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Journals / Technology / 2003 / Cilt: 6 - Sayı: 3

Energy modeling and simulation of the building heat performance

Binaların ısıl performanslarının değerlendirilmesinde enerji modelleme ve simülasyon

Veysel ÖZDEMİR
Journal
Technology
Pages
87–93
DOI
—
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AI Summary & Key Takeaways

AI Insight
⚡ TL;DR(Too Long; Didn't Read)

Because of the flow ways negligence for the needs in every models righteousness and flexibility of the modeling technique is not analyzed

📌 3 Key Takeaways

🎯
Objective & Hypothesis:In this study the dynamic modeling of energy flow ways in buildings and adjacent climatic control systems are analyzed To add the simulation model, by considering the frequent energy flow ways, dynamic states and interactions, comfort levels and energy demands in and outside of the buildings, the transmission, convection and radiation information are given to analyze energy, mass and momentum balance.
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Key Findings & Data:The different kinds of modeling techniques like continues state , simple dynamic answer function, numerical and electrical analogy are glanced to make an integrated mathematical model for the whole system's energy balance state instead of making mathematical models for every flow way.
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Conclusion & Impact:Because of the flow ways negligence for the needs in every models righteousness and flexibility of the modeling technique is not analyzed
🔬Design:Modeling & Simulation
📍Scope:Comprehensive Sample
⚙️Variables:Domain Parameters

Abstract

In this study the dynamic modeling of energy flow ways in buildings and adjacent climatic control systems are analyzed To add the simulation model, by considering the frequent energy flow ways, dynamic states and interactions, comfort levels and energy demands in and outside of the buildings, the transmission, convection and radiation information are given to analyze energy, mass and momentum balance. The different kinds of modeling techniques like continues state , simple dynamic answer function, numerical and electrical analogy are glanced to make an integrated mathematical model for the whole system's energy balance state instead of making mathematical models for every flow way. Because of the flow ways negligence for the needs in every models righteousness and flexibility of the modeling technique is not analyzed

Özet

Bu çalışmada binalarda ve birleşik iklimsel kontrol sistemlerindeki enerji akış yollarının dinamik olarak modellenmesi incelenmiştir. Simülasyon modeline dahil etmek üzere enerji, kütle ve momentum dengesinin incelenmesi için, bina içi ve dışında yaygın olarak karşılaşılan çeşitli enerji akışyolları, dinamik durum ve karşılıklı etkileşimler, konfor seviyeleri ve enerji talepleri dikkate alınarak(Şekil 1) ısı iletimi, taşınım ve ışınım hakkında temel bilgiler verilmiştir. Her akışyolu için ayrı bir matematiksel model geliştirmek yerine, tüm sistemin enerji dengesi için birleştirilmiş matematiksel model oluşturulmasında sürekli rejim, basit dinamik cevap fonksiyonu, sayısal ve elektriksel andırı gibi farklı modelleme tekniklerine ana hatlarıyla göz atılmıştır.Her bir modelin kullanma alanları ile ilgili yapmış olduğu bir kısım akışyolları ihmalleri, çeşitli seviyelerde yanlışlıklara sebep olduğundan modelleme tekniğinin esneklik ve doğruluk aralığı analiz edilmiştir.

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Cite This Article

ÖZDEMİR, V. (2003). Energy modeling and simulation of the building heat performance. Technology, Cilt: 6 - Sayı: 3, 87–93. https://ajindex.com/articles/359581

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References (16)

  1. O’Callaghan P. W., Building for Energy Conservation, Pergamon Press, Oxford 1980
  2. Clarke J. A., Energy Simulation in Building Design, Adam Hilger Ltd., Bristol 1985
  3. Yücel F. B., Enerji Ekonomisi, Febel Ltd. Şti. Yayınları, İstanbul 1994
  4. Clarke J. A., Assessing Building Performance by Simulation, Building and Environment, Cilt 28, No 4, Sayfa 419-427, 1993
  5. Carter C. and DeWilliors J., Principles of Passive Solar Building Design, Pergamon Press, New York 1987
  6. ASHRAE (American Society of Heating, Refrigerating, and Air Conditioning Engineers)Handbook of Fundamentals, Atlanta 1981
  7. Pratt A. W., Heat Transmission in Buildings, John Wiley & Sons Inc., Belfast 1981
  8. Incropera F. P. and DeWitt D. P., Fundamentals of Heat and Mass Transfer, John Wiley & Sons Inc., New York 1990
  9. ISO 9164, Thermal Insulation-Calculation of Space Heating Requirements For Residential Buildings,ISO, Geneva, 1989
  10. Nataf, J. M. ve Winkelmann F., Symbolic Modeling in Building Energy Simulation, Energy and Building, 21(1994) 147-153
  11. Boyer, H., Chabriat J. P., Perez, B. G.,Tourrand, C.ve Brau, J., Thermal Building Simulation and TEKNOLOJİ, Cilt 6, (2003), Sayı 3-4 93 Computer Generation of Nodal Models, Building and Environment, 31,3 (1996) 207-214
  12. Mathews, E. H., Richard, P. G. Ve Lombard, C., A First-Order Thermal Model For Building Design,Energy and Buildings, 21 (1994) 133-145 13. Uddin, M. Z., Seth, D. ve Fazio P., Inter-Model Comparisons between Three PC Programs and BLAST, Energy and Buildings, 13(1989) 201-215
  13. Brown, G.,The BRIS Simulation Program For Thermal Design of Buildings And Their Services,Energy and Buildings, 14 (1989/90) 385-400
  14. Robin, C., Brau, J. ve Roux, J. J., Integration of Expert Knowledge and Simulation Tools for The Thermal Design of Buildings And Energy Systems, Energy and Buildings, 20(1993) 167-175 16. Boulkroune, K., Candau, Y., Piar, G. Ve Jeandel A.,Validation of a Building Thermal Model by Using ALLAN Simulation Software, Energy and Buildings, 22 (1995) 45-57 17. Shaviv, E., Yezioro,A., Capeluto, I. G., Peleg, U. J. ve Kalay, Y.e.,Simulations and Knowledge-Based Computer-Aided Architectural Design (CAAD) Systems for Passive and Low Energy Architecture,Energy and Buildings, 23 (1996) 257-269
  15. Loams, K. J. ve Eppel, H., Sensitivity Analysis Techniques for Building Thermal Simulation Program,Energy and Buildings, 19 (1992) 21-44
  16. Threlkeld, J. L., Thermal Environmental Engineering, Prentice Hall,