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Dana Cupkova

Professor Carnegie Mellon University

  • Pittsburgh PA

Dana Cupkova's work advances regenerative material systems and the spatial dynamics of ecological resilience.

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Biography

Dana Cupkova is a Professor at Carnegie Mellon School of Architecture and the graduate Track Chair of the MS in Regenerative and Sustainable Design (MS-RSD) program. She directs EPIPHYTE Lab, a design and research collaborative that was recognized as the Next Progressives design practice by ARCHITECT Magazine in 2018. She is a recipient of the 2019 ACADIA Teaching Award of Excellence, the 2022 ACSA Creative Achievement, and a 2022-23 Fulbright US Scholar. Additionally, she is a member of the Editorial Board of the International Journal of Architectural Computing (IJAC).

Dana’s design work is driven by a holistic vision of the built environment, centered on the relationship between ecology and technology, and the capacity of architecture to become ecologically vibrant. Her work seeks attunement with natural processes in pursuit of the aesthetics of ecological intimacy. By folding evidence-based methods into creative design solutions, Dana’s research emphasizes the interconnectedness of architecture and landscape through the study of circularity, thermodynamics, embodied energy, bio-based processes, and advanced manufacturing. She investigates strategies for remediation and decarbonization through the use of construction waste streams.

Areas of Expertise

Advanced Manufacturing
Architecture
Energy
Sustainability
Computational Design

Media Appearances

Epiphyte Lab creates architecture "with empathy to all species"

Dezeen  online

2020-07-06

Dana Cupkova, an associate professor at the Carnegie Mellon School of Architecture, founded the firm in 2009 alongside her late collaborator Kevin Pratt, with the aim of creating architecture that "acts like an epiphyte".

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Panel, Material Responsibility: Mollie Claypool, Dana Cupkova, and Achim Menges

ArchDaily  online

2021-09-17

Presentations from Mollie Claypool (The Bartlett School of Architecture, UCL), Dana Cupkova (Carnegie Mellon School of Architecture), and Achim Menges (University of Stuttgart Institute for Computational Design and Construction), will be followed by a panel discussion with Taubman College faculty.

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Cardoso Llach Curates Computational Design Exhibition

Carnegie Mellon University News  online

2021-11-03

Specifically, the show illuminates the 20th Century emergence of new methods for design representation, simulation and manufacturing linked to digital computers' capacities for information processing and display, and reflects on their contemporary repercussions across architecture, art and design. Along with a selection of historical materials, works by 30 contemporary creators are displayed including Philip Beesley, Felicia Davis and Delia Dumitrescu, and Rafael Lozano Hemmer, as well as by CMU faculty including Dana Cupkova, Ramesh Krishnamurti, and Golan Levin. A team of the School of Architecture's Computational Design students, including Jinmo Rhee, Emek Erdolu, Erik Ulberg, Maria Vlachostergiou and Mali Tribune, contributed to the show's curation and design, and to the preparation of several interactive pieces on display in Montréal.

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Media

Social

Industry Expertise

Research
Architecture and Planning
Education/Learning

Accomplishments

Kate Neal Kinley Memorial Fellowship

School of the Arts and Architecture at UCLA

Mimi Perloff Award

School of the Arts and Architecture at UCLA

Unrestricted University Fellowship

School of the Arts and Architecture at UCLA

Education

Slovak University of Technology

Professional degree of Engineer Architect

Architecture and Urban Design

School of the Arts and Architecture at UCLA

M.Arch.

Architecture and Urban Design

Event Appearances

Greening the Urban Environment

CMUThink  Pittsburgh, PA

Articles

Rebalance & reciprocity: Emergent topics in architectural computing

International Journal of Architectural Computing

2026

At a moment marked by a deep perception of overlapping social, environmental, and political crises, we hope to look ahead while also looking inward. In the face of rapid technological change and deep ecological and social instability, this special issue turns to architectural computing as a field in need not only of innovation, but of critical self-reflection. Framed through the theme “Rebalance and Reciprocity,” it asks how computation might help reconfigure relationships between designers, tools, materials, environments, and publics in ways that are more reciprocal, inclusive, and responsive to context.

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Robotic concrete surface finishing: a moldless approach to creating thermally tuned surface geometry for architectural building components using Profile-3D-Printing

Construction Robotics

2018

This paper focuses on describing a novel hybrid concrete printing/casting process we term Profile-3D-Printing. Profile-3D-Printing is an additive/subtractive manufacturing process that combines deposition of concrete for rough layup with precision tooling for surface finishing of architectural building components commonly found in the architectural precast industry. Our research team from Architecture, the Robotics Institute, and Material Science invented this novel hybrid manufacturing process for robotically printing architectural facade panels with complex surface geometries.

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Mass Regimes: Geometric Actuation of Thermal Behavior

International Journal of Architectural Computing

2015

The Mass Regimes is a research project that investigates the effect of complex geometry on processes of passive heat distribution in thermal mass systems. In the context of systems thinking, this research intends to instrumentalize design principles that engage a wider range of design tactics for choreographing thermal gradients between buildings and their environment. Research for this project has brought about a deeper understanding of how specific geometric manipulations of surface area over the same mass (Figure 1) affect the rate of thermal transfer.

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