Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: Even though underwater acoustic communication suffers from long propagation delays and has very limited bandwidth, it still plays a key role in supporting long-distance, low-por communication in underwater sensor networks. Many previous studies have tried to mitigate the impact of long propagation delays, but recently, the focus has shifted from mitigating to exploiting large propagation delays. ,  consider an underwater acoustic network which employs a time- division based scheduling strategy and supports multicasting, meaning that packets may have multiple destinations. In this context,  establish an upper bound on the throughput of a general multicasting network, and study networks which can achieve this bound.  also study the throughput of ring networks (in which nodes are uniformly located on a circle) and give some examples and schedules which achieve the maximum possible throughput. Finally,  explore the properties of valid, perfect, and fair slot schedules for ring networks.
['Linbo Zhang', 'Mehul Motani']
I am writing a research paper on a idea On Multicasting in Underwater Acoustic Networks
[{"from": "human", "value": "I am writing a research paper on a idea On Multicasting in Underwater Acoustic Networks"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: Even though underwater acoustic communication suffers from long propagation delays and has very limited bandwidth, it still plays a key role in supporting long-distance, low-por communication in underwater sensor networks. Many previous studies have tried to mitigate the impact of long propagation delays, but recently, the focus has shifted from mitigating to exploiting large propagation delays. ,  consider an underwater acoustic network which employs a time- division based scheduling strategy and supports multicasting, meaning that packets may have multiple destinations. In this context,  establish an upper bound on the throughput of a general multicasting network, and study networks which can achieve this bound.  also study the throughput of ring networks (in which nodes are uniformly located on a circle) and give some examples and schedules which achieve the maximum possible throughput. Finally,  explore the properties of valid, perfect, and fair slot schedules for ring networks."}]