Research Projects

FORM-Lab develops AI-driven workflows and robotic fabrication methods to create optimized structural forms from novel and bio-based materials.

Investigation of new recycled and reused composites as a building material

Project Date: 09/2025- Ongoing

Team: Dr. Mohsen Vatandoost and RAs

This project explores innovative recycled and reused composite materials for construction applications. It investigates their mechanical performance, durability, and sustainability potential to reduce waste and carbon emissions, aiming to develop environmentally responsible building materials that promote circular economy principles in architectural design and fabrication.

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Experimental evaluation of the recyclability and reusability of 3D printed formworks

Project Date: 10/2025- Ongoing

Team: Dr. Mohsen Vatandoost and RAs

This research experimentally evaluates the recyclability and reusability of 3D-printed formworks. It examines material recovery, structural performance after multiple uses, and environmental impact, aiming to advance sustainable construction practices through circular material use and reduction of waste in digital fabrication processes.

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Leveraging Machine Learning models in building performance prediction

Project Date: 08/2025- Ongoing

Team: Dr. Mohsen Vatandoost and RAs

Collaborators: Prof. Lars Junghans, Prof. Peter von Buelow

This project leverages machine learning models to predict building performance, focusing on energy efficiency, structural behavior, and environmental impact. By integrating data-driven approaches with architectural design, it aims to enhance predictive accuracy, optimize building systems, and support sustainable, performance-based design decision-making.

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On the Ultra-thin layered 3D-printed formwork: design and fabrication of a full-scale gridshell

Project Date: 04/2025-Ongoing

Team: Dr. Mohsen Vatandoost and RAs

Collaborators: Prof. Wess Mcguee, Prof. Peter von Buelow

This project investigates the design and fabrication of a full-scale gridshell using ultra-thin layered 3D-printed formwork. It explores lightweight structural systems, digital fabrication techniques, and material efficiency to demonstrate innovative construction methods that minimize material use while maintaining structural integrity and architectural expressiveness.

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On the Ultra-thin layered 3D-printed formwork: design and fabrication of a funicular branch structure

Project Date: 10/2025

Team: Dr. Mohsen Vatandoost and RAs

Collaborators: Prof. Wess Mcguee, Prof. Peter von Buelow

This project explores the design and fabrication of a funicular branch structure using ultra-thin layered 3D-printed formwork. It investigates form optimization, material efficiency, and digital construction methods to achieve lightweight, structurally sound geometries that integrate aesthetics with sustainable and innovative fabrication practices.

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From Waste to Structure: Experimental Evaluation of Mycelium, Wood, and Recycled Concrete Composites in 3D-Printed Formworks

Project Date: 2025-

Team: Dr. Mohsen Vatandoost, Arpit Malhora, and UROP research assistants

Collaborators: Prof. Wess Mcguee, Prof. Peter von Buelow

This project investigates sustainable construction materials by experimentally evaluating mycelium, wood, and recycled concrete composites cast in 3D-printed formworks. It explores structural performance, fabrication techniques, and environmental benefits, aiming to transform waste into high-performance, bio-based building materials for circular and low-carbon architectural applications.

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Ultra-thin layered 3D-Printed formwork: Compression-only Arch

Project Date: 04/2024 to 10/2024

Team: Dr. Mohsen Vatandoost

Collaborators: Prof. Wess Mcguee, Prof. Peter von Buelow

This project focuses on the design and fabrication of a compression-only arch using ultra-thin layered 3D-printed formwork. It examines material efficiency, structural behavior, and fabrication precision to demonstrate sustainable, lightweight construction methods that integrate computational design with advanced digital manufacturing.

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Developing an Ultra-thin layered 3D-printed formwork: Hollowcore section

Project Date: 2023-24

Team: Dr. Mohsen Vatandoost, 

Collaborators: Prof. Wess Mcguee, Prof. Peter von Buelow

This project focuses on developing an ultra-thin, layered 3D-printed formwork featuring a hollow-core design. It examines the digital fabrication methods and structural performance to develop an ultra-thin layered formwork at an architectural scale for advanced concrete construction.

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Advanced Machine Learning models in structural load-capacity predictions

Project Date: 2025 - Ongoing

Team: Dr. Mohsen Vatandoost, Prof. Peter von Buelow

This project applies advanced machine learning models to predict structural load capacities. It aims to enhance the accuracy of performance assessments, optimize design decisions, and support the development of safer, more efficient, and data-driven structural engineering solutions.

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