Application of Neural Network Algorithm in Network Engineering
Design
Min Yang
1
and Jiajie Zhang
2
1
Shandong Communication & Media College, Jinan,Shandong, 250200, China
2
Shandong Technician Institute, Jinan, Shandong, 250200, China
Keywords: Design, Neural Network Algorithms, Network Engineer Design, Computer.
Abstract: With the wide application of computers to people's lives and work, people's demand for computers is getting
higher and higher. Network engineering plays an extremely important role in the computer field, but there is
a problem of inaccurate evaluation of results. Traditional network engineering design cannot solve the
problems of low efficiency and unreasonable design in the process of network engineering from requirements
analysis to obtaining network model. Therefore, this paper proposes a neural network algorithm for innovative
optimization network engineering design analysis. First, the design theory is used to evaluate the engineer,
and the index is divided according to the network engineering design requirements to reduce it Interference
factors in network engineering. Then, the design theory designs the model for the network engineer, forms
the network engineering design scheme, and conducts the network engineering design results Comprehensive
analysis. MATLAB simulation shows that under the condition of certain evaluation criteria, the network
engineering design efficiency, scientificity and rationality
of the neural network algorithm are superior
Traditional network engineering.
1 INTRODUCTION
Network model is one of the important means of
network engineer design, which is of great
significance for network engineering design
(Arjomandi, Cenanovic, et al. 2023)]. However, in
the process of network engineering design, the
network engineering design scheme has the problems
of poor accuracy and low efficiency, which brings
certain reputation losses to the overall engineering
scheme (Cao, Yang, et al. 2023) Some scholars
believe that the application of neural network
algorithms to network engineering design analysis
(Chen, Wen, et al. 2023) can effectively analyze
network engineering design schemes. Provide
corresponding support for network engineering
design (Chiang, Wang, et al. 2023). On this basis, this
paper proposes a neural network algorithm to
optimize the network engineering design scheme and
verify the effectiveness of the model (Cruz, Carrillo,
et al. 2023).
1.1 Development of Network
Engineering
With the continuous development of network
technology, neural networks have become one of the
important technical means in network engineering
design. Based on the practical application of network
engineering, this paper discusses the application of
neural networks in network engineering design,
including network topology design (He, Guo, et al.
2023), network routing optimization, performance
analysis, etc., and verifies the superiority and
practicality of neural networks in network
engineering design through experiments (Ma, Dang,
et al. 2023).
Network engineering is an important research field in
computer science, which mainly studies the design,
development, implementation and management of
computer networks and communication systems, and
is an important branch of computer science (Nowak,
and Popenda, 2023). With the continuous
development and application of network technology,
the design and optimization of network engineering
has become an important topic, and neural network,
122
Yang, M. and Zhang, J.
Application of Neural Network Algorithm in Network Engineering Design.
DOI: 10.5220/0013536600004664
Paper published under CC license (CC BY-NC-ND 4.0)
In Proceedings of the 3rd International Conference on Futuristic Technology (INCOFT 2025) - Volume 1, pages 122-127
ISBN: 978-989-758-763-4
Proceedings Copyright © 2025 by SCITEPRESS Science and Technology Publications, Lda.
as a new type of computing model, can play an
important role in network engineering design.
1.2 Application of Neural Network in
Network Engineering Design
1.2.1 Network Topology Design
Network topology design is an important issue in
network engineering design, which is mainly
optimized for network reliability, scalability,
performance and other aspects. Neural networks can
learn the network topology and predict the
development trend of the network topology, so as to
optimize the design of the network topology and
improve the reliability and performance of the
network (Park, Si, et al. 2023).
1.2.2 Network Routing Optimization
Network routing optimization is a central problem in
network engineering design, which is mainly
optimized for the routing algorithm of the network,
and the performance, reliability and scalability of the
network can be improved by optimizing the routing
algorithm. Neural networks can optimize routing
algorithms and improve the routing efficiency and
performance of the network by learning the
transmission path of network packets and predicting
the transmission trend of packets (Qiao, Fu, et al.
2023).
1.2.3 Performance Analysis
Performance analysis in network engineering is
mainly to evaluate and optimize the performance of
the network, including network bandwidth, latency,
data transmission rate and other aspects. Traditional
performance analysis methods usually require a large
number of data sampling and statistical analysis, but
neural networks can accurately optimize the
performance and bandwidth allocation of the network
by learning the performance of the network and
predicting the performance trend of the network (Sun,
Peng, et al. 2023).
1.3 System Optimization Analysis
In order to verify the practicability and superiority of
neural networks in network engineering design, this
paper analyzes the system optimization through
experiments. The basic idea of the experiment is:
firstly, the neural network is used to predict and
optimize the network topology and routing algorithm,
and then the performance of the network is monitored
and analyzed in real time, and finally the optimization
results and evaluation indicators are obtained (Teng,
Wan, et al. 2023).
Through experimental results, it is found that
neural networks have significant optimization effects
on network engineering design, which can improve
the performance and reliability of the network, and
greatly reduce the time and cost of network
engineering design. Especially in large-scale network
environments, the advantages of neural networks are
more obvious, which can realize efficient network
topology design, routing optimization and
performance analysis (Williams, 2023).
1.4 Requirements for Network
Engineering Design
The algorithmic requirements in network engineering
design mainly include the following aspects:
1.4.1 High Efficiency
Network engineering needs to deal with a large
amount of data and complex computing tasks, so the
efficiency of algorithms is very important, and it is
necessary to minimize the use of computing time and
computing resources. Efficient algorithms can
quickly complete computing tasks, reduce computing
overhead, and improve work efficiency.
1.4.2 Extensibility
Network engineering needs to handle ever-increasing
data volumes and increasingly complex
computational tasks, so the scalability of algorithms
is important, and it needs to be able to adapt to
changing data sizes and computing needs, while also
maintaining the efficiency of the algorithm as much
as possible.
1.4.3 Reliability
Network engineering needs to ensure the reliability
and security of data, so reliable algorithms are needed
to process data. Reliable algorithms guarantee data
accuracy and consistency while preventing data loss,
corruption, or tampering.
1.4.4 Reasonableness
Network engineering design needs to consider the
influence of multiple factors, such as network
topology, data distribution strategy, routing
algorithm, etc., so the rationality of the algorithm is
very important, and it is necessary to be able to fully
Application of Neural Network Algorithm in Network Engineering Design
123
consider the trade-off and balance of various factors,
so that the design scheme is as reasonable and
optimized as possible.
1.4.5 Ease of Implementation
Network engineering design needs to be able to be
applied and implemented in practice, so the ease of
implementation of algorithms is also a very important
requirement. Easy-to-implement algorithms can be
easily applied to real projects, and can be quickly
implemented and debugged.
2 RELATED CONCEPTS
2.1 Mathematical Description of the
Neural Network Algorithm
The neural network algorithm uses the design theory
to optimize the network engineering design scheme
and finds the unqualified values in the network
engineer's design plan according to the indicators in
the network engineering design and designs the
network engineering the scheme is integrated to
finally judge the feasibility of the network
engineering design model. The neural network
algorithm combines the advantages of design theory
and uses the network engineering design model
library to quantify and obtain a solution to the needs
of users Network model (Yu, 2023).
Suppose I. network engineering design
requirements is
d
, network engineering design
scheme is
K
(Zhou, Liu, et al. 2023), network
engineering design scheme to meet the requirements
is
i
y
, network engineering design scheme The
judgment function is
J
,as shown in Equation (1).
2
1
()()
l
ii i
i
JddKxyk
=
=−++
(1)
2.2 Selection of Network Model
Scheme
Hypothesis II The network engineer design plan is
'
1
d
, that the inertia weight coefficient is
i
y
, then the
network engineering design requires an unreasonable
network engineer design plan as shown in Equation
(2).
'2
11
1
()
n
i
i
pydbad
=
=+
(2
)
2.3 Analysis of network engineering
design scheme
Before the neural network algorithm, it is necessary
to conduct multi-dimensional analysis of the network
engineering design scheme, map the network
engineering design requirements to the network
model library, and eliminate unreasonable network
engineering design Scheme. First, the network
engineer conducts a comprehensive analysis of the
design plan and sets the threshold and index weights
of the network engineering design scheme to ensure
the accuracy of the neural network algorithm. The
network engineer's design plan is a system test
network engineering design scheme, which requires
innovative analysis. If a network engineer's design
plan is in a nonnormal distribution, its network
engineering design will be affected, reducing the
accuracy of the overall network engineering design.
In order to improve the accuracy of the neural
network algorithm and improve the level of network
engineering design, the network engineering design
scheme should be selected, and the specific scheme
selection is shown in Figure 1.
Begin
Primary population
Clustering
Fitness value
Condition
Mutation
Get the
best
individual
Blurred
image
Output
restored
image
End
Figure 1: Selection results of the network model scheme
INCOFT 2025 - International Conference on Futuristic Technology
124
Analysis of network engineering design scheme
shows that the network model scheme presents a
multi-dimensional distribution, which is in line with
objective facts. The network engineer's design plan is
not directional, indicating that the network model
scheme has strong randomness, so it is regarded as a
high analysis study. The network engineer's design
plan meets the normal requirements, mainly because
the design theory adjusts the network engineer's
design plan, removes unscientific and irrelevant
schemes, and supplements the default scheme, so that
the dynamic correlation of the entire network
engineering design model is strong.
3 NETWORK ENGINEERS
DESIGN OPTIMIZATION
STRATEGIES FOR THE PLAN
The neural network algorithm adopts a random
optimization strategy for the network engineer's
design plan and adjusts the engineer parameters to
realize the optimization of the network engineer's
design plan. The neural network algorithm divides the
network engineer's design plan into different network
engineering design levels, and randomly selects
different schemes. In the iterative process, network
engineering design solutions at different design levels
are optimized and analyzed and different solutions are
compared Network engineering design level,
document the best network engineering design model.
4 PRACTICAL EXAMPLES OF
NETWORK ENGINEERS
DESIGNING PLANS.
4.1 Introduction to Network
Engineering Design
In order to facilitate network engineering design, the
design plan of network engineers in complex
situations is the research object, with 12 paths and a
test time of 12h The design scheme of the network
engineer design plan is shown in Table 1.
The network engineering process in Table 1 is
shown in Figure 2.
Table 1: Network Engineering Design Requirements
Scope of
application
grade Optimize
p
erformance
Network
model
Network
construction
I 92.03 91.57
II 90.78 90.31
O&M I 91.68 89.69
II 92.41 92.98
Maintenance
costs
I 92.04 91.56
II 90.52 90.31
Begin
Initializatio
n device
RTS
CTS
DATA RF905 Results
Personal
computer
Figure 2: The analysis process of the network engineer's
design plan
Compared with traditional network engineering
design, the network engineering design scheme of
neural network algorithm is closer to the actual design
requirements. In terms of the rationality and
fluctuation range of network engineers' design plans,
neural network algorithms are superior to traditional
network engineering designs. Through the changes in
the network engineering design scheme in Figure 2, it
can be seen that the stability of the neural network
algorithm is better, and the efficiency is faster.
Therefore, the network engineering design scheme of
neural network algorithm has better efficiency, design
scheme and summation stability.
4.2 Network Engineer Design Plan
The design scheme of the network engineer's design
plan includes non-structural information, semi-
structural information, and structural information.
After the pre-selection of the neural network
algorithm, the design model of the preliminary
network engineer design plan is obtained, and the
network engineer designs the plan Analyze the
feasibility of the design model. In order to more
Application of Neural Network Algorithm in Network Engineering Design
125
accurately verify the optimization effect of the
network engineer's design plan, select the design plan
with different network engineering design levels, and
the network engineering design scheme is shown in
Table 2 shown.
Table 2: The overall picture of the network model scenario
Category Security Nature of the
networ
k
Network
construction
92.79 82.87
O&M 90.85 84.01
Maintenance costs 92.83 83.01
mean 93.06 81.02
X
6
38.51 35.26
P=4.04
4.3 Network Model Efficiency and
Stability of Network Engineering
Design
In order to verify the accuracy of the neural network
algorithm, the network engineering design scheme is
shown in Figure 3.
Figure 3: Network models with different algorithms
It can be seen from Figure 3 that the network
model of the neural network algorithm is higher than
that of the traditional network engineering design, but
the error rate is lower, indicating that the network
engineering design of the neural network algorithm is
relatively stable Traditional network engineering is
uneven. The average network engineering scheme of
the above two methods is shown in Table 3.
By Table 3, it can be seen that traditional network
engineering design has deficiencies in network
model, security and reliability in network engineer
design plans Network engineers' design plans have
changed drastically, and the error rate is high. The
general result of the neural network algorithm is a
Table 3: Comparison of network engineering design
accuracy of different methods
Algorithm Network
model
Magnitude
of chan
e
Error
Neural
network
al
g
orithms
92.62 91.40 1.22
Traditional
network
engineering
82.99 74.56 8.43
P 36.57 35.94 36.48
higher network model than traditional network
engineering design. At the same time, the network
model of the neural network algorithm is greater than
91.40%, and the accuracy does not change
significantly. In order to further verify the superiority
of the neural network algorithm, the general analysis
of the neural network algorithm is carried out by
different methods, as shown in Figure 4.
Figure 4: Network model for network engineering design of
neural network algorithm
By Figure 4, it can be seen that the network model
of the neural network algorithm is significantly better
than the traditional network engineering design, and
the reason is that the neural network algorithm
increases the adjustment coefficient of the network
engineer's design plan and sets it Engineer's threshold
to reject network engineering solutions that do not
meet the requirements.
5 CONCLUSIONS
Aiming at the problem that the traditional network
engineering design is not ideal, this paper proposes a
neural network algorithm, and combines the network
engineering design principles to optimize the network
INCOFT 2025 - International Conference on Futuristic Technology
126
engineering design, so that the network engineering
design becomes more convenient. Fast and
reasonable. Research shows that neural network
algorithms can improve the accuracy, stability and
security of network engineering design. However, in
the process of neural network algorithms, the
construction of model libraries also needs to be
continuously improved, and more in-depth research
needs to be made.
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