[미국특허]
Unmanned air vehicles and method of landing same
원문보기
IPC분류정보
국가/구분
United States(US) Patent
등록
국제특허분류(IPC7판)
B64C-025/56
B64C-039/02
출원번호
US-0098529
(2005-04-05)
등록번호
US-8123162
(2012-02-28)
우선권정보
IL-162915 (2004-07-08)
발명자
/ 주소
Sirkis, Omri
출원인 / 주소
Elbit Systems Ltd.
대리인 / 주소
The Law Office of Michael E. Kondoudis
인용정보
피인용 횟수 :
17인용 특허 :
11
초록▼
There is provided an Unmanned Air Vehicle (UAV) including an engine and an airframe, including means for performing a deep stall maneuver at least one inflatable sleeve connected or connectable to the airframe, and means for inflating the sleeve during flight, wherein the inflated sleeve extends alo
There is provided an Unmanned Air Vehicle (UAV) including an engine and an airframe, including means for performing a deep stall maneuver at least one inflatable sleeve connected or connectable to the airframe, and means for inflating the sleeve during flight, wherein the inflated sleeve extends along the lower side of the airframe so as to protect same during deep stall landing. A method for operating an Unmanned Air Vehicle (UAV), including an engine and an airframe is also provided.
대표청구항▼
1. An unmanned aerial vehicle (UAV), comprising: an airframe having a longitudinal axis and a payload located at a front end thereof, the front end being a forwardmost end of the airframe relative to a forward direction of flight;a deep stall maneuver inducing section that causes the UAV to perform
1. An unmanned aerial vehicle (UAV), comprising: an airframe having a longitudinal axis and a payload located at a front end thereof, the front end being a forwardmost end of the airframe relative to a forward direction of flight;a deep stall maneuver inducing section that causes the UAV to perform a deep stall maneuver as part of a landing process in which the UAV lands with about zero forward velocity; andan inflatable sleeve that is inflated after the deep stall maneuver is effected and, when inflated, is disposed and configured so as to contact a landing surface before the airframe,wherein the sleeve, when inflated, extends about the longitudinal axis of the airframe,protrudes beyond the front end of the airframe and essentially in the forward direction, andprotrudes sufficiently far from the front end of the airframe so that the sleeve prevents the airframe from contacting the landing surface when the UAV lands. 2. An unmanned aerial vehicle (UAV), comprising: an airframe having a longitudinal axis and a payload located at a front end thereof, the front end being a forwardmost end of the airframe relative to a forward direction of flight;means for causing the UAV to execute a deep stall maneuver as part of a landing process in which the UAV lands with about zero forward velocity; andan inflatable sleeve that is inflated after the deep stall maneuver is effected and, when inflated, is disposed and configured so as to contact the landing surface before the airframe,wherein the sleeve, when inflated, extends about the longitudinal axis of the airframe,protrudes beyond the front end of the airframe and essentially in the forward direction, andprotrudes sufficiently far from the front end of the airframe so that the sleeve prevents the airframe from contacting the landing surface when the UAV lands. 3. An unmanned aerial vehicle (UAV), comprising: a wing, a tail section at a rear end of the UAV relative to a direction of flight, and a nose at an end opposite the tail section;a deep stall inducing section that selectively causes the wings and the tail section to cooperate and cause the UAV to perform a deep stall maneuver; andan airframe near the nose, the airframe having an inflatable sleeve on which the UAV lands when the sleeve is inflated, the sleeve being inflated after the deep stall maneuver has been completed, the inflatable sleeve being disposed about the longitudinal axis of the airframe and extending a specified distance beyond the front end of the airframe and essentially in the forward direction, the specified distance being sufficiently far from the front end of the airframe that the sleeve prevents the airframe from contacting a landing surface when the inflated sleeve attenuates an impact of landing,wherein the UAV lands with substantially only vertical velocity. 4. An unmanned aerial vehicle (UAV) that lands after a deep stall maneuver with substantially no forward velocity, comprising: an airframe having a longitudinal axis and a payload at a nose thereof, the nose being a forwardmost end of the airframe relative to a forward direction of flight;a deep stall inducing section that causes the UAV to execute a deep stall maneuver; andan inflatable sleeve on which the UAV lands, the inflatable sleeve being disposed about the longitudinal axis of the airframe, extending beyond the nose and in the forward direction, and extending a distance sufficiently far from the nose so as to prevent the nose or the payload from contacting a landing surface when the UAV lands. 5. An unmanned aerial vehicle (UAV), comprising: a support member extending a length of the UAV to which wings and a tail section are connected;an airframe connected to an underside of the support member at a forwardmost end of the UAV relative to a forward direction of flight;a deep stall inducing section that causes the UAV to perform a deep stall maneuver; andan inflatable sleeve on which the UAV lands when the sleeve is inflated after a deep stall maneuver is completed, the inflatable sleeve being aligned with a longitudinal axis of the airframe, extending beyond the forwardmost end of the airframe and by a distance sufficient to prevent the airframe from contacting a landing surface when the UAV lands,wherein the UAV lands substantially without horizontal velocity.
Menne Stefan,DEX ; Ovadya Yasar,DEX ; Schmidt Bernhard,DEX ; Wagner Adalbert,DEX, Process for preventing turning over during the landing of an aircraft or spacecraft.
Fisher, Christopher Eugene; Chambers, Steven Bradley; Belik, Pavil; Gunder, Austin Craig; Zwaan, John Peter, Aircraft system for reduced observer visibility.
Fisher, Christopher Eugene; Chambers, Steven Bradley; Belik, Pavil; Gunder, Austin Craig; Zwaan, John Peter, Aircraft system for reduced observer visibility.
※ AI-Helper는 부적절한 답변을 할 수 있습니다.