Postech Academy-industry Foundation

Samsung Electronics Co., Ltd.

Samsung Display Co., Ltd.

Sung-Jee Kim

Jae-hyun Hur

No-kyoung Park

Kyu-hyun Im

Hyun Min Cho

Dae Hyun Kim

Jong Hyuk Kang

Hyun Deok Im

Hyoung-Joo Kim

Sang-Won Kim

Jae-Byung Park

Hae-Il Park

Jin-Seob Byun

Jung-Han Shin

Seong-ho Park

Mihye Lim

Sahid Hussain

Ji-Won Bang

Yongju Kwon

Ju-taek Nam

Bomi Kim

Sang-hwa Jeong

A method of manufacturing a nanostructure includes: heating a mixed solution to a first temperature, the mixed solution including a solvent, a compound including indium, and an octadecylphosphonic acid; heating the mixed solution to a second temperature; injecting, after heating the mixed solution to the second temperature, a phosphine precursor into the mixed solution; and heating the mixed solution including the injected phosphine precursor to a third temperature.

Nanowire bundle and method of manufacturing nanostructure

Provided is a hydrogen peroxide sensitive metal nanoparticle including: a metal nanoparticle including a biocompatible metal and a hydrogen peroxide reactive ion which is bonded to a surface of the metal nanoparticle and is oxidized by hydrogen peroxide.

Hydrogen peroxide sensitive metal nanoparticles, method for producing the same and hydrogen peroxide detection system comprising the same

Provided is an example method of preparing a porous metal oxide structure, the method including adsorbing a metal oxide precursor onto a template having a networked structure of branched polynucleotides, decomposing and converting the adsorbed metal oxide precursor into a metal oxide, and removing the template. The networked structure of branched polynucleotides may be used as a template so as to facilitate control of the pore structure of a porous metal oxide structure.

Method of preparing porous metal oxide structure

In a method for manufacturing a nanoparticle, a precursor (e.g., transition metal complex) mixed with polyethylene glycol (PEG) is thermally decomposed. A nanoparticle is formed from the thermal decomposition. PEG is cost effective and less toxic than chemicals that are conventionally used for nanoparticle production, so that costs for manufacturing the nanoparticle may be decreased. Further, PEG may be reused to produce more nanoparticles.

Method for manufacturing a nanoparticle, method for manufacturing a light-emitting element having the nanoparticle, and method for manufacturing a display substrate having the nanoparticle

Growing community of inventors

Pohang-si, South Korea

Sung-Jee Kim