85% of Patients Never Make It Into Clinical Trials. We Built the Tool to Change That.

85% of Patients Never Make It Into Clinical Trials. We Built the Tool to Change That.

Partnered with Mayo Clinic physicians to design an AI-powered trial-matching platform that tackles the #1 barrier to medical innovation: patient enrollment failure.

cover image
cover image
cover image
cover image

Year

Year

Year

2025

2025

2025

Client

Client

Client

Mayo Clinic

Mayo Clinic

Mayo Clinic

Team

Team

Team

5 UX/UI Designers, 4 Doctors, 1 Mentor

5 UX/UI Designers, 4 Doctors, 1 Mentor

5 UX/UI Designers, 4 Doctors, 1 Mentor

Project Overview

Clinical trials are essential for advancing cancer treatment, yet 85% fail to recruit enough patients on time. This bottleneck doesn't just delay life-saving therapies—it costs trial sponsors between $600k–$8M per day in operational burn.

Our AI-powered platform, Clinspire, was designed to solve this dual challenge. By replacing dense medical forms with an accessible, conversational interface, we created a system that guides patients with empathy while optimizing enrollment velocity for the business.

The Challenges

  1. Over 85% of trials fail to recruit on time, costing sponsors $600k–$8M per day in operational burn.

  2. Complex eligibility criteria create "false positives," costing clinical staff approx. $1,200 per candidate in manual screening time.

  3. Low digital literacy effectively locks out 85% of the potential patient pool, severely limiting the Total Addressable Market (TAM).

  4. Dense medical jargon (e.g., "Metastatic") causes high abandonment rates, killing conversion among eligible patients who feel overwhelmed.

  5. Distrust in "black box" AI creates privacy fears that reduce user adoption and long-term platform retention.

Navigating Our Biggest Constraint: Our biggest constraint was that Mayo Clinic’s privacy policies prevented direct access to patients. To adapt, we collaborated closely with their clinicians and engineers instead. This pivot turned a limitation into an advantage, allowing us to uncover patient pain points and critical workflow bottlenecks directly from the provider’s perspective.

How do we create a clinical trial matching experience that is simple, trustworthy, and accessible?

How do we create a clinical trial matching experience that is simple, trustworthy, and accessible?

User Needs

Need for Efficient and Timely Patient Recruitment

Users need streamlined processes that accelerate matching and enrollment to reduce delays in accessing therapies.

Need for Efficient and Timely Patient Recruitment

Users need streamlined processes that accelerate matching and enrollment to reduce delays in accessing therapies.

Need for Efficient and Timely Patient Recruitment

Users need streamlined processes that accelerate matching and enrollment to reduce delays in accessing therapies.

Need for Simplified and Clear Eligibility Matching

Users need eligibility criteria to be presented in an understandable, concise way to minimize confusion and barriers for patients and providers.

Need for Simplified and Clear Eligibility Matching

Users need eligibility criteria to be presented in an understandable, concise way to minimize confusion and barriers for patients and providers.

Need for Simplified and Clear Eligibility Matching

Users need eligibility criteria to be presented in an understandable, concise way to minimize confusion and barriers for patients and providers.

Need for Accessible and User-Friendly Digital Tools

Users with varying levels of digital literacy need intuitive, easy-to-navigate platforms that facilitate engagement without technical difficulties.

Need for Accessible and User-Friendly Digital Tools

Users with varying levels of digital literacy need intuitive, easy-to-navigate platforms that facilitate engagement without technical difficulties.

Need for Accessible and User-Friendly Digital Tools

Users with varying levels of digital literacy need intuitive, easy-to-navigate platforms that facilitate engagement without technical difficulties.

Need for Clear, Jargon-Free Communication

Users require trial information to be conveyed in plain language, avoiding dense medical terminology, so they can make informed decisions without frustration.

Need for Clear, Jargon-Free Communication

Users require trial information to be conveyed in plain language, avoiding dense medical terminology, so they can make informed decisions without frustration.

Need for Clear, Jargon-Free Communication

Users require trial information to be conveyed in plain language, avoiding dense medical terminology, so they can make informed decisions without frustration.

Need for Transparency and Trustworthiness in AI

Users need assurance about data privacy, accuracy, and fairness in AI-driven matching tools to build confidence and willingness to use digital platforms.

Need for Transparency and Trustworthiness in AI

Users need assurance about data privacy, accuracy, and fairness in AI-driven matching tools to build confidence and willingness to use digital platforms.

Need for Transparency and Trustworthiness in AI

Users need assurance about data privacy, accuracy, and fairness in AI-driven matching tools to build confidence and willingness to use digital platforms.

Business Goals

Increase Patient Recruitment Rates

Boost eligible patient enrollment by targeting a 30–60% increase in completion to streamline the matching process.

Increase Patient Recruitment Rates

Boost eligible patient enrollment by targeting a 30–60% increase in completion to streamline the matching process.

Increase Patient Recruitment Rates

Boost eligible patient enrollment by targeting a 30–60% increase in completion to streamline the matching process.

Enhance Operational Efficiency

Save clinical staff time and ~$120k per trial by automatically filtering out unqualified leads.

Enhance Operational Efficiency

Save clinical staff time and ~$120k per trial by automatically filtering out unqualified leads.

Enhance Operational Efficiency

Save clinical staff time and ~$120k per trial by automatically filtering out unqualified leads.

Strengthen Brand Trust

Eliminate privacy concerns to ensure patients are willing to share the sensitive medical history required for matching.

Strengthen Brand Trust

Eliminate privacy concerns to ensure patients are willing to share the sensitive medical history required for matching.

Strengthen Brand Trust

Eliminate privacy concerns to ensure patients are willing to share the sensitive medical history required for matching.

Accelerate Drug Development

Facilitate faster enrollment to prevent recruitment bottlenecks, avoiding the $600k–$8M daily cost of stalled drug testing.

Accelerate Drug Development

Facilitate faster enrollment to prevent recruitment bottlenecks, avoiding the $600k–$8M daily cost of stalled drug testing.

Accelerate Drug Development

Facilitate faster enrollment to prevent recruitment bottlenecks, avoiding the $600k–$8M daily cost of stalled drug testing.

Research Insights

To diagnose the 85% failure rate, we triangulated data from Affinity Mapping (to isolate cognitive friction) and Competitive Analysis (to identify market gaps). Targeted Interviews then confirmed the root cause: the bottleneck wasn't a lack of patients, but a lack of process clarity.

Confusing Medical Jargon Drove Users Away

What we learned:

What we learned:

Qualitative analysis revealed that complex terminology on individual trial pages consistently confused users. Patients weren't dropping out due to lack of interest, but due to fear of answering incorrectly, leading to high abandonment ("false negatives").

How we acted:
How we acted:

We worked with clinical experts to build an AI-assisted "Plain Language" engine. By translating medical criteria into 6th-grade reading level explanations, we directly expanded the Total Addressable Market (TAM) for recruitment.

Lack of Personalized Matching and Poor Navigation

What we learned:

What we learned:

Benchmarking top platforms like ClinicalTrials.gov, TrialJectory, and Antidote revealed they function as static databases. They lack real-time personalization, forcing users to "guess" their eligibility. This high cognitive load slows down the journey.

How we acted:
How we acted:

We shifted to a Conversational Guided Intake. Asking one question at a time reduces perceived effort, which is projected to boost completion rates by 30–60%, directly accelerating enrollment velocity.

Overwhelming Eligibility Criteria
What we learned:
What we learned:

Stakeholder interviews confirmed that "false positives" (ineligible patients applying) were a massive drain on resources. Clinicians were spending expensive hours manually screening candidates who were overwhelmed by the requirements.

How we acted:
How we acted:

We prioritized redesigning the eligibility section with Automated "Met/Unmet" Logic. By visually simplifying the criteria and filtering leads early, the system saves an estimated $120k per trial in administrative waste.

The Aha Moment

As we spoke with clinicians, a clear pattern emerged: the issues they faced during trial matching consistently traced back to the patient side-unclear histories, inconsistent terminology, and incomplete comorbidity details.

That was the moment it clicked for us.

We didn't have two problems to solve.

We had one root problem: the patient onboarding experience.

Improving the patient flow would naturally improve data quality, reduce clinician workload, and strengthen the matching pipeline. Once we recognized this, we pivoted our focus entirely to the patient journey.

Ideation

We visualized the patient journey to uncover exactly where the experience was breaking down. By analyzing the different paths a user could take, we isolated the specific friction points causing abandonment-specifically the moments where users felt alienated by jargon or overwhelmed by eligibility logic. This map turned vague drop-off data into precise design targets.

Clinspire user flow
Clinspire user flow
Clinspire user flow
Clinspire user flow

Initial Wireframes

Given the barrier of complex medical jargon and unclear requirements, I sketched out low-fidelity concepts to help patients instantly simplify terms with AI, compare manual versus automated onboarding options, and easily assess their eligibility to prevent false starts.

Wireframes of web pages and app screens, showing website design and layout.
Wireframes of web pages and app screens, showing website design and layout.
Wireframes of web pages and app screens, showing website design and layout.
Wireframes of web pages and app screens, showing website design and layout.

Final Designs

Building on the validated wireframes, I refined the high-fidelity UI to establish patient trust. I prioritized a clean visual hierarchy that helps users instantly toggle AI simplification, verify their eligibility status, and complete the enrollment flow without cognitive fatigue.

􀎡

Clinspire.com

Clinspire.com

Medical Jargon Simplified with AI

Medical Jargon Simplified with AI

Clear Eligibility Status

Clear Eligibility Status

We organized eligibility criteria into clear sections Met, Unmet, and Need Review, so users could easily understand their status and progress, effectively reducing confusion.

􀎡

Clinspire.com

Clinspire.com

By simplifying medical jargon with AI and presenting clear eligibility criteria, we make information accessible to users with varying health literacy, helping them quickly understand their status.

􀎡

Clinspire.com

Clinspire.com

Users can opt for AI-guided onboarding, making the process easier for those who are fatigued, visually impaired, or prefer not to complete forms manually.

Users can opt for AI-guided onboarding, making the process easier for those who are fatigued, visually impaired, or prefer not to complete forms manually.

􀎡

Clinspire.com

Clinspire.com

Testimonials and community insights can help users trust the platform; future enhancements like transparent AI explanations, privacy assurances, and human oversight will further ease concerns.

Testimonials and community insights can help users trust the platform; future enhancements like transparent AI explanations, privacy assurances, and human oversight will further ease concerns.

Final Prototype

Outcomes

Clinspire’s design is expected to drive the following positive outcomes, making clinical trial participation more human-centered and equitable.

Projected outcomes are modeled on industry benchmarks from the Tufts Center for the Study of Drug Development (CSDD) and HHS Health Literacy data. These sources confirm that patient-centric automation can reduce recruitment timelines by 42% and save ~$1,200 per screen failure.

Outcomes for clinspire
Outcomes for clinspire
Outcomes for clinspire
Outcomes for clinspire

My Learnings

  • Empathy and flexibility are essential when designing for vulnerable populations.

  • Continuous engagement with stakeholders, especially clinicians and caregivers, leads to more inclusive and effective solutions.

  • Visual clarity and transparent AI explanations greatly improve user trust and comprehension.

  • Iterative prototyping and real-world feedback are key to refining digital health tools.

Future Enhancements

Due to strict medical privacy policies, I could not interview patients directly during this phase. My top priority for the next iteration is to bring real patients into the research loop, ensuring we validate our design decisions against their firsthand experiences and emotional needs.

Group photo of eleven young professionals posing for a picture in a modern office space. A large screen displays a video conference of multiple participants behind them.
Group photo of eleven young professionals posing for a picture in a modern office space. A large screen displays a video conference of multiple participants behind them.
Group photo of eleven young professionals posing for a picture in a modern office space. A large screen displays a video conference of multiple participants behind them.
Group photo of eleven young professionals posing for a picture in a modern office space. A large screen displays a video conference of multiple participants behind them.