Сводная информация о 8 патентах США (2012-2020)
(тематическая подборка "дистанционно пилотируемый летательный аппарат")
("remotely piloted aerial vehicle")
| N п/п | Номер патента | Название | Реферат | Автор(ы) | Заявитель(ли) | Приоритет | Дата выдачи | МПК | Номер заявки |
| 1 | 10703467 | Vertical take-off and landing aircraft | The present technology relates to the field of aircraft construction, and more specifically to vertical take-off and landing aircraft. The aircraft includes a bearing frame of a spatial structure, a seat, controls, moto-units, a control system, and a remote control system. The bearing frame is designed with a central portion and with at least two peripheral clusters. The central portion and the peripheral clusters of the frame are designed as a spatial structure. Each peripheral cluster is designed as a truss structure of at least three segments of the same type, which are interconnected. Inside each segment there is a moto-unit, which has at least one motor and at least one horizontal-rotation propeller. | Sergei Evgenievich Tovkach (Tulskaya oblast, RU), Aleksei Viktorovich Shanin (Minskaya oblast, BY), Igor Chudakov (San Jose, CA) | Obshchestvo S Ogranichennoj Otvetstvennostyu "Avianovatsii" (Novomoskovsk, RU) | 2018-02-20 | 2020-07-07 | B64C27/08, B64D27/24, B64C39/02, B64D35/02, B64C29/00 | 15/899381 |
| 2 | 10628672 | Method and system for aerial detection and mapping of aquatic species | What is provided is a method and system for more precisely, accurately, and reliably detecting aquatic species, namely infestations of invasive aquatic plants. The system and methods disclosed herein allow for a more effective determination of a treatment plan to reduce any potential negative impact on the aquatic ecology and to minimize any unnecessary human exposure to toxic chemicals. | Dennis Wiand (Bloomfield Hills, MI) | --- | 2018-03-07 | 2020-04-21 | G06K9/00, G01V8/10, G01S17/89, A01M21/04, H04N5/77, H04N5/76, G01N33/00, G06K9/62, G01N21/17, G01N21/25, G01N21/84, G01N21/359, G01N21/85 | 15/914062 |
| 3 | 10324540 | Multi-degrees-of-freedom hand controller | Disclosed is a controller including a first control member, a second control member that extends from a portion of the first control member, and a controller processor that is operable to produce a rotational movement output signal in response to movement of the first control member, and a translational movement output signal in response to movement of the second control member relative to the first control member. The rotational movement output signal may be any of a pitch movement output signal, a yaw movement output signal, and a roll movement output signal, and the translational movement output signal may be any of an x-axis movement output signal, a y-axis movement output signal, and a z-axis movement output signal. In exemplary embodiments, the first control member may be gripped and moved using a single hand, and the second control member may be moved using one or more digits of the single hand, thus permitting highly intuitive, single-handed control of multiple degrees of freedom, to and including, all six degrees of rotational and translational freedom without any inadvertent cross-coupling inputs. | Scott Edward Parazynski (Houston, TX) | Fluidity Technologies, Inc. (Houston, TX) | 2019-01-15 | 2019-06-18 | A61B5/00, A61B34/00, A61B34/30, A61B34/37, G08C19/16, G06F3/0338, G06F3/0346 | 16/248597 |
| 4 | 10086938 | Systems and methods for drone marking of airborne materials | An unmanned aerial vehicle may be used to mark airborne material in a plume. The unmanned aerial vehicle may store a macroscopic and/or microscopic tracer material. A sensor and/or control unit may detect a substance of interest in a plume. The sensor may be configured to detect multiple different substances sharing a particular characteristic. The unmanned aerial vehicle may be piloted along a gradient of increasing concentration of the substance of interest. The tracer material may be ejected into the plume. The tracer material may be configured to react and/or interact with the substance of interest. The unmanned aerial vehicle may be piloted a predetermined distance from the plume after the tracer material has been ejected. Additional and/or different tracer material may be ejected into the plume if it is determined from measurements that ejecting additional tracer material would be beneficial. | Paul Duesterhoft (Grapevine, TX), William David Duncan (Mill Creek, WA), Roderick A. Hyde (Redmond, WA), Jordin T. Kare (San Jose, CA), Eric C. Leuthardt (St. Louis, MO), Tony S. Pan (Bellevue, WA), Lowell L. Wood, Jr. (Bellevue, WA) | Elwha Llc (Bellevue, WA) | 2015-06-22 | 2018-10-02 | B64D1/02, B64C39/02 | 14/745989 |
| 5 | 10065746 | Determining validity of location signal combinations for securing unmanned aerial vehicle (UAV) navigation | A navigation security module of an unmanned aerial vehicle (UAV) receives a combination of signals from a location technology, each signal comprising at least a signal identification and location data. The combination of signal identifications is processed against known identifications. If the identification is not found, or if the combination of signal identification is not possible, the signal may be a rogue signal, resulting in a quarantine protocol. | Naga Kishore Reddy Tarimala (Bangalore, IN), Anil Kaushik (Bangalore, IN) | Fortinet, Inc (Sunnyvale, CA) | 2016-06-27 | 2018-09-04 | B64D45/00, B64C39/02, H04W4/02, G05D1/10, G01S19/21, G01S13/00, G01S19/13, G01S13/87, G08G5/00 | 15/194503 |
| 6 | 10065739 | Systems and methods for drone tracking of airborne materials | An unmanned aerial vehicle may be used to monitor and/or track airborne material in a plume. The unmanned aerial vehicle may be configured to eject a tracer material into the plume. The unmanned aerial vehicle may include a sensor for detecting the tracer material. The sensor may detect the position, the velocity, the concentration, amount reacted, etc. of the tracer material. The unmanned aerial vehicle and/or a remote vehicle or facility may include an electromagnetic radiation emitter to irradiate the tracer material. The sensor may measure the interactions of the electromagnetic radiation with the tracer material. The unmanned aerial vehicle and/or a remote system may determine characteristics of the plume and/or a substance of interest based on measurements by the sensor. | Paul Duesterhoft (Grapevine, TX), William David Duncan (Mill Creek, WA), Roderick A. Hyde (Redmond, WA), Jordin T. Kare (San Jose, CA), Eric C. Leuthardt (St. Louis, MO), Tony S. Pan (Bellevue, WA), Lowell L. Wood, Jr. (Bellevue, WA) | Elwha Llc (Bellevue, WA) | 2015-06-22 | 2018-09-04 | B64D1/00, G01N33/00, B64D1/02, B64C39/02, B64D1/16, B64B1/00 | 14/745992 |
| 7 | 9540119 | Remotely piloted aircraft telemetry recording using the command and control data link system and related method | A system and related method for reception and storage of a command and control (C2) data link between a control station and a Remotely Piloted Vehicle (RPV) for RPV operation. From the C2 data link, the system receives and stores command signals generated by the control station as well as telemetry data associated with and generated by the RPV. The system operates to compare the received telemetry data to 1) the command signal to assure RPV compliance, 2) stored information associated with the RPV to determine a RPV anomaly, and 3) stored information associated with a high value asset (HVA) . Should the comparison reveal a threat to the RPV or HVA, the system alerts an authority to mitigate the threat. The system and method aggregates data associated with specific RPV type or operator to support several safety initiatives, methods used to perform predictive maintenance planning, and accident recreation and investigation. | Richard E. Heinrich (Marion, IA) | Rockwell Collins, Inc. (Cedar Rapids, IA) | 2015-05-12 | 2017-01-10 | B64D45/00, H04W4/02 | 14/710025 |
| 8 | 8208689 | Method for determination of stand attributes and a computer program for performing the method | The method is for forest inventory and for determination of stand attributes. Stand information of trees, sample plots, stands and larger forest areas can be determined by measuring or deriving the most important attributes for individual trees. The method uses a laser scanner and overlapping images. A densification of the laser point clouds is performed and the achieved denser point clouds are used to identify individual trees and groups of trees. A computer program is used for performing the method. | Pekka Savolainen (Inkoo, FI), Heikki Luukkonen (Helsinki, FI), Juha Hyyppa (Espoo, FI), Eija Honkavaara (Espoo, FI), Xiaowei Yu (Espoo, FI), Antero Kukko (Espoo, FI) | Blom Kartta Oy (Helsinki, FI), Geodeettinen Laitos (Masala FI) | 2005-03-14 | 2012-06-26 | G06K9/00 | 10/598322 |