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BEWATEC logoBEWATEC · HealthLive5 min read

ConnectedCare App Redesign & Design System

The app worked. Patients could find schedules, call a nurse, and choose meals. I led an accessible redesign and design system to reduce usability risk under stress.

Role
Senior Product Designer
Company
BEWATEC
Platform
iOS & Android
BEWATEC ConnectedCare app redesign
Context

This was not a visual problem

ConnectedCare was built fast. The MVP prioritized function: patients could access hospital services from their bedside device. It had not yet addressed accessibility, consistency, or perceived-trust risks.

There was no visual identity. No consistent interaction model. WCAG violations across contrast, typography, and touch targets. Screens built independently for different modules looked like different products. Because direct patient access was restricted, I treated these issues as documented accessibility and usability risks—not as proof of how patients felt.

The brief was open: rebuild the experience and create a system that could sustain later modules. I led product design, partnering broadly with product, engineering, hospital stakeholders, and staff. With no brand language or design documentation to inherit, accessibility became risk management under a proxy-research constraint.

Problem

Three failures, not one

The problem was not a single design failure. It was three separate ones compounding each other.

First: no visual identity. The app looked like internal tooling. No color language, no typographic system, no relationship between what the brand claimed and what the product communicated. Without direct patient evidence, I framed that inconsistency as a trust risk to test after launch, not a verified patient response.

Second: WCAG violations throughout. Contrast failures on text and interactive elements. Touch targets too small for patients who might be medicated, tired, or using a shared bedside device. Typography that did not scale correctly across screen sizes. These are not polish issues. In healthcare software, accessibility is a clinical consideration.

Third: no design system. Every screen was slightly different from the last: spacing, component behavior, and visual weight changed across similar elements. That inconsistency increased the risk that people would need to re-interpret familiar actions across modules.

0
Design documentation, brand language, or token system to inherit
3
Clinical modules the system needed to scale across from day one
System

Building the system alongside the first feature

Before detailed screen design, I aligned the system requirements with product and engineering. We then built the foundation in parallel with the meal selection module, using that feature to test components rather than extracting tokens after several disconnected screens existed.

The system had four requirements that were non-negotiable: WCAG AA compliance across every surface, scalability across at least three clinical modules, a token-based handoff that engineering could work from predictably, and visual performance on hospital network displays that often have compromised color accuracy.

Color

46-tone palette. Each token audited for WCAG AA before production. The scale exists because a small palette cannot simultaneously satisfy accessibility requirements, dark-mode support, and clinical context differentiation.

Primary

Blue 900#0B3B7A
Blue 700#1A5FA8
Blue 500#4B83C2
Blue 200#A8C8E8
Blue 50#E8F2FA

Teal (Support)

Teal 900#076057
Teal 600#0D9488
Teal 400#2DD4BF
Teal 200#99F0E8
Teal 50#E6FAFA

Neutral

Gray 900#111827
Gray 700#374151
Gray 500#6B7280
Gray 300#D1D5DB
Gray 100#F3F4F6

Semantic

Success#059669
Warning#D97706
Error#DC2626
Info#0EA5E9
Typography

Five content levels with explicit patient-facing scales. Legibility was the constraint. Text in a hospital app is read by people who may be tired, medicated, or using the device at an angle from a hospital bed.

display28px / 500
Your stay, simplified.
heading-122px / 500
Today's schedule
heading-217px / 500
Meal preferences
body16px / 400
Your doctor will visit between 9:00 and 11:00 today. You can request a follow-up through this app at any time.
caption13px / 400
Last updated 08:42 · Station 3B
Spacing

4px base unit, aligned with engineering before any visual work began. When both sides work from the same spatial unit, spacing disagreements at review become a category of problem that no longer exists.

space-1
4px
space-2
8px
space-3
12px
space-4
16px
space-6
24px
space-8
32px
space-12
48px
space-16
64px
Iconography

Stroke icon system. Semantic meaning agreed before visual style. Healthcare environments have established icon conventions — we followed them unless there was a clear reason not to.

Vitals
Schedule
Meals
Call nurse
Info
Profile
Done
Wait time

24px default size · 1.5px stroke · 2px corner radius on square shapes

Decisions

Four decisions that shaped the outcome

Most significant choices happened before or alongside the first detailed screens. The decisions that mattered were about sequence and method, not visual craft.

01

Run a brand workshop before opening Figma

Decision

I ran a two-day alignment workshop with BEWATEC stakeholders before starting visual design. The output was not a mood board. It was a shared vocabulary for what the product needed to communicate: four agreed brand values and a tone guide that every design decision afterward could be tested against.

Why

Without a shared framework, design reviews become subjective negotiations. "Should this feel warmer?" is unanswerable. "Does this align with 'clear and structured'?" is not. I needed stakeholders to have a shared vocabulary before the first screen existed, so that feedback would be directional rather than preferential.

Trade-off

It delayed screen design by nearly two weeks. Some stakeholders questioned the time investment. A product team under feature pressure does not always welcome the idea of spending two days on brand attributes before any UI work begins.

Outcome

The framework resolved most design disagreements before they became reviews. I referenced the four brand values in every presentation throughout the project. It became the single most durable artifact of the entire engagement.

02

Build the system alongside the first feature

Decision

I proposed building the design system in parallel with the meal selection module. The alternative was iterating across several screens and extracting tokens retroactively.

Why

Healthcare software has slow release cycles and a high cost of visual inconsistency. Establishing shared rules early reduced the risk of carrying accessibility and interaction defects into later modules.

Trade-off

The first feature took longer because component rules and the implementation pattern were being established alongside it. Product and engineering needed a visible proof case while foundational work continued.

Outcome

The system later scaled across three clinical modules without major revision. Engineering reported fewer design-related questions at handoff than on previous projects.

03

Choose illustration over photography

Decision

I built a custom illustration library for all patient-facing onboarding and education content. The alternative was using photography or licensed stock imagery.

Why

Photography in healthcare settings tends toward two failure modes: generic stock imagery that communicates nothing about the product, or real patient imagery that raises consent and emotional complexity. Illustration gives tone control. You can be warm without being saccharine. You can be informative without being clinical. That register is genuinely hard to achieve with photography in a hospital context.

Trade-off

Custom illustration is more expensive to produce and harder to update when content requirements change. We had to build a library large enough to cover anticipated use cases from the start, which required an accurate forecast of what those cases were before the product was fully specified.

Outcome

The illustration system was adopted for all patient-facing education content across the app and became one of the most referenced parts of the design system in internal reviews. It was later extended to cover additional modules without requiring a visual rework.

04

Align the grid with engineering before visual work

Decision

I aligned on a 4px spatial grid with engineering before any design file was started, rather than proposing a grid after visual design was underway.

Why

Handoff friction between design and engineering usually comes from inconsistent spacing. When designers use arbitrary values and developers round to their own system, quality erodes at the boundary. A shared grid is not a visual constraint. It is an organizational one. It eliminates a category of back-and-forth that otherwise repeats on every component.

Trade-off

Involving engineering early meant exposing incomplete thinking earlier than comfortable. Some developers expected to see more resolved work at that stage of the project. Managing that expectation required being explicit about what early alignment was for.

Outcome

The grid held across three releases without renegotiation. Handoff was faster than previous projects and produced fewer revision cycles. The spatial system became part of BEWATEC's internal development standards.

Challenges

Proving the system while delivery continued

Challenge

Product and engineering leadership needed visible feature progress while the design system was being established. Under delivery pressure, infrastructure alone was a hard sell—especially when the previous product had shipped without a system.

Tradeoff

I proposed building the system in parallel with a single high-visibility feature—the meal selection module—as a proof case. This gave stakeholders something tangible to review while the foundation was being laid. The first feature took longer because it also established patterns later modules could reuse.

Learning

The strongest case for the system was not design vocabulary. A working meal-selection feature let collaborators assess component reuse, accessibility rules, and handoff quality against delivery needs instead of debating infrastructure in the abstract.

What didn't work

The research gap I did not push hard enough on

The onboarding flow was redesigned based on brand values and usability principles derived from stakeholder input and staff interviews, not direct testing with actual hospital patients. Access to real patients during the design phase was restricted for compliance and practical reasons. I accepted that constraint too quickly.

The research informing the redesign came from hospital staff and proxy testing with healthy adults. That is a meaningful gap. Staff understand the product's function. They cannot reliably model the cognitive and emotional state of a patient using a hospital app on day two of a stay. Some of the onboarding language was revised after launch based on feedback from actual users. The illustration register in the first-time experience also needed a second pass because it read as too cheerful in a clinical context.

I would do this differently. The compliance constraints were real, but they were navigable with more deliberate stakeholder alignment earlier in the process. I did not make a strong enough case for research access before design work began. That is a process failure, not a design one, and it is mine to own.

Impact

Post-launch reported outcomes

+30%
Reported downloads in the first 6 months post-relaunch
+20%
Reported hospital NPS post-launch
4.4
Reported post-launch App Store rating; no prior rating was available.
Reflection
Starting from zero sounds like freedom. It is not. When you have nothing to push against, the decisions you make first shape everything that follows, and you will not know which of them were wrong until the product is in people's hands. On this project I learned that system governance is harder than system creation. Building the design system took months. Keeping it coherent across teams, releases, and evolving requirements took longer. The most important skill in that kind of work is not visual craft. It is the ability to make abstract decisions legible to stakeholders who have competing priorities and limited time.
The unresolved lesson is research access. Staff interviews and proxy testing helped reduce obvious accessibility and usability risks, but they could not tell me how hospitalized patients interpreted the experience. I should have negotiated direct access earlier. Until that evidence existed, reassurance remained a design intention—not a patient insight.