Panier de Anemoi

Page 1

Reading Room Library 5 8 9 10 11 Second Floor Plan (+72000) 3 5 6 7 10 12 11 15 Viewing Deck Viewing Deck Roof Garden Plan +16000mm Exhibition Viewing Deck Video Gallery 1 4 12 13 14 15

Panier de Anemoi

The project starts off by investigating the macro, meso and micro properties of the deep sea sponge, through the lens of structure, facade and space.

Macro: The clustering pattern of individual sponges adapts to the water current profile by channeling nutrients and minimising blockage;

Meso: The diagonal ridges and skin of the sponge is leveraged for generating a series of still zones where wind turbulence is minimised;

Micro: the fractal division between spicules and filter feeding cells further increases the surface area, which expedite gaseous exchange within the building.

These design principles are then streamlined into a steel frame structure strategy, where web-like girders radiate from the three towers, evenly distributing the weight. In a similar vein, two layers of ETFE skins would be applied to the building surface, and integrated into the X shaped facade panels pre-cast in concrete.

Located adjacent to the Marine Barrage, the glass-sponge inspired Wind Energy Research Center harvests the momentous wind velocity near the coast to generate electricity. Three prominent turbine generators first grow organically from the terrain, synthesizing both the seasonal monsoon pattern and surrounding vegetations. While the lower levels are reserved for functional and servant spaces, the upper levels would be organically subdivided into working and studying pods for visitors and researchers to inhabit. The promenade experience then culimnates into a wind garden of the roof.

8Studio Title
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1. CFD Wind Speed Analysis run with Site Context

December ~ March North-East Direction Pervailing Wind (Wet Phase)

June ~ September South-West Direction Pervailing Wind (Moderate Phase)

2. Form Finding using Growth Algorithm

PL + 10 .0 m Point count = 600 Multiplication Value = 6.0 PL + 10 .0 m Point count = 800 Multiplication Value = 3.1 PL + 20 .0 m Point count = 400 Multiplication Value = 2.1 PL + 20 .0 m Point count = 500 Multiplication Value = 6.0 PL + 0 .0 m Point count = 500 Multiplication Value = 4.5 PL + 0 .0 m Point count = 500 Multiplication Value = 6.0 South West Monsoon North East Monsoon
0m10 m20m 0m10 m20 m
0m m 10 m 20 m 20m

3. Site Context Analysis

4. Suggested Programme: Wind Energy Research Center

Linkages between Activities

Gardener

Technician

Researcher

Public

Technician

Researcher

Private Semi-Private

All

Technician

Deliver

Technician

Researcher

Supervisors

CarPark Kingfisher Lakes Secondary Entrance Proximity to the lake and Garden by the Bay Staff Access Tertiary Entrance Private Drop off point Shipment of Equipment Proximity to Seedling farm Primary Entrance MRT Station and Marina South Public + Staff Access Pedestrian Traffic FlowerDome GardenBy theBay theSatayby Bay ResidentialMarinaSouthBuildingMarinaBarrage Children’s Garden SeaMoreHumid Breeze DowndraughtWarmandDry Oxygon-RichAir fromForest Supertrees CarPark N Car Park Segregated using sculpted Terrain and existing trees
Traffic Nodes Core and Infills Terrain Boundary Visual Linkage eaBre Air st Resultant Grid System Lab Cafe Foyer Foy Lounge L ung Storage ge Conference onference nce onf n Learning ea Pod Office Gallery Library Collab Space Relaxation Operation Education Roof f Garden rde Chef & Waiter Desk Researchers Lab Technicians Public Sales Manager Receptionist Public Curator Public Researcher Public Public Technician Researcher Public
Staff
y
man
Public

5. Wind Simulations on the Arrangement of Wind Towers

6. Massing Development based on Wind Comfort

Corrugated volume to increase

Central void air velocity high Breeze zones on towers’ sides Still zones small and too disperse Central void with low air velocity Breeze zones near border Still zones too large and concentrated Central void with moderate air speed Breeze zones around towers Still zones small and behind towers Tangential Convergent Divergent
4.
2.
8. Sponge Growth for Outer Skin 9. Facade Density Optimisation 7. Web Structure supporting cells
5. Perforation below Roof Terrace
6.
Aggregation of Cells in 3 layers 1.Terrain with entrances and zoning
3.
Metaball based on Still Zones Oculus for Lighting and Wind
ion laye

Wind powered Turine Motor

Water Storage tanks

Rooftop Garden

Third Level

Offices + Conference Room + Laboratory

Second Level

Gallery + Library

Mezzanine Level

Servant Spaces

Ground Level

Cafe, Lobby, Collaboration Space

1 2 3 4 5 6 7 8 9 10 12 11 13 14 15 Viewing Deck Viewing Deck Roof Garden Plan +16000mm
Top Garden
Roof
Exhibition Viewing Deck Video Gallery 1 2 3 4 12 13 14 15 Reading Room Library 5 6 7 8 9 10 11 Second Floor Plan (+72000)
Lift
View of Gallery Space outside

Ground Floor Plan

Plaza Collaboration Space Lobby Cafe
Open

Northwest View

South West View

Primary Entrance
Entrance
Secondary

Facade DifferentiationMetabolist Cells Staggered Platforms

panier de anemoi

Located adjacent to the Marine Barrage, the glass-sponge inspired Wind Energy Research Center harvests the momentous wind velocity near the coast to generate electricity.

Natural clustering pattern of individual sponges adapts to the water current profile by channeling nutrients;

Diagonal ridges and skin of the sponge generates a series of still zones to minimise wind turbulence;

Fractal division between spicules and cells expedites gaseous exchange within the building.

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Panier de Anemoi by Zitao Huang - Issuu