• Proceedings of the Korean Institute of Building Construction Conference
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• 2019.05a
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• pp.151-152
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• 2019

This study length variation test, shock test were conducted to evaluate the performance of synthetic resin form. Results of both thermal length variation test and shock test satisfied the KS standards. for length variation test, the result of the horizontal and vertical valuse were -0.1% in average.

• Proceedings of the Korean Institute of Building Construction Conference
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• 2019.05a
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• pp.178-179
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• 2019

The purpose of this study was to investigate the possibility as mineral admixture of agriculture by-product. XRD and XRF analysis were performed on rice straw ashes at various combustion temperatures to identify chemical compositions. Also to evaluate properties of pozzolanic reaction, pH change method was tested.

• Proceedings of the Korean Institute of Building Construction Conference
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• 2015.05a
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• pp.40-41
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• 2015

The purpose of this study is to develop advaced furture type of concrete which utilizes transpart plastic types of fiber replacing previously used high price optical fiber and porous type of steel mold to induce its mass production. New type of concrete solved problems of construction and economy can make it easily their application to construction market.

• Proceedings of the Korea Institute of Fire Science and Engineering Conference
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• 2013.11a
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• pp.184-185
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• 2013

건축물의 주요 구조재 및 마감재로 널리 사용되고 있는 목재는 수종에 따라 매우 다양한 물리적 성질을 가지며, 동일한 수종일지라도 성장한 기후 및 지역에 따라 목재 조직의 성분에 차이가 발생하기 때문에 연소특성에 대한 정립을 하기가 매우 어려운 건축 재료에 속한다. 또한 한 나무에 서서도 재료를 재제하는 방식이나 추출 위치에 따라 밀도 및 나이테의 방향이 달라지므로 그 물리적인 성질까지 변하게 된다. 본 연구에서는 목재 제재 방법을 달리하여 추출한 목제 시편의 연소시험을 통해 재제방법과 연소특성의 연관성을 관찰 및 분석을 수행하였다.

• Magazine of RCR
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• v.17 no.3
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• pp.25-32
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• 2022

• Proceedings of the Korean Institute of Building Construction Conference
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• 2022.11a
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• pp.31-32
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• 2022

Unlike conventional building materials, the living building material (LBM) cube is composed of sand, gelatin, and cyanobacteria without cement. The surface of the LBM cube absorbs CO2 from the atmosphere by photosynthesis and is deposited in the form of CaCO3. In addition, the crystals generated in this process strengthened the gelatin-sand structure to enhance the compressive strength.

• Journal of the Korean Wood Science and Technology
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• v.45 no.3
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• pp.343-359
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• 2017

Many researches and policies have been carried out for saving energy in buildings. However, there are a few studies of thermal characteristics of wood-based materials that have been widely used as structural materials and finishing materials in buildings. In this study, thermal bridging areas were found to investigate thermal performance of residential building using non wood-based materials and wood-based materials. And heat transfer analysis of 16 case studies according to composition of structural materials and finishing materials was conducted. Also in this experiment, Physibel Trisco was used as the heat transfer analysis simulation tool, which conforms to the calculation method of ISO 10211. Analytical modeling was also carried out according to the ISO 10211, and the boundary temperature conditions were set at room temperature $20^{\circ}C$ and outdoor temperature $-11.3^{\circ}C$ (Seoul standard) according to the energy saving design standard in South Korea. Applied structures are classified according to the cases of concrete structure with non wood-based finishing materials, concrete structure with wood-based finishing materials and wood structure. Analyzed building elements were divided into a wall, a roof, an interlayer floor and a bottom floor. As a result, it can be confirmed that the thermal bridge of the concrete structure and wood structure were caused by the geometrical and material causes. In addition, the structural thermal bridge was caused in the discontinuity of the insulation in the concrete structure. Also it was confirmed that the linear heat transfer coefficient of the wall decreases when the wood-based materials are applied to the concrete structure.

• Fire Protection Technology
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• s.2
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• pp.10-12
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• 1988

• 방재와보험
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• s.42
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• pp.63-65
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• 1989

• Fire Protection Technology
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• s.1
• /
• pp.29-35
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• 1987