Central Station UX
Alarm triage, patient matrix views, patient detail tabs, and real-time monitoring layouts for portrait displays.
Case Study
← Back to portfolioVarious case studies of healthcare UX work spanning patient monitoring, central station workflows, clinical alerting, mobile monitoring, research tools, and analytics concepts.
I worked as a product designer within a highly technical, software-driven environment, contributing across UX, systems thinking, and data strategy to support enterprise-scale clinical monitoring.
The platform integrated wireless medical devices, central monitoring stations, and hospital workflows into a unified, vendor-neutral system. My role extended beyond interface design, operating across product definition, workflow architecture, and data interpretation, collaborating closely with engineers to translate complex system behaviors into usable clinical tools.
A major focus was the central monitoring station, an information-dense interface where clinicians continuously assess patient status, triage alarms, and make time-critical decisions.
Alarm triage, patient matrix views, patient detail tabs, and real-time monitoring layouts for portrait displays.
Assigning patients to rooms, pairing devices, handling alerts, and guiding clinicians through critical steps.
Research tools, device data reporting, alarm analytics, and concepts for more effective surveillance systems.
Beyond screens, I shaped end-to-end workflows that connected clinicians, patients, rooms, and medical devices.
This work emphasized interaction design at the systems level, ensuring reliability, visibility, and trust in environments where mistakes carry real consequences.
Assigning devices from bedside tablet or hub, incorporating wireless devices, pagers and monitors.
Existing systems needed to be evaluated and incorporated into daily workflows.
Smart alarms incorporating parameters from different devices allowed for more sophisticated alarm escalation.
Concept work explored alternate ways to surface alarms, trends, and patient status, including denser patient grids, sparklines, and triage-focused layouts.
Working in this space exposed a broader systems problem: alarm fatigue. Medical devices generate constant alerts, often without sufficient context, leading to cognitive overload for clinicians. I contributed to concept work that reframed alarms as an operational and data problem, exploring:
This involved not only interface design, but service design and informatics, and exploring how data flows across an entire hospital ecosystem.
Large volumes of medical device data needed to be accessible and actionable, and not buried in am EMR.
The challenge was not just visualization, but structuring data into workflows that non-technical users could understand and operate confidently.
Concept development for new product highlighting how operational efficiences could be realized using real-time and aggregated data from dispararte sources.
Website developed to market and sell the proposed informatics solution, showing typicsl reports and sign up for a demo.
Research tools, device data reporting, alarm analytics, and concepts for more effective surveillance systems. This involved offloading large amounts of data to Matlab.
This work contributed to the design and improvement of clinical monitoring systems used in real hospital environments. It supported the integration of multiple medical devices into a unified, vendor-neutral platform, improving how clinicians monitor patients, manage alerts, and respond to changing conditions. Across projects, the work helped simplify complex workflows, improve visibility of system status, and reduce friction in high-stakes interactions.
These projects reinforced that clarity is critical in clinical environments. Systems must communicate state, priority, and next steps without requiring interpretation, especially under time pressure.
It was strriking how much data medical devices generate, and how fragmented that data really is. Most devices were never designed to communicate with each other, yet hospitals depend on stitching them together into a functioning system. A significant part of the work became translating disconnected, high-volume data into something clinicians could actually use.
In my view, the regulatory environment, including FDA, 510(k), and quality systems, makes innovation difficult. Every change requires justification, documentation, and alignment with existing device categories. While this ensures safety, it also slows progress, especially compared to consumer technology and wearables, which are rapidly shaping expectations around access to personal health data.
One of the most critical challenges is alarm fatigue. Devices are designed to trigger alerts at any deviation, largely for liability reasons, but this creates overwhelming noise for clinicians. The opportunity and responsibility is to design systems that provide context, not just alerts. Data needs to be interpretable, prioritized, and connected across devices so clinicians can act with confidence, not hesitation.
The key takeaway: In clinical environments, good design is less about adding features and more about making complex systems understandable. That means reducing ambiguity, connecting fragmented data, and creating experiences that clinicians can trust in real time.
Available for product design, UX leadership, and complex systems work.
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