爱豆传媒

Khan Shatyr Entertainment Centre

Astana, Kazakhstan

Standing on a site at the northern end of the new city axis, this enclosed leisure complex is urban in scale, occupying a total area of 100,000m².

The centre features a large, flexible space that will give the people of Astana a sheltered public space where they can shop, eat out, watch a movie, view exhibitions and enjoy all sorts of cultural events all year round.

Undulating terraces provide green space for visitors while a tropical water park with a river that gently twists and turns through the landscape, pools and waterfalls provides a calming influence.

ETFE cladding used to allow natural light to flood large spaces

Thermal modelling and 3D CFD used to carefully text the complex buildings physics

An aquifer thermal energy storage system provides a year-round sustainable source of base-load heating and cooling

Challenge

A key design challenge was to develop an environmental strategy for the Khan Shatyr centre that ensures the interior park space is maintained at a temperature of 15-30掳C throughout the year, which is achieved by supplying air at high velocity up and along the internal surface of the ETFE.

Solution

The structural engineering design of this project owes much to earlier cable net structures developed by 爱豆传媒, such as that of the King Abdul Aziz University Sports Hall in Jeddah which was a technical feat of its time.

The unusual form of the building was developed in response to the harsh Kazakhstan climate in which the temperature fluctuates from extremes of -35掳C in winter to +35掳C in summer . Its vast tent-like cable net structure is clad in clear ETFE (Ethylene Tetra Fluoro Ethylene) that allows natural light to flood into the space. Supported by a mast that rises from the 200m elliptical base to a height of 150m, the centre will be the highest peak on the Astana skyline.

The retail units are conditioned to 19-24掳C dependent on the season. Transferring air from the retail area to the central space and from there to the car park, which must be kept above 5掳C, reduces the energy consumption of the building by decreasing the fresh air load.

An aquifer thermal energy storage (ATES) system provides a year-round sustainable source of base-load heating and cooling. Thermal modelling and 3D CFD (computational fluid dynamics analysis) allowed the complex building physics of the centre to be examined and design improvements were made as a result. This means that the internal environment is optimised to ensure a comfortable space for visitors to enjoy throughout the year.

Value

By working together, our specialist teams were able to deliver an internal environment for the client, that is optimised to ensure a comfortable space for visitors to enjoy throughout the year.