Architecture Engineering & Construction
ESTECO technology helps structural engineers and computational architects to gain comprehensive insight regarding the impact of design choices on building performance, even before starting the investment.
In particular, our integration capabilities automate parametric modeling and 3D Building simulations to investigate complex geometries in shorten time, while optimization algorithms allows to assess the correlation between several requirements (i.e. office space, connection between rooms, thermal comfort...) in order to maximize building performance and reduce energy use.
Applications of ESTECO technology in the architecture, engineering and construction
Companies as Takenaka Corporation and leading institutions as DELFT University of Technology have adopted optimization-driven design approach in their architectural projects with the aim of exploring and obtaining innovative design solutions for:
- bridge fatigue assessment
- air supply in buildings
- glass-steel roofing structure
- flooding protection and drainage systems
- pipe networks
- stadium design
- tensile structures and cable systems
- bridge orthotropic deck plates
- energy-efficient buildings
- railway tunnel
Featured Application of ESTECO technology in the AEC INDUSTRY
Structural engineers and computational architects at Takenaka Corporation Technical Research Institute applied optimization-driven design approach to perfect a 3D model of a steel pavilion-like office building with the aim of maximizing the connections between rooms, expanding office space and designing a stunning atrium.
The influence of eight parameters (climate, building function, orientation, age, building method, room size, window size and type of glazing) on the energy and comfort performance of the innovative Trombe wall has been investigated using modeFRONTIER analytics and visualization tools to assess the reduction or increase in energy demand for heating and cooling.
This research applies process automation and optimization technologies to develop a new integrated simulation methodology to design nZEBs in a mediterranean climate. This concept has been applied to a high-rise office building featuring photovoltaic panels integrated in the facade walls, located in the hot-dry climate of Athens, Greece.
Multi-disciplinary and multi-objective optimization problem re-formulation in computational design exploration: A case of conceptual sports building design
A computational design exploration approach has been applied to an indoor sports building in Wuhan University in China. Designers combined the use of Rhino-Grasshopper with modeFRONTIER in order to optimize multi-disciplinary performance criteria related to architecture, climate (daylight, thermal and energy) and structure.