I am a Postdoctoral researcher at the Interactive Experience Lab (ixLab), School of Computing Science at Simon Fraser University. I received my PhD from the School of Interactive Arts under the supervision of Dr. Sheelagh Carpendale and Dr. Charles Perin.
My work lives at the intersection of Human-Computer Interaction, Data Visualization, and Aesthetics.
I study how people interact with technology , across digital platforms and physical artifacts , and design systems that support and empower them. Through human-centered research and design, I aim to create experiences that are functional but also inclusive, reflective, and emotionally resonant.
My doctoral dissertation earned the 2025 IEEE VGTC Doctoral Dissertation Award (Honorable Mention), recognizing outstanding contributions in visualization and visual analytics.
Unlike digital visualization, physicalization design introduces structural and material uncertainties, which require immediate feedback and often rapid iteration. This makes physicalization design a speculative, labor-intensive, and expertise-dependent activity. While speculative reasoning can be central to physicalization, authoring tools remain scarce and there is a lack of computational support that can help in anticipating physicalization outcomes. We explore how feedforward mechanisms (predictive features) might help physicalization designers anticipate post-fabrication qualities like tactile feel and expandability before fabrication by iteratively developing and studying DataCuts, a physicalization authoring tool for designing Kirigami-based data physicalizations. Our study findings show that DataCuts’ simple feedforward functionalities can inform design decisions, shape people’s understanding of physical properties and encourage tactile representation over conventional mappings. Building on these results, we discuss implications for designing data physicalization support tools that integrate feedforward.
There is a growing interest in representing data physically across various domains. However, our understanding of the physicalization design process is minimal, posing barriers to supporting designers and wider utilization of physicalization. In this work, we studied the dynamics of the physicalization design process, to understand how data physicalization designers navigate, iterate, and make decisions throughout their creative workflows. We employed a technology probe approach that facilitates designing KiriPhys – Kirigami-inspired physicalizations. We conducted an exploratory qualitative study, observing physicalization experts design KiriPhys freely and using the probe. From analysing the gathered data, we discovered an interactive data physicalization design process formed of six activities, characterized by non-linear and highly iterative movements between them. A key observed activity within this process is the concept of feedforward, which highlights the designer’s proactive forward-thinking when making design choices, considering the physical aspects of the results. Our findings suggest strategies for digitally supporting the interactive data physicalization process.
There is a growing interest in representing data physically across various domains. However, our understanding of the physicalization design process is minimal, posing barriers to supporting designers and wider utilization of physicalization. In this work, we studied the dynamics of the physicalization design process, to understand how data physicalization designers navigate, iterate, and make decisions throughout their creative workflows. We employed a technology probe approach that facilitates designing KiriPhys – Kirigami-inspired physicalizations. We conducted an exploratory qualitative study, observing physicalization experts design KiriPhys freely and using the probe. From analysing the gathered data, we discovered an interactive data physicalization design process formed of six activities, characterized by non-linear and highly iterative movements between them. A key observed activity within this process is the concept of feedforward, which highlights the designer’s proactive forward-thinking when making design choices, considering the physical aspects of the results. Our findings suggest strategies for digitally supporting the interactive data physicalization process.
April 13–17, 2026
Barcelona, Spain
ACM CHI 2026 Workshop: Craft, Physicalization, and Meaningful Making
Workshop Co-Organizer
Co-organizing a three-hour, in-person CHI workshop bringing together HCI, data visualization, and craft communities to explore craft-based data physicalization through hands-on activities and discussion, with the goal of shaping a shared research agenda.
November 10–14, 2025
Vienna, Austria
IEEE VIS 2025
Presenter
Presented three contributions at IEEE VIS 2025: InputVIS (with Sheelagh Carpendale) on low-effort, less-intrusive modalities for data input; AltVIS (with Wei Wei, Zezhong Wang, Erica Mattson, Charles Perin, Sheelagh Carpendale) reflecting on a two-and-a-half-year co-design collaboration with a local arts community; and the poster Noticing as Visualization Practice, introducing noticing as a methodology to surface latent everyday data for new visualization and physicalization experiences.
June 26–29, 2025
Kelowna, BC, Canada
Graphics Interface (GI) 2025
I will present my paper on feedforward—the often overlooked counterpart to feedback—in the context of creative authoring tools. This work explores how anticipatory system responses can support users during exploratory design tasks.
March 4–7, 2025
Bordeaux, France
Tangible, Embedded, and Embodied Interaction (TEI) 2025
Presented an ethnographic study on physicalization design practices, introducing the first empirically driven design pipeline in the field. The paper offers actionable guidelines to inform tool development grounded in real-world workflows.
Los Angeles, CA, USA
Invited Talk at ACM SIGGRAPH 2023
Chosen by IEEE VIS, TVCG, and ACM SIGGRAPH to present my paper: KiriPhys: Exploring New Data Physicalization Opportunities, as part of a special selection of top 2022 papers. This honor highlights work from across VIS selected for its innovation and impact.