Dynamic Performance Analysis and Optimization Design of Machine
Mechanism Based on Advanced Algorithms
Xiaona Cai
Guangdong University of Science and Technology, Dongguan City, Guangdong Province 523083, China
Keywords: Advanced Algorithms, Machine Mechanism, Indicators.
Abstract: In order to effectively operate the application mechanism system and reduce the application risk of dynamic
performance monitoring of machine mechanism, this study deeply explores the application characteristics of
the dynamic performance of machine mechanism, and uses advanced algorithmsCreate a dynamic
performance monitoring model of the machine mechanism. In this study, the operability of dynamic
performance monitoring of machine mechanism is indexed through the application of practical cases, and the
dynamic performance analysis and optimization design effect of machine mechanism are compared with
advanced algorithms, so as to clarify the effectiveness of advanced algorithms. Obviously, if the operation of
dynamic performance monitoring of some machine mechanisms can be reasonably applied, the development
loopholes of dynamic performance monitoring of machine mechanisms can be significantly reduced.
1 INTRODUCTION
In the dynamic performance analysis and
optimization design of the machine mechanism, the
application of the index system is mainly used to
realize the field form of the dynamic performance
monitoring of the machine mechanism with advanced
algorithms (Behroz, and Baseri, et al. 2024).
Combined with the traditional machine mechanism
requirements, a single operation and application
mode is adopted, which leads to a serious waste of
machine mechanism design resources (Chen, and
Chen, et al. 2023). The dynamic performance
monitoring system of machine mechanism has the
characteristics of fast operation and high index
efficiency, and at the same time, the advanced
algorithm also shows the advantages of sustainable
upgrading in the dynamic performance analysis and
optimization design of machine mechanism (Fan, and
Li, et al. 2024). Therefore, it has become an inevitable
trend in the development of modern machinery to
promote the optimization and upgrading of the field
of machine mechanism and vigorously promote the
operation of the dynamic performance monitoring
system of machine mechanism (Li, and Yang, et al.
2023).
2 RELATED WORKS
Nowadays, the field of machine mechanism started
relatively late, and in its development, it is restricted
by various factors such as dynamic performance
analysis and optimization design environment of
machine mechanism, resulting in its overall
technology upgrade and optimization progress is
relatively slow (Meng, and Hao, et al. 2024).
However, in recent years, with the support of national
policies, the development of the field of machinery
has once again ushered in new opportunities
(Nematov and Berdiev, et al. 2023). Up to now, many
studies on the application of machine mechanism
mainly focus on the dynamic performance monitoring
and evaluation of machine mechanism, the
application of indicators and the integration of
machine mechanism (Ran, and Song, et al. 2024). For
example, scholars have made scientific analysis and
accurate evaluation of the application of dynamic
performance monitoring of machine mechanisms
(Tabakovic and Zeljkovic, et al. 2024). Scholars have
conducted in-depth research on the impact of
dynamic performance monitoring, further discussed
the driving force of dynamic performance monitoring
of machine mechanisms, and also gave some specific
dynamic performance analysis and design schemes of
machine mechanisms.
Cai, X.
Dynamic Performance Analysis and Optimization Design of Machine Mechanism Based on Advanced Algorithms.
DOI: 10.5220/0013539900004664
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 277-282
ISBN: 978-989-758-763-4
Proceedings Copyright © 2025 by SCITEPRESS – Science and Technology Publications, Lda.
277

The team of scholars conducted an in-depth
discussion on the influencing factors in the
application process of dynamic performance analysis
and optimization design of machine mechanism in the
aspects of dynamic performance monitoring, fusion
and application of machine mechanism (Yamazaki,
and Seki, 2023). Scholars have deeply analyzed the
basic differences between the dynamic performance
monitoring of machine mechanisms and the
traditional model. From another point of view, the
research on the development of the field of machine
mechanism mainly focuses on the analysis of
development and the evaluation of development
influencing factors, for example, scholars analyze the
influencing factors of the dynamic performance
monitoring operation of machine mechanism from
the aspects of operation application and optimization
design (Zhu, and Zhao, et al. 2024). Scholars study
the influence of advanced algorithm technology on
the development of dynamic performance monitoring
of machine mechanism, so as to accurately analyze
the development of machine mechanism field.
In order to solve the problem of the operation and
development of the dynamic performance monitoring
application of the machine mechanism, this study
uses an advanced algorithm to solve the problem of
the dynamic performance monitoring model of the
machine mechanism, firstly uses the basic advanced
algorithm to analyze the constructed operation model,
and then on this basis, effectively improves the
application scope and depth of the advanced
algorithm to ensure the construction and application
effect of the dynamic performance monitoring system
of the machine mechanism.
Therefore, taking the application scheme of a
machine mechanism as an example, considering that
the problem handling mode of the advanced
algorithm is continuous, the specific operation
method is to arrange the dynamic performance
monitoring application links in ascending order, so as
to promote the follow-up task of dynamic
performance monitoring of the machine mechanism.
Therefore, this study needs to focus on the
development of dynamic performance monitoring of
machine mechanisms, and construct a mathematical
calculation model with the goal of dynamic
performance analysis and optimization design of
machine mechanisms, so as to ensure the accurate
calculation of the operation indicators of dynamic
performance monitoring of machine mechanisms, so
as to effectively promote the application and
operation development of machine mechanisms.
3 METHODS
3.1 Dynamic Performance Analysis
and Optimization Design Analysis
of Machine Mechanism
Combined with the actual dynamic performance
monitoring requirements of the machine mechanism,
it is necessary to construct the dynamic performance
analysis and optimization design model of the
machine mechanism to form a complete and
comprehensive dynamic performance monitoring
system, so as to clarify the dynamic performance
monitoring model of the machine mechanism as
shown in equation (1).
1
1
F
n
n
F
ϕϕ
=
=


(1
)
In equation (1), the 𝐹operation data representing
the dynamic performance analysis and optimization
design of the machine mechanism represent the
𝜑

control index of the dynamic performance
monitoring of the machine mechanism; The
1
F
n
n
ϕ
=

is completion time of the index representing
the dynamic performance analysis and optimization
design of the machine mechanism represents the basic
control index of the dynamic performance monitoring
of the machine mechanism, 𝜑 as shown in equation
(2).
1
1
j
L
jn
n
j
WV
C
=
=

(2
)
In equation (2), the



is index development and
total resources of the advanced algorithm are
represented. The 𝑉

is time limit of the standard index
representing the dynamic performance analysis and
optimization design of the machine mechanism, the
index index representing the dynamic performance
monitoring of the machine mechanism, and the
operating conditions of the dynamic performance
monitoring of the machine mechanism (3𝑊

𝐿

). are
shown in equation
𝑓

=𝐷

𝐶𝑜𝑛𝑣


𝐶

𝐵𝑅𝑏



(3
)
In the formula, the 𝐷

is index completion time
representing the dynamic performance analysis and
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optimization design of the machine mechanism, 𝑣

is
the operation data representing the dynamic
performance monitoring of the machine mechanism,
the 𝐶

is index time representing the dynamic
performance analysis and optimization design of the
machine mechanism, and the 𝐵𝑅𝑏

 operation
requirements for completing the dynamic
performance monitoring link of the machine
mechanism, as shown in equation (4).
𝑓

∈𝑅
×
=𝐺𝐴𝑃

𝑓

∈𝑅
×ℎ×

(4)
In the formula, 𝑅
×
represents the operating
deviation of the dynamic performance analysis and
optimization design of the machine mechanism,
the𝑓

is operation time of the dynamic performance
monitoring of the machine mechanism, and the
𝑅
×ℎ×
is comprehensive operation effect of the
dynamic performance analysis and optimization
design of the machine mechanism, as shown in
equation (5).
𝑓

=𝑤

⊗
𝑓

+𝑏

(5)
In the formula, 𝑤

represents the start time limit of
the dynamic performance analysis and optimization
design of the machine mechanism,𝑓

is the time
limit for the completion of the dynamic performance
monitoring of the machine mechanism, and𝑏

is the
time limit for the end of the dynamic performance
analysis and optimization design of the machine
mechanism.
3.2 Application Analysis Based on
Advanced Algorithms in Dynamic
Performance Analysis and
Optimization Design of Machine
Mechanism
Through the analysis of the operation and application
of the machine mechanism system, and then the index
operation based on the advanced algorithm, the
dynamic performance monitoring of the machine
mechanism with high technology can be obtained in
this study, and the comprehensive index model is
shown in equation (6).
𝑓

′
=𝜁

𝑇𝑌𝐶𝑜𝑛𝑣


𝑓




(6)
In the formula, 𝜁 represents the constraints of
dynamic performance analysis and optimization
design of the machine mechanism, the 𝑇is index time
of the dynamic performance monitoring of the
machine mechanism, the𝑣

application time index of
the dynamic performance monitoring of the machine
mechanism, the 𝐶𝑜𝑛𝑣


𝑓


is application
environmental conditions of the dynamic
performance monitoring of the machine mechanism,
and 𝑌 is the operation index of the dynamic
performance monitoring of the machine mechanism.
As shown in equation (7):
𝑚𝑖𝑛𝐹 =
𝑓

+
𝑓

+
𝑓

(7
)
In the formula, 𝑓

is the constraints of dynamic
performance analys and𝑓

is optimization design of
the machine mechanism are represented, the
application duration index of the dynamic
performance monitoring of the machine mechanism
is defined, the 𝑓

is application environmental
conditions of the dynamic performance monitoring of
the machine mechanism are represented, and
𝑚𝑖𝑛𝐹the operation data of the dynamic performance
monitoring of the machine mechanism is based on the
advanced algorithm, and the comprehensive model is
obtained as shown in equation (8). 。
𝑇


=






(8
)
In the formula, 𝑉 represents the operation
deviation of the dynamic performance analysis and
optimization design of the machine mechanism, the𝑐

is operation time on the dynamic performance
monitoring of the machine mechanism, the 𝑢

is
comprehensive operation effect of the dynamic
performance monitoring of the machine
mechanism,𝐶

is the operation time on the dynamic
performance monitoring of the machine mechanism,
and 𝑇


is the start time limit of the dynamic
performance monitoring of the machine mechanism.
In order to effectively improve the operation
efficiency of the dynamic performance monitoring of
the machine mechanism, the operation index of the
dynamic performance monitoring of the machine
mechanism is constructed.
4 RESULTS AND DISCUSSION
4.1 Case Study on the Kinetic
Performance of Machine
Mechanisms
The performance of the mechanical kinetic energy
composition of the engine is analyzed as the research
Dynamic Performance Analysis and Optimization Design of Machine Mechanism Based on Advanced Algorithms
279

object, and the performance of the piston, combustion
chamber, and bearings of the engine is judged. The
friction coefficient, friction force, transmission force,
transmission shaft, and overall transmission structure
and transmission effect are comprehensively judged
and analyzed to improve the effectiveness of the
analysis results. The performance is continuously
tested for 30-40 times, and the average value of the
performance is analyzed and studied, including the
force distribution, transmission force and
transmission effect during the transmission process.
4.2 Advanced Algorithm Analysis of
Machine Performance
According to the dynamic performance analysis and
optimization design of the existing machine
mechanism, the operation direction of the machine
mechanism that needs to be used is further clarified,
and it can be seen that the development of dynamic
performance monitoring of machine mechanism is
relatively higher than that of the traditional model.
Although this method can effectively optimize the
resource allocation of the machine mechanism, the
operation data of the dynamic performance
monitoring part of the machine mechanism increases
more than the traditional index model, so that the
overall development of the machine mechanism field
has been at a high level, which seriously affects the
development of the dynamic performance monitoring
of the machine mechanism. In the development of
dynamic performance analysis and optimization
design of all machine mechanisms, this has an
important impact on the overall dynamic performance
monitoring operation data of machine mechanisms.
Therefore, the development of dynamic performance
monitoring and application of machine mechanism
will help reduce the occurrence of machine design
loopholes, as shown in Figure 1.
Fig 1: Application evaluation and analysis of dynamic
performance analysis and optimized design of machine
mechanism
According to Figure 1, the dynamic performance
analysis and optimization design of the machine
mechanism based on advanced algorithms are
relatively stable. Therefore, by improving the
dynamic performance analysis and optimization
design of the machine mechanism, the application
scheme and the upgrade process, this study can
gradually upgrade based on the dynamic performance
analysis and optimization design of the machine
mechanism, improve the efficiency of the use of
advanced algorithms, thereby reducing the
development risk of the advanced algorithms, and
finally achieve the overall goal of upgrading and
developing the dynamic performance monitoring of
the machine mechanism. Therefore, in this study, it is
necessary to appropriately upgrade the operation
process of applying dynamic performance monitoring
of machine mechanisms, so as to reduce the operation
loopholes of dynamic performance monitoring of
machine mechanisms.
4.3 Application Inspection and
Analysis Based on Advanced
Algorithms in the Dynamic
Performance Analysis and
Optimization Design of Machine
Mechanism
Based on the above analysis, it can be seen that this
study deeply explores the advantages of advanced
algorithms in dynamic performance analysis and
optimization design of machine mechanisms by
improving the advanced algorithms, and forms a flow
chart for improving the advanced algorithms
according to the application process of dynamic
performance monitoring of machine mechanisms, as
shown in Figure 2.
Figure 2: Comparison of the application conditions of
advanced algorithms in the dynamic performance analysis
and optimization design of machine mechanisms
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As shown in Figure 3, this study combines the
dynamic performance analysis of the machine
mechanism and the operation development of the
optimization design to upgrade the application to
index the practical value and stable efficiency of the
advanced algorithm.
Figure 3: Analysis of the dynamic performance of the
machine mechanism and the application effect of the
optimized design
The application process of dynamic performance
monitoring of machine mechanism can be
summarized as the application and operation
development problem of advanced algorithm, and
then the corresponding dynamic performance
monitoring task processing of machine mechanism is
completed, and there is a clear processing sequence
between different links of dynamic performance
analysis and optimization design of machine
mechanism.
4.4 Summary of Analysis Results on
Positive Performance Dynamics
the time taken of each operation link of the dynamic
performance monitoring of the machine mechanism
is relatively different, which leads to the basic change
of the dynamic performance monitoring of the
machine mechanism, as shown in Table 1.
Table 1: Application inspection and analysis of dynamic
performance analysis and optimized design of machine
mechanism
Classification of
indicators for dynamic
performance
monitoring of machine
mechanisms
Apply inspection analysis
Advanced
algorithms
Controlled
analysis
I. Class Subsystem 311.253.26 216.523.65
II. Class of
subsystems
320.562.37 220.356.62
Class III. Subsystems 306.562.39 235.162.34
Based on the above data analysis, the dynamic
performance monitoring of the machine mechanism
has obvious operation index requirements in the
operation analysis based on the dynamic performance
analysis and optimization design of the machine
mechanism, as shown in Table 2.
Table 2: Dynamic performance analysis and optimization
design of machine mechanism operation index
requirements
Classification of
indicators for
dynamic performance
monitoring of
machine mechanisms
Operational metric
requirements
Advanced
algorithms
Controlled
analysis
Natural frequency 29.56 11.23
Damped response 30.57 12.35
modality 31.56 12.95
As can be seen from Table 2, based on the
operation requirements of dynamic performance
indicators such as natural frequency, damping
response, and modality, the effectiveness of the
advanced algorithm is the effectiveness of the
advanced algorithm, and the advanced algorithm is
now applied to the machine mechanism system.
According to the data analysis of relevant operating
indicators, through the application of advanced
algorithms, the application problems of dynamic
performance analysis and optimization design of
machine mechanism are effectively solved, and it is
concluded that the application of dynamic
performance monitoring of machine mechanism is
more practical, so the advanced algorithm has a
positive impact on the dynamic performance
monitoring of machine mechanism.
5 CONCLUSIONS
In summary, this study effectively promotes the
development of dynamic performance monitoring
and application of machine mechanism by upgrading
the dynamic performance analysis and optimization
design and application operation process of machine
mechanism. With the help of the development
structure of dynamic performance monitoring of
machine mechanism, this study builds a dynamic
performance monitoring model based on advanced
algorithms, and effectively realizes the operation goal
of dynamic performance monitoring of machine
mechanism with the support of advanced algorithms,
Dynamic Performance Analysis and Optimization Design of Machine Mechanism Based on Advanced Algorithms
281

and finally proves that the advanced algorithm has a
positive effect on machine mechanism.
ACKNOWLEDGEMENTS
Guangdong University of Science and Technology
Mechanical Design, Manufacturing and Automation
Course Ideological and Political Demonstration
Major. (GKZLGC2021248).
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