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Robotic Ecotectonics

Robotic Ecotectonics

Robotic Ecotectonics

Description

Climate change is challenging humanity. There is an increasing need to develop sustainable building systems for zero or negative carbon emissions. Innovation in ecologically sound materials and sustainable construction techniques could revolutionize the building industry, which in turn could enable the rapid construction of building envelopes using local and low-carbon materials. Robotic additive manufacturing’s versatility can be used to construct complex adaptive envelopes that actively support local ecosystems.

This course challenges traditional linear construction methods by introducing a circular economy approach. The “reduce-reuse-recycle” strategy promises a way to decrease embodied carbon emissions in building sectors. The research will explore the possibility of developing ecological tectonic (ecotectonic) constructions. Ecotectonic construction, which considers multispecies design, moves beyond anthropocentric tectonics. It combines upcycling waste materials with robotic 3D printing to reduce the negative impacts of building envelopes.

Students will design and construct eco-composite envelopes, which may include features to capture carbon, block heat radiation, or serve as an acoustic system. To promote sustainable construction, this studio will apply innovative methods to reuse recyclable plastic waste or repurpose local soil mixed with agricultural by-products. Repurposing these unconventional materials requires analyzing their characteristics and the use of additives to make them suitable for 3D printing. Robotic additive construction enables the addition of layers based on performance needs. Different layers—like green cover, insulation, and structural layers—can be 3D printed together to foster a proper ecology to maintain the structure as a living organism.

Students will explore the design-to-fabrication process by developing prototypes to evaluate each phase through an ecologically active material system, computational design, and robotic additive construction. Students will produce detailed drawings of a façade or envelope system, conceptual drawings of the implementation of this system on a building scale, and a 3D printed full-scale mock-up of the ecological envelope system.


Image Credit

E. Baharlou, University of Virginia, 2021.

Courses

Axisymmetric Column No. 1

Axisymmetric Column No. 1

Research Project
Ehsan Baharlou, Dr.-Ing.

Axisymmetric Column No. 1 Description Axisymmetric Column No. 1 exemplifies a novel approach to large-scale robotic additive manufacturing, utilizing curved-layer fused filament fabrication (CLFFF) on a pre-stretched textile. It explores how patterning affects CLFFF...

Material Tectonics

Material Tectonics

Conference Presentation
Ehsan Baharlou, Dr.-Ing.

Ehsan Baharlou will present his research titled "Material Tectonics" on Saturday, October 21 at the 2023 ACSA/AIA Intersections Research Conference: Material Economies. Dr. Baharlou's research focuses on integrating material capacities and fabrication limitations into...

Robotic Ecotectonics

Robotic Ecotectonics

ARCH 4010 – ARCH 4011 – ALAR 8010
Ehsan Baharlou, Dr.-Ing.

Robotic Ecotectonics Description Climate change is challenging humanity. There is an increasing need to develop sustainable building systems for zero or negative carbon emissions. Innovation in ecologically sound materials and sustainable construction techniques could...

Robotic Fabrication of Architectured Mycelium Composites for Sustainable Construction

Robotic Fabrication of Architectured Mycelium Composites for Sustainable Construction

Funded Research Project
Ehsan Baharlou,Dr.-Ing.; Prasanna Balachandran, Osman Ozbulut

MyCoLab: Robotic Fabrication of Architectured Mycelium Composites for Sustainable Construction Description Increasing awareness of the embodied carbon footprint of buildings has shifted interest in the construction industry towards the development of renewable and...

Co-designing Circular Plastics

Co-designing Circular Plastics

Funded Research Project
Ehsan Baharlou, Dr.-Ing.

The Co-designing Circular Plastics project was a small initiative. As proof of concept, PI 3D printed a scaled chair (1:2) with an industrial robotic arm. Development of a Co-designed Circular Interface A user interface (UI) will be developed to integrate distinct...

Additive Tectonics

Additive Tectonics

ARCH 4010-11 / ALAR 8010: Research Studio
Ehsan Baharlou, Dr.-Ing.

Additive Tectonics “When a structural concept has found its implementation through construction, the visual result will affect us through certain expressive qualities which clearly have something to do with the play of forces and corresponding arrangement of parts in...

Design Computation 1

Design Computation 1

SARC 6710-100: Lecture
Ehsan Baharlou, Dr.-Ing.

Design Computation 1 Description Computation has a profound impact on a contemporary understanding of architectural form, space, and structure. It shifts the way one perceives form, the way in which form is purposed, and the way in which form is produced. The course...

Generative Crossed Timber System

Generative Crossed Timber System

Selected Project
Chris MacDonnell, Ziwei Shen, Yuwen Zhou

Generative Crossed Timber System Description The project “Generative Crossed Timber System” creates an open-ended timber system that can form different architectural elements by applying the notion of generative design, the materiality of wood, and digital...

Robotic Additive Manufacturing

Robotic Additive Manufacturing

ARCH 5500-001: Special Topics in Architecture
Ehsan Baharlou, Dr.-Ing.

Introduction to Robotic Additive Manufacturing “The manifest form—that which appears—is the result of a computational interaction between internal rules and external (morphogenetic) pressures that, themselves, originate in other adjacent forms (ecology).” — Who is...

[non-standard] Mass Timber Architecture

[non-standard] Mass Timber Architecture

ARCH 4010-11 / ALAR 8010: Research Studio
Ehsan Baharlou, Dr.-Ing.

[non-standard] Mass Timber Architecture “Technology is the answer, but what was the question?” — Cedric Price, 1966. Description This studio focused on ecological construction to explore the potential of mass timber technologies to address new and growing climate...

Design Computation 1

Design Computation 1

Design Computation 1

Description

Computation has a profound impact on a contemporary understanding of architectural form, space, and structure. It shifts the way one perceives form, the way in which form is purposed, and the way in which form is produced. The course “Design Computation 1” introduced students to the fundamentals of computational design and computational design thinking in architecture. The course examined the potential of algorithmic logic to generate spatial structures by analyzing and abstracting architectural geometry.

In addition, this course introduced students to the principles of computational formation processes that incorporate observation, translation, abstraction, and generation. It also equipped students with computational skills to use the power of computation as not only a representational tool but also a generative one.

The course had three stages. Phase one introduced students to the basics of visual programming and geometric logic. The second phase examined the add-ons developed for the Grasshopper plug-in to Rhino to explore the processes from formation to materialization. Selected add-ons supported the generation, simulation, visualization, and fabrication of forms. Phase three explored parametric and algorithmic geometry through a series of examples to introduce students to architectural computation logics. Each session consisted of a seminar and exercises to assist students with computational design and thinking.


Image Credit

C. Geiger, J. Hirschlein, and N. Lindemann, ICD, University of Stuttgart, 2016.