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["논문구분*","학술지명*","논문명*","ISSN*","DOI","기여율(%)","주저자명(제1저자)*","공동저자명","볼륨번호*","SCI(E)구분*","논문페이지",null,"학술지임팩트팩터","학술지출판일자","초록"]
[{"$nulls":10},"시작*","끝"]
[]
[]
["01","Current Applied Physics","Optical characteristics of light-emitting diodes with high transparent conductive film at low temperatures","1567-1739","10.1016/j.cap.2020.12.002","60","Hyung-joo Lee","Gwang-Hoon Park; Jin-Su So; Jae-Hoon Kim; Hong-Gun Kim; Lee-Ku Kwac","22","01",1,17,"2.281",20201205,"In this paper, we report the synthesis and transmittance of a titanium–indium–tin oxide (TITO) film, fabricated through a low-temperature process. The TITO film was fabricated by incorporating a 2-nm-thick titanium barrier at the bottom of an ITO film. The transmittance characteristics of the TITO film were examined for light-emitting diodes (LEDs) of various wavelengths at different post-annealing temperatures. A saturated high transmittance was observed at a temperature of 550 °C, which is relatively low when compared to that in the case of a conventional ITO film. Photoluminescence studies demonstrated that a 450-nm-thick TITO film, fabricated at 550 °C, was highly effective in improving the performance of the LED, when compared to conventional ITO films. The X-ray diffraction peaks, scanning electron microscopy images, and transmittance electron microscopy images confirmed that titanium atoms could improve the crystallization of ITO. It was found that non-crystallization in ITO was effectively activated by the titanium barrier. Furthermore, the optical bandgap (3.77 eV for the conventional ITO film) was improved to 3.92 eV in the TITO film. An infrared LED fabricated with a TITO film displayed 70% higher light output power than that with a conventional ITO film. These results suggest that using a titanium barrier is essential to effectively improve inactive nucleation sites in ITO films grown at low temperatures."]
["03","The Korean Society of Manufacturing Process Engineers","Improved of Mechanical Properties and Functionalization of Polycarbonate by Adding Carbon Materials","1598-6721","10.14775/ksmpe.2020.1910.059","80","Jeong-Keun Kim","Sun-Ho Choi; Sun-Ho Go; Lee-Ku Kwac; Sung-Soo Kang","19","02",59,67,"0",20200722,"Polycarbonate thermoplastic composite materials are anisotropic and exhibit physical properties in the longitudinal direction. Therefore, the physical properties depend on the type and direction of reinforcements. The thermal conductivity, electrical conductivity, and resin impregnation can be controlled by adding carbon nanotubes to polycarbonate resin. However, the carbon fiber used as a reinforcing material is expensive, interfacial adhesion issues occur, and simulation values are different from actual values, making it difficult to perform mathematical analysis. However, carbon nanotubes have advantages such as light weight, rigidity, impact resistance, and reduced number of parts compared to metals. Due to these advantages, it has been applied to various products to reduce weight, improve corrosion resistance, and increase impact durability. As the content of carbon nanotubes or carbon fibers increases, the mechanical properties and antistatic and electromagnetic shielding performance improve. It is expected that the amount of carbon nanotubes or carbon fibers can be optimized and applied to various industrial products."]
["03","The Korean Society of Manufacturing Process Engineers","Analysis of Mechanical Curing Properties Based on Vacuum Pressure of UV-Cured Composites","1598-6721","10.14775/ksmpe.2020.19.12.087","80","Yong-Soo Jang","Jeong-Keun Kim; Sun-Ho Go; Hong-Gun Kim; Lee-Ku Kwac","19","02",87,97,"0",20200904,"In this study, a UV-cured GFRP molding is made using a combination of hand lay-up and resin transfer molding, and its properties are analyzed. The molded plates produced using various vacuum pressures (0 mmHg, −450 mmHg, and −760 mmHg) are examined via a comparison of hand lay-up molding and resin transfer molding. Tests are conducted by processing tensile specimens (ASTM D-5083), flexural test specimens (ASTM D-790), and ILSS test specimens (ASTM D-2344) according to each ASTM standard with a molded plate. Similarly, the UV-cured GFRP molding is compared against GFRP using epoxy. It was confirmed that the mechanical strengths of all the specimens increased when the vacuum pressure was increased and when UV curing was applied. This is believed to be because as the vacuum pressure increases, the pores of the cured specimen are removed, thereby reducing defects, and the bonding force between the glass fiber and the resin is stronger than that of the epoxy resin. It is expected that if resin transfer molding methods and UV-cured resins are used for molding GFRP composites in industry, products with better mechanical properties and faster curing time will be produced."]
["03","The Korean Society of Manufacturing Process Engineers","Analysis of Chemical and Mechanical Properties of UV Curing Resin","1598-6721","10.14775/ksmpe.2020.19.06.088","80","Yong-Soo Jang","Jeong-Keun Kim; Sun-Ho Go; Lee-Ku Kwac","19","02",88,95,"0",20200420,"Currently, Fiber-Reinforced Plastic (FRP) composite materials are used in many industrial fields, owing to their superior stiffness and specific strength compared to metals. However, there are issues with FRP inefficiency, due to low productivity of such materials, environmental problems they pose and long curing times needed. Trying to address these issues, research was conducted towards the development of a FRP composite material with excellent properties and short production time, introducing a curing method using a UV lamp. Four types of composite materials were prepared, cured with catalyst or UV (CZ: Catalyst + ZNT 6345, CR: Catalyst + RF 1001 MV, UVZ: Photoinitiator + ZNT 6345, and UVR: Photoinitiator + RF 1001 MV). Examination of the chemical and mechanical properties of these composites showed that UV-cured materials performed better than the catalyst-cured ones. These results indicate that the production process of FRP composite materials can be simplified by using a UV lamp for curing, resulting in composite materials with the same quality, but reduced production time by about 70% compared to currently used practices. This advancement will contribute greatly to the composite material industry."]
["03","The Korean Society of Manufacturing Process Engineers","Carbon Composite Material Using Nickel Nano-Powder Impregnation Research on Electromagnetic Shielding Effect","1598-6721","10.14775/ksmpe.2020.19.12.049","60","Kwang-Su Seo","Lee-Ku Kwac","19","02",49,55,"0",20200708,"In order to improve the electromagnetic shielding rate of Carbon Fiber (CF), it was produced using the nickel nano-powder impregnating method. Using two types of nickel powder having thicknesses of 50μm and 100μm, and a thermoplastic elastomer resin, a compound containing 10–20% nickel content was mixed and then manufactured through an extruder. The CF coated with the compound was woven and manufactured using a 1-ply specimen. The final nickel content of the specimen was verified using TGA and the distribution of nickel powder on the CF surface was verified using SEM. The metal shows a high shielding rate in the low-frequency band, but the shielding rate decreases at higher-frequency bands. The CF improves at the higher frequency band, and metals reflect electromagnetic waves while carbon absorbs electromagnetic waves. The study of shielding materials, which are stronger and lighter than metal, by using CF lighter than metal and enabling the shielding rate from low-frequency band to high-frequency band, confirmed that the larger the area coated with nickel nano-powder, the better the electromagnetic shielding performance. In particular, CF coated with a thickness of 100μm has a shielding rate similar to that of copper and can also be used for EV/HEV automotive cables and other applications in the future."]
["01","Polymers","Correlation between Drop Impact Energy and Residual Compressive Strength According to the Lamination of CFRP with EVA Sheets","2073-4360","10.3390/polym12010224.","60","Sun-Ho Go","Min-Sang Lee; Chang-Gi Hong; Lee-Ku Kwac; Hong-Gun Kim","12","01",1,17,"3.426",20200116,"Carbon-fiber-reinforced plastic is an important building material; however, its application is limited because of its brittleness, leading to vulnerability under shock. Thus, the strength performance of carbon-fiber-reinforced plastics needs to be improved. Here, the drop impact test was conducted to analyze the impact energy and fracture characteristics of carbon-fiber-reinforced plastics and ethylene vinyl acetate sheets. The compression after impact test was performed to assess the residual compressive strength. The thermal energy generated was measured as change in temperature at the time of fracture to investigate the relationship between thermal and mechanical properties. The impact absorption efficiency of 100% was achieved when the carbon-fiber-reinforced plastics specimen was laminated with four or more sheets of ethylene vinyl acetate. The thermal energy generated during impact, the impact load, and the compression after impact test strength was reduced with the increasing number of laminated ethylene vinyl acetate layers. Our results showed that, by carefully selecting the optimal conditions of fabricating the carbon-fiber-reinforced plastic/ethylene vinyl acetate composites, carbon composite materials can be used for impact mitigation."]
["03","Journal of Mechanical Science and Technology","YSZ atmospheric plasma coating method for improved high temperature corrosion and wear resistance","1738-494X","Journal of Mechanical Science and Technology","60","Jong-Kweon Lee","Hong-Gun Kim","34","01",1,5,"1.48",20200903,"The yttria stabilized zirconia (YSZ) ceramic coating of feed rollers exposed to the high temperature environment used in the floating process for display panel glass manufacturing has high hardness, low porosity and no cracking in the high temperature environment. To obtain such properties, which are necessary for glass panel manufacture, analysis of various parameters such as powder particle size, plasma nozzle diameter, powder feeding rate, and coating distance, was carried out. The results demonstrated a hardness of about 800–1019 Hv 0.1, 150 % higher than the general YSZ coating film. It was possible to obtain a dense coated film with a porosity of 1.4 to 3.0 %, which is 50 % lower than the general porosity. The condition where no cracks occur after an 850 °C thermal shock was also found."]

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["출원(등록)국*","출원(등록)구분*","출원(등록)번호*","발명의 명칭*","기여율(%)","출원(등록)기관*","출원(등록)기관의 사업자등록번호*","출원(등록)일*"]
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["KR","01","10-2020-0010058","배수효율이 개선된 우수받이용 필터스크린","40","전주대학교 산학협력던","402-82-15554",20200128]
["KR","01","10-2020-0044321","탄소부직포 및 이의 제조방법","40","전주대학교 산학협력단","402-82-15554",20200410]
["KR","01","10-2020-0068933","비색 분석 시약, 비색 분석 시약 제조방법 및 비색 분석 용지 제조방법","50","전주대학교 산학협력단","402-82-15554",20200608]
["KR","01","10-2020-0068936","실내 보일러","30","전주대학교 산학협력단","402-82-15554",20200608]
["KR","01","10-2020-0019303","실리카 크랙을 통한 네트워크형 금속층이 도금된 나노복합소재의 제조방법 및 그로부터 제조된 웨어러블 일렉트로닉스 탄소섬유","50","전주대학교 산학협력던","402-82-15554",20200217]
["KR","01","10-2020-0020509","유해물질 제거를 위한 금속함유 활성탄소섬유 및 그 제조방법","60","전주대학교 산학협력단","402-82-15554",20200219]
["KR","01","10-2020-0036374","포도당 검출센서용 3차원 그래핀 폼 기반의 바이메틸릭 나노복합체, 그의 제조방법 및 그를 이용한 포도당 검출용 비효소 바이오센서","50","전주대학교 산학협력단","402-82-15554",20200325]
["KR","01","10-2020-0047947","탄소재료와 상변이 물질을 이용한 열흡수팩 및 이를 포함하는 복합단열 마감재","60","전주대학교 산학협력단","402-82-15554",20200421]
["KR","01","10-2020-0146485","전자선 조사를 이용한 고강도 탄소섬유 및 이의 제조방법","50","전주대학교 산학협력단","402-82-15554",20201105]

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["기술실시 계약명*","최초기술실시계약년도*","기술실시 대상국가(기술수출)*","당해연도 기술료(원)*","정부납부기술료 여부*","납부방식*","연구개발성과\n소유기관 유형*","실시방식*","기술료계약체결일","기술실시내용","기술실시 대상기관명","기술실시 대상기관 사업자등록번호","총정부출연금(원)","총민간연구비(원)"]
[]
[]
[]
["탄소 Brush 집진효율 평가 기술 및 해석기술",2020,"KR",10000000,0,2,2,1,20200815,"노하우 기술이전","주식회사 올그린텍","418-81-30927",0,0]
["실내 보일러",2020,"KR",11000000,0,2,2,1,20201019,"특허 기술이전","주식회사 더데움","266-81-02169",0,0]
["탄소방전와이어 집진필터",2020,"KR",22000000,0,2,2,1,20201217,"특허 기술이전","주식회사 케이셀","191-88-00361",0,0]
["기계식 제진기의 작동 메카니즘 최적화 개발",2020,"KR",5280000,0,2,2,1,20201226,"노하우 기술이전","주식회사 엠닉스","402-86-04870",0,0]
["피치내 배타-레진 함량을 증진시키기 위한 방법 및 이를 이용한 베타-레진 추출방법",2020,"KR",10000000,0,2,2,1,20200206,"노하우 기술이전","주식회사 이노컨","223-86-01192",0,0]

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["사업화 형태*","기술실시계약체결여부*","사업화명*","사업화내용*","업체명*","대표자명*","사업자등록번호*","고용창출인원수*\n(명)","당해년도 매출액(원)*","제품명","사업화년도"]

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[null,null,null,"이학",{"$nulls":7},"공학",{"$nulls":7},"농림수산학",{"$nulls":7},"의약보건학",{"$nulls":7},"인문사회학",{"$nulls":7},"기타"]
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["탄소융합혁신인재양성단","탄소융합 혁신 인재 양성",2020,0,0,0,0,0,0,0,0,0,0,12,2,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0]

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["장기",null,"단기",null,"장기",null,"단기"]
["국내","국외","국내","국외","국내","국외","국내","국외"]