Sürdürülebilir Şehir de Yenilikçi Enerji Adaları Olan Akıllı Biyoiklimsel Ve Düşük Karbonlu Kentsel Alanlar


Elias Özkan S. T. (Yürütücü), Çakmakli A. B.

TÜBİTAK Uluslararası Çoklu İşbirliği Projesi , 2016 - 2018

  • Proje Türü: TÜBİTAK Uluslararası Çoklu İşbirliği Projesi
  • Başlama Tarihi: Mart 2016
  • Bitiş Tarihi: Mart 2018

Proje Özeti

The “Smart bioclimatic low-carbon urban areas as innovative energy isles in the sustainable

city” project was planned to investigate, implement and validate energy neutral ‘Smart Urban

Isles’ (SUI), which were defined as ‘areas around a public building, that make use of the

synergies between the buildings and small scale renewable energy solutions. The aim was

to locally balance the energy system as much as possible. The Smart Urban Isle concept

was developed as an innovative basic energy unit in the Smart City, which can be expanded

to a larger scale by linking together several SUIs within the urban neighborhoods and

districts in order to achieve a smart integrated city.

The project was formed by three complementary and integrated blocks. Mini Networks,

Bioclimatic Building Design and the Energy Management Platform. Work pertaining to the

three blocks was carried experts from the partner institutions. The Turkish team was

responsible only for the Bioclimatic building design related work packages.

To this end, first a 3D model of the selected SUI area was produced and simulated at the

urban scale, to analyze its bioclimatic properties. Then two focus buildings were selected

and analyzed with four research tools: data logging to determine indoor thermal conditions;

IR imaging to determine the weak points (thermal bridges/infiltration) in the building

envelope; user satisfaction survey to determine their thermal comfort conditions; and

building performance simulations, first to determine the existing conditions and then to

integrate bioclimatic refurbishment solutions.

Based on the findings from these four sets of data, bioclimatic interventions were proposed

and tested in the virtual environment. Finally, the cost of the optimized solution was

calculated. It was seen that considerable energy savings (up to 38% for heating); and a total

amount of reduction in CO2 emissions (6.5% for heating, DHW and lighting), as well as,

increase in thermal comfort hours (40%) can be achieved with reasonable investment, if the

buildings are converted into bioclimatically responsive ones with passive design solutions.