Reconstructed map generated from Machine Learning using Cyclegan technic.

Different spaces in the eco-plugin offer the possibility of multiple functions.

The diverse spatial structure creating various three-dimensional eco-interactive gray spaces and outdoor spaces, provide various functions for different species.

The distribution of moss system on units following the influence of radiation and grow denser in moderate radiation area.

Our Moss System is made of clay material. Clay will serve as the basic material for eco-plugin, allowing the vegetation to flourish from planting module to whole blocks.

Our new urban form consists of peatland terrain, moss system and urban blocks. Within the city, there are three functional urban parts: eco-park, eco-city and flood area.

We visualised the results of the data analysis. The urban regions that interacts with these green areas is the location of the Eco-plugin.

We produced reconstructed peatland terrain, regenerated urban blocks, remained flood and eco-plugins. We combined them together for the complete form of this urban area.

Using styleGAN technic, we used point cloud models to document Peatland's restoration of the urban terrain, then got the visualisation model of urban generation protogenesis.

This is the final visual proposal of final proposal in reborn Vorkuta, moss and snow alga are flourishing within this morphology.

We analysed and classified the air pollution sources and water pollution sources in London. These pollution source locations have the most concentrated area of moss growth.

We generated Eropnum moss growing path morphology, simulated reconstruct Dockland’s morphology from 2020 to 2100 and eventually obtained the 3D datascape map.

With the assistant of Arduino and sensors, we proved that the moss could achieve the optimum purification ability at 80% humidity.

The humidity monitoring and controlling module will be distributed under the clay cover to ensure an 80% humidity growing condition for moss.