Construction of Management System Based on Cloud Technology
Lin Shao
School of Media & Communication, Wuhan Textile University, Wuhan, Hubei, 430073, China
Keywords: Cloud Technology, Construction, Management System.
Abstract: This article explores the construction of a management system based on cloud computing technology. With
the rapid development of cloud computing technology, enterprises and organizations are increasingly relying
on cloud services to optimize their business processes and improve efficiency. This article first analyzes the
characteristics and advantages of cloud computing technology, such as flexibility, scalability, and cost-
effectiveness. Then, a cloud based management system architecture was proposed, which includes three
levels: cloud infrastructure, cloud platform, and cloud application. Next, the core functions of the management
system, such as data management, user management, and system monitoring, were introduced in detail, and
how to utilize cloud computing technology to achieve these functions was discussed. Finally, this article
discusses the implementation challenges and future development directions of cloud based management
systems. Experiments and practical application cases have shown that cloud based management systems can
significantly improve the operational efficiency of enterprises, reduce costs, and improve data security and
reliability.
1 INTRODUCTION
In the environment of information technology
development, the application of information
technology in experimental teaching has received
more and more attention. Experimental teaching is an
important practical link in talent training in colleges
and universities. It plays an indispensable role in the
cultivation of students' ability (Feng, 2017).
University laboratories are divided into basic
laboratories and professional laboratories, most of
which are set up according to their specialties for
practical teaching of each specialty (Zhao and Liu, et
al. 2019). At present, many colleges and universities
have formed disciplines with multiple development
directions, such as computer network, computer
communication, computer software, multimedia
technology, etc., and the laboratories and equipment
required in all directions have been completed (Yu
and Dong et al. 2017). The management of
laboratories plays an indispensable role in
experimental teaching in universities all over the
world (Cui, 2018). The open laboratory management
pays more attention to openness and can be flexibly
applied to experimental teaching. With the open
laboratory management system, students can make an
online reservation for the experimental platform,
conduct experiments at the corresponding time, and
automatically turn on the corresponding power
supply of the experimental platform by swiping the
student card (Jing-Bin and Duan, 2019). The reform
of laboratory management in colleges and
universities has not fundamentally solved the
problem of laboratory management in experimental
teaching. Laboratory equipment management,
computer room management, student experiment
management and the opening mode of the laboratory
have not been fundamentally improved (Yan, 2018).
Each computer in the laboratory is equipped with
a host, which greatly increases the construction cost
of the laboratory. The equipment consumes a lot of
power, causing waste of resources. When faced with
the mutual infection of viruses within the LAN, the
upgrading and maintenance of the operating system,
and the updating of teaching applications, it takes a
lot of time to rebuild the experimental teaching
environment, which often affects the normal
experimental teaching (Zhang and Zhou, et al. 2018).
In addition, the data of students' computer
experiments can not be stored on the machine, but can
only be stored by themselves through mobile storage
devices, which will infect the machines in the
laboratory and burden the later maintenance and use
(Zhu and Wei, et al. 2017). These problems have
seriously affected the development of the laboratory.
We should change our concept, establish a modern
Shao, L.
Construction of Management System Based on Cloud Technology.
DOI: 10.5220/0013551100004664
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 563-568
ISBN: 978-989-758-763-4
Proceedings Copyright © 2025 by SCITEPRESS Science and Technology Publications, Lda.
563
teaching and research laboratory that is compatible
with the past, based on the modern, and oriented to
the future, so that today's experimental equipment and
means can adapt to the rapidly changing era and
constantly improving technology (Huang and Quan,
et al. 2019). Throughout the development process of
instruments, equipment and experimental technology,
we can use less money, less experimental system
development and maintenance costs, and less time to
achieve the experimental environment required for a
variety of experiments. Each new major needs to
build a corresponding professional laboratory. In
addition, the old professional laboratory needs to be
constantly updated and transformed, which leads to
the increasing task of professional laboratory
construction in colleges and universities, and more
and more problems need to be studied and discussed
(Yujia and Zhang, et al. 2019). Based on cloud
technology, this paper further studies the construction
of university laboratory and management system.
2 CLOUD TECHNOLOGY
THEORY
Cloud technology is a usage mode of IT resources. It
is a technology that provides ubiquitous, convenient
and on-demand network access to shared and
configurable computing resources. The use and
release of resources can be carried out quickly
without much management cost. Cloud computing is
a mode that can acquire computing resources and
improve their usability in a convenient and on-
demand way through the network. These resources
come from a shared and configurable resource pool,
and can acquire and release resources in a simple and
unattended way. At present, there are many
explanations and definitions of cloud computing in
the network. It can be understood as a commercial
product of the comprehensive development of
distributed computing, parallel processing and grid
computing. It is an abstract method to represent
computer resources. Through virtualization, the
abstract resources can be accessed in the same way as
the pre-abstract resources, thus reducing the operating
cost. High flexibility and automation, service creation,
resource allocation, service configuration, service
online and service start-up, service stop, service
offline, service configuration deletion and resource
recovery, and dynamic management of service life
cycle. A common abstract interface set can be
provided for a group of similar resources, thus hiding
the differences between attributes and operations, and
allowing resources to be viewed and maintained in a
common way, including server virtualization, storage
virtualization, application virtualization, platform
virtualization, desktop virtualization.
The primary value of cloud computing is mainly
manifested in scale expansion, resource sharing can
greatly reduce the unit cost of operation and increase
the number of users; Service sharing can reduce the
cost paid by users, bridge between users and services,
and rapidly increase the number of shared services
and resources, resulting in the multiplier effect of
economic scale. Use virtualization technology to
build virtual resource pool, shield specific hardware
architecture and diversified software system
platforms, dynamically allocate resources according
to users' needs, and monitor the allocation of
resources in real time through management software.
3 SYSTEM DESIGN
REQUIREMENTS AND MAIN
ARCHITECTURE
3.1 System Functional Architecture
Design
University laboratories are important bases for
experimental teaching, training high-level talents,
conducting scientific research and serving the society.
The specialized laboratory is an indispensable part of
the teaching process, which plays an irreplaceable
role in teaching theoretical knowledge in the
classroom. With the development of cloud computing
and virtualization technology, virtualization has been
used in various production environments. For this
reason, the laboratory is built by building a virtual
cloud platform to provide students with a learning and
research and development environment. Using cloud
computing platform to build university laboratories
can provide an ideal solution, reduce the investment
in computer software technology and hardware
equipment updating, reduce the investment in
laboratory personnel maintenance and training, save
time, and reuse abandoned equipment. The concept of
distributed storage and server virtualization is
adopted to organically integrate cloud computing
technology with the software and hardware resource
system of laboratory management in conventional
colleges and universities, and build a high-speed
cloud platform architecture for laboratory
management. Specifically, the core architecture of the
system consists of three parts, namely: infrastructure
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layer, management communication layer and
application interaction layer, as shown in Fig. 1.
Figure 1: Architecture diagram of laboratory management
system
The infrastructure layer is built with cloud
computing virtual technology as the core, and the
Linux operating system is used to design the virtual
infrastructure server cluster of the laboratory.
Compared with the traditional way, the cost of
software laboratory using cloud computing platform
will save 3/4 of the investment. In the later stage, if
the computer laboratory wants to expand the
hardware or update the software. The communication
layer uses Hadoop to build a cloud environment, and
HDFS to design files, information and data to access
the distributed system, which greatly improves the
access throughput and speed of laboratory
management information. The laboratory of cloud
computing platform only needs to consider expanding
the hardware equipment on the cloud terminal server
and updating the software of the cloud terminal. The
application interaction layer builds the application
interaction layer based on Hadoop cloud environment
to realize the cloud sharing of laboratory management
information. In order to improve the application
experience of administrators, teachers and students,
the traditional method needs to consider the hardware
update and software update of each computer, so that
the cost invested will far exceed the cost of adopting
cloud computing platform. Web browser is used to
design the access interface, which is simple and easy
to operate.
3.2 Overview of System Functions
The laboratory management system adopts two
modes, and the open laboratory management system
website adopts B/S mode; The client swiping and
management of the laboratory site adopts the C/S
mode. Students can book experiments, manage
reservation information, view experiment records and
experiment scores through the browser. On the client
side, students can turn on the power supply of the
reserved experimental platform at the corresponding
time by swiping their cards, and students can perform
corresponding experiment operations. Under the
traditional mode, university laboratory management
systems are usually designed based on B/S
architecture. Most of them can only achieve the
management effect within the LAN, and the data
storage and reading speed is slow. With the
continuous expansion of domestic university
laboratories, there are more and more laboratory data
and projects to be managed. The traditional
laboratory management system is difficult to adapt to
the diversified management requirements under the
new situation. By designing the circuit, the wireless
module and the server interact with each other to
control the relay of the circuit, so as to control the
circuit of the experimental platform. The client
system connects to the virtual machine through the
protocol to obtain the corresponding cloud desktop.
Through the characteristics of the school
laboratory and the design and arrangement of the
curriculum, we fully set the open model of the
laboratory to achieve an open laboratory management
system. Then, on the basis of fully demonstrating the
feasibility and necessity of the construction of the
professional laboratory, defining the purpose, main
technical indicators, workload, investment benefits of
the instrument, and implementing water, electricity,
environmental protection, installation conditions,
housing, personnel, funds, etc. item by item, we will
concentrate funds to build key laboratories with high-
end instruments and equipment. Students can make
an online reservation for the experimental platform
according to their spare time, connect the open
laboratory management system through the browser,
and select the corresponding laboratory platform and
corresponding time period. In the laboratory site, the
corresponding power supply of the test bench can be
turned on by swiping the card. As shown in Fig. 2,
student appointment flow chart.
Construction of Management System Based on Cloud Technology
565
Figure 2: Flow chart of student appointment
The server generates a large number of virtual
desktops through virtualization technology, and uses
the remote desktop display protocol to send desktops
to terminal devices through the network.
Administrators can access the service management
platform through IE browser to manage and maintain
the server cluster and all virtual desktops, thus
realizing centralized management of desktop
environment, zero maintenance of terminals and
flexible allocation of hardware resources. The design
of this system is based on the above functional
requirements. On the basis of realizing the functions
of system user information management, laboratory
course information management, discipline
construction management and experimental project
management, it is introduced into cloud computing to
improve the speed of system management
information management and file storage capacity.
4 REALIZATION OF
LABORATORY MANAGEMENT
SYSTEM
4.1 System Function Design
Through the construction of the cloud technology
comprehensive laboratory, we can make full use of
the existing software and hardware resources of the
experimental teaching computer from the design, use
cloud computing technology, expand and extend the
use of existing computer resources, and meet the
requirements of realizing the originally unattainable
computer experimental teaching functions under the
existing equipment. This system has four functions:
user information management, laboratory curriculum
information management, discipline construction
management and experimental project management.
First, user information management. The "resource
pool" is used to organize and manage resources such
as CPU, memory, disk, etc. The resources in this
resource pool can be shared in the same resource pool.
The administrator can flexibly configure the
resources in the resource pool according to the
resource requirements of the end user, thereby greatly
reducing idle resources and improving resource
utilization. In view of the large number of
experimental course teaching video, audio, PPT, e-
books and other document resources in the
experimental center, the system uses cloud
technology to build a distributed file system, improve
the system data storage capacity, and make full use of
the computer software and hardware resources in the
experimental center. The cloud platform tool uses
CloudSIM, and the cloud node server is implemented
by 34 hosts in the experimental center machine room.
The node configuration is shown in Table 1.
Table 1: Node Configuration of System Background Cloud
Platform
Host No Node Name IP address
#1 Master standby
node
196.128.0.36
#2 Master node 196.128.0.37
#3 DataNode 196.128.0.38
#4 Logic logical
node
196.128.0.39
In the application, the system searches according
to the name, number and key words of the
experimental teaching resource file saved in the
database, and the main node of the Cloud SIM Cloud
platform is responsible for the function scheduling of
data reading of the distributed file system. In the
design, the course collection and available laboratory
resources are defined in the form of linked lists. The
node definition of each linked list is as follows:
()
YNTClassNode ,,=
(1
)
()
ATYLibNode ,,
1
=
(2
)
Where
Node
indicates unmatched courses,
1
Node
indicates available laboratories at each
teaching time point, and
Y
and
T
in formulas (1)
and (2) respectively indicate the types of
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experimental courses and laboratories and teaching
time points.
Server resources can be dynamically allocated by
the administrator of the computer room. When idle
terminals appear, dedicated virtual desktops can be
allocated to other end users. Realize remote cloud
management of laboratory course information,
including: remote cloud course selection, adding and
modifying course information, asking for resumption
of leave, etc. Thirdly, discipline construction
management. It has realized the project construction
management of laboratory practice courses, including
discipline construction and development
management, experimental paper management,
experimental discipline conference management, etc.
4.2 Analysis of Experimental Data
In the process of laboratory management, we should
actively apply cloud technology and build a more
scientific and reasonable laboratory model, so as to
better serve the experimental teaching and practical
teaching. There are some hidden dangers in the
security of the virtual terminal configured by the
cloud platform. We can configure several network
segments separately in the campus intranet and set the
access mode, so that the external network can't access
the terminal and server of the cloud platform, but can
only access it in the campus, thus obtaining certain
security. Compared with the traditional laboratory
management system, the biggest advantage of the
university laboratory management system based on
cloud computing technology is that the reading and
writing rate of large-capacity data is faster, and the
storage throughput is larger. In order to test the
performance of the designed system, a targeted
laboratory data upload and download test was
Figure 3: Comparison of reading and writing data test speed
Figure 4: Comparison of test accuracy of reading and
writing data
conducted, and the test chart shown in Fig. 3 was
obtained. The test chart of data reading and writing
test accuracy is shown in Fig. 4.
From the experimental data in Figure 3, it can be
found that the system in this paper has a faster
read/write rate for cluster high-capacity data, while
the data in traditional systems has a slower read/write
rate, indicating that the laboratory information
storage management system designed based on cloud
computing technology has more speed advantages for
the read/write storage of massive data. Through the
analysis of the experimental data in Figure 3, it can
be found that the accuracy of the system designed in
this paper is higher than that of the traditional system,
and the highest accuracy of the system designed in
this paper can reach 90.08%. The highest accuracy of
the traditional system is only 61.23%. From the above
experimental data, it can be found that the system
designed in this paper is generally higher than the
traditional system, whether from the comparison of
the test speed of read and write data or the comparison
of the accuracy of read and write data.
The system in this paper provides more
experimental needs for college students and teachers.
The target users of the system include the
administrators of the experimental center, teachers of
experimental courses, etc. The administrators of the
experimental center mainly use the laboratory
equipment and consumables management of the
system, as well as the upload and maintenance of
experimental teaching resources; Teachers mainly
use the system's laboratory appointment,
experimental teaching resources retrieval and
application functions. At the same time, it also
provides a new way for the rational application and
Construction of Management System Based on Cloud Technology
567
efficient management of laboratories. For example,
when students have experimental needs, they can
directly book laboratories online, thus ensuring that
students can also carry out experimental activities in
their spare time. The management process of
experiments has also changed from the traditional
timing and fixed-point to more flexible experimental
management.
5 CONCLUSIONS
Under the current situation of rapid development of
cloud technology, colleges and universities should
combine the reality to cultivate cloud technology
talents suitable for social needs. In order to make
students adapt to the actual development needs of
cloud technology and be familiar with the future
working environment, the laboratory management
system designed in this paper is based on the actual
needs of computer experiment centers in colleges and
universities. The school computer room and
laboratory management system based on cloud
computing technology is not only rich in functions,
but also interactive, which can provide personalized
services for teachers and students and improve the
utilization rate of laboratory resources. In view of the
large demand for storage capacity of experimental
teaching resources, cloud technology is chosen to be
stored in distributed file system. Cloud technology
comprehensive laboratory should build a simulation
application environment, emphasize the application
of key technologies, and build a team development
environment to cultivate students' team spirit and
software architecture development ability. Provide
information support for the core work of the
experimental center, and improve the efficiency and
information level of laboratory management. Under
the background of cloud technology, the laboratory of
economics and management has realized the sharing
of experimental resources of economics and
management majors in colleges and universities,
enriched experimental teaching resources and
teaching means, and ensured the sustainable
development of experimental teaching of economics
and management majors. Cloud technology will
eventually easily meet the challenges faced by the
maintenance and management of university
laboratories, give full play to students' initiative and
innovation in the learning process, and cultivate
students' practical ability and innovation ability to the
greatest extent.
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