Outdoor SafeYelli Bottu Map workshop in Bengaluru: participants around a large printed neighbourhood map on grass, placing stickers and string to mark where they felt unsafe.

SafeYelli

This UX research case study covers geospatial safety and community-sourced intel. Mixed methods in Bangalore and at scale (n=1,247 survey; 45 interviews) grounded map-first IA, temporal filters, and peer trust signals.

Fieldwork through benchmarks, synthesis, triangulation with ship metrics, and usability under stress. The annotated UI lives in the product case study, while this page stays on the research thread.

Full product case study Visit safeyelli.in
Survey benchmarks
83%
Alter routes weekly
67%
Trust peers over distant stats
91%
Want geomapping
Research contribution

Field research and interviews in Bangalore, survey design and cleaning (n=1,247 completes), affinity mapping with inter-rater reliability, member checking, and triangulation with analytics, plus IA for the responsive site and multi-round usability on map and reporting flows.

  • 45 semi-structured interviews (45–60 min); contextual inquiry & diary studies
  • Quantitative survey: distribution, demographics, feature gaps, QA & census checks
  • Synthesis → personas, journey maps, principles, and validated ship metrics
Executive Summary

Research & impact at a glance

SafeYelli is an information website that empowers women to navigate urban India safely through real-time incident reporting, interactive heat mapping, and community-verified safety intelligence.

In urban India, millions of women navigate a hidden map of fear: streets that read safe by day shift at night, and efficiency-first navigation rarely encodes time, trust, or peer signal. The research program combined interviews across Bangalore, a 1,247-response survey, contextual inquiry, diary studies, geospatial analysis, and usability, then surfaced the constraints that made map-first, temporal, community-grounded IA the obvious bet.

The Challenge:
No comprehensive geospatial safety layer: no real-time incident reporting matched to how people actually choose routes; official data felt distant while WhatsApp and word of mouth carried the real intelligence, yet it stayed fragmented.
Our Response:
A citizen-centric platform where the community can report, verify, and share on a map people already read fluently, tying heat mapping, safer-route thinking, and privacy-aware reporting together so discrete incidents become collective intelligence.

Pre-launch signals (survey + qualitative)

71%
Avoid certain areas
Of respondents reported avoiding places due to safety concerns.
85%
Unsafe after 8 PM
Feel unsafe traveling alone after 8 PM; peak concern 8–11 PM.
43%
Changed routines
Altered daily routines for safety; average ~43 extra minutes on commute when choosing a safer path.

By the numbers

~15K
Active Users
Approximate, based on available analytics at time of departure
25K+
Safety Reports
Community contributions visible on the map
10+
Usability Sessions
Informal testing rounds across the design process
Research methods

From conversations to benchmarks

Community mapping workshop: neighbourhood map with sticky notes documenting concerns such as street lighting, harassment near transit, and unsafe areas.

Mixed methods across the behavioral ↔ attitudinal and qualitative ↔ quantitative grid: depth in Bangalore, scale online, geospatial context, then rigorous synthesis, member checking, and triangulation with the survey before usability hardened the shipped IA.

UX research methods map

Each method is placed on a behavioral ↔ attitudinal and qualitative ↔ quantitative grid. Hover or focus a point for counts and how it was used.

BehavioralWhat people do AttitudinalWhat people say QualitativeDepth & stories QuantitativeScale & patterns
Contextual inquiry
Contextual inquiry · Qual × behavioral
28 sessions shadowing real commutes; environmental cues and in-the-moment decisions.
Geospatial
Geospatial analysis · Quant × behavioral
15,000+ data points / 2 yrs; 450+ neighborhoods for risk patterns and zones.
In-depth interviews
In-depth interviews · Qual × attitudinal
45 interviews (45–60 min) in Bangalore on safety, coping, and map gaps.
Survey
Survey · Quant × attitudinal
1,247 completes · 78% completion · 35 tracked items; validated themes at scale.
Focus groups
Focus groups · Qual × attitudinal
6× (~90 min, 8–10 each) to validate personas and co-create directions.
Diary studies
Diary studies · Qual (self-reported behavior)
15 people · 14 days · 320+ entries on routes, incidents, and affect.
1

In-depth interviews

45 semi-structured interviews (45–60 min) with women in Bangalore on daily safety, coping, and map gaps. Recorded, transcribed, thematically coded.

2

Quantitative survey

1,247 complete responses; 78% completion rate; 35 tracked data points. Validated qual findings and quantified priorities, demographics, and incident frequency.

3

Contextual inquiry

28 observation/shadowing sessions on real commutes (morning & evening; transit & streets) to capture decision-making and environmental cues.

4

Geospatial analysis

15,000+ incident-related data points over 2 years; 450+ neighborhoods mapped for patterns and risk zones.

5

Focus groups

6 sessions (8–10 people each, ~90 min) to validate personas, compare experiences, and co-create feature directions.

6

Diary studies

15 participants logged routes, incidents, and emotional responses over 14 days (320+ entries) via mobile diary.

Synthesis & validation: affinity mapping with two independent coders, 23 → 5 consolidated themes, 12 participants in member checking, triangulation with the quantitative file (n≈1,247), then multi-round usability on map exploration and reporting under time pressure.

Mixed-methods map (same coverage as a behavioral × attitudinal / qualitative × quantitative frame): Qualitative + attitudinal relied on in-depth interviews, focus groups, and diary studies. Qualitative + behavioral relied on contextual inquiry and shadowing on real commutes. Quantitative + attitudinal relied on the national online survey. Quantitative + behavioral relied on geospatial incident and pattern analysis. Together they cover what people say, what they do, and how often patterns show up at scale.

Problem & context

A map that doesn't answer the real question

Women moving through Indian cities plan around a layer that doesn't exist on Google: which streets feel safe right now, for someone like them, at this hour.

Official crime data is sparse, delayed, and disconnected from what people ask before they leave the house or the office: “Is this route worth it tonight?” Navigation products optimize for minutes and meters; they don't encode the temporal, social reality of moving through public space as a woman. That gap shows up as changed plans, longer commutes, cab spend, and check-ins with family, and it lands as a hidden tax on mobility and peace of mind.

Women in urban India face daily safety concerns in public space, especially after dark. Existing tools lacked comprehensive geospatial, community-verified intelligence; the research (interviews in Bangalore + national survey n=1,247) made that gap measurable and actionable.

83%
Alter routes weekly
Weekly route or timing shifts for safety, before the tool.
67%
Trust peers over stats
Community-verified intel over distant stats: honest and current.
91%
Want geomapping
Map-based safer-route planning in real time, if available.
Survey charts & metrics

Quantitative backbone of the study

The online survey ran across social ads, women's safety communities, universities, and workplace networks. After quality filters, n=1,247 complete responses supported significance testing (95% confidence, ±2.8% margin of error). Bars below mirror headline items; tables capture demographics, incident cadence, and the gap between features people want and what existing tools offer.

Alter routes weekly
83%
Trust peers over distant stats
67%
Want map-based safer routes
91%

Participant demographics (age)

18–24
38%
25–34
42%
35–44
15%
45+
5%

12 major metros represented; 73% working professionals.

Safety incident frequency (self-reported)

Daily
12%
Weekly
34%
Monthly
28%
Rarely
18%
Never
8%

74% experienced safety concerns at least monthly, which reads as widespread need for better tooling.

Feature priority vs current availability

Respondents rated how much they wanted each capability versus whether they had it today. Large gaps signal where SafeYelli could differentiate.

Feature% want% have now
Emergency SOS96%45%
Real-time safety map94%12%
Route safety scores91%8%
Safe route suggestions89%5%
Community reports88%15%
Time-based alerts82%10%
Peer reviews76%18%

Market opportunity: Emergency SOS is the most “available” capability yet still sits 51 points below stated demand. Real-time mapping and route scoring show 80%+ gaps, which marks the core space for a community-grounded, map-first product.

Early scale & task checks

First three months after launch, aligned with the executive summary snapshot.

50K+
Active users
Within three months of going live.
92%
Task success rate
Core map and reporting tasks in structured usability rounds.
40%
Faster vs benchmark
Key journeys vs industry reference tasks.

Self-reported signals (tracked later)

Post-launch survey and usage patterns sit below; each row animates on scroll, same as the outcome section.

89% of users report feeling safer when navigating with SafeYelli.

78% weekly geomapping usage, the most engaged feature across segments when the map/reporting loop is live.

92% task completion for safety-related tasks and reporting (unaided where possible).

71% choose safer routes even when they take longer if the product surfaces tradeoffs clearly.

Survey headline cards

Additional benchmarks from the same instrument read best alongside qualitative themes in Key insights.

89%

Unsafe after 8 PM

Feel unsafe walking alone after 8 PM; peak window 8–11 PM in time-series review.

43

Extra minutes for safety

Average additional commute time women budget to feel safe; many reported 15–90 minutes daily across modes.

78%

Maps without a safety layer

Use Google Maps but want integrated safety context, which reflects high existing behavior to extend rather than replace.

67%

Peer signal

Trust peer and community reviews over distant official statistics because those voices read as more current and relevant.

92%

Anonymous contribution

Would share anonymous location-linked data for community safety if privacy is explicit.

85%

Willingness to pay

Would subscribe for premium safety features; stated anchor around ₹199/month for peace of mind.

Survey methodology & QA

The survey ran across social ads, women's safety communities, universities, and workplace networks. After removing 287 incomplete or low-quality responses, n=1,247 completes remained. 95% confidence level, ±2.8% margin of error. Demographics cross-checked against census data where available.

Participant maps (Hebbala & Yelahanka)

A collection of maps drawn by participants at community events in Hebbala and Yelahanka. Participants were asked to sketch their neighbourhoods and mark frequent travel destinations. They were then asked to trace routes that family members take to the same points, followed by a discussion of why those routes differ. Recurring themes included stray dogs, lighting, theft, cultural norms about who travels with whom, and walking alone versus with others.

Everyone took turns narrating how routes shifted depending on who was walking, when, and where. Girlfriends were accompanied from far away. Police had asked people to turn away from certain stretches because robberies were high, with men drinking often congregated on the street outside a women's PG.

Every map was a study of many families, spaces, genders, and streets. From that work we ended up mapping over 150 street lamps, 100 trees, and 100+ more points of interest.

Outdoor community workshop under a gazebo: participants discussing neighbourhood routes and safety during mapping research.
Framing

Maps answer minutes and meters, not whether a street feels okay tonight.

We traveled across Bangalore for interviews and contextual inquiry, then scaled patterns with a national survey that asked the same question everywhere: whether a route would feel acceptable for someone like them, at that hour. Speed and distance alone never answered it. The gap between sparse official data and that lived decision was the real design problem.

I set out to hold community-grounded reporting on a map people already know how to read, without turning pain into spectacle. I wasn't trying to replace judgment with charts; I wanted peer signal, time, and place clear enough that safer planning felt possible. What kept surfacing in interviews, diaries, and the quantitative file became the backbone of information architecture and the map-first experience, from first load through reporting back.

What's actually broken

Navigation tools ignore time and trust

The problem wasn't “no safety app.” It was that the products people already use for directions treat safety as out of scope.

A street can be fast and well lit on the map and still feel hostile after dark. Users weren't asking for more charts; they needed lived, time-aware, place-based intelligence that matched how fear actually shows up in a week, not how crime is filed on a form.

Across interviews and a broad survey, the same pattern held: people constantly adapt routes, timing, and mode using informal knowledge and word of mouth. When that breaks down (new city, new job, late night), they improvise. Existing tools optimized for efficiency, not for the temporal, social reality of moving through public space as a woman.

Critical pain points (qualitative synthesis)

No real-time safety context

Navigation apps don't surface safety; people fall back on gut feel or stale word-of-mouth.

Fragmented information

Intel scattered across WhatsApp, friends, and personal memory, leaving no trusted central layer on the map.

Economic & life impact

Jobs, housing, and social life constrained by safety, and the tradeoffs are expensive and persistent.

Mental health toll

Constant hyper-vigilance drove stress and anxiety; several participants cited therapy linked to commute fear.

Key insights

Two findings that reframed the product

Forty-five in-depth interviews, diary studies, and n=1,247 survey responses converged on the same constraints. Those were not nice-to-haves but gates for IA and UI.

Thematic prevalence (45 interviews)

42 / 45

Constant vigilance fatigue

Mental exhaustion from being “always on alert” in public space.

38 / 45

Route optimization

Choosing lit, crowded routes even when they add time.

40 / 45

Community sharing

WhatsApp and informal networks carry safety intel without a shared map layer.

33 / 45

Technology trust

Privacy fears about location tracking and misuse tempered willingness to adopt tools.

Participant voices

“Google Maps shows the fastest route, not the safest. I've memorized streets to avoid after dark.”

Priya
Software engineer, Bangalore

“We share safety info in WhatsApp groups. Imagine tapping into thousands of women's experiences.”

Ananya
Student, Delhi

“I changed jobs because my 9 PM commute felt risky. Safety literally costs me money every month.”

Meera
Marketing manager, Mumbai
01

Safety is temporal

In interviews, the same streets and crossings read completely differently at 4 PM vs 10 PM. 83% already changed routes or timing weekly for safety, so time of day had to be first-class and easy to act on, not buried in settings.

02

Trust flows from peers

67% preferred community-verified, recent, local signal to distant official stats; distant authority felt cold on the street. The product had to read as collective sensemaking, not a top-down dashboard.

Those patterns plus the survey benchmarks (problem framing and survey charts & metrics) pointed to one move: a citizen-powered safety layer on the city with reporting, verification, map exploration, and privacy in the core offer, not bolted on after.

Interview analysis protocol

Sessions were recorded and transcribed verbatim. Two independent coders ran affinity mapping, collapsing 23 codes into 5 themes. Twelve participants validated findings through member checking, and themes were triangulated against the n=1,247 survey. Follow-up probes were conducted in English, Hindi, or Kannada per participant preference.

Research → design

Principles I used to judge every iteration

Temporal safety and peer trust were research inputs; four checks gated layout, flow, and defaults before build, each traceable to interview and survey patterns below.

Framework

Each principle is a decision gate: orientation, time and place in filters, trust on the map, reporting that protects the sharer, not polish.

Design opportunities from synthesis: (1) integrate safety into familiar navigation rather than replacing it; (2) formalize community-powered intelligence participants already share informally; (3) make time-of-day a first-class input in scores and filters; (4) lead with privacy-first architecture built on anonymous reporting, optional precision, and transparent use of data so we could unlock the 92% willing to contribute when trust is clear.

Map first, readable in seconds

Stress-first entry

Under stress, the map carries the first read of the area: no hero walls or intros before context.

Time and place are inputs, not filters buried in settings

Match the research

Same street, different hour, different risk. Filters lead with when and where, not a buried category list.

Trust you can interrogate

Plain language, visible provenance

Say how corroboration works: recency, locality, uncertainty, so people can trust or challenge the map, not a black box.

Privacy and control as part of the emotional design

Reporting that feels safe

Anonymity and precision control mattered for willingness to report; the flow had to feel emotionally safe before tech privacy could help.

The Result

What changed

Research-driven IA and flows translated into measurable adoption and confidence: the same temporal, peer-trust, and privacy-sensitive model we saw in interviews and the n=1,247 survey showed up in usage, completion, and self-reported safety after launch.

~15K
Active Users
Approximate, based on available analytics at time of departure
25K+
Safety Reports
Community contributions visible on the map
10+
Usability Sessions
Informal testing rounds across the design process

What we learned from testing

  • Users oriented to the map immediately without instruction.
  • The time-of-day filter was the most-used feature after launch.
  • Anonymous reporting removed the biggest barrier to submission. Participants said they wouldn't have reported otherwise.
Reflection

The biggest surprise was that community trust didn't come from the product. It came from showing up in person. The grassroots mapping sessions built credibility that no interface decision could have. That taught me design is only part of the system.

If I started again, I'd define success metrics with the team before launch, not after. Leaving without clear measurement in place meant the product's real impact was always harder to prove than it deserved to be.

View Live Site Product case study (UI & system) safeyelli.in