Bridging Generations Through Mobility Design

Enabling independent travel for seniors while connecting families

Executive Summary

Mobility is often designed for independence but for ageing individuals, independence is rarely individual.

As people grow older, movement becomes constrained not just by physical ability, but by confidence, cognitive load, and an increasing reliance on family. Existing mobility systems fail to acknowledge this shift. They optimise for speed and efficiency, while older adults navigate uncertainty, fragmented support, and a shrinking “life space.”

This project rethinks mobility not as a solo activity, but as a shared system between seniors and their families - one that balances autonomy with support, and safety with dignity.

The outcome is a mobility experience that enables older adults to move confidently through their world, while staying meaningfully connected to those who care for them.

Ecosystem Map

Approach

Environmental
Behavioral
Social

Expand

Frame

Enable

Moved beyond the individual to map mobility as a shared ecosystem of seniors, families, and services revealing hidden dependencies, decision gaps, and moments of uncertainty.

Reframed mobility from task completion to “life space”-measuring how far individuals can move with confidence, not just capability.

Developed solutions that balance autonomy and support - where assistance is adaptive, non-intrusive, and activated only when needed.

Key Features

A dynamic indicator that measures how confidently a user can navigate their environment - factoring in distance, familiarity, and assistance required.

Life-Space Score

Collaborative Trip Planning


Enables seniors and family members to co-plan journeys with shared visibility, inputs, and approvals.


Adaptive Assistance Layer

Context-aware support that activates only when needed - guidance, alerts, or intervention based on user state and journey complexity.


Connected Safety Net

A passive monitoring layer that keeps families informed without intrusion - through live updates, checkpoints, and escalation triggers.

User Archetypes

The Independent Navigator
The Supported Explorer
The Assisted Dependent

Values autonomy and routine. Travels within familiar zones and prefers not to rely on others unless absolutely necessary.

Wants to stay active and engaged but operates with partial dependence - often coordinating with family for planning and reassurance.

Relies significantly on external support due to physical or cognitive limitations. Travel is infrequent, high-stakes, and often anxiety-driven.

Information Architecture

Task Flow

Concepts

Typography

Colors

Core System - Designing for Continuous Confidence

(Home, Assist, Safe, Connect)

The core interface brings together four traditionally separate concerns navigation, safety, assistance, and social connection - into a single, continuous experience layer.

  • Home acts as a cognitive anchor, reducing recall by surfacing continuity (“continue where you left off”) and intent-driven actions.

  • Assist externalizes what is typically invisible user needs, environmental constraints, and contextual alerts.

  • Safe reframes safety from a reactive trigger (SOS) to a persistent layer of reassurance, spanning prevention, detection, and recovery.

  • Connect integrates family and community as ambient participants, not active dependencies.

Design Decision

Instead of distributing these across isolated features, I unified them into a state-based system where:

  • users move between confidence states, not screens

  • the system continuously adapts based on context, behavior, and risk

Identity Layer - Trust, Control, and Social Contracts

(Profile, Family Circle, Permissions, Life-Space positioning)

The profile is not treated as a static settings page, but as a control surface for trust, identity, and shared responsibility.

It introduces:

  • Family & Care Circles as distributed decision systems

  • Role-based permissions to balance visibility and autonomy

  • Life-Space Score as a reflection of lived mobility, not app usage

Design Decision

(I reframed identity from:

  • “user account”
    → to “mobility context owner”

Where users can:

  • define who participates in their journeys

  • control how and when support is activated

  • understand their mobility over time

Calibration Layer - Designing for Adaptive Systems

(Onboarding: conditions, challenges, needs)

Onboarding is designed not as setup, but as system calibration—capturing the interplay between physical, cognitive, and behavioral factors.

Instead of asking:

  • “What features do you want?”

The system understands:

  • how users perceive, decide, and respond under uncertainty

Design Decision

I replaced static accessibility toggles with a multi-dimensional input model:

  • Conditions (vision, hearing, mobility)

  • Behavioral patterns (hesitation, confusion, fatigue)

  • Environmental sensitivity

This enables the system to adapt:

  • interaction density

  • modality (audio vs visual)

  • level of guidance

Journey Layer - From Planning to Confidence Memory

(Trip planning, route selection, co-planning, Life-Space loop)

The journey does not begin when movement starts. It begins at the moment of decision. This layer connects planning, execution, and reflection into a single loop that builds confidence over time.

Design Decision

1. Planning as Risk Reduction

  • Collaborative trip creation

  • Preference sliders (safety vs efficiency)

  • Environmental awareness

2. Route Selection as Explanation

  • Not just options but why each route exists

  • Annotated with familiarity, safety, and effort

3. Co-Planning as Default

  • Family suggestions integrated into decision flow

  • Not external communication, but embedded input

4. Life-Space as Feedback Loop

  • Post-trip reflection feeds long-term mobility confidence

Final Reflection

This project began as an exploration of navigation.
It evolved into a rethinking of mobility as a system of confidence, trust, and recovery.

The most critical shift was recognizing that:

  • users do not fail because systems are inaccurate

  • they fail because systems do not support them when uncertainty emerges

Designing for mobility, therefore, is not about optimizing routes.
It is about ensuring that at any moment in the journey, the user can answer:

“Am I still in control?”

The future of mobility systems will not be defined by precision—
but by their ability to absorb failure, distribute trust, and sustain confidence over time.