A Deep learning-based real-time wind 

environment simulation workflow for landscape

elements form finding

 

 

| Keywords |

 

 

Deep learning, Real-time wind speed prediction, Wind-driven design, Landscape form finding

 

 

Abstract |

 

 

Wind environment simulation is important in quantitatively analyzing urban microclimate studies, but its time-consuming, costly and complex setup is widely regarded as a challenge. Many studies apply deep learning (DL) models to predict wind speed for rapid and accurate prediction. However, the process of feature engineering for AI is still time-consuming. In this study, we evaluate a new data sampling method to train AI for ambient wind speed simulation that doesn’t require paired data feature labeling. This paper leverages this convenient method of training a custom wind environment prediction DL model to impose a wind-driven landscape form-finding workflow that satisfies wind environment performance and enhances architects’ decision-making. This study can provide a framework that connects wind simulation and landscape form finding, offering real-time feedback and continuous design guidance for wind-driven landscape form-finding by real-time parameters feedback and architectural perception inputs. The results show that the CycleGAN method that without labelling can also simulate the wind speed accurately. Real-time wind speed simulation enables rapid landscape layout findings based on the architect’s perception that provides economical solutions for improving the wind environment. This method has the potential to improve the quality of the urban microclimate that can help designers and policymakers to make informed decisions for early-stage design exploration.

1

1

1

1

 

Chuheng Tan

 

Ximing Zhong

ximing.zhong@aalto.fi

Pia Fricker

pia.fricker@aalto.fi

 

 

 

| Figures |

 

 

Fig. 4 (a) original site and wind speed image (b)wind speed sorting (c) wind speed analysis and 12 schemes divisio

 

 

Fig. 7 T1-T12 landscape form finding schemes, DL results and CFD results of 12 schemes

Fig. 9 T1-T12 schemes analysis visualization

 

 

| Acknowledgment |

 

 

 

 

 

PIA

 

pia.fricker@aalto.fi

 

Antii