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result(s) for
"Architectural design Computer simulation."
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Application of Advanced Computational Building Performance Analysis Tools in the Architectural Design of Net-Zero Energy Buildings – Case Study
by
Masły, Dariusz
in
Architecture
,
Computer simulation tools in architectural design
,
Computer simulation-based Building Performance Analyses (BPA)
2025
Architects worldwide have been tasked with the ambitious goal of designing net-zero energy buildings. This endeavour represents one of the most significant actions in the fight against climate change. Computer-based building performance analysis tools are poised to play a pivotal role in this new approach to architectural design. This article aims to explore the process of architectural design for net-zero energy buildings (NZEBs) through the application of the latest computer-based building performance analysis tools. The research seeks to demonstrate how and at which stages of architectural design these advanced simulation programs and databases on the energy efficiency of completed buildings are employed. The foundation of this research lies in the integration of cutting-edge science, technology, and analytical methods to design buildings with minimal energy consumption and reduced greenhouse gas emissions. A case study methodology was employed to investigate these issues. The findings of the research indicate that these tools empower architects to perform crucial analyses throughout the design process, facilitating the creation of net-zero energy buildings.
Journal Article
Computation works : the building of algorithmic thought
by
Peters, Brady
,
De Kestelier, Xavier
in
Architectural design Data processing.
,
Architectural design Technological innovations.
,
Architectural design Computer simulation.
2013
Architects are now taking advantage of the computer in new ways through experimentation with algorithmic and simulation-driven design. 'Computation Works' focuses on this emerging theme in design practice, showcasing built and soon to be built projects and providing a state of the art in computational design.
Building performance simulation tools as part of architectural design: breaking the gap through software simulation
by
Maria-Mar, Fernandez-Antolin
,
del Río José Manuel
,
Gonzalez-Lezcano Roberto-Alonso
in
Architects
,
Architectural Education
,
Architecture
2022
In recent years, there have been numerous initiatives regarding the incorporation of building performance simulation tools (BPSTs) in the field of architecture, but unfortunately they have not been considered in updates of the curricula of building designers' careers at a global level. This paper presents an example of the use of BPSTs in the decision making of architectural models, after confirming that there is a lack of knowledge regarding these programs in architecture classrooms. As a result, based on the literature review, improvement aspects and recommendations have been identified and consequences for future research have been foreseen. To this end, the growing trend in the use of these tools has been analyzed, both in terms of the impact on architectural design and their use by architects. The authors' perceptions led us to confirm that the disconnection between BPSTs and architectural students can easily be diminished and alleviated through the teaching–learning process. We also noted the importance of energy modelling in the initial stages of architectural design. In addition, a proposed format for the application of BPSTs to architectural design for architects is presented.
Journal Article
Virtual Simulation System-Driven Optimization Approach for Architectural Environmental Art Design
2025
This study addresses the challenge in architectural design where the accurate conveyance of artistic elements is often hindered by limitations in visualizing the building's layout and form. By employing virtual simulation technology, it enables a more realistic reproduction of a building's structural aspects, facilitating a comprehensive understanding of its design. Coupled with big data analytics, this approach aids in extracting architectural characteristics, enhancing the link between buildings and their intended artistic expressions. The integration of VR technology and ACNN algorithms has demonstrated significant potential, with VR effectively communicating the building's holistic features and ACNN showing strong predictive capabilities in anticipating layout, form, and pattern designs. Consequently, this research underscores the synergistic benefits of VR and ACNN technologies in enhancing the precision and creativity of architectural art design processes.
Journal Article
3ds Max Design Architectural Visualization
2012,2011
Learn time-saving techniques and tested production-ready tips for maximum speed and efficiency in creating professional-level architectural visualizations in 3ds Max. Move from intermediate to an advanced level with specific and comprehensive instruction with this collaboration from nine different authors from around the world. Get their experience and skills in this full-color book, which not only teaches more advanced features, but also demonstrates the practical applications of those features to get readers ready for a real production environment. Fully updated for the most recent version of 3ds Max.
Optimizing accessibility utilizing simulation-based framework for efficient resource allocation and scheduling for disability-friendly utilities
2025
In contemporary building design and management, catering to the needs of individuals with disabilities presents a multifaceted challenge. Buildings tailored to accommodate individuals with disabilities, featuring accessibility features are integral in various contexts, which are essential to ensure equitable access and usability for individuals with disabilities. However, research in disability-friendly building construction and management has been relatively limited due to the diverse and evolving needs of demographic. Factors like designing efficient wheelchair routes, maintaining escalators and elevators, and managing hearing aid systems all impact a building’s operation. This paper utilizes simulation modeling in optimizing buildings designed for individuals with disabilities which presents a paradigm shift in inclusive building design, resulting in substantial improvements in accessibility and efficiency. The model creates a network representation of the building, incorporating delays and queue systems to simulate people and resource flow, accounting for bottlenecks and constraints to determine the optimal resource allocation and operational timing for disability-friendly buildings. By assessing various scenarios and conducting optimization analyses, the model identifies the best combination of resources and schedules to minimize delays, enhance accessibility, and ensure the building functions optimally, meeting regulatory requirements and the needs of individuals with disabilities. Through the implementation of the model, Equipment and Machinery resources optimization significantly saves duration by 15.17 and 14.29%, respectively. Overall optimization results show a duration reduction from 1450 to 930 days, saving 35.86% and a productivity limits improvement varies between 30 and 36%. These gains translate into cost savings, reducing operational expenses and potentially speeding up return on investment.
Journal Article
Computational Design of Self-Assembling Protein Nanomaterials with Atomic Level Accuracy
by
Yeates, Todd O.
,
Baker, David
,
Sawaya, Michael R.
in
Architectural design
,
Architecture
,
Atomic physics
2012
We describe a general computational method for designing proteins that self-assemble to a desired symmetric architecture. Protein building blocks are docked together symmetrically to identify complementary packing arrangements, and low-energy protein-protein interfaces are then designed between the building blocks in order to drive self-assembly. We used trimeric protein building blocks to design a 24-subunit, 13-nm diameter complex with octahedral symmetry and a 12-subunit, 11-nm diameter complex with tetrahedral symmetry. The designed proteins assembled to the desired oligomeric states in solution, and the crystal structures of the complexes revealed that the resulting materials closely match the design models. The method can be used to design a wide variety of self-assembling protein nanomaterials.
Journal Article