Environmental-driven Massing Based on Machine learning - Revision history

Giuliapattini at 09:41, 12 April 2023

2023-04-12T09:41:17Z

Giuliapattini at 08:10, 12 April 2023

2023-04-12T08:10:25Z

Giuliapattini at 09:45, 21 March 2023

2023-03-21T09:45:58Z

Giuliapattini at 09:45, 21 March 2023

2023-03-21T09:45:28Z

Giuliapattini at 10:31, 20 March 2023

2023-03-20T10:31:36Z

Abel Maciel: /* Conference Paper */

2022-11-06T17:36:19Z

‎Conference Paper

Abel Maciel: /* Conference Slides */

2022-11-05T21:35:58Z

‎Conference Slides

Abel Maciel at 21:23, 5 November 2022

2022-11-05T21:23:24Z

Abel Maciel: /* Keywords */

2022-11-05T21:18:54Z

‎Keywords

Abel Maciel: /* Bibliography */

2022-11-05T21:17:56Z

‎Bibliography

@@ Line 5: / Line 5: @@
 [[Category:Conferences]]
 [[Category:Book]]
-[[DC I/O 2022]] Paper by [[Hangchuan Wei]], [[Yota Adilenido]] and [[Richard Beckett]]. https://doi.org/10.47330/DCIO.2022.EQAD1156 | Watch [[File:VideoRecord-Icon.png |Left|22px|link=https://youtu.be/n_XrzWdqQl4]] | [[File:Paper-Icon.png |Left|30px|link=https://www.dropbox.com/s/08wtlwvvvnjfsgi/DCIO2022_S1-2_EQAD1156.pdf?dl=0]] | [[File:Slides-Icon.png |Left|30px|link=https://www.dropbox.com/s/fz4pdm2w44uulq5/DCIO2022_S1-2_EQAD1156_Slides.pdf?dl=0]]
+[[DC I/O 2022]] Paper and slides by [[Hangchuan Wei]], [[Yota Adilenido]] and [[Richard Beckett]]. https://doi.org/10.47330/DCIO.2022.EQAD1156 | Watch [[File:VideoRecord-Icon.png |Left|22px|link=https://youtu.be/n_XrzWdqQl4]] | [[File:Paper-Icon.png |Left|30px|link=https://www.dropbox.com/s/08wtlwvvvnjfsgi/DCIO2022_S1-2_EQAD1156.pdf?dl=0]] | [[File:Slides-Icon.png |Left|30px|link=https://www.dropbox.com/s/fz4pdm2w44uulq5/DCIO2022_S1-2_EQAD1156_Slides.pdf?dl=0]]

@@ Line 5: / Line 5: @@
 [[Category:Conferences]]
 [[Category:Book]]
-[[DC I/O 2022]] Paper by [[Hangchuan Wei]], [[Yota Adilenido]] and [[Richard Beckett]]. https://doi.org/10.47330/DCIO.2022.EQAD1156 | Watch [[File:VideoRecord-Icon.png |Left|22px|link=https://youtu.be/n_XrzWdqQl4]] | [[File:Paper-Icon.png |Left|30px|link=https://www.dropbox.com/sh/8y9bge690wl2t2k/AABASKrdPFu3v_UOH5e9xfjra?dl=0&preview=DCIO2022_S1-2_EQAD1156.pdf]]
+[[DC I/O 2022]] Paper by [[Hangchuan Wei]], [[Yota Adilenido]] and [[Richard Beckett]]. https://doi.org/10.47330/DCIO.2022.EQAD1156 | Watch [[File:VideoRecord-Icon.png |Left|22px|link=https://youtu.be/n_XrzWdqQl4]] | [[File:Paper-Icon.png |Left|30px|link=https://www.dropbox.com/s/08wtlwvvvnjfsgi/DCIO2022_S1-2_EQAD1156.pdf?dl=0]] | [[File:Slides-Icon.png |Left|30px|link=https://www.dropbox.com/s/fz4pdm2w44uulq5/DCIO2022_S1-2_EQAD1156_Slides.pdf?dl=0]]

@@ Line 5: / Line 5: @@
 [[Category:Conferences]]
 [[Category:Book]]
-[[DC I/O 2022]] Paper by [[Hangchuan Wei]], [[Yota Adilenido]] and [[Richard Beckett3]]. https://doi.org/10.47330/DCIO.2022.EQAD1156 | Watch [[File:VideoRecord-Icon.png |Left|22px|link=https://youtu.be/n_XrzWdqQl4]] | [[File:Paper-Icon.png |Left|30px|link=https://www.dropbox.com/sh/8y9bge690wl2t2k/AABASKrdPFu3v_UOH5e9xfjra?dl=0&preview=DCIO2022_S1-2_EQAD1156.pdf]]
+[[DC I/O 2022]] Paper by [[Hangchuan Wei]], [[Yota Adilenido]] and [[Richard Beckett]]. https://doi.org/10.47330/DCIO.2022.EQAD1156 | Watch [[File:VideoRecord-Icon.png |Left|22px|link=https://youtu.be/n_XrzWdqQl4]] | [[File:Paper-Icon.png |Left|30px|link=https://www.dropbox.com/sh/8y9bge690wl2t2k/AABASKrdPFu3v_UOH5e9xfjra?dl=0&preview=DCIO2022_S1-2_EQAD1156.pdf]]

@@ Line 5: / Line 5: @@
 [[Category:Conferences]]
 [[Category:Book]]
-[[DC I/O 2022]] Paper by [[Hangchuan Wei]], [[Yota Adilenido]] and [[Richard Beckett3]]. https://doi.org/10.47330/DCIO.2022.EQAD1156 | [[File:YouTube.png |Left|30px|link=https://youtu.be/n_XrzWdqQl4]] | [[File:PDF-Icon.png |Left|25px|link=https://www.dropbox.com/sh/8y9bge690wl2t2k/AABASKrdPFu3v_UOH5e9xfjra?dl=0&preview=DCIO2022_S1-2_EQAD1156.pdf]]
+[[DC I/O 2022]] Paper by [[Hangchuan Wei]], [[Yota Adilenido]] and [[Richard Beckett3]]. https://doi.org/10.47330/DCIO.2022.EQAD1156 | Watch [[File:VideoRecord-Icon.png |Left|22px|link=https://youtu.be/n_XrzWdqQl4]] | [[File:Paper-Icon.png |Left|30px|link=https://www.dropbox.com/sh/8y9bge690wl2t2k/AABASKrdPFu3v_UOH5e9xfjra?dl=0&preview=DCIO2022_S1-2_EQAD1156.pdf]]
@@ Line 13: / Line 13: @@
 =Abstract=
 In recent years, machine learning (ML) has received significant attention in the field of architectural design. This paper proposes a methodology for integrating ML with computational design to generate building massing based on environment, in this way, gives an outlook on the application of ML in architecture.
 In the early stages of building design, a great deal of effort is often spent on specifying and designing building massing. In this process, the assessment of the building wind performance plays an important role. Compared to professional computational fluid dynamics (CFD) software, plug-ins based on rhino and grasshopper, such like Butterfly and Eddy3D, can well integrated into computational design process. But even then, these plug-ins are still limited because a lot of computing power and time are required to run the program.
 This article provides an overview of a generative framework embedded with a ML approach to apply CFD in building design, finally results on a building massing with a balanced wind environment at the early stage of architectural design. This framework innovates the existing CFD simulation in following aspects: 1) ML-based simulation is timesaving, 2) this advantage allows the use of exhaustive enumeration to obtain the optimal solution, 3) this framework provides a good interface with computational design process with images as a medium, 4) therefore it is more flexible and operational.
 This framework aims to provide an approach to achieve faster and better massing design. To reach this objective, there are three main steps: 1) firstly, a generative adversarial network (GAN) model is trained to get wind simulation results from the input site, 2) then, the possible boundaries of massing in different height are generated for exhaustive enumeration, 3) afterwards, run again the GAN wind simulation for the possible boundaries, 4) and finally an assessment method is put forward to obtain the ideal result for the site.
 =Keywords=
 [[Machine Learning]], [[Generative Adversarial Networks]], [[Generative Design]], [[Computational Fluid Dynamics]], [[Building Simulation]].
 =Bibliography=

@@ Line 5: / Line 5: @@
 [[Category:Conferences]]
 [[Category:Book]]
-[[DC I/O 2022]] Paper by [[Hangchuan Wei]], [[Yota Adilenido]] and [[Richard Beckett3]]. https://doi.org/10.47330/DCIO.2022.EQAD1156
+[[DC I/O 2022]] Paper by [[Hangchuan Wei]], [[Yota Adilenido]] and [[Richard Beckett3]]. https://doi.org/10.47330/DCIO.2022.EQAD1156 | [[File:YouTube.png |Left|30px|link=https://youtu.be/n_XrzWdqQl4]] | [[File:PDF-Icon.png |Left|25px|link=https://www.dropbox.com/sh/8y9bge690wl2t2k/AABASKrdPFu3v_UOH5e9xfjra?dl=0&preview=DCIO2022_S1-2_EQAD1156.pdf]]
@@ Line 19: / Line 19: @@
 This framework aims to provide an approach to achieve faster and better massing design. To reach this objective, there are three main steps: 1) firstly, a generative adversarial network (GAN) model is trained to get wind simulation results from the input site, 2) then, the possible boundaries of massing in different height are generated for exhaustive enumeration, 3) afterwards, run again the GAN wind simulation for the possible boundaries, 4) and finally an assessment method is put forward to obtain the ideal result for the site.
 =Keywords=

@@ Line 24: / Line 24: @@
 =Conference Paper=
-[[File:PDF-Icon.png |Left|50px|link=https://www.dropbox.com/]] [https://www.dropbox.com/s Conference Paper].
+[[File:PDF-Icon.png |Left|50px|link=https://www.dropbox.com/s/08wtlwvvvnjfsgi/DCIO2022_S1-2_EQAD1156.pdf?dl=0]] Conference Paper.
 =Keywords=

@@ Line 23: / Line 23: @@
 [[File:YouTube.png |Left|50px|link=https://www.youtube.com/]] [https://www.youtube.com/ Video Recording].
-=Conference Slides=
+=Conference Paper=
-[[File:PDF-Icon.png |Left|50px|link=https://www.dropbox.com/]] [https://www.dropbox.com/s Conference Slides].
+[[File:PDF-Icon.png |Left|50px|link=https://www.dropbox.com/]] [https://www.dropbox.com/s Conference Paper].
 =Keywords=

← Older revision		Revision as of 21:23, 5 November 2022
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−	[[File:~~DCIO2022_S1_2_O~~-~~Azeem~~.png\|center\|800px]]	+	[[File:DCIO2022_S1_3_H-Wei.png\|center\|800px]]

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 =Keywords=
-[[AI]], [[Architect]]
+[[Machine Learning]], [[Generative Adversarial Networks]], [[Generative Design]], [[Computational Fluid Dynamics]], [[Building Simulation]].
 =Reference=

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 *GOODFELLOW, I., POUGET-ABADIE, J., MIRZA, M., XU, B., WARDE- FARLEY, D., OZAIR, S., COURVILLE, A. AND BENGIO, Y., 2020. Generative adversarial networks. Communications of the ACM, 63(11), 139-144.
 *ISOLA, P., ZHU, J.Y., ZHOU, T. AND EFROS, A.A., 2017. Image-to-image translation with conditional adversarial networks. In Proceedings of the IEEE conference on computer vision and pattern recognition, 1125-1134.
-*KASTNER, P. AND DOGAN, T., 2022.A toolkit for decoupled door thermal comfort simulations in urban
+*KASTNER, P. AND DOGAN, T., 2022.A toolkit for decoupled door thermal comfort simulations in urban areas. Building and Environment, 212, 108639.
 *LEYTON, M, 2003. A generative theory of shape (Vol. 2145). Springer, 366.
 *MCNEEL, R., & OTHERS, 2010. Rhinoceros 3D, Version 6.0. Robert McNeel &amp; Associates, Seattle, WA.