tolerant data is sent. {Along with data, the transmitters also transfer por to aid the receiver in meeting its energy requirements.} In this setting,  characterize the \textit{minimum-rate capacity region} which provides the fundamental limit of transferring information and por simultaneously with minimum rate guarantees. Owing to the limitations of current technology, these limits might not be achievable in practice. Among the practical receiver structures proposed for SWIPT in literature, two popular architectures are the \textit{time switching} and \textit{por splitting} receivers. For each of these architectures,  derive the minimum-rate capacity regions.  show that por splitting receivers although more complex, provide a larger capacity region.
['P K Deekshith', 'Trupthi Chougule', 'Shreya Turmari', 'Ramya Raju', 'Rakshitha Ram', 'Vinod Sharma']
I am writing a research paper on a idea Information and Power Transfer by Energy Harvesting Transmitters over a Fading Multiple Access Channel with Minimum Rate Constraints
[{"from": "human", "value": "I am writing a research paper on a idea Information and Power Transfer by Energy Harvesting Transmitters over a Fading Multiple Access Channel with Minimum Rate Constraints"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely:  consider the problem of Simultaneous Wireless Information and Por Transfer (SWIPT) over a fading multiple access channel with additive Gaussian noise. The transmitters as ll as the receiver harvest energy from ambient sources.  assume that the transmitters have two classes of data to send, viz. delay sensitive and delay tolerant data. Each transmitter sends the delay sensitive data at a certain minimum rate irrespective of the channel conditions (fading states). In addition, if the channel conditions are good, the delay tolerant data is sent. {Along with data, the transmitters also transfer por to aid the receiver in meeting its energy requirements.} In this setting,  characterize the \\textit{minimum-rate capacity region} which provides the fundamental limit of transferring information and por simultaneously with minimum rate guarantees. Owing to the limitations of current technology, these limits might not be achievable in practice. Among the practical receiver structures proposed for SWIPT in literature, two popular architectures are the \\textit{time switching} and \\textit{por splitting} receivers. For each of these architectures,  derive the minimum-rate capacity regions.  show that por splitting receivers although more complex, provide a larger capacity region."}]