This graduate thesis project explores the intersection of color theory, environmental psychology, and smart technology to develop a user-centered desk lighting system that supports productivity and cognitive performance in modern workspaces. Grounded in extensive research on the physiological and psychological effects of light and color, the project investigates how tailored lighting conditions can influence focus, comfort, and overall task efficiency.
Through a mixed-methods research approach, including environmental observations, user surveys, cognitive testing, and iterative prototyping, the study identifies key lighting attributes that impact mental clarity and workflow. The outcome is lūm, a modular, smart lighting system designed to adapt to users' needs throughout the day by offering customizable color-temperature profiles, spatially layered illumination, and intuitive app-based controls.
This thesis not only contributes to the field of human-centered lighting design but also offers practical insights into how intelligent systems can transform everyday work environments into healthier, more cognitively supportive spaces.
“Experiencing the Future” is an immersive design futures project exploring what mobility and accessibility might look like in Houston in the year 2040. Presented at the University of Houston’s Spring Gathering (Annual Conference), the experience invited participants to step into speculative personas navigating a reimagined urban infrastructure. Through a self-guided journey involving an AI-narrated intro, role-play, a Figma-based prototype, and a physical crosswalk installation, participants confronted frictions in future mobility systems, highlighting gaps, innovations, and tensions around inclusive urban design. The project blends speculative storytelling with tangible interaction, prompting critical reflection on how we design for agency, equity, and adaptation in future cities.
Designing assistive medical devices is crucial for improving the quality of life and independence of individuals with disabilities or chronic conditions. These devices enhance mobility, accessibility, and health management, facilitate rehabilitation, and reduce caregiver burden. They also foster social inclusion, drive technological innovation, and have significant economic impacts by enabling greater workforce participation and reducing long-term healthcare costs.
National Science Foundation Funded
Non-Invasive Brain Machine Interface Systems Laboratory
TIRR Memorial Herman Partnered Project
Pediatric Lower-Extremity Gait System (P-LEGS)
P-LEGS is a modular device with a total of six motors that provide sagittal plane support in the hip, knee and ankle joints of each leg. It also has two non-motorized degrees of freedom at the hips to allow for weight shifting during walking. The walking pattern and level of support provided are customizable on a joint-by-joint basis to accommodate the unique needs of each child within the target clinical populations. The device is multifunctional and characterized as rehabilitation technology, assistive technology and as a diagnostic tool.
The Future of Materials for Mass Produced Products in 2030
This foresight research project explores the evolving landscape of materials in mass production by 2030, focusing on sustainable innovation, advanced manufacturing technologies, and circular economy practices. Through scenario planning and data-driven insights, the study identifies key trends, challenges, and opportunities in adopting bio-based, recyclable, and modular materials. The research highlights how technological advancements and shifting consumer preferences are driving the transition to more sustainable, cost-efficient, and ethically produced goods, providing a roadmap for industries to align with future demands.