
DigiTrio (Digitalization for a Novel Triad of Design, Fabrication, and Materials) unites ten ambitious projects funded under the EIC Pathfinder Challenge, each exploring the transformative potential of digitalisation within the Architecture, Engineering, and Construction (AEC) sector. Together, we form a strategic research ecosystem to reshape how buildings and structures are conceived, built, and perform. DigiTrio promotes collaboration across disciplines and borders, offering unique opportunities to build future value chains, strengthen industrial partnerships, and accelerate commercialisation potential through joint portfolio activities. DigiTrio is a dynamic platform for innovation at the intersection of science, technology, and architecture, advancing sustainable and intelligent solutions for the built environment.
As a portfolio, DigiTrio is committed to advancing sustainable construction through shared goals such as reducing embodied CO₂ and enabling predictive design and manufacturing. We aim to demonstrate measurable carbon reductions, support smart construction planning, and establish scalable, environmentally responsible practices across the AEC sector.
Carbon-negative compression dominant structures for decarbonized and deconstructable concrete buildings

CARBCOMN
Loam Walls with Algorithmically Generated 3D Natural Reinforcement

ALGOLOAM
Additive to predictive manufacturing for multistorey construction using learning by printing and networked robotics

AM2PM
Digital design and robotic fabrication of biofoams for adaptive mono-material architecture

ARCHIBIOFOAM
Structurally and materially informed design and fabrication strategies for knitted textile formworks for concrete structures

FLEXIFORM
Digital based bio-waste derived meta-PANels Towards A REvolutionary building Identity

PANTAREI
Sustainable Concrete Freeforming for the New European Bauhaus

SCENE-B
Stackable surface rationalization for freeform architectural design

STACK
UniversalTimberSlab - Computational design, fabrication and engineering methods for unconstrained, highly resource efficient, point-supported timber slabs in multi-storey buildings

UTS
Computation for a New Age of Resource Aware Architecture: Waste-Sourced and Fast-Growing Bio-Based Materials
