序号 专利名 申请号 申请日 公开(公告)号 公开(公告)日 发明人
161 TWIN HULL WATERCRAFT WITH AERODYNAMIC-LIFT PRODUCING SUPERSTRUCTURE PCT/EP1993000895 1993-04-13 WO1993021060A1 1993-10-28
A marine craft provided with a completely immersed fusiform twin hull (10), from which project vertical support structures (11) for a load platform (12), of the type called SWATH, characterized in that the said load platform has a vertical longitudinal section (13) shaped as a wing contour, that is, suitable for producing aerodynamic lift.
162 高揚発生装置、翼および高揚力発生装置の騒音低減装置 PCT/JP2010/061777 2010-07-12 WO2011007759A1 2011-01-20 平井 誠; 竹中 啓三; 今村 太郎; 山本 一臣; 横川 譲

 フラップを展開した際に発生する騒音の低減を図るとともに、フラップを収納した際の空特性の劣化を抑制し、かつ、重量の増加を抑制することができる高揚力発生装置、翼および高揚力発生装置の騒音低減装置である。母翼に対して展開収納可能に配置されたフラップ本体(5)と、フラップ本体(5)の正圧面(PS)における少なくとも一方の端部の近傍に、フラップ本体(5)から離れる方向に滑らかに突出する突出部(6A-1)と、が設けられている。

163 SURFACE-PIERCING SURFACE EFFECT MARINE CRAFT EP95924920.0 1995-06-23 EP0765266A1 1997-04-02 ROCCOTELLI, Sabino
A marine or naval craft having a triple catamaran-type hull (3, 3, 4) from the bottom of which project three respective ventral fins (6, 6, 7) provided with propulsion and control means (14, 17, 18) and which support a load platform (5) having a wing-like longitudinal section suitable for producing aerodynamic lift at speed.
164 High-lift generating device, wing, and noise-reduction device for high-lift generating device JP2009164869 2009-07-13 JP2011020476A 2011-02-03 HIRAI MAKOTO; TAKENAKA KEIZO; IMAMURA TARO; YAMAMOTO KAZUOMI; YOKOGAWA YUZURU
<P>PROBLEM TO BE SOLVED: To provide a high-lift generating device which reduces noises caused when flaps are deployed and suppresses the degradation of aerodynamic characteristics when the flaps are retracted, and moreover, suppresses an increase in weight, and to provide a wing and a noise-reduction device of the high-lift generating device. <P>SOLUTION: The high-lift generator includes a flap 5 arranged in a deployable/retractable manner to a main wing, and a protrusion 6A-1 protruded smoothly in a direction away from the flap 5 in the vicinity of at least one end in the positive pressure surface PS of the flap 5. <P>COPYRIGHT: (C)2011,JPO&INPIT
165 A SHIP'S HULL AND A SHIP INCLUDING SUCH A HULL PCT/NO2011/000267 2011-09-21 WO2012087146A1 2012-06-28 LADE, Terje

A ship's hull is provided where a substantial portion of the ship's hull, above its waterline, is designed essentially as a section of an aerofoil of the NACA foil type which is symmetrical to the centre line (S) of the ship's hull and where the leading edge (3) of the aerofoil section (2) is facing in the direction of the front of the ship (1), in order, with relative wind, to generate an aerodynamic lift that produces propulsion for the ship (1) within an angular sector of the ship's (1) course or direction of propulsion, the aerodynamic lift being balanced out by a hydrodynamic lift generated below the waterline. Also provided is a ship (1) including the aforementioned ship's hull.

166 AN ELECTRICAL POWER GENERATION ASSEMBLY PCT/GB2004/002128 2004-05-18 WO2004104413A1 2004-12-02 KNOTT, David, Sydney

An electrical power generation assembly (10) comprises a main body (12) having a low density to provide lift and wind driven means (18) on a surface of the main body (12) to generate electrical power. The main body (12) has an aerodynamic prismatic shape and has a part-circular, or a part-elliptical, cross-section frontal region (27).

167 WIND TURBINE BLADE, WIND POWER GENERATION SYSTEM INCLUDING THE SAME, AND METHOD FOR DESIGNING WIND TURBINE BLADE EP16198206.1 2011-10-20 EP3179095A1 2017-06-14 FUKAMI, Koji

Provided is a wind turbine blade that delivers the desired aerodynamic characteristics under conditions where the upper limit of the chord length near the blade root is limited. The wind turbine blade includes a blade body (3) whose chord length increases from a blade tip (1b) toward a blade root (1a). The blade body (3) includes a blade tip region (1c) located near the blade tip and whose chord length increases gradually toward the blade root (1a), the blade tip region (1c) having a substantially constant first design lift coefficient, a maximum-chord-length position (1d) located near the blade root (1a) and having a maximum chord length, the maximum-chord-length position (1d) having a second design lift coefficient higher than the first design lift coefficient, and a transition region (1e) located between the blade tip region (1c) and the maximum-chord-length position (1d). The transition region (1e) has a design lift coefficient increasing gradually from the first design lift coefficient to the second design lift coefficient in a direction from the blade tip (1b) toward the blade root (1a).

168 HYBRID AIRSHIP US12429542 2009-04-24 US20100270424A1 2010-10-28 James D. DeLaurier
A hybrid airship comprises a non-rigid body having a delta-wing shape and an airfoil cross-section. The body is shaped for generating aerodynamic lift during forward flight, and contains a gas for generating buoyancy lift. At least one splitter plate is pivotally connected along a trailing edge of the body. The splitter plate is configured to be controllably pivoted for controlling the airship.
169 風車翼およびこれを備えた風発電装置ならびに風車翼の設計方法 PCT/JP2011/074176 2011-10-20 WO2012053602A1 2012-04-26 深見 浩司

 翼根側のコード長の上限値が制限された条件下で、所望の空特性を得ることができる風車翼を提供する。翼先端(1b)側から翼根(1a)側にかけてコード長が増大する翼本体部(3)を備えている。翼本体部(3)は、その先端側にて、略一定の第1設計揚力係数とされた状態で、翼根(1a)側に向けてコード長が漸次増大する翼先端領域(1c)と、翼根(1a)側の最大コード長となる位置にて、第1設計揚力係数よりも大きい第2設計揚力係数を有する最大コード長位置(1d)と、翼先端領域(1c)と最大コード長位置(1d)との間に位置する遷移領域(1e)とを有する。遷移領域(1e)の設計揚力係数は、翼先端(1b)側から翼根(1a)側に向かって、第1設計揚力係数から第2設計揚力係へと漸次増大させられている。

170 高揚発生装置、翼および高揚力発生装置の騒音低減構造 PCT/JP2008/059215 2008-05-20 WO2008146656A1 2008-12-04 平井 誠; 前田 一郎

 機体重量の増加を抑制しつつ、空騒音の発生を抑制することができる高揚力発生装置、翼および高揚力発生装置の騒音低減構造を提供する。母翼に対して展開収納可能に配置されたスラット本体(4)と、スラット本体(4)における母翼と対向する位置に、少なくとも母翼の前縁の一部を収納可能に形成された凹部(5)と、凹部(5)における母翼の上面と対向する領域に配置され、スラット本体(4)が母翼に収納された際には、母翼と凹部との間に収納され、スラット本体(4)が母翼から展開された際には、凹部(5)における母翼の上面と対向する領域に衝突する流れにおける乱れの発生を抑制する整流部(6)と、が設けられていることを特徴とする。

171 軌道、超軌道及次軌道飛行用之火箭動空氣展開助升之增壓航具 TW078101776 1989-03-10 TW138876B 1990-08-01 安東尼奧.L.伊萊亞斯
本發明揭示一種火箭動空氣展開助升之增壓航具(air-deployed,lift-assisted booster vehicle簡稱ALBV),用以攜帶小酬載至軌道、超軌道或次軌道高度及速度。 ALBV係予固著在一習知之母機下方,並在發射高度及速度自其拋下,對ALBV之上升軌跡貢獻重大之總能量。ALBV具有機翼產生有助航具上升之空氣動力升力,並有尾翅於航具在可感知之大氣層時執行姿態控制。在拋下發射後,利用空氣動力控制執行一項創新之"垂直-S"操縱,使ALBV在一近乎理論上之最佳軌跡上爬升。在較佳之實施例,機翼及尾翅於航具脫離可感知之大氣層而空氣動力升力停止時予以拋棄。本發明代表對於先前技藝軌道酬載發射方法之一項戲劇性改進,因為與完全相同之地面發射航具比較,它使所能攜帶之有效酬載幾乎增加一倍。附註:本案已向美國申請專利,申請日期:1988年3月 11日,案號:07/167,189號。
172 DEVICE AND METHOD FOR INCREASING THE AERODYNAMIC LIFT OF AN AIRCRAFT EP11767986.0 2011-10-05 EP2625096A1 2013-08-14 WEBER, Carsten; FISCHER, Markus; GROTE, Arne; RADESPIEL, Rolf; DREYER, Martin
A lift arrangement for an aircraft (2) comprises an aircraft fuselage section with an outside (3), an aerodynamic lift body (6, 8)attached to the aircraft fuselage section and extending from the aircraft fuselage section outwardly, and a pair of movably held add-on bodies (12)arranged upstream of a leading edge (14) of the aerodynamic lift body (6, 8). The add-on bodies(12) comprise an aerodynamically effective surface and are equipped with incoming airflow to generate vortices (18) that impinge on the aerodynamic lift body (6, 8), thus leading to an increase inlift on the aerodynamic lift body (6, 8). Consequently it becomes possible with simple means to effectively influence lift generation on a lift body (6, 8), in particular to compensate for loss of lift as a result of icing. Preferably, the add-on bodies are moveable, and, when operational conditions do not require the use of said add-on bodies, can be moved to a neutral position in which they do not project into the flow around the aircraft, and are thus not effective from the point of view of fluid dynamics.
173 Aerodynamic Body And High-Lift System Comprising Such An Aerodynamic Body US12936421 2009-04-07 US20110024574A1 2011-02-03 Thomas Lorkowski
An aerodynamic body with an outside with a top and bottom in relation to the direction of airflow, with lateral end parts that form the lateral ends of the aerodynamic body when viewed across the direction of airflow, where in the interior of the aerodynamic body a duct with an airflow drive with a drive motor and a compressor means that is driven by the aforesaid and that is arranged in the duct is arranged, with at least one inlet at the bottom and/or at at least one of the lateral end parts of the aerodynamic body and with at least one outlet at the top of the aerodynamic body for influencing the airflow at the aerodynamic body is arranged, where in the duct a sleeve is arranged which is rotatable by means of a drive motor, which sleeve includes at least one recess which at a particular rotational position of the sleeve can be made to at least in part coincide with the outlet at the top of the aerodynamic body so that the air that has been compressed by the compressor flows through the recess in the sleeve and through the outlet, as well as a high-lift system comprising such an aerodynamic body.
174 Under cover structure of automobile JP37155398 1998-12-25 JP2000190873A 2000-07-11 NAKATANI SHINSUKE; SUZUKI NOBUYOSHI
PROBLEM TO BE SOLVED: To provide an under cover structure that excels in aerodynamic characteristics, rigidity, and sound and heat insulation. SOLUTION: An under cover 11 has a hollowed double wall structure consisting of an upper wall 12 and a lower wall 13 that is made generally flat. An improved straightening effect on underfloor airflows offers increased down force and an elevated anti-lift effect. The double wall structure also provides increased rigidity and an improved sound/heat insulating effect. COPYRIGHT: (C)2000,JPO
175 Low aerodynamic noise type current collection equipment EP94305343.9 1994-07-20 EP0635392A1 1995-01-25 Hidaka, Hideto; Iwamoyto, Kengo; Noguchi, Yasuhiro; Miyamura, Motohiro; Yazima, Seiichi; Sakai, Inao

A low aerodynamic noise type current collection equipment is provided for reducing variation in aerodynamic force applied to a current collector during the train operation. A central region (2a) of a current collector (1) having a collector head (2) with a top surface in which a contact strip (3) is embedded is rectangular in cross-section, and each side region is shaped in cross-section convex in the front and rear directions, such as an elliptical shape. The rectangular shape has characteristics such that the magnitude of the aerodynamic lift force would be kept substantially constant even if the inclination angle against the aerial flow would be changed. Accordingly, the cross-sectional shape of the central region (2a) of the current collector (1) which is liable to receive the turbulent aerial flow by the support portion (4) in the current collector (1), whereby it is possible to suppress the variation in aerodynamic lift force generated in the current collector even if the angle of the aerial flow that would collide against the current collector (1) would be unstable. The cross-sectional shape of each side region (2b) is made convex in the front and rear directions such as an elliptical shape to thereby reduce the aerodynamic noise.

176 Negative lift measurement device for automobile JP2004253559 2004-08-04 JP2006044623A 2006-02-16 TANAKA YUJI
PROBLEM TO BE SOLVED: To measure intensity of negative lift of an automobile gradually varied at traveling of the automobile and to inform a driver of intensity of the negative pressure at the present time. SOLUTION: In the negative lift measurement device 9 for the automobile, a (screw type) load sensor 7 is provided between a trunk lid 2 of the automobile 1 and an aerodynamic power device (wing) 3, an input part for converting a signal of the load sensor to a numerical value and an operation part for calculating the numerical value from the input part are provided and a numerical value display part for receiving the signal from the operation part and displaying the negative lift. COPYRIGHT: (C)2006,JPO&NCIPI
177 Rotor platform of aerodynamic force and method of aerodynamic force generation EP10185266.3 2010-10-01 EP2306000A1 2011-04-06 Klimov, Vyacheslav Stepanovich; Klimov, Oleg Vyacheslavovich

Rotor platform of aerodynamic force is meant for generating aerodynamic lift force in horizontal position and aerodynamic transverse force in vertical position, with further practical implementation as a robust power installation of transport vehicle facilities.

The principle of operation of the platform is based on the well-known Magnus effect - generation of transverse force acting on an object spinning in the ambient air flow. The basis of the construction is the unit of several coplanar rotors, wherein the rotors spinning is caused by the air flow force and the rotors provide the summed value of the generated aerodynamic force.

178 HIGH SPEED TRIANGULAR SHAPED HYDROPLANING MONOHULL CRAFT WITH AIRCRAFT-LIKE CONTROL SURFACES HAVING SURFACE ADHESION HULL CHARACTERISTICS EP15823973.1 2015-06-25 EP3186143A1 2017-07-05 Tan, Yu Lee
The invention is an air propelled boat that has a triangular shaped hydroplaning monohull which has surface adhesion characteristics by means of a concave bottom hull. The invention also has aircraft-like control surfaces (5,6) for safety and control at high speeds. The invention is the only monohull marine craft which produces aerodynamic lift without wings and has air based propulsion (4), air based control surfaces and a unique concave planing hull.
179 HIGH-LIFT-GENERATING DEVICE, WING, AND NOISE-REDUCTION DEVICE FOR HIGH-LIFT-GENERATING DEVICE EP10799817.1 2010-07-12 EP2455282A1 2012-05-23 HIRAI, Makoto; TAKENAKA, Keizo; IMAMURA, Taro; YAMAMOTO, Kazuomi; YOKOKAWA, Yuzuru

In a high-lift-device, a wing, and noise reduction device for a high-lift-device that are capable of reducing noise generated when a flap is extended, preventing deterioration of aerodynamics characteristic when retracting the flap, and preventing an increase in weight, a flap main body (5) disposed so as to be extendable/retractable relative to a main wing and a protruding portion (6A-1) that smoothly protrudes at least at the vicinity of one end portion of a positive-pressure surface (PS) of the flap main body (5) in a direction away from the flap main body (5) are provided.

180 DEVICE AND METHOD FOR INCREASING THE AERODYNAMIC LIFT OF AN AIRCRAFT PCT/EP2011/067404 2011-10-05 WO2012045783A1 2012-04-12 WEBER, Carsten; FISCHER, Markus; GROTE, Arne; RADESPIEL, Rolf; DREYER, Martin

A lift arrangement for an aircraft (2) comprises an aircraft fuselage section with an outside (3), an aerodynamic lift body (6, 8)attached to the aircraft fuselage section and extending from the aircraft fuselage section outwardly, and a pair of movably held add-on bodies (12)arranged upstream of a leading edge (14) of the aerodynamic lift body (6, 8). The add-on bodies(12) comprise an aerodynamically effective surface and are equipped with incoming airflow to generate vortices (18) that impinge on the aerodynamic lift body (6, 8), thus leading to an increase inlift on the aerodynamic lift body (6, 8). Consequently it becomes possible with simple means to effectively influence lift generation on a lift body (6, 8), in particular to compensate for loss of lift as a result of icing. Preferably, the add-on bodies are moveable, and, when operational conditions do not require the use of said add-on bodies, can be moved to a neutral position in which they do not project into the flow around the aircraft, and are thus not effective from the point of view of fluid dynamics.

QQ群二维码
意见反馈