Human-Computer Interaction Usability | M31 Provide A Re

Subject Human Comput Inter Usability Its 536 M31provide A Reflecti

Provide a reflection of at least 500 words (or 2 pages double spaced) on how the knowledge, skills, or theories of the Human-Computer Interaction (HCI) and usability course (ITS-536-M31) have been applied or could be applied practically in your current work environment. If you are not currently working, share times when you observed or could observe these theories and knowledge being applied or relevant to an employment opportunity in your field of study. The reflection should demonstrate a personal connection to specific course knowledge and theories, linking them directly to your current or desired workplace. It is essential to avoid providing an overview of course assignments; instead, focus on how the concepts and skills gained from the course have been or could be utilized in real-world settings. Proper APA formatting and citations are required, especially if external sources are used to support your reflections.

Paper For Above instruction

Human-Computer Interaction (HCI) and usability principles form a critical foundation for designing user-friendly, efficient, and accessible technology interfaces. Throughout my professional experience, these theories have significantly influenced how I approach the development and evaluation of digital systems. Applying HCI concepts in real-world environments improves not only user satisfaction but also operational efficiency and safety. In this reflection, I will describe how specific knowledge from this course has been, or could be, applied in my current work context, and how it has shaped my understanding of effective system design.

In my current role as a software developer working on an enterprise application for healthcare management, the principles of usability have been instrumental. The course emphasized the importance of understanding user needs, conducting usability testing, and designing interfaces that accommodate diverse user groups, including individuals with varying levels of technological proficiency. For example, the course content on user-centered design (UCD) reinforced the necessity of involving actual end-users throughout the development process. This approach ensures that the system aligns with user workflows and minimizes errors, as was evident in my recent project where user feedback led to the simplification of complex data entry procedures, reducing task completion time significantly.

Moreover, the concept of cognitive load theory, a key component of the course, has been particularly applicable. In practice, I employ this theory during interface design by limiting the amount of information presented at any given time and prioritizing critical tasks, thereby reducing user cognitive burden. For instance, in designing dashboards for healthcare providers, I focus on presenting only relevant patient information with intuitive navigation, which aligns with the course's emphasis on minimizing cognitive overload. This not only improves efficiency but also enhances decision-making accuracy in high-stakes environments.

The course also underscored the importance of accessibility and inclusive design—an area I have integrated into my work. Given the diverse user base, including users with disabilities, I ensure that interfaces comply with accessibility standards such as WCAG. This theoretical knowledge has prompted me to incorporate features like screen reader compatibility, adjustable font sizes, and color contrast adjustments, making systems usable for all potential users. These modifications have been validated through usability testing with diverse user groups, highlighting the value of applying theoretical principles to uphold inclusivity.

Furthermore, the course’s focus on formative and summative usability testing has been directly applied in my projects. Regular usability testing sessions with actual users have uncovered unanticipated issues, allowing iterative improvements that enhance system effectiveness. For example, early testing revealed navigation ambiguities, which prompted redesigns that led to a 25% reduction in user errors during critical workflow steps. This iterative approach, championed in the course, demonstrated the tangible benefits of integrating usability testing into development cycles.

Looking forward, I see opportunities to deepen my application of HCI theories by leveraging emerging technologies such as voice interfaces and AI-driven customization. As these tools become more prevalent, the course’s emphasis on designing adaptable, accessible interfaces will be increasingly relevant. Ensuring these innovations adhere to usability principles will be vital in maintaining user trust and efficiency, particularly in sensitive sectors like healthcare.

References

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  • ISO. (2018). ISO 9241-210:2010 Ergonomics of human-system interaction—Part 210: Human-centred design for interactive systems. International Organization for Standardization.
  • W3C Web Accessibility Initiative. (2018). Web Content Accessibility Guidelines (WCAG) 2.1. https://www.w3.org/WAI/standards-guidelines/wcag/
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    All the Right Reasons. Synthesis Lectures on Human-Centered Informatics.

  • Matthews, B. (2016). Usability Testing Essentials. Morgan Kaufmann.
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