Authors :
K. Sathiya Priya; K. Prasad; K.V. Ganesh Reddy; K. Yenosh Kumar; K. Arjun
Volume/Issue :
Volume 9 - 2024, Issue 4 - April
Google Scholar :
https://tinyurl.com/5n7kj5d5
Scribd :
https://tinyurl.com/mvd4bhxy
DOI :
https://doi.org/10.38124/ijisrt/IJISRT24APR899
Abstract :
The challenges encountered in aquatic
communication systems encompass colourful factors,
including limited bandwidth, high energy consumption
rates, extended propagation detention times, End- to-
End Delay(E-ED), media access control, routing
complications, resource application, and power
constraints. These challenges bear the perpetration of
energy-effective protocols, which can be distributed into
localization- grounded or localization-free protocols.
This design primarily focuses on reviewing and assaying
localization-free protocols, considering environmental
variables, data transmission rates, transmission
effectiveness, energy consumption rates, E-ED, and
propagation detainments. Through a comprehensive
review, the design aims to identify the strengths and sins
of being protocols, thereby paving the way for unborn
advancements in Aquatic Wireless Sensor Networks
(UWSNs). The proposed check entails an in- depth
examination of localization-free protocols, pressing the
specific problems addressed and the crucial parameters
considered during routing in UWSNs. Unlike former
checks, this study concentrates on the current state- of-
the- art routing protocols, emphasizing the routing
strategy issues they attack. By emphasizing the
advantages of each protocol, the design seeks to decide
energy-effective results. likewise, detailed descriptions
of the routing strategies employed by each protocol are
handed to enhance appreciation. also, the downsides of
each protocol are strictly examined to grease farther
disquisition and identify the most suitable protocol. The
comprehensive analysis of routing strategies, along with
the delineation of pros and cons, not only sheds light on
being challenges but also offers precious perceptivity
into unborn exploration directions. By presenting open
challenges and delineating implicit exploration avenues,
this design aims to contribute to the ongoing elaboration
and enhancement of aquatic communication systems.
Keywords :
Underwater Wireless Communication, Deep Learning, Prediction Models, Machine Learning, Neural Networks, Communication Performance, Signal Propagation, Underwater Environment.
The challenges encountered in aquatic
communication systems encompass colourful factors,
including limited bandwidth, high energy consumption
rates, extended propagation detention times, End- to-
End Delay(E-ED), media access control, routing
complications, resource application, and power
constraints. These challenges bear the perpetration of
energy-effective protocols, which can be distributed into
localization- grounded or localization-free protocols.
This design primarily focuses on reviewing and assaying
localization-free protocols, considering environmental
variables, data transmission rates, transmission
effectiveness, energy consumption rates, E-ED, and
propagation detainments. Through a comprehensive
review, the design aims to identify the strengths and sins
of being protocols, thereby paving the way for unborn
advancements in Aquatic Wireless Sensor Networks
(UWSNs). The proposed check entails an in- depth
examination of localization-free protocols, pressing the
specific problems addressed and the crucial parameters
considered during routing in UWSNs. Unlike former
checks, this study concentrates on the current state- of-
the- art routing protocols, emphasizing the routing
strategy issues they attack. By emphasizing the
advantages of each protocol, the design seeks to decide
energy-effective results. likewise, detailed descriptions
of the routing strategies employed by each protocol are
handed to enhance appreciation. also, the downsides of
each protocol are strictly examined to grease farther
disquisition and identify the most suitable protocol. The
comprehensive analysis of routing strategies, along with
the delineation of pros and cons, not only sheds light on
being challenges but also offers precious perceptivity
into unborn exploration directions. By presenting open
challenges and delineating implicit exploration avenues,
this design aims to contribute to the ongoing elaboration
and enhancement of aquatic communication systems.
Keywords :
Underwater Wireless Communication, Deep Learning, Prediction Models, Machine Learning, Neural Networks, Communication Performance, Signal Propagation, Underwater Environment.
