Lee J. – Page 2 – TechConnect Briefs

Effects of the Shape of Nanoparticles on the Crystallization Behavior of Poly(ethylene terephthalate) Nanocomposites in the Flow Fields

Kim B.C., Jang K.H., Hahm W.G., Kikutani T., Lee J., Hanyang University, KR

This paper investigated the effects of the shape of nanoparticles on the crystallization behavior of high molecular weight poly(ethylene terephthalate) (PET ; inherent viscosity of 0.98 g/dl) in the shear and elongational flow fields. Two [...]

Periodic Nanowell Array using Template-Assisted Nanosphere Lithography

Jung S., Lee J., Seoul National University, KR

This paper presents a template-assisted nanosphere lithography(NSL) to obtain high-quality crystal in regularity and coverage(Figure 1). A periodic array of 100-nm deep, 360-450 nm wide nano-trenches was fabricated by nano imprint lithography(NIL), and used as [...]

FEM Simulation for demolding process in thermal imprint lithography

Song Z., Lee J., Park S., Louisiana State University, US

Thermal imprint lithography is a highly potential technique utilizing molding to produce micro- and nano-structures with high throughput and at low cost. Extensive researches have been performed in understanding polymer flow behavior and cavity filling [...]

Authors: Lee J.

Effects of the Shape of Nanoparticles on the Crystallization Behavior of Poly(ethylene terephthalate) Nanocomposites in the Flow Fields

Periodic Nanowell Array using Template-Assisted Nanosphere Lithography

FEM Simulation for demolding process in thermal imprint lithography

Active Sealing for Soft Poymer Microchips

Processing Parameters Affecting Nanoinjection Molding

Investigation of Tooling Surfaces on Injection Molded Nanoscale Features

Numerical Simulations of Novel Constant-Charge Biasing Method for Capacitive RF MEMS Switch

Design Optimization of Micromachined High Aspect Ratio 3D On-Chip Solenoid Inductor

RF-MEMS Voltage Tunable Capacitor using Electrostatic Forces

Optical Characteristics of InAs Quantum Dots influenced by AlGaAs/GaAs Superlattice Barriers