Human-robot adaptive workflows for disassembly, repair, and construction.
Re:Config explores new ways to adapt partially damaged or outdated timber structures by reconfiguring their spatial layouts and structural systems while preserving as much material as possible. The project introduces a hybrid workflow where humans and robots collaborate in processes of disassembly, repair, and reconstruction, navigating the uncertainties of material condition, ad-hoc tectonics, geometry, and other factors which cannot be accounted for a priori.
Beyond assisting with heavy and repetitive tasks, robots further support skilled workers in repairing and extending elements in situ, devising new techniques of digital craft rooted in artisanal timber framing and repair.
By integrating robotic fabrication, computer vision, structural design, and assistive decision-making, Re:Config enables localized, on-the-fly interventions that eliminate the need for extensive scaffolding, logistics, or full deconstruction. All operations follow design-for-disassembly (DfD) principles, aiming to preserve future reuse potential. As a new DfD logic is introduced into traditional interlocking frames, hybrid tectonics emerge; bridging traditional techniques with adaptive, forward-looking construction methods.
The structural elements of the existing building are relocated and reassembled to form a new configuration. This transformation occurs progressively—on the fly—as the structure evolves from a pitched roof with trusses to a flat roof with reinforced layers. This shift introduces a new typology, complete with updated construction details and architectural language. Each beam is surveyed and documented for length, diameter, density, and condition to assess its potential for reuse.
Robots are used to accurately position elements and navigate within the complex spatial geometry of the structure, enabled by camera vision and coordinated robot-to-robot communication. However, human involvement remains essential—especially when dealing with irregular natural materials like wood. Humans make fine adjustments, push joints into place, and respond to unforeseen conditions. While robots handle heavy lifting and positioning, humans assemble and fine-tune the joints for a secure and adaptable fit.
The repositioning of components and the resulting typological shift give rise to new structural connections between reclaimed elements. These connections are, using timber joinery supported by steel brackets. Reinforcement is achieved through material doubling, and beam extensions are made using techniques such as lap joints and scarf joints, allowing shorter pieces to be combined into longer spans.
by Marirena Kladeftira , Alberto Johnsson and supervised by Prof. Stefana Parascho and Prof. Corentin Fivet.
With the support of: Arthur Breen, Eric Duong, and GIS: François Perrin, Gregory Spirlet, Luca Mari, Serge Despond.
ENAC interdisciplinary Cluster Grant.