Vertico Greenfield Residency 2025

Table of content

In 2025, the winning team is the Responsive Ground Research Lab from Gebze Technical University and Isik University, led by Assoc. Prof. Dr. Fitnat Cimşit Koş. Their proposed project, Water-Ground Structures, explores how ecological systems and digital fabrication can inform one another through hybrid material assemblies and layered, bio-receptive geometries.

Project: Water-Ground Structures

Water-Ground Structures investigates how sedimentation patterns, water movement, and ecological growth can inspire new approaches to construction. The project proposes layered, adaptive forms with:

  • bio-receptive surfaces
  • water-holding pockets
  • habitats for underwater species
  • textures supporting plant growth

Concrete Printing Phase

During the residency, the team produces the main structural element in concrete, forming the primary geometry of the prototype. This structure serves as the base for further material experimentation.

Clay Insert Phase

After printing, the object is 3D scanned to capture its exact geometry.
This scan is then used to design and fabricate custom clay inserts that fit into the printed structure. These inserts enhance ecological performance through porosity, water retention and biological receptivity.

Together, the concrete base and the clay components form a hybrid assembly that bridges robotics, material behavior and environmental systems.

Residency Structure

The Greenfield Residency is organized as an intensive five-day fabrication program, guiding participants from concept to large-scale production.

Day 1 – Welcome Lecture and Slicer Introduction

Participants receive an introduction to 3D concrete printing and Vertico’s workflow.
The session covers design principles for fabrication, geometric constraints and examples of previously realized projects.

Day 2 – Model Adaptation and Toolpath Preparation

With the guidance of Vertico designers, the team adapts its digital model to printing logic.
This is the moment when concepts evolve rapidly, as scale, material behavior and toolpath logic reshape the design.

Days 3–4 – Full-Scale Printing

The concrete structure is printed across two days.
The Vertico team provides tutorials and explanations on:

  • preparing the robot for printing
  • setting up the printhead and material workflow
  • safety procedures
  • cleaning and post-processing

Day 5 – Reflections and Final Presentation

Participants summarize insights, discuss challenges and present their printed prototype.
This concluding step consolidates the research and sets the stage for future development.

Educational Value

The Greenfield Residency gives students and faculty an opportunity rarely available at universities: direct access to industrial fabrication technologies.
Transforming a speculative design into a physical prototype is a critical step in architectural research. It:

  • tests the feasibility of ideas
  • reveals constraints and new opportunities
  • deepens understanding of material behavior
  • creates a measurable leap in the project’s development

The 2025 residency demonstrated how quickly ideas evolve when confronted with real-scale fabrication, robotics, and hands-on experimentation.

Project Team

Lead Researcher:

  • Assoc. Prof. Dr. Fitnat Cimşit Koş

Researchers and Instructors:

  • Betül Ozar
  • Zehra Bilgiç
  • Özgür Kavurmacioglu
  • Ümit Barış Kutman (advisor)

Students:
Asiyenur Gür, Berfin Beril Eker, Betül Y., Boran Tan, Büşra Soyarslan, Duru Tekiner, Ebrar Sönmez, Ebru Nisa Karataş, Elanur Mevlude Ozgul, Eylül Aykutalp, Feridun Çanakcı, Hayal Karataş, Meliha Şeyma Kurt, Saliha Yerli, Sıla Terzioğlu, Tuğba Alptekin

Vertico Team Support:
Volker Ruitinga, Orestis Pavlidis, JoePaul Luikart, Victoria Fedorova, Jun Woo Lee, Tom Younger

What is 3D Concrete Printing? Definition, Process & Benefits

3D Concrete Printing (3DCP) is an advanced digital construction technology that automates layer-by-layer extrusion of concrete, enabling precise, scalable, and waste-efficient building solutions.

This cutting-edge technology enables architects and engineers to design intricate, parametric structures with unmatched precision. By replacing traditional formwork with automated robotic extrusion, 3DCP significantly reduces material waste, lowers labor costs, and accelerates construction timelines.

How Does 3D Concrete Printing Work?

Advanced 3D concrete printing combines precision robotics, custom printhead technology, and efficient material handling to create structures layer by layer. A robotic arm or gantry is equipped with a specialized printhead, where the concrete mix is extruded in precise layers, guided by advanced slicing software.

This process ensures complex designs are realized with efficiency, minimal waste, and unmatched accuracy.
1. A custom-designed printhead is mounted onto a robotic arm or gantry.
2. The concrete mix is prepared and pumped through a hose into the printhead.
3. The material is extruded in precise layers, following a 3D model to achieve the desired shape.
4. Specialized software translates the design into machine instructions, ensuring accuracy and efficiency.

What Equipment is Needed?

1. A Robotic arm or gantry equipped with Vertico’s custom printhead.
2. A pump and hose system for delivering the concrete mix.
3. Advanced slicing software to convert 3D models into print instructions.

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