Abstract:
와이어 이동형 로봇은, 와이어 상에 안착된 롤러를 회전 구동하여 와이어를 따라 이동할 수 있는 와이어 이동형 로봇으로서, 로봇 몸체와, 상기 로봇 몸체의 상방으로 연장되는 프레임과, 상기 프레임의 상단부에서 상기 로봇 몸체의 좌우 방향으로 서로 마주하여 형성되는 좌측 롤러 및 우측 롤러를 포함하고, 상기 좌측 롤러와 상기 우측 롤러는 나란하게 연장된 한 쌍의 와이어 상에 하나씩 안착되고, 상기 좌측 롤러 또는 상기 우측 롤러는 상기 프레임에 대해 위치 이동 가능하게 형성되어, 상기 한 쌍의 와이어 사이의 간격 변화에 대응하여 상기 좌측 롤러와 상기 우측 롤러 사이의 거리가 변화하도록 구성된다.
Abstract:
본 발명의 일 실시예는 이러한 비선형 결정체 및 포토닉 결정체를 깊이 카메라에 응용하여 더욱 저렴한 실외용 깊이 카메라를 제공할 수 있다. 이러한 본 발명의 일 실시예에 따르는 적외선을 이용한 깊이 정보 추출 장치는 제 1 적외선을 피사체를 향해 발광하는 적외선 조사부; 상기 피사체로부터 반사된 상기 제 1 적외선을 상기 제 1 적외선의 파장보다 짧은 파장을 갖는 제 2 적외선으로 변환하는 파장 변환부; 및 상기 변환된 제 2 적외선을 감지하여 상기 피사체의 깊이 정보를 추출하는 깊이 정보 추출부;를 포함하며, 상기 파장 변환부는 파장의 길이를 변환하는 결정체로 구성되는 것을 특징으로 한다.
Abstract:
A robot moving along a wire, which can move along a wire by rotating a driving roller seated on the wire includes a robot body; a frame extended upward of the robot body and supporting the driving roller; and an auxiliary roller disposed by being abutted against the driving roller, wherein the auxiliary roller can be moved between a closed position of being in close contact with the wire from a downward direction of the wire to prevent the driving roller from being detached from the wire, and an opened position of being separated from the wire to enable the driving roller to be detached from the wire.
Abstract:
A photoluminescence wavelength tunable material comprises a composite including a graphene oxide layer and metal nanoparticles attached on the graphene oxide layer. The photoluminescence wavelength of the graphene oxide (color of emitted light) can be tuned while a structure and physical properties of the graphene oxide is maintained by boding the metal nanoparticles to the graphene oxide. The photoluminescence wavelength tunable material can be applied to an energy harvesting element such as a solar cell with low loss and high efficiency.
Abstract:
A photoreceptor protein-based spectrophotometer may include: a field effect transistor (FET); and photoreceptor protein positioned on the FET, and causing a change in the electrical characteristic by being activated by the absorption of light. The spectrophotometer can copy the human visual organ directly using the human photoreceptor protein by converting light absorbed by the photoreceptor protein into an electric signal using the FET. The spectrophotometer can measure color, intensity, etc. according to the wavelength of light, such as the human visual organ, in combination, and can be applied to the development of an artificial visual organ or the like.
Abstract:
The present invention relates to a method and a device for detecting an abnormality of a line which is very useful in processing an image ing real time, in multiple channels on a line such as a power line, and a system using the same. The method for detecting abnormality of a line in accordance with an embodiment of the present invention includes a step of obtaining a line image by focusing on the line with a camera; a step of filtering the obtained image to extract energy corresponding to a predetermined frequency area and a predetermined direction; and a step of determining the abnormality of the line when the energy of the predetermined direction and the predetermined frequency according to the filtering is more than a preset reference value.
Abstract:
The present invention relates to a method for analyzing coupling efficiency of adhesive nano particles, comprising the steps of (a) injecting a solution including nano particles into a first chamber slide; (b) vaporizing only the solution from the first chamber slide into which the solution including nano particles is injected and irradiating light from a light source to measure a saturation temperature by a thermal observation acquisition device; (c) injecting cells into a second chamber slide; (d) injecting the solution including nano particles into the second chamber slide in which the cells are cultured; (e) removing the nano particles which are not coupled to the cells from the second chamber slide into which the cells and nano particles are injected; (f) vaporizing only the solution from the second chamber slide from which the nano particles are removed and irradiating light from the light source to measure the saturation temperature by a thermal observation acquisition device; and (g) comparing the number per area of the nano particles injected into the first chamber slide and the number per area of the nano particles injected into the second chamber slide at the same saturation temperature between the step (b) and the step (f). [Reference numerals] (a,b,c,d) Measure a saturation temperature according to concentration; (AA) GNP solution; (BB) High concentration; (CC) Low concentration; (DD,HH,OO,TT) Temperature; (EE,II,PP,UU) Saturation temperature; (FF,JJ,QQ,VV) Time; (GG) Medium solution; (KK) Cell medium solution; (LL) Combined GNP solution; (MM,RR) GNP high concentration; (NN,SS) GNP low concentration
Abstract:
An optical switch may include a graphene layer to which incident light is applied; and a pump optical source for adjusting the transmittance of the incident light to the graphene layer by selectively applying pump light to the graphene layer. The incident light does not saturate the Fermi level of the graphene layer. The pump optical source determines the power of the pump light to allow the pump light to increase the Fermi level of the graphene layer to be higher than the energy level of the incident light. The optical switch changes the optical absorption of the graphene layer by adjusting lights applied to the graphene layer; and enables rapid control for lights in comparison with a conventional electronic control system.