| _version_ | 1866902265605914624 |
|---|---|
| author | Wine, Dakota |
| author_facet | Wine, Dakota |
| contents | <p>Additive manufacturing is increasingly recognized as a transformative technology within the construction industry, yet its implications for architectural design methodology remain underdeveloped in the literature. Much of the existing discourse focuses on the technical feasibility of printing buildings or the material properties of printable construction systems. This book argues that the most significant architectural impact of additive manufacturing lies not in fabrication capability alone but in its capacity to reorganize the architectural design process itself-integrating material research, computational modeling, construction sequencing, and post-occupancy feedback into a continuous and interdependent workflow. Originally developed in 2020 and revised in light of five years of significant technological development, this work proposes that the framework it establishes has become more rather than less relevant as the field has matured from experimental demonstration to commercial deployment. To address this gap, the research proposes a design framework positioning additive manufacturing as an integrated architectural methodology composed of four iterative stages: Combine, Model, Apply, and Adapt. The Combine stage investigates the role of material experimentation and locally sourced printable composites as drivers of architectural form and structural strategy. The Model stage examines how parametric design, structural simulation, and fabrication toolpath planning enable architects to evaluate material behavior, structural performance, and constructability simultaneously rather than sequentially. The Apply stage explores the architectural implementation of additive manufacturing through differentiated construction systems-including gantry-based concrete printers, robotic fabrication platforms, and hybrid modular construction strategies-each calibrated to the structural role and geometric requirements of specific building elements. The Adapt stage, added in this revision, addresses the integration of sensor-based fabrication monitoring, AI-assisted design optimization, and closed-loop robotic construction systems that now operate in current commercial practice, enabling construction workflows to respond dynamically to material conditions, structural performance, and site variables in real time. The framework is tested through the design of a 500-foot residential high-rise in downtown San Diego, developed within a studio environment simulating a real architectural commission with defined programmatic requirements, zoning constraints, and historic preservation regulations protecting an existing post office building on the site. The project proposes a hybrid construction strategy in which a reinforced printed concrete core is constructed in place using a self-advancing gantry printer, residential modules are fabricated concurrently within the preserved post office warehouse repurposed as an on-site manufacturing facility, and a salt-composite facade system derived from regional desalination byproducts is applied as a continuous printed envelope. This three-phase construction sequence-site establishment, core construction, and module installation-demonstrates how additive manufacturing can operate within the logistical and regulatory complexity of a dense urban infill site while minimizing disruption to a historically protected structure. The findings suggest that additive manufacturing is most consequential when understood not as a singular construction technology but as a methodological shift that dissolves the conventional boundaries between material research, computational design, fabrication logic, and building performance evaluation. Within this understanding, the architect's role expands from the organization of space to the orchestration of an integrated material and fabrication system. The Combine-Model-Apply-Adapt framework provides the conceptual and operational structure through which that expanded role can be practiced-positioning additive manufacturing not as a tool applied at the end of a design process but as the condition under which a new kind of architectural thinking becomes possible.</p> <p><a href="https://www.amazon.com/dp/B0GVKW1BWL">Through the Nozzle, Five Years Later: Additive Manufacturing and Modern Architecture: Wine, Dakota W: 9798995545002: Amazon.com: Books</a></p> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_19475055 |
| institution | Zenodo |
| language | eng |
| publishDate | 2026 |
| publisher | Zenodo |
| record_format | zenodo |
| spellingShingle | Through the Nozzle, Five Years Later: Additive Manufacturing and Modern Architecture Wine, Dakota Manufacturing engineering Additive manufacturing Architecture engineering Architecture Construction engineering Construction technology Prefabricated building Building technology Materials technology <p>Additive manufacturing is increasingly recognized as a transformative technology within the construction industry, yet its implications for architectural design methodology remain underdeveloped in the literature. Much of the existing discourse focuses on the technical feasibility of printing buildings or the material properties of printable construction systems. This book argues that the most significant architectural impact of additive manufacturing lies not in fabrication capability alone but in its capacity to reorganize the architectural design process itself-integrating material research, computational modeling, construction sequencing, and post-occupancy feedback into a continuous and interdependent workflow. Originally developed in 2020 and revised in light of five years of significant technological development, this work proposes that the framework it establishes has become more rather than less relevant as the field has matured from experimental demonstration to commercial deployment. To address this gap, the research proposes a design framework positioning additive manufacturing as an integrated architectural methodology composed of four iterative stages: Combine, Model, Apply, and Adapt. The Combine stage investigates the role of material experimentation and locally sourced printable composites as drivers of architectural form and structural strategy. The Model stage examines how parametric design, structural simulation, and fabrication toolpath planning enable architects to evaluate material behavior, structural performance, and constructability simultaneously rather than sequentially. The Apply stage explores the architectural implementation of additive manufacturing through differentiated construction systems-including gantry-based concrete printers, robotic fabrication platforms, and hybrid modular construction strategies-each calibrated to the structural role and geometric requirements of specific building elements. The Adapt stage, added in this revision, addresses the integration of sensor-based fabrication monitoring, AI-assisted design optimization, and closed-loop robotic construction systems that now operate in current commercial practice, enabling construction workflows to respond dynamically to material conditions, structural performance, and site variables in real time. The framework is tested through the design of a 500-foot residential high-rise in downtown San Diego, developed within a studio environment simulating a real architectural commission with defined programmatic requirements, zoning constraints, and historic preservation regulations protecting an existing post office building on the site. The project proposes a hybrid construction strategy in which a reinforced printed concrete core is constructed in place using a self-advancing gantry printer, residential modules are fabricated concurrently within the preserved post office warehouse repurposed as an on-site manufacturing facility, and a salt-composite facade system derived from regional desalination byproducts is applied as a continuous printed envelope. This three-phase construction sequence-site establishment, core construction, and module installation-demonstrates how additive manufacturing can operate within the logistical and regulatory complexity of a dense urban infill site while minimizing disruption to a historically protected structure. The findings suggest that additive manufacturing is most consequential when understood not as a singular construction technology but as a methodological shift that dissolves the conventional boundaries between material research, computational design, fabrication logic, and building performance evaluation. Within this understanding, the architect's role expands from the organization of space to the orchestration of an integrated material and fabrication system. The Combine-Model-Apply-Adapt framework provides the conceptual and operational structure through which that expanded role can be practiced-positioning additive manufacturing not as a tool applied at the end of a design process but as the condition under which a new kind of architectural thinking becomes possible.</p> <p><a href="https://www.amazon.com/dp/B0GVKW1BWL">Through the Nozzle, Five Years Later: Additive Manufacturing and Modern Architecture: Wine, Dakota W: 9798995545002: Amazon.com: Books</a></p> |
| title | Through the Nozzle, Five Years Later: Additive Manufacturing and Modern Architecture |
| topic | Manufacturing engineering Additive manufacturing Architecture engineering Architecture Construction engineering Construction technology Prefabricated building Building technology Materials technology |
| url | https://doi.org/10.5281/zenodo.19475055 |