Project Overview

Developed a comprehensive digital twin platform for INYO Mobility’s electric vehicle development process. The platform combines real-time data visualization with interactive 3D models to optimize vehicle design and performance.

Interactive 3D view of the digital twin platform showing real-time vehicle data

Challenge

INYO Mobility needed a way to visualize and prototype vehicle designs without creating costly physical models. Traditional CAD workflows were slow and didn’t provide real-time performance insights.

Solution

Created a digital twin system that provides:

• Real-time 3D Visualization: Interactive vehicle component models
• Performance Simulation: Live testing of design modifications
• Data Integration: Sensor data from test vehicles
• Collaborative Tools: Multi-user design sessions

Real-time data visualization showing vehicle performance metrics

Advanced analytics dashboard for performance monitoring

Data Management & Analytics

The platform includes comprehensive data management tools for tracking vehicle performance metrics and analyzing sensor data in real-time.

Comprehensive data table interface for detailed performance analysis

Technical Implementation

The platform leverages modern web technologies:

• WebGL-based 3D rendering for high performance
• Real-time data streaming and visualization
• Responsive design for cross-platform compatibility
• Modular architecture for future scalability

Geographic mapping interface for location-based vehicle tracking

Technical system architecture and deployment structure

Results

Engineers reduced physical prototype iterations by 60%, accelerating the design process significantly while maintaining design quality and innovation standards.

Project Overview

Created a series of explainer videos for T-Cell AG to communicate the potential of hydrogen fuel cell technology for the energy transition. The videos focus on making complex scientific concepts accessible to a broad audience while maintaining technical accuracy.

English Presentation Video

Comprehensive presentation video explaining T-Cell’s hydrogen fuel cell technology and its applications

German Mobile Version

Mobile-optimized German version focusing on key benefits and applications

Project Goals

• Educational Focus: Translate complex hydrogen technology into understandable concepts
• Multi-Language Approach: Serve both English and German-speaking audiences
• Mobile Optimization: Ensure accessibility across different devices and platforms
• Scientific Accuracy: Maintain technical precision while improving accessibility

Technical Approach

The videos combine scientific visualization with clear narrative structure to explain:

• How hydrogen fuel cells work
• Environmental benefits of hydrogen technology
• Practical applications in the energy transition
• T-Cell AG’s role in advancing this technology

Impact

These explainer videos help T-Cell AG communicate their vision for hydrogen’s role in sustainable energy, making complex technology accessible to stakeholders, investors, and the general public interested in clean energy solutions.

Project Overview

INYO Mobility is revolutionizing urban transportation with their innovative electric vehicle ecosystem. I created a comprehensive set of 3D visualizations and marketing materials to showcase their cutting-edge technology and design philosophy.

Key hero visualization showcasing INYO’s electric vehicle design

Key Deliverables

3D Product Visualizations

• High-fidelity 3D models of INYO’s electric vehicles
• Photorealistic renderings for marketing campaigns
• Interactive 3D experiences for web presentations
• Technical visualization for product development

Detailed product visualization highlighting vehicle design

Technical rendering showcasing engineering precision

Marketing Materials

• Digital assets for social media campaigns
• Print materials for trade shows and exhibitions
• Interactive presentations for investor meetings
• Brand-consistent visual identity across all materials

Marketing visualization emphasizing the sleek design and innovation

Process & Approach

The project began with understanding INYO’s vision for sustainable urban mobility. I worked closely with their design team to ensure accuracy in technical details while maintaining the sleek, futuristic aesthetic that defines their brand.

Initial design exploration and concept development

Refinement of visual style and technical accuracy

Final visualization polish and presentation preparation

Technical Implementation

• 3D Modeling: Created detailed vehicle models with accurate proportions and materials
• Lighting & Rendering: Developed lighting setups that emphasize the vehicles’ premium design
• Post-Processing: Fine-tuned images for maximum impact across different media formats

Results

The visualizations have been used across INYO’s marketing channels, helping them secure funding and partnerships. The materials effectively communicate the innovation and quality of their electric vehicle ecosystem to investors, customers, and media.

“The visualizations perfectly captured our vision and helped us communicate the potential of our technology to stakeholders.” - INYO Mobility Team

Project Overview

Project Arcadia represents the culmination of my Master’s degree in Computational and Advanced Design. This project explores the intersection of parametric design, environmental responsiveness, and architectural form-finding through computational methods.

Main project visualization showcasing the parametric structure

Design Process

The project began with extensive research into responsive architectural systems and how computational tools can be used to create adaptive structures that respond to environmental conditions.

Initial research and conceptual framework development

Computational methodology and parameter exploration

Computational Framework

The design framework was built using Grasshopper and custom Python components, allowing for real-time parameter adjustments and form optimization based on environmental data inputs.

Computational design framework and parameter relationships

Development Phases

The project evolved through multiple iterations, each refining the relationship between form, function, and environmental responsiveness.

First iteration exploring basic parametric relationships

Refinement of environmental response mechanisms

Advanced optimization and performance testing

Work in Progress

Development process and iterative design exploration

Final Design

The final design demonstrates a successful integration of computational design principles with architectural sensibility, creating a structure that is both formally compelling and environmentally responsive.

Final design render showing the completed parametric structure

Project Video

Final project presentation showcasing the complete design process and outcomes

Technical Implementation

• Parametric Modeling: Grasshopper for visual programming
• Environmental Analysis: Climate data integration for responsive behavior
• Form Optimization: Python scripting for performance-based design
• Visualization: High-quality rendering pipeline for presentation

Key Learnings

This project taught me the importance of balancing computational complexity with design intent, and how parametric tools can be used not just for efficiency, but as a creative medium for architectural exploration.