1. Owned design and support for puzzle creation workflows used by publishers including Scientific American, San Francisco Standard, The Globe and Mail, and Billboard, and assisted with puzzle workflow integrations for the LA Times app.

2. Design and improve internal tools, dashboards, and creator-facing systems that support puzzle publishing, analytics, and operational workflows across the PuzzleMe platform.

3. Partner with product and engineering teams to streamline publishing workflows, troubleshoot product issues, and ship improvements that make creator tools more efficient and scalable.

1. Designed new games creator workflow, improving usability by 300% increase in the number of puzzles created per day (150 -> 600), within a 6-month period.

2. Responsible for end-to-end user research which led to a 900% increase in product feedback. Collaborated with product and engineering to improve creator-facing tools and streamline publishing processes.

3. Created branded demos that helped the sales teams pitch prospective clients including National Geographic, New Yorker and Volkswagen.

Co-Author of published paper: "Passive Wearable Microstructures as Adaptable Interfaces for the Physical Environment".

Our objective was to we create a wearable interface that empowers users to adjust perceived material properties.

1. Designed digital diagrams for paper submission using Rhino 7 & Fusion360.

2. Constructed physical prototypes of modular connection techniques.

Our goal was to create a programmable mesh that shortens the feedback loop between the design process and the iteration process by creating rapid physical prototypes

1. Created digital iterations of the parametric prototypes using Rhino 7, Grasshopper, and the Adobe Creative Cloud

2. Created physical prototypes that utilized a range of methods to optimize node manipulation techniques and control strategies for programmable meshes with curved surfaces

Researched under Dr. Scott Hudson & HCI Researcher Jesse T. Gonzalez

Co-Author of Publication "Constraint - Driven Robotic Surfaces, At Human Scale"

Our goal was to create a constraint-driven robotic wall that can perform robotic functions when necessary, but disappear back into the built environment when not in use.

1. Created a semi-modular material, consisting of multiple independent columns, each comprising seventeen double-jointed cells.

2. Created renders / 3D Models / Animations of the real - world applications of the robotic materials using Rhino 7, V-Ray, & Enscape

3. Published and presented at UIST Conference 2023 (Awarded Best Demo)