Abstract:
PURPOSE: A meteorological observation assembly is provided to easily replace a sensor by rotating a boom installed in one side of a wind power generator. CONSTITUTION: A meteorological observation assembly(10) comprises: a pillar support(100); a lower flange(200) installed in one side of the support; a boom(300) which is installed to rotate around the support; an upper flange(400) which is installed in the upper part of the boom; a fixing unit(500) for fixing the boom by compressing the lower flange and upper flange; and a meteorological sensor(600) which is installed at the end part of the boom.
Abstract:
A tip airfoil of a blade for a wind power generator to steadily operate at a low speed with improved contamination sensitivity is provided to form at least one transition lamp area on an upper surface to enhance contamination sensitivity. A tip airfoil is provided at a free end of a blade of a wind power generator. The tip airfoil includes a leading edge(9) and a trailing edge(13) spaced apart from the leading edge by a predetermined distance. The tip airfoil includes upper and lower surfaces(7,8) provided between the leading edge and the trailing edge. Operational reynolds numbers are in the range of 1,000,000 to 1,600,000. The sensitivity of surface contamination of the tip air foil corresponds to 95% to 99%. The maximum lift coefficient is in the rage of 1.5 to 1.7. The thickness ratio of the tip airfoil corresponds to 11% to 13%.
Abstract:
A method for forecasting wind power generation by classifying wind speed patterns is provided to stabilize power and reduce an operation cost with a power generation plan effectively by preventing intermittence from acting as a factor of a power generation system and generating the power based on a forecast. A representative real-time wind speed of the wind power generation complex is predicted by wind speed pattern classification(S100). A reference real-time wind speed of neighboring areas is predicted by MCP(Measure-Correlate-Predict) corresponding to the representative real-time wind speed(S200). A forecasted wind speed is corrected according to the representative and reference real-time wind speed(S300). A backwash loss ratio is considered by considering arrangement of a wind power generator(S400). A generation quantity of each power wind generator is predicted according to the wind speed and an output curve at a hub height of each power window generator(S500). A total generation quantity of the wind power generation complex is forecasted(S600).
Abstract:
본 고안은 와류하면서 공급되는 가스중에 함유된 분진을 미세한 물방울과 함께 충분히 집진 시키고 물방울이 제거된 가스는 와류를 완전히 억제시켜 배출되게 하므로서 에너지손실을 줄인 것으로 한번 잡힌 물방울은 물방울제거통의 내주벽에 붙어 중력에 의해 흘러내리므로 가스의 흐름에 영향을 받지 않으므로서, 물방울이 재비산되지 않게 하기 위한 것이다.
Abstract:
본 발명은 내식성 수지로 피복형성된 판 및 파이프를 그대로 조립할 수 잇게 하여 열처리 및 대형조립부를 없애는 데 있다. 본 발명의 열교환기는 파이프의 바깥면은 가스를 공급시키고 안쪽면은 공기 또는 물을 통과시켜 열교환을 행하게 하고 관판 및 측벽은 테프론 또는 기타 내열수지로 라이닝하고 파이프는 물을 가열하기 우한 급수예열기는 강도유지를 위해 금속제파이프를 수지제로 피복제작한 뒤 개별로 용접조립하게 되고 공기예열기는 측벽 및 관판을 같은 구조이나 파이프는 수지파이프로만 하되 관판과 조립부분은 빠지지 않도록 금속제의 조립치구를 설치하고 수지제파이프의 늘어짐이나 진동에 의해 빠지지 않도록 4개의 강선으로 근접하고 있는 파이프와 동시에 엮어서 묶는 것을 특징으로 하는 것이다.
Abstract:
PURPOSE: A marine wind power generator is provided to by generate the Coanda effect by converting a tidal current from a vortex into turbulence, thereby reducing vibration and a repetitive fatigue load caused by the vortex. CONSTITUTION: A marine wind power generator comprises a wind power generator(100), a vertical supporter(200), a steel material structure(300), and a baffle(400). The vertical supporter, which is arranged in the lower side the wind power generator, supports the wind power generator to be spaced from the sea level. One side of the lower part of the steel material structure arranged in the lower side of the vertical supporter is fixed to the submarine surface in order to support the wind power generator and the vertical supporter. The baffle installed in one side of the outer periphery of the steel material structure by being spaced at a predetermined interval, thereby generating the Coanda effect.
Abstract:
A root airfoil of a blade for a wind power generator to steadily operate at a low speed with improved contamination sensitivity is provided to employ a thickness ratio of the root airfoil in the range of 24% to 26%. A root airfoil is a profile of a root of a blade of a wind power generator. The root airfoil is provided with a leading edge(9) and a trailing edge(13). A predetermined distance exists between the leading edge and the trailing edge. The root airfoil has an upper surface(7) and a lower surface(8). The upper and lower surfaces are positioned between the leading edge and the trailing edge. The operational raynolds numbers of the root airfoil is in the range of 500,000 to 1,600,000. The sensitivity for surface contamination corresponds to 40% to 80%. The maximum lift coefficient of the root airfoil is in the range of 1.4 to 1.65.