Abstract:
A computationally implemented system and method that is designed to, but is not limited to: electronically modulating two or more acoustic ultrasonic signals according to output information to be transmitted as two or more acoustic ultrasonic signals from two or more portable electronic device emitters of a portable electronic device; and electronically projecting said two or more acoustic ultrasonic signals from said portable electronic device emitters to produce a first set of one or more acoustic audio signals from a first set of said two or more acoustic ultrasonic signals at a first location and to produce a second set of one or more second acoustic audio signals from of a second set of said two or more acoustic ultrasonic signals at a second location. In addition to the foregoing, other method aspects are described in the claims, drawings, and text forming a part of the present disclosure.
Abstract:
A soil detection and planting apparatus. The apparatus includes a vehicle and a controller coupled to the vehicle. The apparatus further includes a planting device coupled to the vehicle, the planting device configured to plant seeds or plants into a soil material. The apparatus includes a ground penetrating radar sensor coupled to the vehicle. The ground penetrating radar soil sensor is configured to scan the soil material up to a designated depth beneath a surface of the soil material, wherein the ground penetrating radar soil sensor is further configured to provide a sensor feedback signal to the controller with respect to an intrinsic characteristic of the soil material. The controller is configured to instruct placement of a seed or a plant into the soil material based on the feedback signal.
Abstract:
A computationally implemented system and method that is designed to, but is not limited to: electronically modulating two or more acoustic ultrasonic signals according to output information to be transmitted as two or more acoustic ultrasonic signals from two or more portable electronic device emitters of a portable electronic device; and electronically projecting said two or more acoustic ultrasonic signals from said portable electronic device emitters to produce a first set of one or more acoustic audio signals from a first set of said two or more acoustic ultrasonic signals at a first location and to produce a second set of one or more second acoustic audio signals from of a second set of said two or more acoustic ultrasonic signals at a second location. In addition to the foregoing, other method aspects are described in the claims, drawings, and text forming a part of the present disclosure.
Abstract:
Described embodiments include a self-propelled vehicle, method, and system. The self-propelled vehicle includes an autonomous driving system configured to dynamically determine maneuvers operating the vehicle along a route in an automated mode without continuous input from a human driver. The vehicle includes an input device configured to receive a real-time request for a specific dynamic maneuver by the vehicle operating along the route from the human driver. The vehicle includes a decision circuit configured to select a real-time dynamic maneuver by arbitrating between (i) the received real-time request for the specific dynamic maneuver from the human driver and (ii) a real-time determination relative to the specific dynamic maneuver received from the autonomous driving system. The vehicle includes an implementation circuit configured to output the selected real-time dynamic maneuver to an operations system of the vehicle.
Abstract:
Described embodiments include a wind turbine system. In this embodiment, the system includes a rotor blade attached to a rotor hub drivingly coupled to an electric generator. The system includes a controllable feature configured to decrease a noise generated by the rotor blade if activated. The system includes a sensor configured to detect an atmospheric variation approaching the rotor blade. The system includes a noise manager circuit configured to authorize a noise mitigation measure responsive to the detected atmospheric variation. The system includes a control circuit configured to activate the controllable feature in response to the authorized noise mitigation measure. In an embodiment, the system includes a support structure positioning the rotor hub a sufficient distance above the ground to allow rotation of the rotor blade about the rotor hub without contacting the ground.
Abstract:
Described embodiments include a mobile apparatus, article of manufacture, system, and method. A mobile apparatus includes circuitry for requesting data indicative of a specified attribute of an operational environment of the mobile apparatus. The mobile apparatus includes circuitry for selecting an offer submitted by a responding apparatus to supply the requested data indicative of the specified attribute of the operational environment of the mobile apparatus. The mobile apparatus includes circuitry for forming an agreement with the responding apparatus to supply the requested data. The mobile apparatus includes circuitry for receiving the requested data. In an embodiment, the mobile apparatus includes circuitry for selecting a potential responding apparatus. In an embodiment, the mobile apparatus includes circuitry for transmitting the request for the data indicative of the specified attribute of the operational environment of the mobile apparatus. In an embodiment, the mobile apparatus includes circuitry for authorizing payment for the requested data.
Abstract:
System and methods for identifying one or more out-of-network camera systems of interest and for enabling dynamic providing remote access to the one or more out-of-network camera systems are disclosed. In certain embodiments, identifying one or more out-of-network camera systems may include receiving a search query from a user, comparing search parameters included in the search query with information stored in a database and, based on the comparison, identify one or more camera systems satisfying the search query. In embodiments enabling providing remote access to one or more out-of-network camera systems, a request management system may receive a plurality of requests for accessing one or more camera systems, determine at least one selected request and corresponding selected requester from the plurality of requests, and provide access to the one or more camera systems to the selected requester.
Abstract:
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.
Abstract:
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.
Abstract:
A service unmanned aerial vehicle (UAV) includes a flight system, a status component, a navigation system, and a surveillance component. The flight system is for flying the service UAV. The status component is configured to determine that a first UAV is disabled. The navigation system is configured to fly the service UAV to a landing location of the first UAV in response to the status component determining that the first UAV is disabled. The surveillance component is configured to observe the first UAV and an area surrounding the first UAV.