skip to main content

OPTIMALISASI KINERJA TERMAL SELUBUNG BANGUNAN UNIT HUNIAN DI RUSUNAWA CIBESUT JAKARTA TIMUR

*Setya Anung Widhayaka  -  Universitas Kristen Indonesia, Indonesia
James E.D. Rilatupa  -  Universitas Kristen Indonesia, Indonesia

Citation Format:
Abstract

Most of the flats that have been built show the same building envelope design in various orientations, both in terms of design, opening area, and material. The level of solar radiation from each orientation of the facade is certainly different and will result in differences in the energy level of the building envelope for each orientation of the residential unit. If the apartment units are conditioned by air conditioning (AC), it will also produce different levels of energy consumption. How is the difference in thermal performance of the facade and energy consumption in each orientation direction?The purpose of this study is to identify the level of the energy difference between the residential unit building envelope in the west side and the east side of the Rusunawa Cibesut, in East Jakarta, and to find alternative efforts that can be made to produce building envelope energy levels that are relatively the same in both orientations and it’s post-construction applications. This research was carried out by performing thermal calculations on building envelopes (OTTV) and computer simulations to obtain results. In the option of applying glass wool insulation and gybsum board as it protection, the average EUI can be reduced by 10.7%, and achieve a level of energy consumption that is relatively the same in both unit orientations

Fulltext View|Download
Keywords: Thermal performance; building envelope; flats
Funding: Universitas Kristen Indonesia

Article Metrics:

  1. Abul Abdullah, et al. 2014. “Whole Building Energy Analysis: A Comparative Study of Different Simulation Tools and Applications in Architectural Design”
  2. Aksamija, Ajla. 2013. “Building Simulations and High Performance Buildings Research: (Use of Building Information Modelling(BIM) for Integrated Design And Analysis)”
  3. http://www.amfg.co.id. 2021. Architectural Glass
  4. Arif Kamal, M. 2012. “An Overview of Passive Cooling Techniques in Buildings: Design Concepts and Architectural Interventions”
  5. Bahar, Y.N, et al.2013. “A Thermal Simulation Tool for Building and its Interoperability Through Building Information Modelling (BIM) Platform.”
  6. Dinas Penataan Kota DKI Jakarta. (2015). Panduan Pengguna Bangunan Gedung Hijau Jakarta
  7. Dinesh, Bhavana. 2020. BIM Based Energy Use Predictions and Saving Potensial For A Residential Building
  8. Gegana, Greg. (2012). Autodesk Revit-Building Analysis
  9. https://greenbuilding.jakarta.go.id/.(2020). Kalkulator OTTV
  10. IFC Guide Vol 1.(2015). Energi Selubung Bangunan
  11. IFC Guide Vol.2. (2015). Sistem Pengkondisian Udara dan Ventilasi
  12. Peraturan Menteri PU No. 05/PRT/2007.(2007). Pedoman Teknis Pembangunan Rumah Susun Sederhana Bertingkat Tinggi
  13. Peraturan Menteri PUPR RI No. 02/PRT/M/2015. (2015). Bangunan Gedung Hijau
  14. Prianto, E.(2007). Rumah Tropis Hemat Energi Bentuk Kepedulian Global Warming
  15. Priatman, Jimmy. (2002). ”Energy-Efficient Architecture” Paradigma Dan Manifestasi Arsitektur Hijau. Dimensi, Journal of Architecture and Built Environment
  16. Priatman, Jimmy.(2004).“Energy Concious Design ”Konsepsi dan Strategi Perancangan Bangunan Di Indonesia
  17. SNI 6389:2011. (2011). Konservasi Energi Selubung Bangunan Pada Bangunan Gedung

Last update:

  1. Study of passive design and energy in vertical housing

    Togu Riotama, Ahyahudin Sodri, Denny M. Sundara. AGRIVOLTAICS2021 CONFERENCE: Connecting Agrivoltaics Worldwide, 2635 , 2022. doi: 10.1063/5.0105743

Last update: 2024-11-20 17:31:34

No citation recorded.