Graduation Project Proposal for Drug Purchase, Sales and Inventory System in Disaster Areas Based on Java+Springboot

 Blogger Introduction : Teacher Huang Juhua, author of the books "Getting Started with Vue.js and Mall Development" and "WeChat Mini Program Mall Development", CSDN blog expert, online education expert, CSDN Diamond Lecturer; focuses on graduation project education and guidance for college students.
All projects are equipped with basic knowledge video courses from entry to mastering, free of charge
The projects are equipped with corresponding development documents, proposal reports, task books, PPT, and papers. Templates, etc.

The project has recorded release and functional operation demonstration videos; the interface and functions of the project can be customized, and installation and operation are included! ! !

If you need to contact me, you can check Teacher Huang Juhua on the CSDN website
You can get the contact information at the end of the article

Design and implementation of drug purchase, sale and inventory system in disaster areas based on Java+Springboot

1. Research background and significance

With the frequent occurrence of natural disasters, the supply and management of medicines in disaster areas has become an important issue. The traditional drug management method in disaster areas has problems such as information asymmetry and low efficiency, and it is difficult to meet the needs of rapid deployment and effective management of drugs in disaster areas. In order to solve these problems, this research aims to design a drug purchase, sale and storage system in disaster areas based on Java+Springboot technology to improve the management efficiency and service quality of drugs in disaster areas. The specific research significance is as follows:

1. Improve the efficiency of drug management in disaster areas: Simplify business processes, reduce management costs, and improve work efficiency by introducing information technology.
2. Optimize the allocation of drug resources: through systematic management, rationally allocate drug resources to avoid resource waste and improve resource utilization.
3. Improve rescue efficiency: By monitoring drug inventory and demand in real time, we can quickly respond to rescue needs and improve rescue efficiency.
4. Promote the informatization development of the pharmaceutical industry: Promote the informatization process of the pharmaceutical industry and improve the level of pharmaceutical services by implementing a drug purchase, sale and inventory system in disaster areas.

2. Research status at home and abroad

At home and abroad, research and practice on drug management systems in disaster areas have achieved certain results. Abroad, some developed countries and international organizations have established similar systems with relatively complete functions and performance. Domestically, with the continuous development of information technology, more and more companies and research institutions have begun to invest in the research and development of drug management systems in disaster areas. However, existing systems still have many shortcomings in terms of functionality, performance, and user experience, making it difficult to meet the actual needs of disaster areas. Therefore, this research aims to design a drug purchase, sale and inventory system in disaster areas based on Java+Springboot to solve the problems and shortcomings of the existing system.

3. Research ideas and methods

This research will adopt the following ideas and methods:

1. Demand analysis: Through market research and interviews, collect the needs and expectations of the disaster area for the drug purchase, sale and inventory system. Specifically, it includes functional requirements, performance requirements, user experience requirements, etc.
2. System design: Based on the Java+Springboot technology framework and MVC design pattern, design the overall architecture, database structure, front-end and back-end functional modules of the system, etc. Specifically, it includes system architecture design, database design, front-end and back-end functional module design, etc.
3. System implementation: Based on the system design, write code, implement front-end and back-end functional modules, and complete system testing. Specifically, it includes the implementation and testing of user login registration, drug information management, purchase, sale and inventory management and other functions.
4. Effect evaluation: Evaluate the actual effect and application value of the system through user feedback, system performance indicators, etc. Specifically, it includes user satisfaction surveys, system performance testing and security assessments, etc.

4. Research content and innovation points

The main contents of this study include:

1. System design and implementation based on Java+Springboot: Take advantage of the Java+Springboot technology framework to improve the performance, stability and scalability of the system. Specifically, it includes using Spring Boot to integrate MyBatis to implement database operations, and using Spring Security to implement user authentication and permission management.
2. Detailed introduction of front-end and back-end functions: Design and implement front-end and back-end functions such as user login and registration, drug information management, purchase, sale and inventory management. Specifically, it includes the design and implementation of user management module, drug information management module, purchase, sale and inventory management module, etc.
3. Research on intelligent recommendation algorithms: By analyzing information such as drug demand and inventory status in disaster areas, we research and implement intelligent recommendation algorithms to recommend appropriate drug suppliers and deployment plans for disaster areas.
4. Mobile terminal adaptation and responsive design: Through mobile terminal adaptation technology and responsive design ideas, the system can achieve good operation and display effects on PC and mobile terminals.
5. Security strategies and protective measures: Use encryption algorithms and security authentication mechanisms to ensure the security of system data and the legitimacy of user identities. Specifically, it includes using HTTPS protocol for data transmission and using MD5 encryption algorithm to encrypt sensitive data.

The innovation points are as follows:

1. Intelligent recommendation based on big data and artificial intelligence: By analyzing historical drug demand and inventory status in disaster areas, machine learning algorithms are used to predict possible future drug demand and automatically make recommendations;
2. Real-time monitoring and intelligent early warning mechanism: Real-time monitoring of drug inventory, validity period, etc. When an abnormal or dangerous situation occurs, the system automatically sends an early warning to prompt the administrator to intervene;
3. Diversified user roles and permissions management: In addition to traditional administrator and user roles, it also supports multiple roles such as rescue teams and volunteers, and assigns corresponding permissions and functions to different roles;
4. Electronic drug information and traceability: Supports electronic drug information entry and query. Patients can view drug information anytime and anywhere. The system supports traceability of drug information to ensure the legality and safety of drug sources;
5. Social interaction platform: Build an interactive platform between patients, doctors, and rescue teams. Patients can initiate consultations and doctors can respond to promote communication and cooperation between the two parties.

5. Detailed introduction of front and back functions

The front-end functions include: user login and registration, personal information maintenance, drug information inquiry and purchase, etc.; the back-end functions include: administrator login, user management, drug information management, purchase, sale and inventory management, etc. The specific functions are introduced as follows:

1. User login registration: supports multiple registration methods and performs real-name authentication; provides password retrieval function to ensure account security; users can register according to their roles (such as patients, doctors, etc.) and obtain corresponding permissions and functions;
2. Personal information maintenance: Users can complete and update their personal information such as contact information, emergency contacts, etc.; at the same time, the system supports multiple language options to meet the needs of users in different countries and regions;
3. Drug information query and purchase: Display detailed information about drugs including drug name, efficacy, price, etc.; support online purchase function, patients can view drug purchase records and track logistics information; also provide drug evaluation function to facilitate other users to understand the quality and effect of drugs;
4. Purchase, sales and inventory management: display the purchase, sales and inventory status of medicines

6. Research ideas, research methods, and feasibility

This research will follow the ideas and methodologies of software engineering and be conducted in accordance with the processes of requirements analysis, system design, system implementation, system testing and optimization. At each stage, in-depth communication and cooperation will be carried out with users and relevant institutions in the disaster area to ensure that the actual needs of the system are met. Specific research methods include literature research, interviews, questionnaires, etc.

In terms of feasibility analysis, this research is technically feasible because Java+Springboot technology has been widely used and verified, and related technologies and tools are relatively mature. Economically, R&D costs can be reduced and benefits improved through independent R&D and cooperative development. In terms of legal and social benefits, this research will comply with relevant laws, regulations and ethical norms, protect user privacy and data security, and improve rescue efficiency and service quality by providing an efficient and convenient drug purchase, sale and inventory management system in disaster areas, and generate positive social benefits.

7. Research progress arrangement

This research will be conducted in the following stages:

1. The first stage (1-3 months): Carry out requirements analysis, system design and technology selection;
2. The second stage (4-6 months): Implement system coding based on design documents and complete unit testing;
3. The third stage (7-9 months): Conduct system integration testing, fix discovered bugs, and optimize the system;
4. The fourth stage (10-12 months): Complete the writing of administrator and user manuals and conduct training; go online and perform continuous maintenance and upgrades. At the end of each stage, corresponding progress reports and research results will be submitted for timely evaluation and adjustment of research directions and methods. At the same time, reasonable adjustments will be made to the schedule according to the actual situation.

8. Thesis (design) writing outline

1. Introduction: Explain the background and significance of the research, and introduce the research status and development trends of the drug purchase, sale and inventory management system in disaster areas;
2. System requirements analysis: Detailed analysis of the needs and expectations of the drug purchase, sale and inventory management system in the disaster area, including functional requirements, performance requirements, etc.;
3. System design: Introducing the overall system architecture, database design, front-end and back-end functional module design based on Java+Springboot;
4. System implementation: Describe the specific implementation process of the system, including the application of key technologies and implementation difficulties;
5. System testing and optimization: introduce system testing methods, test results, and system optimization strategies;
6. System application and effect evaluation: display the actual application effect of the system, including user feedback, system performance indicators, etc., and evaluate the effect of the system;
7. Conclusion and outlook: Summarize the main work and results of this study, and propose prospects and improvement directions for future work;
8. Appendix: including system design documents, database table structure diagrams, code implementation fragments, test reports, etc.

9. Main references

[List relevant references here]

Through the above design and implementation of the drug purchase, sale and inventory management system in disaster areas based on Java+Springboot, it can better meet the actual needs of disaster areas and improve rescue efficiency and service quality. At the same time, this research also provides useful reference and reference value for the design and implementation of similar systems. It is hoped that this research can make a certain contribution to future drug management in disaster areas and promote the informatization development of the pharmaceutical industry.

---

1. Question background and significance

Disasters are ruthless and will cause huge losses to people once they occur. In the face of natural or man-made disasters, the supply, storage, and distribution of medicines are crucial. Therefore, when a disaster occurs, the role of the drug purchase, sale and inventory management system is particularly important. It can realize functions such as rapid drug procurement, supply, inventory management and drug circulation, and improve the efficiency and quality of drug management in disaster areas.

This article is based on the Java language, uses the Springboot framework, and combines with the MySQL database to design a drug purchase, sale and inventory system for disaster areas, aiming to provide a complete drug management plan for the disaster area and improve the quality and efficiency of drug management.

1. Research content and objectives

This article plans to design a drug purchase, sale and inventory management system in disaster areas based on Java+Springboot, which mainly includes the following contents:

(1) Demand analysis

By investigating the current status of drug management in disaster areas, the functional requirements of the system were determined, including drug information management, drug procurement management, warehousing management, sales management, inventory management, etc.

(2) System design

Based on the requirements analysis results, design the system structure, module division, database design, etc.

(3) System implementation

System implementation is mainly implemented using Java language and Springboot framework, including front-end page design and back-end logic implementation.

(4) System test

Conduct functional testing and performance testing on the system to ensure system stability and reliability.

Expected goals:

(1) Design and implement a stable and efficient drug purchase, sale and inventory management system in disaster areas.

(2) Improve the efficiency and quality of drug management and provide better drug management services to disaster areas.

1. Research methods

(1) Demand analysis: Use interviews, questionnaires, observations and other methods to obtain the needs for drug management in disaster areas.

(2) System design: Use object-oriented design methods to divide the system into modules, determine the relationship between each module, and design the database.

(3) System implementation: Use Java language and Springboot framework to implement the front-end and back-end functions of the system, write test cases, and test the system.

1. Expected results

This article is expected to design and implement a stable and efficient drug purchase, sale and inventory management system in disaster areas, improve the efficiency and quality of drug management, and provide better drug management services to disaster areas. The results of this article can be used as reference for relevant industry personnel.