We explored a generative interface for Toyota’s customer-facing vehicle inventory systems. It helped users assemble custom vehicle packages and search availability across dealerships using conversational and criteria-driven prompts.
AI integrated seamlessly into the discovery experience, allowing users to describe their needs naturally and receive guided, personalized support.
Recommendations reflect user context, making it easier to compare and customize vehicles suited for specific lifestyles.
- Define intent
- Build vehicle
- Search inventory.
For each phase, we mapped inputs, outputs, adaptation logic, and failure states to define the appropriate patterns.
Sample of our input, output, and adaptation logic framework.
Fleshed-out example that walks through a user interaction across each layer.
Before we could complete this exercise effectively, we first needed to align on tone of voice. I facilitated personality-mapping sessions for each AI application to define how the system should sound and behave.
During vehicle build, the assistant adapts in real time, prompting clarifying questions based on user input.
As preferences are selected, the system updates chips and trim recommendations in real time to reflect the customer’s needs.
Users can opt-out of AI assistance at any point, returning to the standard vehicle build experience.
Turning off AI assistance removes tailored guidance—returning users to a broader, unfiltered build experience without personalized recommendations.
At the end of the journey, AI surfaces vehicle matches based on customer preferences and real-time supply chain availability.
Integrated within Toyota’s Cube Supply Chain Management Platform, we designed an AI interface enabling team members to query and interact with logistics data using natural language prompts.
The AI interprets user input and surfaces key patterns, offering contextual next steps.
Working in close collaboration with IBM’s watsonx.ai team, we integrated IBM’s Granite large language models to generate natural language summaries for multi-condition logic involving event and vehicle triggers. These summaries allowed non-technical users to quickly understand what would happen when certain thresholds were met.
This layer allowed business teams to confidently create, validate, and communicate logic without relying on technical support.
Users define multi-condition logic using event and vehicle-level conditions to automate platform behavior.
Upon collapse, natural language summaries clarify when rule conditions are met and actions will trigger.