Patent classifications
Y10S977/766
Growth Factor-Free Proliferation and Differentiation of Neural Stem Cells on Inorganic Extracellular Nanomatrices
The present invention provides nanostructures for use in proliferation and differentiation of neural stem cells. The present invention also provides method of proliferating and differentiating neural stem cells.
Method of manufacturing metal nanowire and light-transmitting electrode and organic light-emitting device including metal nanowire manufactured thereby
A metal nanowire according to an embodiment of the invention includes at least one bent portion. An angle () between an n-th wire portion and an (n+1)-th wire portion connected to the n-th wire portion through an n-th bent portion satisfies an inequation of 0<<180.
Metal nanowire and light-transmitting electrode and organic light-emitting device including the same
A metal nanowire according to an embodiment of the invention includes at least one bent portion. An angle () between an n-th wire portion and an (n+1)-th wire portion connected to the n-th wire portion through an n-th bent portion satisfies an inequation of 0<<180.
Core-shell nanowire, method for synthesizing the core-shell nanowire, and transparent electrode and organic light emitting diode including the core-shell nanowire
A metal nanowire according to an embodiment of the invention includes at least one bent portion. An angle () between an n-th wire portion and an (n+1)-th wire portion connected to the n-th wire portion through an n-th bent portion satisfies an inequation of 0<<180. Also, a metal nanowire according to another embodiment of the invention includes at least two wire portions. The metal nanowire includes an n-th wire portion and an (n+1)-th wire portion connected to the n-th wire portion. A diameter of the n-th wire portion is different from a diameter of the (n+1)-th wire portion. In addition, a core-shell nanowire according to yet another embodiment includes a nanowire core; and a metal-compound shell formed on the nanowire core. A method of manufacturing a metal nanowire according to an embodiment includes preparing a reaction mixture and synthesizing a nanowire. In the preparing the reaction mixture, a metal salt, a reducing solvent for reducing the metal salt to a melt, a capping agent for growing the metal into a shape of a wire, and a catalyst are mixed. In the synthesizing the nanowire, the mixture is added to a reaction container and is reacted in the reaction container at 1 to 5 atm. Then, the nanowire including at least two wire portions and having a bent portion is manufactured. Also, a method of manufacturing a metal nanowire according to another embodiment includes preparing a reaction mixture and synthesizing a nanowire. In the preparing the reaction mixture, a metal salt, a reducing solvent for reducing the metal salt to a melt, a capping agent for growing the metal into a shape of a wire, and a catalyst are mixed. In the synthesizing the nanowire, the mixture is added to a reaction container and is reacted in the reaction container at 1 to 5 atm. Then, the nanowire having different diameters is manufactured. In addition, a method of manufacturing a metal nanowire according to yet another embodiment preparing a nanowire core on a substrate; contacting the nanowire core with a precursor solution for forming a metal-compound shell; and forming a metal-compound shell on the nanowire core by supplying growth energy. A transparent electrode according to an embodiment includes a conductor layer including a metal nanowire; and a transparent electrode layer formed on the conductor layer. The metal nanowire includes at least one bent portion. An angle () between an n-th wire portion and an (n+1)-th wire portion connected to the n-th wire portion through an n-th bent portion satisfies an inequation of 0<<180. Also, a transparent electrode according to another embodiment includes a conductor layer including a metal nanowire; and a transparent e
Growth factor-free proliferation and differentiation of neural stem cells on inorganic extracellular nanomatrices
The present invention provides nanostructures for use in proliferation and differentiation of neural stem cells. The present invention also provides method of proliferating and differentiating neural stem cells.
METHOD OF MANUFACTURING METAL NANOWIRE AND LIGHT-TRANSMITTING ELECTRODE AND ORGANIC LIGHT-EMITTING DEVICE INCLUDING METAL NANOWIRE MANUFACTURED THEREBY
A metal nanowire according to an embodiment of the invention includes at least one bent portion. An angle () between an n-th wire portion and an (n+1)-th wire portion connected to the n-th wire portion through an n-th bent portion satisfies an inequation of 0<<180.
METAL NANOWIRE AND LIGHT-TRANSMITTING ELECTRODE AND ORGANIC LIGHT-EMITTING DEVICE INCLUDING THE SAME
A metal nanowire according to an embodiment of the invention includes at least one bent portion. An angle () between an n-th wire portion and an (n+1)-th wire portion connected to the n-th wire portion through an n-th bent portion satisfies an inequation of 0<<180.
CORE-SHELL NANOWIRE, METHOD FOR SYNTHESIZING THE CORE-SHELL NANOWIRE, AND TRANSPARENT ELECTRODE AND ORGANIC LIGHT EMITTING DIODE INCLUDING THE CORE-SHELL NANOWIRE
A nanowire according to an embodiment of the invention comprises a nanowire core and a metal-compound coated on the nanowire core, wherein the nanowire core comprises at least two bent portions, and wherein an angle () between an n-th wire portion and an (n+1)-th wire portion connected to the n-th wire portion through an n-th bent portion satisfies an inequation of 0<<180.
Nanowire bundle array, ultrahigh-performance broadband optical film, and method of manufacturing the same
Disclosed are a nanowire bundle array performing optical haze control for enhancing optical characteristics of optoelectronic device systems and optical systems, an ultrahigh-performance broadband optical film, and a method of manufacturing the same.
NANOWIRE BUNDLE ARRAY, ULTRAHIGH-PERFORMANCE BROADBAND OPTICAL FILM, AND METHOD OF MANUFACTURING THE SAME
Disclosed are a nanowire bundle array performing optical haze control for enhancing optical characteristics of optoelectronic device systems and optical systems, an ultrahigh-performance broadband optical film, and a method of manufacturing the same.