• 보일러설비
• /
• s.3
• /
• pp.43-44
• /
• 1988

• Intergrated Energy Industry
• /
• s.5
• /
• pp.39-41
• /
• 2007

• The Magazine of the Society of Air-Conditioning and Refrigerating Engineers of Korea
• /
• v.42 no.8
• /
• pp.78-83
• /
• 2013

• JOURNAL OF ELECTRICAL WORLD
• /
• no.7 s.127
• /
• pp.44-47
• /
• 1987

• Korean Architects
• /
• no.8 s.126
• /
• pp.52-53
• /
• 1979

본고는 지난 8월 23일 삼성전자공업주식회사가 동력자원부 건설부, 내무부 후원으로 갖었던 ‘태양열주택의 이용과 실제’라는 주제로서 갖었던 강연회 내용임을 밝힌다.

• Korean Architects
• /
• no.8 s.137
• /
• pp.51-55
• /
• 1980

• Korean Architects
• /
• no.1 s.178
• /
• pp.77-83
• /
• 1984

• Korean Architects
• /
• no.8 s.209
• /
• pp.32-40
• /
• 1986

• Journal of the Korea Academia-Industrial cooperation Society
• /
• v.14 no.4
• /
• pp.1540-1547
• /
• 2013

The energy economic analysis of the standard rural house model with PV system was performed based on annual energy demand calculation using the EnergyPlus to contribute in reducing building energy which occupies 25% of national energy consumption and in developing a low-energy & eco-friendly house model. Two types of PV system installation was considered to cover electricity demand for cooling, electric, and heating devices. For the selected house model, heating energy demand is 7 times higher than cooling energy demand. For the Case1, it is favorable to use electricity from PV system for cooling and electric devices and to sell surplus electricity. For the Case2, it is favorable to use electricity from PV system for cooling, electricity and heating devices and to sell surplus electricity. Considering the installation cost of PV system and heat pump air conditioning system, the break-even point of Case1 and Case2 are about 13 and 11 years respectively. Although the installation cost of Case2 is more expensive, Case2 provides three times more profit than Case1 after the break-even point. Because the expected average life time of the selected PV system is 25 years, Case2 is more favorable option for the given standard rural house model.

• Journal of the Korea Convergence Society
• /
• v.6 no.1
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• pp.29-34
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• 2015

As smart grid techniques developed, public attention is concentrating on energy efficiency. So it is necessary to study on new renewable energy in order to manage the energy within micro grid consisting smart grid. Among them, small hydro energy has the advantage of being installable anywhere depending the amount of water used by the users within micro grid. This study examines if the measured value is appropriate for small hydro power generation by measuring generation quantity and operation rate of generator based on the sewage flow used by apartments and multi-unit dwellings where those users live. Some appropriate apartments and multi-unit dwellings generate electricity with small hydro generator using sewage as potential energy. This study intends to suggest more effective management by introducing energy management system and electricity storage device of micro grid.