• Title/Summary/Keyword: 트랜시스 16

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Modeling Method of the TRNSYS Considering of a Building Geometry (건물의 기하학적 형태를 고려한 TRNSYS 모델링 방법)

  • Lee, Jae-Hyuk;Choi, Won-Ki;Suh, Seung-Jik
    • Proceedings of the SAREK Conference
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    • 2009.06a
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    • pp.21-26
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    • 2009
  • TRNSYS 16 had just a wall area and azimuth as an input value about a building shape. So, a geometrical shape of a building was not considered in simulation using TRNSYS 16. In this study, we suggested the more appropriate modeling method for simulation considering of building geometry in TRNSYS 16. To suggest this method, we simulated energy needs affected by shading effect that caused by a geometrical shape of a building, and compared the result to the simulation result of non-shading environment.

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An Analysis of Comparison between the Evaluation Tool for Building Energy Efficiency Rating System and Detailed Analysis Programs (건물에너지효율등급 평가도구와 상세해석프로그램의 비교 분석)

  • Lee, Jae-Hyuk;Yu, Ki-Hyung;Cho, Dong-Woo
    • Proceedings of the SAREK Conference
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    • 2009.06a
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    • pp.3-8
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    • 2009
  • Since 2001, the Building Energy Efficiency Rating and Certification System have been implemented in Korea. For rating the energy efficiency performance, the evaluation tool for Building Energy Efficiency Rating System has been used. In this study, the evaluation tool was compared with detailed analysis programs(Trnsys 16, ESP-r) through simulations of heating energy needs for apartment, and we checked the character of the evaluation tool.

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A Study on the Analysis of Energy Consumption Patterns According to the Building Shapes with the Same Volume (동일 체적의 건물 형상에 따른 에너지 소비량 패턴에 대한 분석 연구)

  • Choi, Won-Ki;Kim, Heon-Joong;Suh, Seung-Jik
    • Journal of the Korean Solar Energy Society
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    • v.27 no.2
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    • pp.103-109
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    • 2007
  • This study was focused on the establishment of a fundamental DB(database) that is available in the building design process, so we performed the simulation analysis about the energy consumption on the various same volume buildings. Because energy consumption in building is affected by the exterior surface area, the ratio of long/short length in surface and the adjacent internal surface area etc.. For these purpose, we assumed the unit module and made a constructable 16 model buildings which are composed of the 16 unit modules. Then we analyzed the simulation using the TRNSYS 16 and the Seoul weather data. In results, energy consumption in building is more reduced that in case of the smaller exterior surface area, the lower stories building and the larger adjacent surface area etc.. Further study is to be required the sensitivity analysis on the various weather conditions, building shapes and window area etc..

An Analysis on Thermal Performance and Economic of Heat Recovery Ventilation System Integrated with Window (창호통합형 배열회수 환기시스템의 열성능 및 경제성 평가)

  • Sung, Uk-Joo;Cho, Soo;Song, Kyoo-Dong
    • Korean Journal of Air-Conditioning and Refrigeration Engineering
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    • v.24 no.8
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    • pp.646-655
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    • 2012
  • This study is intended to analyze the thermal performance and evaluate the applicability about non-duct type heat recovery ventilation system integrated with window. Eventually, economic analysis of the system is conducted according to building energy saving ratio of it. As results of the thermal performance, the U-factor of the window conducted on the basis of KS F 2278 appears to $1.8W/m^2K$, and the effective heat exchange efficiency of the ventilator conducted on the basis of KS B 6879 appears 49.95% for cooling, 66.89% for heating. In the applicability evaluated by TRNSYS 16, the caes of applying the heat recovery ventilator integrated with window is found to reduce the cooling or heating load by 2.9% or 13.5% than the non-ventilator case. The results of economic analysis taking a side of consumer is verified as the payback is 3 years, and the accumulated earning is 1,408,133 won in terms of '600,000 won/unit' for initial cost, 10 years for useful life of the system.