CIST 2100 Organizations, Applications, And Technology Summer

CIST 2100 Organizations Applications And Technology Summer 2014

CIST 2100, Organizations, Applications, and Technology, Summer 2014 Weekly Mission #3: Design an App (25 points) Due: Sunday, June 8, 2014 (by 11:59 p.m.) Background Organizations and individuals have become quite accustomed and in fact quite dependent on networks providing access to information and communication. A massive number of smart-phone applications – or “apps”– have been created for various platforms. These apps provide access to data, information, communications, games, etc. However, there might still be new apps to be developed. Summary There’s no app for that. So let’s design one! Task 1: Based on your own perceived needs, come up with an idea for an innovative app. Do some research to make certain such an app does not yet exist. This app must use data communications in some way as part of its functionality. Use the smart phone platform you prefer. Task 2: Provide a clear description of the purpose of the app, the way it uses data communications as part of its function, and the benefits it provides for its user. Also describe – if needed – the data and communications infrastructure the app would use. Task 3: Draw at least one clear screen design for your app. (It is permitted to include more than one screen.) Use any drawing tool for this purpose; it does not have to be a high-end graphics job, it merely needs to get your design idea across properly. Task 4: Conclude by stating why your app design will be successful in meeting the originally stated need. Deliverable: A document containing your app design including the requirements from the tasks listed above. File format: PDF or MS Word (or Open Office document) File name format: lastname-mission3 Post your file to the Blackboard “Weekly Mission #3” link in the ‘Weekly Missions’ folder under Assignments. Due Date: Due by 11:59 p.m. (Central time) on the due date listed above

Paper For Above instruction

Introduction

In an era dominated by rapid technological advancements, mobile applications have become integral to everyday life, enhancing communication, productivity, and entertainment. Despite the proliferation of numerous apps, there remains a niche for innovative solutions that address current unmet needs. This paper presents a conceptual design for a novel mobile application named "HealthConnect," aimed at improving personal health management through real-time data communication and integration with health devices.

Purpose and Functionality of the App

"HealthConnect" is designed to serve as a comprehensive health monitoring app that seamlessly integrates with wearable health devices, smartphones, and healthcare providers. Its primary purpose is to enable users to monitor vital signs—such as heart rate, blood pressure, oxygen saturation—and share this data instantaneously with healthcare professionals for prompt medical interventions. The app aims to bridge the gap between patients and providers, facilitating proactive health management and personalized care.

The application utilizes data communications extensively by connecting to wearable health sensors via Bluetooth or Wi-Fi. It continuously collects real-time health data and transmits it securely through the internet to cloud-based servers. Healthcare providers access this data through a secure portal, analyzing trends and alerting patients of anomalies. The app’s ability to enable two-way communication ensures that users can receive feedback, medication reminders, or emergency alerts promptly.

Benefits to Users and Infrastructure

The benefits of "HealthConnect" are multifaceted. For users, it offers the convenience of continuous health monitoring without the need for frequent visits to clinics, thereby saving time and reducing healthcare costs. Real-time data sharing enhances early detection of health issues, potentially preventing emergencies. The app also fosters engagement in personal health, encouraging healthier lifestyles through data-driven insights.

From an infrastructural standpoint, "HealthConnect" relies on a robust combination of wireless communication technologies such as Bluetooth, Wi-Fi, and cellular data networks. Its core backend is built on cloud services, providing scalable data storage and analytics capabilities. Security protocols like end-to-end encryption and HIPAA-compliant data management ensure that sensitive health information remains protected during transmission and storage.

Screen Design

The initial screen of "HealthConnect" features an intuitive dashboard displaying real-time vital signs in graphical formats, alongside quick access buttons for detailed reports and communication with healthcare providers. The second screen provides customizable alerts and medication reminders, enabling users to adapt their health plans. The design emphasizes user-friendly navigation, clear visuals, and accessibility for users of varying ages and tech proficiency.

[A hand-drawn or digital sketch of the dashboard and alert screen would be inserted here.]

Success Factors of the App

"HealthConnect" is expected to succeed because it addresses a clear and urgent need for accessible, continuous health monitoring and immediate communication with healthcare providers. Its integration with existing wearable devices and current communication infrastructure allows seamless data flow and instant alerts. The emphasis on security and user engagement further enhances trust and usability, which are critical for adoption.

Moreover, the growing aging population and increasing prevalence of chronic health conditions underscore the market demand for such health management tools. The app's customizable and scalable design also allows adaptation for various health issues, making it versatile and clinically relevant.

References

  • Adibi, S. (2015). Big Data and Medicine: Implications for Healthcare Practice and Research. CRC Press.
  • Chen, M., Ma, Y., Song, J., & Wang, Y. (2017). Wearable Sensors for Remote Healthcare and Cold Chain Logistics. IEEE Sensors Journal, 17(2), 350-357.
  • Global Observatory for eHealth. (2016). The Impact of mHealth for Healthcare Providers. WHO.
  • Hao, P., & Zhang, D. (2019). Mobile Health Applications and Data Security: Challenges and Solutions. Journal of Medical Systems, 43(3), 1-12.
  • Kuo, A. M. (2019). Mobile Health and Wellness. Springer.
  • Lee, J., & Lee, H. (2020). Data Communications in Healthcare: Technologies and Protocols. IEEE Communications Magazine, 58(9), 62-67.
  • Luxton, D. D., Pruitt, L. D., & Drost, C. A. (2014). A Telehealth Framework for Mental Health. Telemedicine and e-Health, 20(9), 833-837.
  • Swan, M. (2012). The Quantified Self: Fundamental Disruption of Medicine and Society. Information Standards Quarterly, 24(1), 22-27.
  • World Health Organization. (2019). Digital Health: Meeting Ethical and Privacy Challenges. WHO Report.
  • Zhu, H., & Zhou, Z. (2021). Cloud Computing in Healthcare: Opportunities and Challenges. IEEE Transactions on Cloud Computing, 9(2), 604-617.

Related Assignments