Keywords
Virtual platform, medical records, management, error rate, patient attendance rate, electronic reporting.
This article is included in the Health Services gateway.
This article is included in the Software and Hardware Engineering gateway.
In today’s world, the abundance of data in many areas of society has increased the need to use efficient technological tools to analyse, accurately and clearly present information. The objective was to develop a virtual platform to increase efficiency in the control of medical records (MR) and reduce errors in the recording of clinical data. To improve the quality of medical care in public health centres.
The research used a methodology that follows a four-stage process for the development of the medical records management software. It started with planning where the user stories and their priority were defined. In the design phase, the system architecture and code structure were developed. Subsequently, in the coding phase, pair programming with incremental implementation was emphasised. Finally, in the testing phase, automatic and manual integration tests were carried out, documented by means of acceptance tests to ensure the quality of the developed software.
The web-based platform has led to a significant increase in the number of patients seen, resulting in significant improvements in resource management at the health centres. In addition, the reduction in the incidence of errors highlights the superior accuracy in recording and tracking medical information, promoting a safer and more efficient care environment for patients.
The main focus of this study is the management of medical records, with the aim of reducing the time spent on registration, ensuring secure access to information, reducing documentation errors and facilitating instant data retrieval through a web-based platform. The results show the effectiveness of this methodology and its positive impact on the management of medical records.
Virtual platform, medical records, management, error rate, patient attendance rate, electronic reporting.
In today’s fast-paced world, the drastic increase in the production of data in various areas of society has created a growing demand for efficient technological tools that facilitate the analysis and presentation of this data in an accurate and understandable manner.1 Web-based technology has changed the way we access information and accomplish tasks. It allows us to do things faster and with greater security on any device.2 These systems, which you can access through web browsers, provide a wide variety of applications and services. These range from managing data to automating processes.3 En este sentido, el desarrollo de sistemas web ha creado nuevas oportunidades para la colaboración y el trabajo en equipo, permitiendo una mayor conectividad y productividad en diversos contextos, tanto a nivel local como global.4 Furthermore, storing and processing vast amounts of data has facilitated knowledgeable, evidence-centered decision-making across various fields, including scientific investigation and data analysis.5 Key advantages of online systems consist of ensuring safety, confidentiality, and equal access to data.6
In this context, technology has greatly affected all areas of our society, including medical practice. To improve health services and provide more efficient and safe medical care, healthcare professionals rely on web-based health record (HHR) systems as an essential tool.7,8 According to Ministerial Resolution No. 214-2018-MINSA, electronic health records (EHRs) are digital records of a patient’s medical history and treatment that include organised and detailed information about the patient’s health.9 These records are electronic and stored on computer systems only accessible to authorized healthcare professionals. This ensures fast and secure management, access, and exchange of medical information.10
Most research has shown that the development of web-based health record (H.R.) management systems has the potential to have a positive impact on the efficiency, accuracy, coordination and safety of health care, which in turn improves the overall quality of health services.11–13 A report by Ref. 14, has highlighted a current issue in the Peruvian healthcare industry due to the insufficient use of Electronic Health Records (EHR). In order to tackle this problem, the “Dr. Phuyu” project proposes to be implemented. “Phuyu” is the Quechua word for “cloud”. This project aims to bring together the medical records of the public and private sectors on a modern and compatible software platform that is completely integrated with the Ministry of Health (MINSA). This will make it easy to manage medical records transparently. Alternatively: On the other hand,15 describes a system for healthcare workers to obtain medical records online via handheld gadgets, removing dependence on desktop or laptop computers. Attaining this goal necessitates the integration of blockchain technology to oversee medical data archival. A sample produced with Hyperledger Composer and security measures regulates medical information’s secrecy and protection. Their article16 shows that Health Information Technology (HIT) has a major role in today’s medicine, giving astonishing advantages in healthcare, like improved access to information and tracking, combining records from different episodes of care, ongoing coordination, clinical decision support and efficient prescriptions. It also17 introduces an Electronic Health Record (EHR) that utilizes a standardized model. This has helped reduce process discrepancies, enhance end results, and pave the way for potential digitization advancements in medical facilities.
However, there is still not enough trustworthy and current proof in the scientific community about using online systems to manage medical records (MR). This shortage includes concerns like interoperability, privacy and security issues, reluctance to change among medical staff, and limitations in technology infrastructure. Further research is required to assess and verify the impact of this tool on health records and real-time decision making. The demand for such systems is because of the growing complexity of medical information, the significance of easing access to clinical data, and the crucial requirement for a centralised and current database that enables comprehensive and effective care.
This research helps to fill the information gap by exploring the advantages and struggles of using a web-based system in a public health centre. It gives important data to enhance medical attention and administrative procedures related to medical records. The goal is to examine how this system can enhance medical record management, improve medical care efficiency, aid decision making based on data, and enhance coordination among health professionals at the health centre.
The aim of this study is to introduce an online system to boost productivity in overseeing patients’ files, thereby enhancing medical assistance quality and optimizing clinical data management at San Juan de la Libertad Health Centre in Bagua Grande, Amazonas, Peru.
In this segment, we provide an in-depth and comprehensive analysis of the strategies used in the development and implementation of our IT tool specifically designed for public health records management.
Materials
The characterisation of our software tool is for public health centres, which led to a correct collection of information and identification of the client’s needs. For the entire development we used a laptop equipped with an Intel(R) Core (TM) i9-12900K processor, 16 (8P+8E) cores up to 5.2 GHz LGA1700 chipset, accompanied by 16GB of 3200 MHz DDR5 RAM and a 1TB SSD M.2 2280 PCIe Gen4x4 NVMe solid state disc.
We opted to use the agile extreme programming (XP) approach, which consists of four structural activities implemented in sequential phases.18 Refer to Figure 1 for a visual representation.
NOTE: Figure 1 illustrates the phases of software development using four central figures with solid fill. In addition, all the rectangular figures with rounded corners provide details of the activities to be carried out in each phase.
Planning phase
All customer requirements were considered during this planning phase, resulting in essential system features. The first feature allows users to access the system and register. Users can choose from three roles: administrator, support user, or client user. The second feature enables user registration in triage, as well as recording diagnoses and care details. The third need allowed making reports, producing medical records and notifying via email or text message (SMS).
Design stage
The best user stories were chosen using a straightforward approach. Also, we made CRC (Class-Responsibility-Collaboration) tasks or cards, which helped us understand the system better. See Table 1 for more details.
Codification phase
The system code is hosted in the following repository.19 The website design was created using HTML and CSS for appearance, and JQuery was used for movement and interaction. Other components like Vanilla JS, Axios, Datatable, Sweet Alert, Ladda, and APIs were included in Json format to deliver the patient history via text message. To ensure the web system operates correctly, we used PHP programming language version 7.2 supported by Codeigniter 8.002 framework. MySQL v.10.0 was used to administer the database.
Test phase
A thorough verification of the system was carried out by running unit tests to identify any bugs in the code and enhance its quality. Acceptance testing was also carried out in conjunction wikth the customer to ensure the application was approved. Figure 2 shows the architectural design of the web system, which provides a comprehensive view of how the system works in relation to all the components involved.
In order to facilitate the use and replication of the project, all resources, including system files and test data, are hosted in the Zenodo.org repository. These resources are available for immediate download without any restrictions.19–21
Figure 3 shows the user interface of the “super administrator”, which displays the web system dashboard, which provides a summarised and visually appealing view of key information related to the medical care of a set of patients. the features displayed on the dashboard are the following: a) Number of medical staff, patients, care, diagnoses and medical records. b) Statistical graph of information on the type of services provided. c) Statistical graph of care information for the last 3 days. d) Number of users with their photos.
Figure 4 illustrates the care process, Figure 5 the triage process and Figure 6 the recording of a new patient’s history. The first step in the care process is to search for the patient by name or surname, which automatically fills in the patient’s first and last name fields on the form. Information is then entered into the relevant fields, such as the type of service, the healthcare professional who will be attending the patient, the amount to be paid and a description of the care to be provided. The patient is then directed to the triage area, where data such as blood pressure, temperature, heart rate, respiratory rate, oxygen saturation, weight and height are recorded. Finally, the assigned medical staff will complete the patient’s medical history according to the symptoms and conditions presented.
Imput
○ Login with a previously assigned user name and password.
○ Access the Surgical module and select the different options according to the procedure: Nursing - Triage - Clinical History.
○ Nursing: Select ‘New’.
○ Triage: Select ‘Pending Triage’ and then ‘Triage’.
○ Clinical History: Select ‘No attention’ and then ‘Attention’.
Output
Care process
Triage process
○ “Triage” and record the patient’s vital signs (temperature, weight, height, blood pressure, etc.).
Clinical history process
Figure 7 shows two alternatives for providing the patient with their medical records. The first alternative is to send it by email, as shown in Figure 8. The second option is to send a text message to the patient’s mobile phone number, as shown in Figure 9. This ensures that the patient receives all information relevant to their medical care in a personalised manner.
Input
• Access the main control panel (dashboard).
• Select the “Surgery” module, then “Medical History”.
• Scroll to the top and select the “With Attention” type.
• Then select the “View” option and click on the tab to the side.
Output
Send email
Send SMS
Daily reports
In Figure 10, the Super Administrator user has the ability to generate a variety of reports related to daily care, daily medical records, diagnoses and service types using various selection criteria such as start and end date and patient name. These reports can be exported in PDF and Excel formats. In addition, the super administrator can carry out the corresponding configurations and operations, and also has access to the exchange rate of the dollar to the Peruvian sol, as well as the general sales tax (IGV), which is 18%.
Input
• Enter the “Reports” module and select the different types of reports: Daily History, Daily Attendance, Diagnoses and Type of Service.
• Select the export format: Excel or pdf “Print”.
Output
Figure 4 shows how dashboards can improve the efficiency, clinical decision-making and quality of care. This tool presents essential information comprehensively, allowing for quick, detailed comprehension and analysis with meaningful implications. The dashboard monitors progress, supports strategic decision-making, identifies and manages risks and enhances productivity. These factors are essential for ensuring an institution’s competitiveness.22 The medical industry clearly illustrates the usefulness of this tool, emphasising its significance in improving processes and making informed decisions. This observation is consistent with the earlier study by Ref. 23, which outlines that dashboards allow for the sharing of important data in a consolidated and visual format, streamlining decision-making. Dashboards are a useful tool for improving clinical interactions as they simplify information, enable the sharing of data, and streamline decision-making processes. This is achieved by visually displaying the transfer of information. Dashboards make the most of data, allowing them to play a significant role in decision-making across several sectors.24 Overall, these findings emphasise the importance of dashboards as vital tools that increase efficiency, aid clinical decision-making and enhance the quality of care, making them valuable resources for healthcare professionals.
The results shown in Figure 5, 6 and 7 stress the significance and advantages of adopting a web-based system for health care registration, triage, and medical records (MR). This system enables healthcare experts to swiftly and centrally retrieve patient information, hence facilitating the production of precise and comprehensive medical documents. This is crucial for ensuring proper medical treatment and enabling efficient clinical decision-making. MR systems can get patient info faster and more precise.25 Digital medical records are a significant upgrade, giving quick access to records and enhancing readability, safety and organisation in medical data management. It shows how different specialities and hospitals can communicate better, acting as a necessary tool to aid primary and hospital care to communicate, solving a major issue with paper records.26,27 The main benefits include effective care, good medical records and smoother, coordinated communication between various medical fields. Moreover28 stresses the need to keep and share patient data with relevant professionals to enhance patient care. These findings demonstrate the benefits of using an online system to store medical records, improving communication between healthcare professionals and ultimately leading to better medical care.
In Figure 8, 9 and 10, it is emphasised that sending patients medical history updates through emails and text (SMS) is an efficient way of communication. These methods aid in conveying medical care information and even allow for tailored prescription sharing, thereby improving patient interaction. Connecting these communication means to the web system is also considered crucial for providing patients with high-quality care. This connection is clear and emphasises the significance of employing these avenues to improve medical attention. It is crucial to stress the trustworthiness of SMS messages, which are direct, accurate, brief, affordable, and permit instant data viewing.29 SMS is known for being fast and reliable, making it useful even in areas with limited coverage. This benefits a wide range of users. Research30 has shown that SMS delivery of information has a significant impact, as it allows for accurate and personalised data transmission. It is an effective strategy for improving communication with patients. These methods offer a cheap, clear, and efficient way of spreading healthcare knowledge. Email has become an essential tool in work and communication procedures, making it easier to exchange information.31 Providing precise digital information can be particularly valuable in teaching patients how to manage their health conditions. Furthermore, email is a cost-efficient and productive method of preserving continuous contact with patients, which is vital in the care of chronic diseases.
Figure 11 demonstrates how the reports produced by the web system, using filters applied by the super administrator, contribute to better daily care. The system offers comprehensive information on the daily care provided, showing how closely the web system performance relates to health professionals’ output. It is clear that more effective reporting leads to improved health worker results. This research agrees with study,32 which found that reports about daily care filtered through a web-based system play a vital part in coordinating medical teams. This tool improves communication and avoids doing the same work twice by showing the actions taken. Using web-based systems in healthcare can boost efficiency, encourage team coordination and, in turn, enhance the quality of care. In addition, it is vital to report medical records on the web nowadays, as stated by Ref. 16. This approach provides valuable advantages to healthcare, including better access to and follow-up of information, integration of records from varying care sessions, continuous coordination, and clinical decision support. This study highlights the significance of reporting in electronic health records, which leads to enhanced medical care and better collaboration among health professionals.
This study has created a web system for managing medical records in a health centre that before relied on paper records. The challenge of modernising patient medical data collection, storage and accessibility in the traditional healthcare environment has been addressed and overcome.
At first, we found issues with the paper-based record system such as inefficiency, trouble accessing and organising information, and the potential for critical data loss. We tackled these challenges by implementing a web-based system which made it easier to manage medical records. This switch to digital also enabled faster access, better readability, and more secure medical information. Ultimately, this transition significantly improved the quality of medical records.
Moreover, the introduction of the internet-enabled programme has eased information exchange and organisation among different healthcare sectors. The capacity to access patient data centrally has streamlined the production of precise and elaborate files, ultimately boosting the effectiveness of medical practitioners. The capacity to access patient data centrally has streamlined the production of precise and elaborate files, ultimately boosting the effectiveness of medical practitioners. What’s more, the seamless cooperation between medical specialities and hospitals has emerged as a primary benefit, surmounting a major weakness of the printed layout.
Finally, experts suggest utilizing state-of-the-art information technologies to enhance research results, for instance by implementing systems that employ artificial intelligence and exploit device connectivity via the Internet of Things (IoT). In addition to this, developing evaluation tools to measure the advantage and disadvantage of applying this new module on the patient practice is crucial.
Zenodo: OliveraBurga/GitHubCentroSaludSJL: Software tool for efficient health record management and improved healthcare delivery, https://doi.org/10.5281/zenodo.10055291. 19
This project contains the following underlying data:
Zenodo: OliveraBurga/BasededatosMySQL: My sql DataBase for Electronic Health Record Management Software Tool, https://doi.org/10.5281/zenodo.10059169. 21
This project contains the following underlying data:
Data are available under the terms of the Creative Commons Zero “No rights reserved” data waiver (CC0 1.0 Public domain dedication).
Source code available from:
○ Software: https://zenodo.org/records/10055291 19
○ Data base: https://zenodo.org/records/10059169 21
Archived source code at time of publication:
○ Software: https://doi.org/10.5281/zenodo.10055291 19
○ Data base: https://doi.org/10.5281/zenodo.10059169 21
License: Creative Commons Zero v1.0 Universal
We are grateful to the health centre in San Juan de la Libertad for their valuable support and assistance during this research. The authors also wish to express their appreciation to Alex Pacheco from the Faculty of Engineering and Architecture at Universidad Cesar Vallejo for his guidance on the methodology for this study.
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Is the rationale for developing the new software tool clearly explained?
Partly
Is the description of the software tool technically sound?
Partly
Are sufficient details of the code, methods and analysis (if applicable) provided to allow replication of the software development and its use by others?
Yes
Is sufficient information provided to allow interpretation of the expected output datasets and any results generated using the tool?
Yes
Are the conclusions about the tool and its performance adequately supported by the findings presented in the article?
Partly
Competing Interests: No competing interests were disclosed.
Alongside their report, reviewers assign a status to the article:
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Version 1 22 Mar 24 |
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Provide sufficient details of any financial or non-financial competing interests to enable users to assess whether your comments might lead a reasonable person to question your impartiality. Consider the following examples, but note that this is not an exhaustive list:
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