We are redefining the structures of the future

In modern architectural and engineering processes, the early integration of all building disciplines is critical for both design and performance. Integrated building design is an approach that integrates architecture, structural engineering, mechanical and electrical systems, and sustainability criteria into a holistic approach.

Thanks to this approach:

• Structural systems and mechanical-electrical installations support each other, minimizing conflicts.
• Energy efficiency, material usage and cost optimization are achieved.
• During the design process, decisions are considered in line with performance and aesthetic goals.
• Sustainability and comfort criteria are prioritized throughout the building life cycle.

Integrated building design brings together all building systems without being limited to a single discipline, creating more efficient, flexible and high-performance buildings.

Architecture today is not just about aesthetics and functionality; it's also a process driven by data, algorithms, and performance. We combine computational design and parametric architecture approaches in our projects.

This approach allows us to reimagine the design's form, function, and performance by defining specific parameters for each project. Variables such as light, wind, acoustics, energy efficiency, and occupant density become active design inputs that shape the project's character.

Parametric architecture not only produces visually innovative forms, but also creates value in terms of environmental sustainability, material optimization, and user experience. Computational design, with algorithmic methods and digital fabrication technologies supporting this process, is integrated throughout the design process, from conception to production.

The architecture of the future is built on energy efficiency and sustainability. Passive house design is one of the most advanced examples of this approach. Its goal is to provide maximum comfort with minimum energy consumption.

Passive house design is based on thermal insulation, air tightness, proper orientation, high-performance windows, and controlled ventilation systems. Solar energy is utilized most efficiently while heat loss is minimized. This results in both low heating requirements in winter and low cooling requirements in summer.

In our approach, passive houses are not only energy-efficient structures but also healthy, comfortable, and environmentally friendly living spaces. Through the use of natural light, clean air, and smart materials, we enhance quality of life while reducing our carbon footprint.

One of the most important goals in building design today is to reduce energy consumption, both to reduce environmental impact and to provide economic benefits to the user. Low-energy buildings are structures with increased efficiency that consume significantly less energy than standard structures.

In these buildings, heating, cooling, and lighting needs are minimized thanks to thermal insulation, air tightness, high-performance windows, and energy-efficient mechanical systems. This reduces energy consumption and ensures high comfort in living spaces.

The low-energy building approach not only means saving energy, but also using environmentally friendly materials, healthy indoor environments, and sustainable living standards. Going forward, these buildings represent an important transition to nZEB (nearly zero-energy buildings) and passive houses.

A building's performance, comfort, and sustainability depend largely on its envelope design. Building envelope component engineering encompasses the engineering and design processes of the entire building envelope, from roof to façade, windows to doors.

This discipline aims to optimize the thermal, water, air, and sound insulation performance of all elements separating the building's interior and exterior environments. Proper material selection and integration improves energy efficiency and creates comfortable and healthy interior spaces.

Building envelope engineering also balances the building's durability, wind and earthquake resistance, and aesthetic design. Modern design approaches and digital modeling techniques enable us to develop solutions that meet both functional and visual standards.

Seismic design is an engineering approach designed to ensure that structures are safe, durable, and resilient against earthquakes. This design method aims to ensure that buildings and infrastructure can withstand the forces that may occur during an earthquake and minimize damage.

During the seismic design process:

The structural system of the building is planned to absorb and distribute earthquake loads.

Material selection and structural details are determined to increase safety and optimize deformation capacity.

Risks are reduced by taking into account soil and foundation interactions.

The geometry and layout of the structure are designed to improve seismic performance.

Different earthquake scenarios are tested using modern simulation and analysis methods.

Seismic design not only ensures building safety, but also offers significant advantages in terms of quality of life, economic efficiency and sustainability.

We design buildings that are highly energy efficient, minimize environmental impact, and have long lifespans. We aim to add value to the future by encouraging the use of sustainable materials and technologies.

We support the development of our employees and rigorously implement occupational health and safety standards. We strengthen interdisciplinary collaboration and foster a professional work culture.