Abstract:
A method for producing a vector map of a prescribed area may include producing orthophotographs by a first camera oriented at right angles to the earth's surface and fitted to an unmanned, automated air vehicle that overflies the prescribed area at a high altitude; evaluating the orthophotographs to ascertain at least one infrastructure network located in the area; computing a flight route for the unmanned autonomous air vehicle along the ascertained infrastructure network located in the area; producing detail aerial photographs of the infrastructure network along the computed flight route by a second camera oriented obliquely with respect to the earth's surface and fitted to the unmanned automated air vehicle that overflies the infrastructure network located in the area at least one low altitude, and computing the vector map of the area based on the orthophotographs produced and the detail aerial photographs.
Abstract:
One form of a driving test system for a moving object includes: an unmanned aircraft configured to fly at a set distance from the moving object that is configured to drive along a set route in a set zone and has a vision sensor disposed on one side that is configured to detect the moving object's motion;and a controller configured to control the flight of the unmanned aircraft to follow the moving object and to transmit to the vision sensor and to receive from the vision censor, detected motion characteristics of the moving object.
Abstract:
Embodiments of the present invention disclose design, deployment and implementation of systems capable of facilitating managing public safety (or security) in one or more situations, and methods thereof, in accordance with the principles of the present invention. Specifically, the systems may facilitate managing public safety (or security) in one or more situations of at least one of danger, untoward incident, accident, emergency, loss and death with one or more enhanced qualitative and quantitative features, such as minimal vulnerability, real-time notification ability and automatic evidence manageability, thereby facilitating timely prevention, Quick Response (QR) or (Just-In-Time or JIT) response, speedy trial, effective prosecution, easy enforceability and policing, and methods thereof in accordance with the principles of the present invention.
Abstract:
An Unmanned Aerial System configured to receive a request from a user and fulfill that request using an Unmanned Aerial Vehicle. The Unmanned Aerial System selects a distribution center that is within range of the user, and deploys a suitable Unmanned Aerial Vehicle to fulfill the request from that distribution center. The Unmanned Aerial System is configured to provide real-time information about the flight route to the Unmanned Aerial Vehicle during its flight, and the Unmanned Aerial Vehicle is configured to dynamically update its mission based on information received from the Unmanned Aerial System.
Abstract:
An autonomous vehicle system is configured to receive vehicle commands from one or more parties and to execute those vehicle commands in a way that prevents the execution of stale commands. The autonomous vehicle system includes a finite state machine and a command counter or stored vehicle timestamp, which are used to help reject invalid or stale vehicle commands.
Abstract:
A tethered drone assembly is provided. The tethered drone assembly may be a vehicle-based tethered drone assembly system or may be a free standing tethered drone assembly system. The tethered drone assembly has a plurality of drones each tethered by a cord. The tethered drones may hover in front of, behind or on either side of the vehicle so as to better survey the surrounding area of the vehicle. In some embodiments, a main product tank is used to supply liquids, foams, gases, powders, electrical power and/or electrical communication to the drones. A plurality of sensors located on the drones allows the drones to detect objects and environmental conditions in front of, behind or on either side of the moving vehicle in real-time and allow the vehicle to therein adjust its work accordingly. The drones may be controlled remotely by a user or may be automatically controlled by sensors.
Abstract:
A fumigation device suitable for agricultural purposes, using aerodynamic hovering without touching the ground, which operates autonomously or under the supervision of a remote operator, comprising at least four rotors individually operated through energy generating devices, with a constant rotor speed, being the only control variable for the whole flight steering. Since the device only operates in ground effect, it is fair to say that it is not exactly an airplane; in addition, it does not carry crew, and it only operates within rural areas as other agricultural machines, being able to be transported on a trailer; therefore, it would operate outside the rule of aeronautic regulations. It has full redundancy of systems both for thrust and control. Any of the components can stop functioning or start to function erratically, avoiding life loss, since it simply activates an alarm and makes the aircraft stop with the rest of the available redundant systems, without entailing a loss of the steering command, not even momentarily.
Abstract:
A flying machine capable of blocking light autonomously includes a machine body with a flight direction control module, a light sensor for detecting a sunshine angle, a position sensor for detecting the position of a moving object, and a flight movement adjuster to control the machine body to autonomously fly to a position linearly aligned with the sunlight and the moving object, so that the flying machine blocks between the sunlight and the moving object.
Abstract:
A surveillance and tracking device (10) comprises a nest (12) holding a secondary camera (20) and a drone (14) holding a primary camera (18). Both cameras provide the operator (16) with a real time video or photos. While the secondary camera (20) surveys the local field in which the nest (12) is installed, the drone (14) can fly during the active stage of the functionality of the device (10) to follow up certain events or persons using the primary camera (18). The drone (14) can also perform routine surveillance of targeted fields. This large scale capability of the presented device (10) enables the operator (16) to perform a flexible, sustainable and more effective surveillance process. And so; the device (10) can deal up with the massively elaborated danger diversity and security challenges of the current era.
Abstract:
This disclosure is related to an industrial plant monitoring system configured to monitor equipment an industrial plant. The industrial plant monitoring system includes one or more processors, an autonomous vehicle including at least one sensor, a plant information management system including a navigation module, a communication module, and an analysis module. The navigation module is configured to retrieve a trajectory from a trajectory database. The sensors present on the autonomous vehicle are configured to collect sensor data related to the equipment. The communication module is configured to receive the sensor data from sensors and transmit the sensor data to a plant information management system. The analysis module is configured to receive the sensor data from the communication module, the analysis module being configured to detect an event related to the industrial plant based on the sensor data and historic sensor data.