The research I lead and contribute to operates within the framework of bio.LOGIC—an integrated approach that bridges computational logic, biological systems, material science, design, and technology to inspire innovative, transformative, and sustainable solutions.

At the core of this framework is an emphasis on process, behavior, matter, and geometry—understood as dynamic, interrelated forces rather than static components. This perspective informs collaborative investigations into how materials perform under constraints, how geometries evolve through simulation and fabrication, and how systems can adapt or transform in response to environmental and human conditions.

bio.LOGIC functions both as a methodology and a shared design philosophy, shaping interdisciplinary efforts across academia, industry, and practice. Whether through leadership roles, partnerships, or joint initiatives, my work within this framework contributes to the advancement of responsive, intelligent, and materially attuned architectures—rooted in ecological awareness and technological innovation.