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경기대학교 부동산자산관리학과
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김선주 연구실

경기대학교 부동산자산관리학과 김선주 교수

김선주 연구실은 부동산경제와 부동산금융투자를 중심으로 주택시장 분석, 주택금융정책, 공공임대주택과 주거복지, 스마트시티 및 프롭테크 기반 도시정책을 연구하며, 계량적 시장분석과 정책연구를 통해 주거 안정, 도시 지속가능성, 부동산산업 혁신을 위한 실천적 대안을 제시하는 연구를 수행하고 있다.

대표 연구 분야
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공공임대주택과 주거복지 정책 thumbnail
공공임대주택과 주거복지 정책
연구 성과 추이
표시된 성과는 수집된 데이터 기준으로 산출되며, 일부 차이가 있을 수 있습니다.

5개년 연도별 논문 게재 수

30총합

5개년 연도별 피인용 수

205총합
주요 논문
3
논문 전체보기
1
article
|
인용수 1
·
2025
Responsive, Structure‐Shifting Bottlebrush Copolymer Particles
Sun‐Ju Kim, Minjoon Baek, Jinwoo Park, Jae Man Shin
IF 12.1
Small
Structure-shifting polymer particles are of great interest for developing smart soft materials. Here, nanostructured polymer particles capable of switching their morphology in response to external stimuli are presented. The key design is to use a bottlebrush random copolymer with a polydisulfide backbone as a self-assembly building block, in which the polymerization/depolymerization of the dynamic backbone can drive the transformation of the inner particle structure. Nanostructured colloids are generated upon confined assembly of the bottlebrush copolymers in the emulsion droplet, in contrast to the formation of compartmentalized colloids from a blend of polystyrene (PS) and poly(dimethylsiloxane) (PDMS) macromonomers. Exploring the morphology-switching capability reveals that depolymerization of the bottlebrush backbone transforms nanostructured colloids into compartmentalized particles, with intermediate morphologies observed during the depolymerization. Additionally, the morphological transformation is general across multiple inner nanostructures including concentric lamellae, coiled cylinders, and spheres. Importantly, reversible morphology switching capability is realized through polymerization-depolymerization-repolymerization cycles. Finally, the functional potential of these structure-shifting particles is demonstrated by incorporating aggregation-induced emission luminogens (AIEgen). The particles exhibit significant difference in the photoluminescence intensity as a function of particle morphology, attributed to differences in the size of the polymeric domains and the corresponding aggregated state of the luminogens.
https://doi.org/10.1002/smll.202504124
Copolymer
Materials science
Polymer science
Chemical engineering
Nanotechnology
Polymer chemistry
Polymer
Composite material
Engineering
2
article
|
인용수 0
·
2024
Pilot Randomized Clinical Trial of Geriatric Comanagement or Geriatric Guided Supportive Care for Older Patients with Head and Neck CancerReceiving Radiation and Chemotherapy
Kaveh Zakeri, Daphna Y. Gelblum, Armin Shahrokni, Z. Zhang, A. Lopez, Sun‐Ju Kim, Koshy Alexander, Farnia Amirnia, Shuyang Sun, Beatriz Korc‐Grodzicki, N.Y. Lee
IF 6.5
International Journal of Radiation Oncology*Biology*Physics
https://doi.org/10.1016/j.ijrobp.2024.01.109
Medicine
Head and neck
Randomized controlled trial
Geriatric care
Intensive care medicine
Internal medicine
Nursing
Surgery
3
article
|
bronze
·
인용수 10
·
2024
Tailor‐Made Buffer Materials: Advancing Uniformity and Stability in Perovskite Solar Cells
Thanh–Danh Nguyen, Doyeong Yeo, Ramesh Kumar Chitumalla, Sun‐Ju Kim, G.T. Jeong, Dong‐Gun Kwun, Joonkyung Jang, In Hwan Jung, Ji‐Youn Seo
IF 26
Advanced Energy Materials
Abstract Along with the growing popularity of the p‐i‐n structure, bathocuproine (BCP) is increasingly recognized as a crucial buffer layer between the electron transport layer and electrode with the role of mitigating Schottky contact and enhancing performance. However, the chemical structure and role of its functional groups have not been thoroughly elucidated. This study introduces a novel modification of BCP in perovskite solar cells (PSCs) by altering functional groups to optimize their geometrical molecular structures and electronic properties. The substitution of aromatic phenyl and p‐tolyl groups to 2,9‐position on the BCP is highly effective in increasing the planarity of the conjugated backbone and protecting the reactive nitrogen atoms of the phenanthroline core, thereby improving charge transport and device stability. Experimental analyses, including electrostatic force microscopy, impedance spectroscopy, and photoluminescence, reveal that the modified BCP significantly enhances charge transport, reduces recombination losses, and markedly improves the structural stability of PSCs, leading to prolonged device lifetimes. The findings highlight the potential of structurally optimized BCP derivatives as a critical component in advancing high‐efficiency and durable PSCs.
https://doi.org/10.1002/aenm.202403633
Materials science
Buffer (optical fiber)
Perovskite (structure)
Stability (learning theory)
Chemical engineering
Engineering physics
Nanotechnology
Optoelectronics
Computer science
정부 과제
1
과제 전체보기
1
주관|
2020년 6월-2022년 6월
|62,474,000
생애주기별 경제교육 프로젝트학습 프로그램 개발
생애주기별 경제교육 프로젝트학습 프로그램 개발