An Image Recognition Algorithm for Estimating the Influence of
Bending Moment on the Stress of the Bolts Connecting the Double
Flange Turbine Head Cover and the Stay Ring
Dongyang Hu
1
, Bingxian Zhu
2
, Yalin Jia
1
, Benquan Yu
2
, Dejiang Hu
1
and Haixia Yang
1
1
Maintenance and Test Branch of China Southern Power Grid Peak Shaving and Frequency Modulation Power Generation
Co. Ltd., Guangzhou 511400, China
2
Voith Hydro Shanghai Ltd., Shanghai 200240, China
Keywords: Hydropower Station, Double Flange Head Cover, Bolted Connection, Bending Moment Estimation, Stress
Effects, Pattern Recognition Theory, Image Recognition Algorithms, Methodological Research.
Abstract: In the double flanged head cover, besides the preload, and bending moment due to the water pressure, the
connecting bolts take additional bending moment after pre-stressed due to it’s own asymmetrical supported
structure. The additional bending moment further increased the equivalent stresses in the bolt and therefore
shall be included in the calculation. In order to solve the challenge of bending moment estimation stay ring,
in view of the shortcomings of the existing divide and conquer algorithms, an innovative stress influence
method of the double flange turbine head cover and stay ring connection bolts based on image recognition
algorithm is proposed. This new approach uses the principles of pattern recognition theory to accurately
identify and locate key influencing factors, and accordingly performs a sensible classification of indicators to
reduce possible interference. At the same time, using the unique mechanism of image recognition algorithm,
the design strategy of stress influence is cleverly constructed. The empirical results show that the scheme
shows a significant improvement compared with the traditional divide-conquering algorithm in the key
performance indicators such as the accuracy of the stress influence of the bolts connecting the double-flange
turbine head cover and the stay ring, and the processing efficiency of key factors, showing its obvious strong
advantages. In bending moment estimation, the stress influence of the bolts connecting the double flange
turbine head cover and the stay ring plays a crucial role, which can accurately predict and optimize the growth
trend and output results of the influence of the bending moment estimation on the stress of the bolts connecting
the double flange turbine head cover and the stay ring. However, in the face of complex simulation tasks,
traditional divide-and-conquer algorithms show some inherent shortcomings, especially when dealing with
multi-level challenges, their performance is often unsatisfactory. To overcome this, this study introduces a
new idea of the stress influence of the bolts connecting the double-flange turbine head cover and the stay ring
optimized by the image recognition algorithm, and accurately controls the influencing parameters through the
pattern recognition theory, and uses it as the road map for index allocation, and then uses the image
recognition algorithm to innovate and construct the system scheme. The test results clearly point out that in
the context of the evaluation criteria, the new scheme has been significantly optimized in terms of accuracy
and processing speed for a variety of challenges, showing stronger performance superiority. Therefore, in the
influence of bending moment estimation on the stress of the bolts connecting the double flange turbine head
cover and the stay ring, the simulation scheme based on the image recognition algorithm successfully
overcomes the shortcomings of the traditional divide and conquer algorithm, and significantly improves the
accuracy and operation efficiency of the simulation.
1 INTRODUCTION
The importance of bolt stress influence in bending
moment estimation is self-evident when connecting
the double flange turbine head cover and the stay ring.
Its connection reliability directly affects the safety of
the turbine unit and the power station (Yang and Chen
et al. 2022). shows a typical structure of bolt
Hu, D., Zhu, B., Jia, Y., Yu, B., Hu, D. and Yang, H.
An Image Recognition Algorithm for Estimating the Influence of Bending Moment on the Stress of the Bolts Connecting the Double Flange Turbine Head Cover and the Stay Ring.
DOI: 10.5220/0013538500004664
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 213-220
ISBN: 978-989-758-763-4
Proceedings Copyright © 2025 by SCITEPRESS – Science and Technology Publications, Lda.
213
connection between double flanged head cover and
stay ring.
Through simulation, various parameters and
changes in this process can be predicted and
understood, providing guidance and support for
actual production (Wang and Wang, et al. 2023).
However, the traditional double-flange turbine head
cover and stay ring connection bolt stress influence
scheme has certain shortcomings in terms of accuracy,
which limits its effect in practical application (Chen
and Sun, et al. 2023). In order to solve the accuracy
problem of the stress influence of the bolts connecting
the traditional double-flange turbine head cover and
the stay ring, in recent years, researchers have
introduced the image recognition algorithm into the
analysis of the stress influence of the bolts connecting
the double-flange turbine head cover and the stay ring
(Wang and Huang, et al. 2023). Image recognition
algorithm is a computational method based on group
behavior, which simulates the interaction and
cooperation between individuals to achieve the goal
of global optimization. The algorithm has the
characteristics of decentralization, immutability and
smart contract, which can effectively solve the
accuracy problems existing in traditional schemes
(Sang and Hua, et al. 2023). The optimization model
of the stress influence of the bolts connecting the
double flange turbine head cover and the stay ring
based on the image recognition algorithm further
improves the accuracy and reliability of the
simulation by optimizing the parameters and
algorithms in the process of the stress influence of the
bolts connecting the double flange turbine head cover
and the stay ring (Xiang and Zhu, 2023). The model
adjusts and optimizes the various parameters in this
process to achieve the best stress effect. At the same
time, the model is able to cope with complex
environments and interference factors, providing
more realistic and reliable simulation results (Chen,
2023). Through a large number of experiments and
data analysis, the researchers evaluated the
effectiveness of the optimization model based on
image recognition algorithm for the stress effect of
bolts connecting double flange turbine head cover and
stay ring (Sha and Zeng, et al. 2023). The results show
that compared with the traditional double-flange
turbine head cover and fixing ring connection bolt
stress influence scheme, the proposed model has
significant advantages in many aspects (Yu and An, et
al. 2023).
2 A THEORETICAL MODEL OF
THE STRESS EFFECT OF THE
BOLT CONNECTING THE
DOUBLE FLANGE TURBINE
HEAD COVER AND THE STAY
RING IS CONSTRUCTED
The image recognition algorithm uses computer
technology to improve the stress influence strategy of
the bolts connecting the double flange turbine head
cover and the stay ring, and analyzes is a series of
key parameters involved in the system research to
identify the parameter values that do not meet the
standard in the study. Subsequently, the algorithm
integrates is these parameter values is
into the stress
influence scheme of the bolts connecting the double
flange turbine head cover and the stay ring, and then
comprehensively evaluates the implementation
possibility of the study (Yang Xia and Zhang Meng,
et al. 2023). The calculation process can be referred
to equations (1) and (2).
2
1
22
i
iiii
o
E
WEHW
η
=
(1
)
2
2
4
P
22
ii
o
bb ac
WE
a
σ
σ
η
−±
==
(2
)
The image recognition algorithm combines the
advantages of computer technology to quantify the
stress influence of the bolts connecting the double-
flange turbine head cover and the stay ring, which can
improve the accuracy of the stress influence of the
bolts connecting the double-flange turbine head cover
and the stay ring.
The image recognition algorithm implements a
global search for the stress influence of the bolts
connecting the double flange turbine head cover and
the stay ring according to the set number of iterations,
and completes an iterative process for each search.
Pheromones will be generated during the stress effect
of the bolts is connecting the double flange
turbine head cover and the stay ring, so the remaining
pheromones in the search path need to be updated
i
W
i
E
ˆ
ˆ
/, /
iiii ii
eEEhHH==
i
E
INCOFT 2025 - International Conference on Futuristic Technology
214
after each iteration process, and the formula is
described as follows:
()
2
22
P!
4R 8 ! !
i
s
o
E
n
W
R
rnr
σ
ππη
==
(3)
In order to avoid falling into the local optimal
problem in the target iteration process, the upper limit
of pheromone value is set, and the formula is
described as follows:
2
1
2
ss
o
WE
η
= M
(4
)
From the above, the comprehensive function of
the stress effect of the bolt connecting the double
flange turbine head cover and the stay ring can be
obtained, and the result is shown in equation (5).
(5)
In order to improve the reliability of the stress of
the bolts connecting the double flange turbine head
cover and the stay ring, all data need to be
standardized, and the results is shown in equation (6).
*
22
*
lim 4
ss
R
ii
EE
Rab
EE
σπ
→∞
×
=+
×
(6)
Before the image recognition algorithm, it is
necessary to analyze the stress influence scheme of
the bolts connecting the double-flange turbine head
cover and the stay ring in all aspects, and map the
stress influence requirements of the bolts connecting
the double-flange turbine head cover and the stay ring
to the resource query system research library, and
eliminate the unqualified resource query system
research scheme. The anomaly assessment scheme
can be proposed, and the results is shown in
equation (7).
()
() ( )
!
()
(4)!!
ii
i
ij
gt Fd
n
No t
mean v r n r
+
=
+−
(7
)
3 PRACTICAL EXAMPLE OF
STRESS EFFECT ON BOLTS
CONNECTING DOUBLE
FLANGE TURBINE HEAD
COVER AND STAY RING
3.1 The Relevant Concept of the Stress
Influence Model of the Bolt
Connection Between the Double
Flange Turbine Head Cover and
the Stay Ring
The construction of the stress influence model of the
double flange turbine head cover and stay ring
connection bolt contains several key concepts to
ensure that the resulting model can not only
comprehensively map the complexity of the stress
influence process, but also show sufficient
applicability and accuracy. First of all, it involves the
thinking of systems theory, which emphasizes the
need to take a holistic view of the mathematical,
chemical, and physical elements involved in the
effects of stress when shaping the model, and to
understand how these elements interact and interact
with each other from a system perspective to jointly
affect the overall process of stress effects. Further,
there is the concept of dynamic evolution, which
requires the model to be sensitive to revealing time-
based dynamics and processes to keep up with the
change and growth of activities, given that stress-
influenced processes continue to evolve over time.
The concept of multi-level modeling reveals that the
constructed model should incorporate the scale of
change in different fields from macro to micro, from
physics and mathematics to process flow, to ensure
that the model is compatible and covers different
levels of detailed information. The estimation and
verification of parameters is a key process to ensure
that the stress influence model of the bolts connecting
the double flange turbine head cover and the stay ring
truly reflects the actual search process, and to
determine and fine-tune these parameters through the
actual data to ensure that the model results is
consistent with the actual observations. The data-
driven principle further highlights the central role of
observational data in the model building and
validation stage, and the collection, processing, and
analysis of data constitute an indispensable part of
building accurate models. Furthermore, considering
that different stress scenarios and different bending
moment estimation paths may require different model
configurations, the scalability of the model is
s
W
s
E
o
2
2
2
4
s
i
E
R
E
σπ
=
()
i
No t
An Image Recognition Algorithm for Estimating the Influence of Bending Moment on the Stress of the Bolts Connecting the Double Flange
Turbine Head Cover and the Stay Ring
215
particularly critical, which means that the model
should be designed to be easy to change and add new
components to adapt to the changing stress
environment and requirements.
Based on the above concepts, the construction of
a stress influence model of double-flange turbine
head cover and stay ring connection bolts requires not
only thorough scientific insight into multidisciplinary
processes, but also extensive system analysis
perspectives, strong data processing technology, and
future-oriented open thinking. Many elements work
together to create a simulation model of the bending
moment estimation process that is both accurate and
widely applicable.
Simulate the stress effect process of the bolt
connecting the double flange turbine head cover and
the stay ring, as shown in Figure I.
Bending
Pattern
Estimation
Algorithm Research
Effect
Image
recognition
Figure 2: Analysis process of the stress effect of bolts
connecting double flange turbine head cover and stay ring
Compared with the divide and conquer algorithm,
the image recognition algorithm is introduced into the
stress influence of the bolts connecting the double
flange turbine head cover and the stay ring, which
brings a lot of innovation to solve the practical
problems. As a critical step in processing natural
language, accuracy is critical in understanding and
processing natural data in search. This algorithm can
better deal with the complexity of the semantic and
syntactic levels in the stress effect, so the image
recognition algorithm shows its inherent advantages
compared with the traditional divide and conquer
algorithm in the rationality and accuracy of the stress
influence of the double-flange turbine head cover and
the stay ring connection bolt. As shown in Figure II,
the change in the stress influence scheme of the bolts
connecting the double flange turbine head cover and
the stay ring shows that the search results can be
obtained with higher accuracy by using the image
recognition algorithm, because the image recognition
algorithm more accurately parses the keywords and
structures in the user's search intent and achieves
more detailed information matching. compared with
divide-and-conquer algorithms, which often rely on
preset rules and paths, image recognition algorithms
can process data more flexibly in the face of complex
searches, reducing misunderstandings and
ambiguities.
In terms of search speed, although the divide and
conquer algorithm searches quickly when the
structure is clear, the image recognition algorithm can
also achieve fast and effective search feedback by
optimizing the cutting and matching process of
words, especially in the face of large-scale thesaurus
and dynamically updated search resources, the image
recognition algorithm can maintain efficient search
ability. In terms of stability, image recognition
algorithms can cope with changing search
environments and usage patterns through continuous
Xi learning and self-optimization, so as to provide a
stable search experience. However, due to the lack of
a learning Xi mechanism, the divide and conquer
algorithm may need to be redesigned and adjusted
once it encounters a change in search mode or a new
data type, which is slightly inferior in terms of
stability. In practical applications, image recognition
algorithms can be combined with other advanced
machine Xi techniques, such as depth Xi, semantic
understanding, etc., to further improve the overall
performance and user experience of the stress effects
of the bolts connecting the double flange turbine head
cover and the stay ring. As for the divide and conquer
algorithm, although it still has its unique application
scenarios in the search task with clear rules and fixed
rules, it is obvious that the image recognition
algorithm provides a more advanced and adaptable
solution in the stress effect of the bolts connecting the
modern double-flange turbine head cover and the stay
ring.
3.2 Stress Influence of Double Flange
Turbine Head Cover and Fixing
Ring Connection Bolts
When developing a design for a stress-affected
system, it is important to note that the scheme should
cover all types of data. We categorize this data into
unstructured, semi-structured, and structured
information, each with its own characteristics and
methods of storage, processing, and analysis. Using
efficient image recognition algorithms, we were able
to perform an efficient preliminary screening of these
diverse data types to obtain a preliminary selected set
of stress effects on the bolts connecting the double
flange turbine head cover and the stay ring. After
screening by the image recognition algorithm, we
obtained a series of potential stress influence schemes
for the bolts connecting the double flange turbine
head cover and the fixing ring. We then go further and
INCOFT 2025 - International Conference on Futuristic Technology
216
analyze the practical feasibility of these options in
detail. This step is crucial because it helps us identify
those that can be implemented effectively in the real
world, as well as those that may be theoretically
feasible but difficult to apply in practice. In order to
more comprehensively verify the effectiveness of the
stress influence schemes of different double-barrelled
turbine head cover and retainer ring connection bolts,
we must com pis several different levels of stress
influence schemes of double flange turbine head
cover and stay ring connection bolts. These options
must be rigorously selected and compared to ensure
that they cover design strategies from basic to
advanced. In this way, we can create a more detailed
comparison framework, as shown in the table below
(Table I.), which details the features, advantages, and
performance of each design solution under different
conditions, so that we can make the most reasonable
choice accordingly.
Table 1: Subject-related parameters of the study
Category Rando
m data
Reliabili
t
y
Analys
is rate
Compatibil
it
y
Double
flange
connecti
on
87.53 90.95 92.44 90.99
Bending
moment
estimatio
n
91.29 92.09 91.24 91.04
Strength
verificati
on
92.38 88.34 90.13 89.92
Stability
verificati
on
89.64 89.61 85.24 86.59
Mean 92.55 93.10 93.28 86.54
X6 89.99 88.43 89.79 90.09
3.3 Stress Influence and Stability of
Bolts Connecting Double Flange
Turbine Head Cover and Stay Ring
The stability of the stress effects of the bolts on the
double fanged turbine head cover and the stay ring
connection is a key factor in ensuring the long-term
effective operation of the system and providing
reliable service. A stable stress-affected system is
able to consistently deliver high-quality search results
in the face of varying search loads, changes in user
behavior, and data updates, without drastic
performance degradation or service interruption due
to external changes.
Stability Affects Several aspects of the stress of
the bolts connecting the double flange turbine head
cover and the stay ring include: The stress of the bolts
connecting the double flange turbine head cover and
the stay ring affects the robustness of the system
architecture: A strong system architecture is the basis
for ensuring stability. This typically involves
redundant design, fault-tolerant mechanisms, and
highly available hardwired and softwoods resources
to prevent a single point of failure that could lead to
the collapse of the entire system. Stress on bolts
connecting double fanged turbine head cover to stay
ring affects the accuracy of data processing: Stress
effects systems need to process and analyze data
accurately to ensure reliable search results. This
requires the algorithm logic to be able to handle a
variety of boundary conditions and anomalies, and to
maintain consistency in the results when the data is
updated or the structure changes. The stress of the
bolts connecting the double fanged turbine head cover
and the retainer ring affects the consistency of the
search efficiency: the efficiency of the system should
be consistent when handling searches of all sizes.
Whether it's a small amount of data searching or a
large batch of data processing, the system should
provide stable response times to avoid performance
degradation under high loads. Stress on bolts
connecting double flange turbine head cover and stay
ring affects anti-interference ability: A stable stress
influence system should be able to adapt to the
influence of external interference factors such as
network fluctuations and system load changes to
avoid service interruption or failure. Stress on the
bolts connecting the double fanged turbine head cover
and the retainer ring affects the scalability and
adaptability: as resources increase and technology
evolves, the system should be able to flexibly expand
and adapt to new search needs and data types to
ensure a stable service delivery.
Achieving stress affecting the stability of the
system typically requires the following strategies:
Stress on the bolts connecting the double flange
turbine head cover and the stat ring affects continuous
performance monitoring: real-time monitoring of
system performance and user behavior in order to
identify potential problems and make adjustments in
time. The stress of the bolts connecting the double
flange turbine head cover and the stay ring affects the
load balancing: the reasonable distribution of system
resources and search for load can improve the
compressive ability and stability of the system. Stress
on the bolts connecting the double flange turbine head
cover and the stay ring affects the regular
maintenance and update: the system is regularly
An Image Recognition Algorithm for Estimating the Influence of Bending Moment on the Stress of the Bolts Connecting the Double Flange
Turbine Head Cover and the Stay Ring
217
maintained and updated to fix known problems and
enhance the stability of the system. Optimization
algorithm and data structure of bolt stress influence
of double flange turbine head cover and stay ring
connection: Optimize the underlying algorithm and
data structure to improve the computing efficiency of
the system and the ability to stably handle a large
number of concurrent searches. Stress effects on the
bolts connecting the double flanged turbine head
cover and stay ring create a detailed disaster recovery
plan to ensure that the system can recover quickly
after a major failure. The stress of the bolts
connecting the double flange turbine head cover and
the stay ring affects user feedback and system
iteration: actively collect user feedback, continuously
iterate and update the system, and improve stability
and satisfaction. Through these measures, the stress
effect of the bolts connecting the double fanged
turbine head cover and the stay ring is intended to
create a stable service platform that can adapt to real-
world needs and respond quickly to future changes.
In order to verify the accuracy of the image
recognition algorithm, the stress influence scheme of
the bolts connecting the double flange turbine head
cover and the stay ring is compared with the divide
and conquer algorithm, and the stress influence
scheme of the bolts connecting the double flange
turbine head cover and the stay ring is shown in
Figure 3.
Figure 2: Effect of stress on bolts connecting double flange
turbine head cover and fixing ring with different algorithms
By looking at the comparison of the data and the
graph in Figure 2, we can clearly see that the image
recognition algorithm surpasses the divide and
conquer algorithm in the execution of the stress effect
of the bolts connecting the double flange turbine head
cover and the stay ring, and its error rate is relatively
low. This low error rate points to an important
conclusion, that is, the image recognition algorithm is
applied to the stress effect of the bolts connecting the
double flange turbine head cover and the stay ring,
which brings a relatively stable and reliable
performance. On the contrary, although the divide
and conquer algorithm also has its application in the
stress influence of the bolts connecting the double
flange turbine head cover and the stay ring, the results
fluctuate greatly, resulting in the inconsistency of the
overall performance. This fluctuation may be due to
the limitations and challenges that divide and conquer
algorithms may face when dealing with complex and
variable stress-affected tasks. In other words, the
divide and conquer algorithm shows an uneven effect
in the stress effect of the bolts connecting the double
flange turbine head cover and the stay ring, which
reduces its application value and reliability in this
regard to a certain extent. In summary, the stability
and low error rate of the image recognition algorithm
show its superiority in the field of stress influence of
bolts connecting double flange turbine head cover and
stay ring, while the divide and conquer algorithm
shows limitations in such applications. Therefore,
when seeking a high-efficiency and stable dual-flange
turbine head cover and stay ring connection bolt
stress influence scheme, the image recognition
algorithm may be a more reasonable choice.
Figure 3: Effect of bolt stress on double flange turbine head
cover and fixing ring connection of image recognition
algorithm
Figure 3 shows the experimental results of using
the image recognition algorithm to obtain better
performance than the divide and conquer algorithm in
the stress effect of the bolts connecting the double
flange turbine head cover and the stay ring. There
may be several key factors that make image
recognition algorithms perform well: Introduction of
adjustment coefficients: In the simulation of stress-
INCOFT 2025 - International Conference on Futuristic Technology
218
influenced processes, image recognition algorithms
may introduce adjustment coefficients to adjust the
parameters in the simulation process in more detail.
These coefficients may be closely related to the
specific operating conditions or reactor design in the
lab, allowing the algorithm to more accurately reflect
and optimize real-world processes. Threshold setting
and scheme filtering: By setting thresholds for
acquired Internet information, an image recognition
algorithm may retain only those that meet the set
criteria among multiple candidates. This means that
the algorithm is able to automatically reject
simulation results that may be based on
misinformation or unreliable data, ensuring the
quality of the optimization process. Balance between
exploration and utilization of swarm algorithm: It
maintains a good balance between exploring and
finding new solutions and optimizing known
solutions by exploiting them. This allows the
algorithm to avoid premature convergence to the local
optimal solution while maintaining efficient
optimization, and to explore a wider solution space.
On the other hand, the poor performance of divide
and conquer algorithms in this context may be related
to some of their inherent limitations: Over fitting:
Decision trees may tend to complicate and, in some
cases, over fit the training data, resulting in
insufficient generalization capabilities for new data.
Select the local optimal solution: The decision tree is
split at each node only considering the local optimal
attributes, which may not capture the global optimal
parameter configuration of the complex stress
influence process.
The image recognition algorithm searches and
optimizes multiple solutions in parallel, and
continuously uses the information sharing among
group members to guide the search process, so it can
find the global optimal or approximate global optimal
solution compared with a single divide and conquer
algorithm when dealing with the complex stress
influence scenario of the bolt connection between the
double-flange turbine head cover and the stay ring.
The robustness and adaptability of this algorithm
make it an indispensable tool in fields such as
bioengineering and industrial process optimization.
It is evident from Figure 4 that the stress effect of
the bolts connecting the double-barrelled turbine head
cover and the fixing ring using the image recognition
algorithm far exceeds the design with the divide and
conquer algorithm in terms of performance. This
significant gap is mainly due to the fact that the image
recognition algorithm introduces a special adjustment
factor in the process of stress influence of
Table 2: Rationalization and comparison of the stress
influence of double flange turbine head cover and stay ring
connection bolts of different methods
Algorith
m
Adjustme
nt factor
Thresho
ld
settings
Scenari
o
screenin
g
Explor
e
Image
recogniti
on
algorithm
s
87.56 89.74 88.66 89.58
Divide
and
conquer
algorith
m
89.74 84.39 86.50 87.23
P 86.94 90.06 89.86 87.66
X 91.62 91.83 91.06 89.88
Figure 4: Comparative study of the research scheme of the
algorithm
the bolts connected to the double flange turbine head
cover and stay ring. The introduction of this
coefficient enhances the flexibility and adaptability of
the algorithm, allowing it to better adjust the strategy
according to different situations. In addition, the
image recognition algorithm sets a specific threshold
for Internet information processing. With this
threshold, the algorithm is able to effectively identify
and exclude stress effects on the bolts of the double
flange turbine head cover and stay ring that do not
meet the predetermined criteria. This intelligent
filtering mechanism makes the image recognition
algorithm more efficient when processing a large
number of candidates, ensuring that only the most
suitable solutions is selected to continue to participate
in the further design and evaluation phases.
Combining these two innovations, namely the
introduction of adjustment coefficients to improve the
control ability of the algorithm, and the setting of
An Image Recognition Algorithm for Estimating the Influence of Bending Moment on the Stress of the Bolts Connecting the Double Flange
Turbine Head Cover and the Stay Ring
219
information thresholds to accurately screen the design
solutions that meet the standards, the image
recognition algorithm makes the stress influence
process of the bolts connecting the double flange
turbine head cover and the stay ring more efficient,
and the output design scheme is more high-quality.
These improvements finally form the core advantage
of the proposed algorithm over the divide and
conquer algorithm in the problem of stress influence
of bolts connecting double flange turbine head cover
and stay ring.
4 CONCLUSIONS
In order to solve the accuracy problem of the stress
influence of the bolts connecting the double flange
turbine head cover and the stay ring, a new
comprehensive optimization scheme was proposed,
which was based on image recognition algorithm and
advanced computer technology. Initially, the security
of information and the credibility of tampering with it
were ensured by using the decentralized
characteristics of image recognition algorithms and
their data consistency assurance. Then, combined
with computer technology, the collected data is
deeply analyzed and processed in detail, so as to dig
out the intrinsic attributes and potential value of the
data. This study also delves into the key performance
indicators required to ensure that the stress effects of
the double flange turbine head cover and stay ring
connection bolts is accurate and credible, and
constructs a comprehensive network information
collection platform that plays a crucial role in
ensuring the accuracy of the research output.
However, it is worth noting that when applying the
image recognition algorithm, it is necessary to be
cautious in the selection of the stress influence
evaluation system of the bolt connecting the double
flange turbine head cover and the stay ring, so as to
effectively explore and use the advantages of the
image recognition algorithm and further improve the
accuracy and practical application value of the
research results.
ACKNOWLEDGEMENTS
The study is supported by: Research on Life
Prediction of Fixed Parts of Pump Turbine Based on
Dynamic-Static Interference, Fluid-Structure
Interaction and Fracture Mechanics - Research on
Pre-tightening Force Control and Failure Mechanism
of Bolted Connections of Pumped Storage Units
(204002019030304SY00004).
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