Abstract:
PURPOSE: A cantilever for MFM(Magnetic Force Microscopy) and a manufacturing method thereof are provided to offer resolution entered into one or more magnetic force elements. CONSTITUTION: A cantilever(1) for MFM includes a body(5), and a probe(10) formed at the end of the body. The probe includes a magnetic force element combined with the Dendron with a bonding agent and with a surface based on the Dendron.
Abstract:
PURPOSE: A method for manufacturing a molecule monolayer including an alkyne compound is provided to form a molecule monolayer of an alkyne compound in a minute and precise level from a furoxan monolayer on the surface of a substrate using extreme ultraviolet rays. CONSTITUTION: A method for manufacturing a molecule monolayer including an alkyne compound comprises: a molecular layer formation step that forms a furoxan monolayer on the surface of a substrate; and a light irradiation step that irradiates extreme ultraviolet rays to the furoxan monolayer formed in the sample preparation step. A method for forming a molecule monolayer comprises the steps of: washing a substrate for forming the furoxan monolayer; forming an APDES((3-aminoproryl)diethoxymethylsilane) molecular monolayer on the surface of washed substrate; and forming the furoxan monolayer by reacting the furoxan compound on the APDES molecular monolayer.
Abstract:
Biomolecule interaction using an atomic force microscope is provided to analyze ligand-receptor interaction by fixing a ligand at the tip of the atomic force microscope using dendron. A cantilever for an atomic force microscope comprises a main body with a fixed end and a free end. The free end has a surface chemically deformed by dendron. The ends located on a basin of the dendron are coupled to the deformed surface. The end of linear portion of the dendron has become a functional group.
Abstract:
PURPOSE: A manufacturing method of oligonucleotide which is surface combined on a solid surface is provided to manufacture one piece of oligonucleotide probe by covalently bonding the non-bonded oligonucleotide. CONSTITUTION: A manufacturing method of oligonucleotide which are surface combined on a solid surface comprises the following steps: contacting a first oligonucleotide with a target oligonucleotide which includes oligonucleotide sequence corresponding to the first oligonucleotide sequence under a condition which is enough for manufacturing oligonucleotide complex; contacting partially mixed oligonucleotide combination with a second oligonucleotide including the oligonucleotide sequence which corresponds with non-mixed part of the target oligonucleotide; and manufacturing oligonucleotide combination which includes the surface combined oligonucleotide. [Reference numerals] (AA) Hybridization; (BB) Leading DNA; (CC) Target DNA
Abstract:
The present invention relates to a method for manufacturing a metal or metal oxide nanostructure comprising the steps of: forming a silicon pillar structure on one side of a silicon substrate; impregnating the silicon substrate with the silicon pillar structure in a catalytic solution; providing carbon source gas to the impregnated silicon substrate to form a three-dimensional network of a carbon nanotube between the silicon pillars; coating the three-dimensional network of carbon nanotube; and electrochemically depositing metal or metal oxide after coating. According to the present invention, provided is the metal or metal oxide nanostructure based on the three-dimensional carbon nanotube network with a large cross sectional area and a hierarchical structure by depositing by an electrochemical method.
Abstract:
본 발명은 퓨록산분자(furoxan molecule)를 이용한 알카인(alkyne)화합물의 단분자막형성방법에 관한 것으로, 본 발명에 따르면 극자외선을 사용하여 극자외선에 의한 퓨록산분자막의 변화를 유도하여 알카인(alkyne)화합물의 단분자막을 국소적으로 기판의 표면상에 형성시킬 수 있기 때문에 선택적으로 미세한 부분에 알카인(alkyne)화합물의 단분자막에 다른 화학분자를 반응시킬 수 있는 기초기술을 제공한다. 퓨록산, 극자외선, 자기조립분자막, 삼중결합