Transforming Virtual Observation Through Clinician‑Centered UX Design

Collette Health needed to scale virtual observation safely in the middle of a national nursing shortage. I led a human‑factors redesign of the observation experience—grounded in ergonomics, central/peripheral vision research, and clinical co‑design—that reduced observer fatigue, increased clinical confidence, and enabled hospitals to safely expand from a 10:1 to a 12:1 patient‑to‑observer ratio. The work improved patient safety, reduced falls, and strengthened program adoption across hundreds of hospitals.

The Problem

Hospitals were facing a decades‑long nursing shortage, rising burnout, and increasing demand for patient observation. Traditional 1:1 sitters strained budgets and staffing, and early virtual observation systems were visually overwhelming and cognitively fatiguing. Observers struggled to maintain situational awareness across many video feeds, limiting program scalability and undermining clinical trust.

Clinicians reported:

  • Excessive head and eye movement to monitor multiple patients

  • Difficulty maintaining awareness across all feeds

  • Fatigue during long shifts

  • Stress from interfaces not aligned with clinical workflows

Without a UX foundation that supported long‑duration vigilance, hospitals couldn’t safely scale virtual observation.

Constraints

The redesign had to solve several intertwined challenges:

  • Human vision limits — Observers needed to see twelve patients at once without strain.

  • Ergonomics — The system had to fit the worker, not force adaptation.

  • Safety‑critical workflows — Observers needed rapid access to alarms, communication, and escalation.

  • Cognitive load — The interface had to support long shifts without degrading performance.

  • Scalability — Hospitals needed to safely move from 10:1 to 12:1 observation ratios.

These constraints made the work less about UI and more about human‑factors engineering.

Approach

Ergonomics‑Driven Screen Architecture

I led research into central vs. peripheral vision to determine the optimal monitor size and layout. A 32‑inch display maximized edge‑to‑edge visibility without forcing head movement, enabling observers to see all twelve patients simultaneously.

This informed a dual‑zone layout:

  • Interaction Zone for active engagement

  • Monitoring Zone for twelve peripheral feeds

Video Sizing Based on Real‑World Behavior

We validated feed sizes by studying how people naturally consume video. The redesigned feeds were more than 330% larger than typical vertical mobile video, ensuring clinical clarity without overwhelming the observer.

Reducing Fatigue Through Human‑Centered Interaction

I redesigned workflows to minimize motion and cognitive load:

  • Clear visual hierarchy

  • One‑click alarms and communication

  • Night‑vision and low‑light optimizations

  • Simplified interactions requiring no training

Clinical Co‑Design

RNs and CCRNs shaped alarm placement, workflow sequencing, and visual prioritization. Their input ensured the system aligned with real clinical practice and built trust with frontline team.

Outcomes

Expanded Observer Capacity

A safe increase from 10:1 to 12:1 patient‑to‑observer ratios—boosting capacity by 20% without adding staff.

Improved Patient Safety

  • 68% reduction in fall rates

  • 83,678 falls avoided

  • Improved HCAHPS scores across five domains

Reduced Fatigue and Higher Clinical Confidence

Observers could maintain situational awareness without strain, improving vigilance and reducing burnout.

Significant Labor Cost Savings

Hospitals achieved 10:1 labor cost savings by replacing 1:1 sitters with a scalable virtual observation model.

Stronger Program Adoption

Because the system required no training and reduced fatigue, clinicians trusted it—and used it—more consistently.

Result - By grounding the redesign in ergonomics, human‑vision science, and clinical workflow realities, we transformed virtual observation into a safer, more scalable, and more clinician‑friendly experience. The work improved patient safety, reduced observer fatigue, and enabled hospitals to expand their programs without adding staff—strengthening Collette Health’s position as the most trusted virtual observation platform in the market.

Citations

1. “Where Did All the Nurses Go?” Nursing, History, and Health Care, University of Pennsylvania's School of Nursing, https://www.nursing.upenn.edu/nhhc/workforce-issues/where-did-all-the-nurses-go. 
2. “STUDY: 34% of Nurses Plan to Leave Their Current Role by the End of 2022.” Incredible Health, Incredible Health, 16 Mar. 2022, https://www.incrediblehealth.com/wp-content/uploads/2022/03/IHCOVID-19-2022-Summary-1.pdf. 
3. Valdez, Bart. “The Crisis in Healthcare Staffing.” Medical Economics, Medical Economics, 4 Feb. 2022, https://www.medicaleconomics.com/view/the-crisis-in-healthcare-staffing. 
4. “STUDY: 34% of Nurses Plan to Leave Their Current Role by the End of 2022.” Incredible Health, Incredible Health, 16 Mar. 2022, https://www.incrediblehealth.com/wp-content/uploads/2022/03/IHCOVID-19-2022-Summary-1.pdf. 
5. Gangadharan, Prayag. “The Importance of User Experience Design.” UX Planet, UX Planet, 4 Aug. 2020, https://uxplanet.org/the-importance-of-user-experience-design-988faf6ddca2. 
6. Gube, Jacob, et al. “What Is User Experience Design? Overview, Tools And Resources.” Smashing Magazine, Smashing Magazine, 5 Oct. 2010, https://www.smashingmagazine.com/2010/10/what-isuser-experience-design-overview-tools-and-resources/. 
7. “Ergonomics.” Environment, Health and Safety, University of North Carolina at Chapel Hill, 21 Mar. 2022, https://ehs.unc.edu/workplace-safety/ergonomics/. 
8. Lipner, Maxine. “Understanding Central Vision.” Verywell Health, Verywell Health, 6 Dec. 2021, https://www.verywellhealth.com/central-vision-5209526. 
9. Elizabeth Yuko, PhD. “What Is Peripheral Vision?” Verywell Health, Verywell Health, 1 Nov. 2021, https://www.verywellhealth.com/peripheral-vision-5097416. 
10. Andres, Josh & Schraefel, Nathan & Semertzidis, & Dwivedi, Brahmi & Kulwe, Yutika & von Kaenel, Juerg & Mueller, Florian. (2020). Introducing Peripheral Awareness as a Neurological State for HumanComputer Integration. 10.1145/3313831.3376128.
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