Work Collection

LUMA — Earthquake Preparedness Companion

LUMA — Earthquake Preparedness Companion

LUMA — Earthquake Preparedness Companion

Role

Role

UI/UX Designer – Led the end-to-end design process, from user research and concept development to interface design and prototyping.

UI/UX Designer – Led the end-to-end design process, from user research and concept development to interface design and prototyping.

Team

Team

Individual Project

Individual Project

Tools

Tools

Figma, Blender, Java, Arduino, Premiere pro

Figma, Blender, Java, Arduino, Premiere pro

Overview

Overview

LUMA is my final year project at L’École de Design Nantes Atlantique, part of the Mémoire and diploma process in the Digital Design master's program. The project explores how digital tools can support earthquake preparedness and build resilience in urban environments — especially in regions at high seismic risk.

The work spans over several months and is structured in three phases.

  • Phase 1, completed, involved deep research: more than a dozen expert interviews (engineers, psychologists, survivors, educators), on-site field visits in Turkey, literature reviews, and qualitative analysis of user needs.

  • Phase 2, completed, focuses on design concept exploration, user journey definition, and prototyping.

  • Phase 3 will cover final interface design, motion prototypes, and user testing.

The project takes inspiration from real pain points—psychological, social, infrastructural—and aims to offer both emotional and practical value. LUMA is not just a product idea; it's a design-led investigation into how humans can be empowered in moments of crisis.

LUMA is my final year project at L’École de Design Nantes Atlantique, part of the Mémoire and diploma process in the Digital Design master's program. The project explores how digital tools can support earthquake preparedness and build resilience in urban environments — especially in regions at high seismic risk.

The work spans over several months and is structured in three phases.

  • Phase 1, completed, involved deep research: more than a dozen expert interviews (engineers, psychologists, survivors, educators), on-site field visits in Turkey, literature reviews, and qualitative analysis of user needs.

  • Phase 2, completed, focuses on design concept exploration, user journey definition, and prototyping.

  • Phase 3 will cover final interface design, motion prototypes, and user testing.

The project takes inspiration from real pain points—psychological, social, infrastructural—and aims to offer both emotional and practical value. LUMA is not just a product idea; it's a design-led investigation into how humans can be empowered in moments of crisis.

LUMA is my final year project at L’École de Design Nantes Atlantique, part of the Mémoire and diploma process in the Digital Design master's program. The project explores how digital tools can support earthquake preparedness and build resilience in urban environments — especially in regions at high seismic risk.

The work spans over several months and is structured in three phases.

  • Phase 1, completed, involved deep research: more than a dozen expert interviews (engineers, psychologists, survivors, educators), on-site field visits in Turkey, literature reviews, and qualitative analysis of user needs.

  • Phase 2, completed, focuses on design concept exploration, user journey definition, and prototyping.

  • Phase 3 will cover final interface design, motion prototypes, and user testing.

Methodology

Methodology

LUMA was built using a design thinking approach, structured into four iterative phases: understand, define, ideate, and prototype.

LUMA was built using a design thinking approach, structured into four iterative phases: understand, define, ideate, and prototype.

Key elements of my methodology included:

  • Qualitative field research in Turkey, focusing on earthquake-prone regions (Izmir, Hatay)

  • Expert interviews with civil engineers, AFAD officials, psychologists, rescue volunteers (AKUT), educators, and survivors

  • User journey mapping based on lived experiences during the 2020 and 2023 earthquakes

  • Thematic analysis of recurring pain points such as lack of awareness, inconsistent education, tech failure, and emotional trauma

  • Competitive benchmarking with existing alert systems and preparedness tools

  • Scenario-building and storyboarding to imagine how people interact with preparedness systems before, during, and after an earthquake

Key elements of my methodology included:

  • Qualitative field research in Turkey, focusing on earthquake-prone regions (Izmir, Hatay)

  • Expert interviews with civil engineers, AFAD officials, psychologists, rescue volunteers (AKUT), educators, and survivors

  • User journey mapping based on lived experiences during the 2020 and 2023 earthquakes

  • Thematic analysis of recurring pain points such as lack of awareness, inconsistent education, tech failure, and emotional trauma

  • Competitive benchmarking with existing alert systems and preparedness tools

  • Scenario-building and storyboarding to imagine how people interact with preparedness systems before, during, and after an earthquake

Key elements of my methodology included:

  • Qualitative field research in Turkey, focusing on earthquake-prone regions (Izmir, Hatay)

  • Expert interviews with civil engineers, AFAD officials, psychologists, rescue volunteers (AKUT), educators, and survivors

  • User journey mapping based on lived experiences during the 2020 and 2023 earthquakes

  • Thematic analysis of recurring pain points such as lack of awareness, inconsistent education, tech failure, and emotional trauma

  • Competitive benchmarking with existing alert systems and preparedness tools

  • Scenario-building and storyboarding to imagine how people interact with preparedness systems before, during, and after an earthquake

Concept Exploration

Concept Exploration

Before deciding on LUMA, I explored three distinct design directions, each addressing different aspects of earthquake preparedness. These concepts emerged from research insights and interviews, and were evaluated based on feasibility, emotional impact, and user relevance.

Before deciding on LUMA, I explored three distinct design directions, each addressing different aspects of earthquake preparedness. These concepts emerged from research insights and interviews, and were evaluated based on feasibility, emotional impact, and user relevance.

Before deciding on LUMA, I explored three distinct design directions, each addressing different aspects of earthquake preparedness. These concepts emerged from research insights and interviews, and were evaluated based on feasibility, emotional impact, and user relevance.

Key Issues Identified

  1. C.ME

➤ Focus: Real-time data and smart city infrastructure

A networked detection and rescue system using urban vehicles (taxis, public transport) equipped with cameras and gyroscopes. These mobile sensors map real-time tremors, identify risk zones, and share data instantly with rescue services — optimizing evacuation routes and strengthening urban coordination.

➤ Focus: Real-time data and smart city infrastructure

A networked detection and rescue system using urban vehicles (taxis, public transport) equipped with cameras and gyroscopes. These mobile sensors map real-time tremors, identify risk zones, and share data instantly with rescue services — optimizing evacuation routes and strengthening urban coordination.

➤ Focus: Real-time data and smart city infrastructure

A networked detection and rescue system using urban vehicles (taxis, public transport) equipped with cameras and gyroscopes. These mobile sensors map real-time tremors, identify risk zones, and share data instantly with rescue services — optimizing evacuation routes and strengthening urban coordination.

Functionalities

Functionalities

Use Case Scenario

  1. SISMO KIT

➤ Focus: Institutional readiness and public safety coordination

A seismic safety system designed for schools and workplaces. It integrates early warning systems, a facial recognition camera for headcounts, and a portable earthquake kit. Upon detecting danger, it triggers visual and audio alarms, automatically alerts authorities, and ensures faster, more coordinated emergency responses.

➤ Focus: Institutional readiness and public safety coordination

A seismic safety system designed for schools and workplaces. It integrates early warning systems, a facial recognition camera for headcounts, and a portable earthquake kit. Upon detecting danger, it triggers visual and audio alarms, automatically alerts authorities, and ensures faster, more coordinated emergency responses.

➤ Focus: Institutional readiness and public safety coordination

A seismic safety system designed for schools and workplaces. It integrates early warning systems, a facial recognition camera for headcounts, and a portable earthquake kit. Upon detecting danger, it triggers visual and audio alarms, automatically alerts authorities, and ensures faster, more coordinated emergency responses.

Functionalities

Functionalities

Use Case Scenario

  1. LUMA

➤ Focus: Individual empowerment and emotional resilience

➤ Why I chose it: LUMA stood out as the most emotionally engaging and universally accessible concept, had the capacity the create long-term behavioral change while addressing real user pain points identified during fieldwork.

➤ Focus: Individual empowerment and emotional resilience

➤ Why I chose it: LUMA stood out as the most emotionally engaging and universally accessible concept, had the capacity the create long-term behavioral change while addressing real user pain points identified during fieldwork.

➤ Focus: Individual empowerment and emotional resilience

➤ Why I chose it: LUMA stood out as the most emotionally engaging and universally accessible concept, had the capacity the create long-term behavioral change while addressing real user pain points identified during fieldwork.

Luna is a smart bracelet paired with a mobile application, designed to enhance safety in the event of an earthquake. This combination analyzes risks within homes, identifies safe zones, and guides users through intuitive alerts. In emergencies, Luna also facilitates communication by sending GPS signals to locate users and alert emergency responders.

Luna is a smart bracelet paired with a mobile application, designed to enhance safety in the event of an earthquake. This combination analyzes risks within homes, identifies safe zones, and guides users through intuitive alerts. In emergencies, Luna also facilitates communication by sending GPS signals to locate users and alert emergency responders.

Luna is a smart bracelet paired with a mobile application, designed to enhance safety in the event of an earthquake. This combination analyzes risks within homes, identifies safe zones, and guides users through intuitive alerts. In emergencies, Luna also facilitates communication by sending GPS signals to locate users and alert emergency responders.

Functionalities

Use Case Scenario

Prototyping & Testing

Prototyping

Built physical prototypes for each concept using Arduino, including vibration detection and alert mechanisms

  • Simulated different earthquake scenarios to test how users respond to visual and audio feedback

  • Paired the hardware with interactive Figma prototypes of the mobile app for a full user journey

Next step: LUMA : Developing a more advanced, integrated version of the wearable + app system — with higher-fidelity sensors, improved connectivity, and deeper integration of user feedback

Built physical prototypes for each concept using Arduino, including vibration detection and alert mechanisms

  • Simulated different earthquake scenarios to test how users respond to visual and audio feedback

  • Paired the hardware with interactive Figma prototypes of the mobile app for a full user journey

Next step: LUMA : Developing a more advanced, integrated version of the wearable + app system — with higher-fidelity sensors, improved connectivity, and deeper integration of user feedback

Built physical prototypes for each concept using Arduino, including vibration detection and alert mechanisms

Simulated different earthquake scenarios to test how users respond to visual and audio feedback

Paired the hardware with interactive Figma prototypes of the mobile app for a full user journey

Next step: LUMA : Developing a more advanced, integrated version of the wearable + app system — with higher-fidelity sensors, improved connectivity, and deeper integration of user feedback

To be continued…

To be continued…

Next Case Study

Nantes métropole dans ma poche

Nantes métropole dans ma poche

Nantes métropole dans ma poche

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