SafeInsights, Rice University

Designing a 0→1 research proposal system for multi-stakeholder collaboration, spanning initial proposal, code submission, agreements, review, and outputs.

Status: Live

Computer screen displaying a research study proposal submission page with a blue sidebar menu and a progress bar indicating four steps, currently on the review step, for a research platform.
Overview

Designing a 0→1 research proposal system for multi-stakeholder collaboration, spanning initial proposal, code submission, agreements, review, and outputs.

SafeInsights is a secure research platform that lets researchers analyze sensitive data in a controlled environment while maintaining strict privacy and compliance standards.

When I joined this project, there was no defined workflow for how researchers and data partners should collaborate, no shared process, no clear expectations, and no precedent to build from.

I led the end-to-end design of a multi-step, multi-user proposal and review system, turning that ambiguity into a structured, iterative workflow built for both technical and non-technical stakeholders.

15+
Usability sessions informing key product decisions.
60%
Reduction in critical UX issues across the proposal lifecycle.
End to End
Workflow design across proposal, feedback, agreements, and code review.
Multi-user
Shift from linear to iterative, single to multi-user workflows.
Role
UX Designer
Timeline
June – Nov 2025
(6 months)
Team
2 Designers, 1 Product Manager, 2 Engineering Teams
Responsibilities
  • End-to-end UX design
  • Proposal workflow architecture
  • Usability testing
  • Design–dev collaboration
  • Feedback system design
Problem

Three problems. One platform built from scratch.

Researchers studying K-12 outcomes couldn't access the data they needed. SafeInsights was built to close that gap, but as a 0→1 product, there was no playbook to borrow from. Every part of the system, what to submit, how to evaluate it, how to build on it, had to be figured out through trial and error.

Business problem

K-12 research data is valuable, but nearly inaccessible.

Legal barriers like FERPA kept researchers from accessing sensitive K-12 datasets, even when data partners were willing to share.

The gap

A platform to bridge this didn't exist yet, so there was no defined process for submission, evaluation, or communicating a decision.

User problem

Researchers had no clear path to submit or iterate on their proposals.

Researchers are used to writing code against data they can see. Here, they had to propose and code against a dataset they'd never access directly.

The gap

No signal for what an approvable proposal looked like, and no guidance on how to write code from sample data.

Stakeholder problem

Data partners had to evaluate requests without a shared framework or shared expertise.

Data partners were also new to this. Each was independently figuring out what to set up and what to require for approval, with staff at varying levels of technical expertise.

The gap

No standardized evaluation framework. The real challenge was building guardrails and frameworks that worked across partners, not just evaluating SafeInsights designs and interactions.

Solution

Redesigning the proposal workflow as an iterative, multi-user system.

Solution 01

Building trust before collaboration begins.

  • Researcher's professional profiles is submitted as a part of proposal submission to data partners.
  • Platform, study, and individual-level agreements make accountability explicit for every stakeholder.
Researcher profile screen — view mode
Introduced researcher profiles to help data partners quickly vet a researcher's background and credentials.
Study Level Agreement screen
Research Organization Participation Agreement screen
Terms of Service screen
Privacy Notice screen
Structured platform, study, and individual-level agreements so every party's obligations are clear and trackable. Tap to step through each one.
Solution 02

Breaking the proposal into guided, non-linear steps.

  • Split the process into four steps for researchers (set up study, submit proposal, submit code, verify outputs), mirrored by three matching review steps for data partners.
  • Action banners show exactly what's blocking progress and what to do next.
  • Researchers can loop back to their code anytime, with every past output, reviewer feedback, and resubmission note on one page to guide the next version.
Researcher view
Study progress
1
Set up study
2
Submit proposal
3
Submit code
4
Verify output
Proposal draft
Proposal draft
Proposal submitted
Proposal submitted
Proposal needs revision
Proposal needs revision
Proposal approved
Proposal approved
Proposal declined
Proposal declined
Code draft
Code draft
Code submitted
Code submitted
Code needs revision
Code needs revision
Code approved
Code approved
Code packaging
Code packaging
Code ready
Code ready
Code processing
Code processing
Outputs need review
Outputs need review
Code errored
Code errored
Outputs available
Outputs available
Study completed
Study completed
Study ended
Study ended
Reviewer view
Studies for review
1
Review proposal
2
Review code
3
Review output
Proposal needs review
Proposal needs review
Awaiting proposal revision
Awaiting proposal revision
Proposal approved
Proposal approved
Proposal declined
Proposal declined
Code needs review
Code needs review
Awaiting code
Awaiting code
Awaiting code revision
Awaiting code revision
Code approved
Code approved
Outputs need review
Outputs need review
Awaiting outputs
Awaiting outputs
Study completed
Study completed
Study ended
Study ended
Designed a study progress view for both researchers and reviewers — tap to compare each side's steps and statuses.
Researcher dashboard — all studies table
Reviewer dashboard — studies for review table
Designed a study table giving researchers and reviewers a unified view of every proposal's stage and status — tap to compare both views.
Outputs page — results, reviewer feedback, and resubmission notes for each code version An outputs history that pairs every result with its reviewer feedback and resubmission notes, all on one page.
Solution 03

Collaborative feedback and iteration system.

  • Reviewers write one shared decision together in real time, with live presence and autosave, so the Research Lab gets a single, unified response.
  • Researchers resubmit with a note that answers the feedback, and each round is saved as a new version.
  • Feedback and resubmission notes stack into one version history, so both sides can see how the work evolved until the banner confirms approval.
Designed a shared decision box where multiple reviewers write feedback together in real time, with live presence and autosave, before one final decision is submitted.
Designed a versioned feedback history that pairs each round of reviewer feedback with the researcher's resubmission note, until the banner confirms approval.
Solution 04

AI-assisted code creation and evaluation.

  • Claude is integrated directly into the IDE, so researchers of any skill level can get help writing and debugging code
  • A preloaded sample dataset lets researchers test their code safely before submitting
  • AI-generated summaries and automated security scans let data partners review code quickly and confidently
New image
Claude Code integrated in IDE
Integrated Claude directly into the IDE, giving researchers AI support while writing and testing code against sample data.
New image
Review code screen
(AI summary + security scan + checklist)
Introduced AI-generated code summaries and security scans, paired with a structured checklist, so reviewers can evaluate code with confidence.

So how did we get here?

UX strategy & system thinking

How I approached designing a system that didn't exist

01
Framing the problem space

Researchers were new to a secured dataset model, one where data is never directly shared with them. Data partners weren't a uniform group either: each had its own evaluation criteria, staff expertise, and capacity.

The challenge was designing a flexible system that could hold variation on both sides, surfacing mental models gradually, keeping engineering sustainable through phased releases, and earning clarity before designing for complexity.

02
Mapping the ecosystem
Three actors
  • Research Lab: multiple researchers, one project admin as accountable decision maker.
  • Data Partner: independent partners, each with their own processes and capabilities to support research.
  • SafeInsights: building the platform and ecosystem to support this secured, large-scale research.
Five-step proposal journey
  • Step 1: Proposal submission: intent, datasets, coding language, profiles
  • Step 2: Data use agreements: review and sign
  • Step 3: IRB approval: ethical review signed off
  • Step 4: Code submission: run against sample dataset
  • Step 5: Evaluating results: output reviewed, iterate or close
03
Defining the phases

Steps define the user journey. Phases define how we built it.

Phase 01
Building blocks
Base-minimum interface covering all five steps. Prove the model works before refining it.
Phase 02
Adding intelligence
AI tools, roles and responsibilities, refined UX patterns, sample proposals.
Phase 03
Design done well
Polished interactions, edge cases accounted for, cohesive system across all user types.
04
Design principles

Not defined upfront. Earned through the work.

01
User-centricity above assumption
02
Consistency to support mental model building
03
Hierarchy through roles and responsibilities
05
Key design decisions
Decision 01
From vague brief to rigorous design
Features categorised as must-have, good-to-have, or can-have. Phased accordingly.
Decision 02
System-level copy as a design decision
Inconsistent language in a compliance-heavy platform erodes trust. Ambiguous terms create legal exposure.
Decision 03
Layout decisions through A/B comparison
Pros and cons mapped across UX and engineering feasibility. Engineering constraints shaped design choices early.
Research & Key Insights

What we learned from concept and usability testing sessions.

Methodology

How I researched

I prototyped the concepts and wrote the research questions ahead of testing. A team including a PM, researcher, and senior designer developed the moderation script and handled recruitment.

I sat in on 8 open-ended usability sessions with 4 researchers and 4 data partner staff, each lasting 90 minutes and deliberately unstructured to capture what people surfaced unprompted. I then led affinity mapping and wrote up the findings that shaped the next round of design.

Once we began implementing changes, we ran internal testing across system validation, QA, and usability to ensure the solutions held up end to end before moving forward.

8
Participants across researchers and data partner staff
90
Minutes per session, open-ended format
4
Key insights shaping 4 solution directions
"Both sides wanted far more control and collaboration than the MVP offered. The volume of features requested to facilitate that was beyond anything we had anticipated."
Usability testing session

Usability testing session.

Affinity mapping session

Affinity mapping the insights to identify patterns.


Key insights
Insight 01

Trust is critical, but the burden of proving it needs to be shared.

Data partners named trust as their #1 factor for working with a researcher, but didn't want to verify it themselves. They relied on institutional signals: IRB approval, affiliations, resume, past history.

Insight 02

The proposal workflow wasn't linear, but the early design suggested it was.

Participants rejected the progress bar, not because it was confusing, but because it didn't reflect reality. Proposals loop back and forth, and steps overlap.

Insight 03

Both sides wanted control over collaboration, but defined it differently.

Reviewers wanted clear control over who could view and resolve feedback. Researchers wanted clarity on what was asked and by whom. Many data partners collaborate internally before sharing one response.

Insight 04

Technical capability was uneven on both sides.

Researchers had varying coding expertise. Reviewers were domain experts, not engineers, and weren't fully equipped to evaluate code for safety and alignment.

Brainstorming & Iteration

How each solution evolved

01

Establishing Trust

Building the foundation of credibility before collaboration begins

The design challenge

Trust was the top factor in a data partner's decision to work with a researcher, but partners didn't want to spend time verifying researchers themselves. Four interlocking trust signals solved this, each removing a different kind of uncertainty.

Trust signal 01

Researcher profile

Credentials, affiliations, and history surfaced as a popover directly within the review page, so trust signals travelled with the proposal instead of sitting in a separate section.

Initial: ungrouped, long-form profile.
Final: restructured into discrete sections.
Trust signal 02

IRB protocol

An Umbrella IRB gave data partners a familiar ethics checkpoint while letting in-scope studies skip a separate institutional approval.

Studies within the Umbrella IRB parameters skip separate approval; studies outside them require the researcher's own institutional IRB.
Trust signal 03

Roles & permissions

Administrator and Contributor roles made accountability visible through navigation itself, your access showed your role.

Admins see the full sidebar and manage permissions; Contributors see a restricted view. Same structure for both Data Partners and Research Labs.
Trust signal 04

Evaluation checklist

A binary Yes/No checklist, visible to both sides throughout, replaced subjective review with a shared standard.

Criteria stayed constant across iterations; the interaction evolved from checkboxes to toggles to a final Yes/No format.

02

Structured Multi-Step Proposal Workflow

Breaking down a complex process into manageable, guided steps

The design challenge

Five steps, multiple stages each, two user types experiencing it differently. The challenge was communicating that structure clearly without overwhelming a first-time user.

Exploring the workflow

Study table & progress tracker

V01: Separate stage/status columns. Clear per-row, but no sense of the full lifecycle.

V02: Added an expandable timeline. More detail, but cognitive load rose and back-and-forth stayed invisible.

V03: Combined stage/status into one label, added a five-step visual tracker plus a status banner at every stage.

V01: separate Stage/Status columns.
V02: expandable timeline rows.
V03: simplified table, visual step tracker, and status banner working together.

03

Collaborative Feedback & Iteration System

Enabling structured, multi-user collaboration across the review lifecycle

The design challenge

Without structured feedback, the whole proposal lifecycle broke down. The system needed to handle quick clarifications and complex reviews, and scale to multiple reviewers working asynchronously.

Exploring feedback

From inline comments to multi-reviewer threads

V01: Inline, anchored comments, Google Docs style. Precise, but built for one reviewer only.

V02: Consolidated panel with three decision options. Faster, still single-reviewer.

V03: Multi-reviewer internal thread. Deliberation stays internal, researcher gets one clear reply.

V01: inline, anchored comments.
V02: consolidated feedback panel.
V03: multi-reviewer internal thread, one synthesized reply.

04

AI-Assisted Code Creation & Evaluation

Helping researchers submit code and reviewers evaluate it, without either side needing to be an engineer

Deep dive
The design challenge

Researchers needed to write and submit code, reviewers needed to evaluate it, and both experiences had to stay connected without becoming one overloaded screen. Of the four solution areas, this one went through the most rounds of testing: two full usability studies across two design directions before reaching a final state.

Stage 01

Testing the original design

The original flow offered two paths, launch the IDE, or upload files directly, split across a path-selection screen and a code management screen. We tested it with real researchers to see where it broke down.

Original design
Path selection + code management screens
Weak content hierarchy on the path-selection screen made it hard to scan and compare the two options.
Round 1
Redundant navigation, like a "submit code" button on a screen that already redirected automatically, added confusion instead of clarity.
Round 1
Researchers didn't realize an IDE workspace could only be claimed by one person, the first to click "Launch IDE" locked everyone else out, with no warning.
Round 1
Researchers didn't know the IDE came preloaded with example data to test against, or where to actually submit code once they'd written it.
Round 1
Stage 02

Exploring the fix, internally

Two directions were explored internally before testing again: a "2 options" layout with progressive disclosure, and a "3 options" layout that separated the paths further and added a recommendation. Both increased the sense of a long, effortful process, and neither addressed a real business need: the product wanted researchers to lean toward the IDE, not just be offered it as an equal choice.

2-option route
Progressive disclosure, expandable "how this works" steps
3-option route
Split into three approaches with a recommended path

A second round of internal exploration compared two more targeted directions head to head.

Option A — Two-card approach

An explicit upfront choice between "Write and test in the IDE" and "Upload your files," with the IDE card's capability list surfaced before the researcher clicks anything.

Tradeoff: required more reading before any action, and previewed a decision (what to do after uploading) that didn't need to be made yet.

Option B — Unified file management

One screen handling both the IDE and upload paths, no upfront branching, researcher lands directly on a file management view and takes action immediately.

Tradeoff: simpler and lower cognitive load, but the IDE's value became almost invisible, buried in a small info banner easy to miss entirely.

Decision

We went with the unified approach for its lower cognitive load, but patched its main weakness directly: added visible context calling out the IDE's example data and starter code upfront, so the option researchers were being steered toward wouldn't get lost in a quiet banner.

Two-card approach
Minimal version, explicit upfront choice
Unified file management
Single screen, no upfront branching
Stage 03

Testing the refined design

The refined design was tested again in a second usability study, this time checking whether researchers understood the IDE flow, the main file template, the separation between the IDE and the platform, and what happens if a colleague has already claimed the IDE.

Final design, expanded
Submit code screen with in-context FAQ
Final design, default state
Submit code screen, agreements pending
"Launch IDE" was recognized immediately as the primary action by every participant, no confusion about where to start.
Round 2
Relabeling "Submit code" to "Submit code for review" resolved the earlier assumption that submission meant instant execution.
Round 2
The in-context FAQ was read as genuinely useful, not noise, once participants opened it.
Round 2
Copy updates ("Complete code" to "Write and test your code," plus "return here to submit") were noticed and understood without further explanation.
Round 2
After copy improvements mid-test, participants understood that work in the IDE synced back to the platform automatically.
Round 2
Participants correctly understood they needed to navigate from the IDE back to the platform to submit their code.
Round 2
What came next

Final Solution

End-to-end flows designed, tested with users, and shipped.

Confidential

Four solution areas — refined, tested, and built in collaboration with engineering.

  • Establishing Trust Researcher profiles surfaced in context as a popover, Umbrella IRB reducing approval friction, role-based permissions visible through navigation, and a shared evaluation checklist setting expectations on both sides
  • Proposal Workflow Simplified dashboard combining stage and status through language, a five-step progress tracker with visual icons and colour, and status message banners at every stage telling users where they are and what comes next
  • Collaborative Feedback Multi-reviewer internal thread with individual leanings, one designated reviewer synthesising collective feedback into a single consolidated response shared with the research lab
  • AI-Assisted Code Integrated IDE with AI code generation for researchers, and inline code with AI summary, automated security scan, and structured Yes/No evaluation checklist for reviewers
Reflection

What I learned

Designing SafeInsights from the ground up taught me things that no brief could have anticipated. Here are the three that will stay with me.

01

Ambiguity is an invitation, not a problem

Vague briefs created space for design to shape the product, not just execute on it. Asking the right questions early became one of my most valuable tools.

02

Designing a system means designing for variation

Flexibility and consistency had to coexist across two very different user types. That tension sharpened my thinking at every decision point.

03

The product reflects how it was built

The most coherent parts of SafeInsights were designed in close collaboration with engineering, product, and legal — when those conversations happened early, it showed.


If I started again

Three things I'd do differently from day one.

Every complex product reveals its gaps under pressure. These are the decisions I'd make earlier — not because anything went wrong, but because making them sooner would have sharpened the work at every stage after.

  • 01
    Set up accessibility guidelines earlier in the process
    Formalizing accessibility from the start would have avoided retrofitting components later and ensured consistency across the system from the first build.
  • 02
    Involve stakeholders earlier to uncover edge cases
    Resubmission paths, multi-reviewer conflicts, and IRB exceptions all surfaced late. Earlier mapping sessions would have exposed these scenarios sooner and reduced mid-build complexity.
  • 03
    Document design decisions as they happen, not after
    A lightweight decision log maintained throughout would have improved alignment, faster handoffs, and long-term scalability.