Sukkyung Kang

Sukkyung Kang

KAIST

Ph.D. candidate

The interaction between engineered surfaces is an essential element in modern technology and industry, and understanding this interaction is key to unlocking new technological innovations. My research focuses on the phenomena arising from the physical contact between two engineered surfaces. The goal is to develop processing technologies that can create high-value, innovative products by precisely manipulating phenomena such as friction, wear, polishing, diffusion, adhesion, and deformation.

I am currently a Ph.D. student in Professor Sanha Kim’s group (Advanced Manufacturing and Surface Engineering (AMSE) Laboratory) at the Department of Mechanical Engineering, KAIST, a journey I embarked on in 2020. In 2019, as an undergraduate at Hanyang University, I conducted graduation research in Professor Se-Jin Yook’s group. This academic journey has engaged me in various research projects within the field of mechanical engineering, enabling me to develop profound expertise and technical skills.

Interests
  • Advanced Manufacturing
  • Semiconductor Manufacturing
  • Contact Mechanics
  • Surface Engineering
  • Tribology
Education
  • M.S. in Mechanical Engineering, 2022

    Korea Advanced Institute of Science and Technology (KAIST)

  • B.S. in Mechanical Engineering, 2020

    Hanyang University

Awards and Honors

  • 2024 Best Paper Award at Korean Society for Precision Engineering (KSPE)
  • 2024 Outstanding Paper Award at Korean Society of Automative Engineers (KSAE)
  • 2023 Second Place in the Science as Art Competition at Material Research Society (MRS) (covered in KAIST ME News)
  • 2023 Outstanding Student Poster Award at Material Research Society (MRS) (covered in KAIST ME News)
  • 2022 Best Oral Presentation Award at International Conference on Electronic Materials and Nanotechnology for Green Environment (ENGE)
  • 2022 Best Collaborative Patent Award at KAIST & Samsung Electronics
  • 2022 Best Paper Award at Korean Society for Precision Engineering (KSPE) (covered in KAIST ME News)
  • 2021 Outstanding Paper Award at Korean Tribology Society (covered in KAIST ME News)
  • 2020 Outstanding Paper Award at Korean Tribology Society
  • 2020 Summa Cum Laude BS in Mechanical Engineering, HYU
  • 2019 President’s Award in Capstone Design Fair, HYU (covered in HYU ME HOT News)
  • 2022 Outstanding TA Award in Education 4.0 Q Program, KAIST
  • 2022 Best Tutor Award in Freshman tutoring program, KAIST
  • 2021 Best Tutor Award in Freshman tutoring program, KAIST
  • 2018 Best Tutor Award in Foreign student tutoring program, HYU

Journal Publications

*
  1. Ru Passivation Layer Enables Cu–Cu Direct Bonding at Low Temperatures with Oxidation Inhibition
Chansu Jeon#, Sukkyung Kang#, Myeong Eun Kim#, Juseong Park, Daehee Kim, Sanha Kim, Kyung Min Kim, ACS Applied Materials & Interfaces, 16, 36, 48481-48487, 2024.
6. Ru Passivation Layer Enables Cu–Cu Direct Bonding at Low Temperatures with Oxidation Inhibition
  1. Nanotransfer Printing for Synthesis of Vertically Aligned Carbon Nanotubes with Enhanced Atomic Penetration
Ji-Hwan Ha#, Inyeong Yang#, Junseong Ahn#, Sukkyung Kang, Zhi-Jun Zhao, Yongrok Jeong, Hyeongmin Je, Joono Cheong, Soon Hyoung Hwang, Sohee Jeon, Jun-Ho Jeong, Sanha Kim, Inkyu Park, Advanced Functional Materials, 34, 42, 2315028, 2024. (selected as cover)
5. Nanotransfer Printing for Synthesis of Vertically Aligned Carbon Nanotubes with Enhanced Atomic Penetration
  1. Advanced Cu/Polymer hybrid bonding system for fine-pitch 3D stacking devices
Juseong Park#, Sukkyung Kang#, Myeong Eun Kim, Nam Jun Kim, Jungkyun Kim, Sanha Kim, Kyung Min Kim, Advanced Materials Technology, vol. 8, issue 20, 2202134, 2023.
4. Advanced Cu/Polymer hybrid bonding system for fine-pitch 3D stacking devices
  1. Predictive Model for Bearing Torque in Bolt Fastening
Sukkyung Kang#, Somin Shin#, Hyena Hwang, Sanha Kim, CIRP Annals - Manufacturing Technology, vol. 71, issue 1, pp 489-492, 2022.
3. Predictive Model for Bearing Torque in Bolt Fastening
  1. Development of cutoff size adjustable omnidirectional inlet cyclone separator
Jun-Hyung Lim, Sung-Hyeon Oh, Sukkyung Kang, Kyung-Joo Lee and Se-Jin Yook, Separation and Purification Technology, vol. 276, issue 1, 11937, 2021.
2. Development of cutoff size adjustable omnidirectional inlet cyclone separator
  1. Mechanical abrasion by bi-layered pad micro-asperity in chemical mechanical polishing
Hyun Jun Ryu, Dong Geun Kim, Sukkyung Kang, Ji-Hun Jeong and Sanha Kim, CIRP Annals - Manufacturing Technology, vol. 70, issue 1, pp 273-276, 2021.
1. Mechanical abrasion by bi-layered pad micro-asperity in chemical mechanical polishing

Patents

  • KR Patent 10-2539172
  • US Patent Application 18/289,189
  • EP Patent Application 21964180.0
  • JP Patent Application 2023-571616
  • CN Patent Application 202180099397.2
  • (PCT/KR2021/016560)
    Composite polishing pad including highly abrasion-resistant thin film coating bound with carbon nanotubes, and method for producing the same

  • KR Patent 10-2531705
  • US Patent Application 18/289,607
  • EP Patent Application 21964181.8
  • JP Patent Application 2023-571624
  • CN Patent Application 202180099396.8
  • (PCT/KR2021/016562)
    Composite polishing pad including carbon nanotubes, and method for producing the same

  • KR Patent 10-2625829
  • US Patent Application 17/526,134
    Fixed-abrasive pad using vertically aligned carbon nanotubes and fabrication method for the same (covered in KAIST Promising Commercialization Technologies Catalog)

  • KR Patent Application 10-2022-0002523 (Received Best Collaborative Patent Award)
  • US Patent Application 17/805,735
  • TW Patent Application 111121265
    Polishing pad, chemical mechanical polishing apparatus including the same, and method for manufacturing semiconductor device using the same

  • KR Patent Application 10-2024-0110413
    Fixed-abrasive polishing pad using vertically aligned carbon nanotube and method of manufacturing the same

  • KR Patent Application 10-2024-0058665
    Polishing processing method and polishing processing equipment

  • KR Patent Application 10-2023-0187811
    Plastic molding device for polishing pad, chemical mechanical polishing device including same, and method of controlling surface roughness of polishing pad using same

  • KR Patent Application 10-2023-0139596
    Semiconductor circuit manufacturing method

  • KR Patent Application 10-2020-0134670
    Design Method of Ionizer Anti-Virus Ventilation and Ventilation System for Protection Using a Voltage Type Copper hierarchy Filter