Toggle navigation
Member
Professor
Research Professor
Postdoctoral Researcher
Ph.D. Candidate
M.S. Candidate
Researcher
Visitor
Alumni
Lab. Staff
Research Areas
Overview
Diagnosis of Biological Flows & Biomimetics
Nature-inspired Water Management & Desalination
Particulate matter removal and monitoring
Advanced flow visualization
Flow Control Based on Microfluidics & Nanofluidics
External Flow and Wind Engineering
Nature-inspired skin friction reduction
Publication Lists
International (Paper)
Domestic (Paper)
International (Conference)
Domestic (Conference)
Books
Patent
Technology Transfer Items
Seawater desalination technology
Fine dust removal technology
Low-friction surface technology
AI-based image technology
Biomimetic functional surface technology
Lithium and precious metal recovery technology
Aerodynamic drag reduction device for cargo trucks
Biomimetic fluidic devices
Measure and analyze blood flow
Boards
Notice
Gallery
Alumni News
Research Areas
Overview
Diagnosis of Biological Flows & Biomimetics
Natureinspired Water Management & Desalination
Natureinspired PM Removal
Advanced flow visualization
Flow Control Based on Microfluidics & Nanofluidics
External Flow and Wind Engineering
Natureinspired skin friction reduction
Nature-inspired skin friction reduction
Bio-inspired Techniques for Drag Reduction
Bio-inspired superhydrophobic (SHPo) surfaces developed for drag reduction
Partition structures of cormorant feather
Partitioned ridge structures inspired by cormorant feather increase stability of pressure gradient
Drag reduction effect of SHPo surfaces
Plastron stability of flexible ridged SHPo surfaces
Slippery marine life-inspired surface (MIS) for drag reduction of marine vehicles
Slippery MIS inspired by the micro-sized mucus-containing spherical cavities of marine lives
High drag reduction rate compared to conventional slippery surfaces such as superhydrophobic surface (SHS) and liquid-infused surface (LIS)
MIS induces boundary slip and turbulence attenuation, reducing skin friction drag
Enhanced sustainability and interfacial slippage of MIS with lubricant-infused spherical cavity
특허 출원번호: 10-2022-0107443
Superslippery long-chain entangled PDMS (LEP) gel with sustainable self-replenishment
Superslippery long-chain entangled PDMS gel with sustainable self-replenishment
The developed LEP gel coating can replenish the low-viscosity lubricant layer, continuously making the surface superslippery.
The LEP gel coating maintains slippery properties even after exposure to a harsh shear flow and perfectly prevents contamination by bacteria and red algae for a long period of time.
Superslippery long-chain entangled PDMS (LEP) gel with sustainable self-replenishment
Micro/nanoscale structures with CNT particles are formed on the LEP gel to maximize the lubricant retention performance.
특허 출원번호: 10-2023-0102732
Lubricant infused oleogel surface for sustainable drag reduction
Fatty acid amide (FAA)-based oleogel based surface
FAA-based oleogel forms of a dual lubricant interface consisting of FAA and silicon oil as the solid and liquid lubricants.
It shows a sustainable drag reduction performance of 14% at high-speed flow conditions.
Porous carbon nanospheres (PCN) oleogel surface
Hierarchiacal re-enterent type surface morphology of PCN-oleogel results in superior lubrication performance.
PCN-oleogel offers reliable lubrication performance with enhanced physical and chemical resistance.
PDMS brush enhanced oleogel surface
PDMS brushes offer a liquid-like interface due to their free motion and enhance the slippery properties of oleogel surface.
OEPC: optimized erucamide-PDMS composite surface
EPC-PB: PDMS brush enhanced EPC surface
PB-PB: PDMS brush enhanced PDMS surface
Lifetime enhancement of slippery characteristic of superhydrophobic surfaces
Superhydrophobic surface is fabricated and its lifetime is evaluated under flow conditions
Lenear relationship between Cq and Sh of SHPo surfaces is identified and lifetime can be estimated from this relationship.
Re-entrant shaped AAO-LIS surface for durable slipperiness
Re-entrant shaped nanocavities made of AAO (anodic aluminum oxide)
Nanocavities of AAO of which diameter is about 10 nm works as a lubricant reservoir
The AAO-LIS maintains slippery properties under harsh shear flow conditions
특허 출원번호: 10-2023-0063239