Abstract:
Systems and methods for facilitating communication with autonomous vehicles are provided. In one example embodiment, a computing system (e.g., of a vehicle) can generate a first communication associated with an autonomous vehicle. The computing system can provide the first communication to an application programming interface gateway that is remote from the autonomous vehicle. Another computing system can obtain, via an application programming interface gateway, the first communication associated with the autonomous vehicle. The other computing system can determine a first frontend interface of the application programming interface gateway based at least in part on the first communication associated with the autonomous vehicle. The computing system can provide, via the first frontend interface, the first communication associated with the autonomous vehicle to a first system client associated with the first frontend interface.
Abstract:
A distributed robotic delivery system includes a mobile application, a server, a dispatch module, and a plurality of robotic delivery vehicles. The mobile application receives an item cost, robotic delivery shipping options, and acquisition factors. The mobile device displays the item cost, robotic delivery shipping options, and the acquisition factors in a user interface. Upon a selection of robotic delivery option, the mobile application notifies the dispatch module to deploy the robotic delivery vehicle with the item to the specified delivery point.
Abstract:
Some embodiments are directed to an unmanned vehicle for use with a companion unmanned vehicle. The unmanned vehicle can include a satellite navigation unit that is configured to receive a satellite signal indicative of a current position of the unmanned vehicle. The unmanned vehicle can also include an inertial navigation unit that is configured to determine the current position of the unmanned vehicle. The unmanned vehicle can also include a control unit disposed in communication with the satellite navigation unit and the inertial navigation unit. The control unit is configured to determine a planned position of the unmanned vehicle based on the planned path, compare the current position determined by the inertial navigation unit with the planned position based on the planned path, and control the movement of the unmanned vehicle based on at least the comparison between the current position and the planned position.
Abstract:
An unmanned vehicle for use with an entity physically spaced from the unmanned vehicle, the unmanned vehicle having objective parameters corresponding to controlled parameters of the entity. The unmanned vehicle comprises a transceiver that is configured to wirelessly receive an input signal from the entity, wherein the input signal is indicative of the controlled parameters of the entity. The unmanned vehicle further comprises a Phase-Locked Loop (PLL) circuit that is configured to generate a command signal based on a phase of the input signal and a phase of a reference signal, wherein the reference signal is indicative of the objective parameters of the unmanned vehicle. The transceiver is further configured to wirelessly transmit the command signal to the entity such that the entity controls the controlled parameters of the entity based on the command signal.
Abstract:
Systems, apparatus and methods implemented in algorithms, hardware, software, firmware, logic, or circuitry may be configured to process data and sensory input to determine whether an object external to an autonomous vehicle (e.g., another vehicle, a pedestrian, road debris, a bicyclist, etc.) may be a potential collision threat to the autonomous vehicle. The autonomous vehicle may be configured to implement interior active safety systems to protect passengers of the autonomous vehicle during a collision with an object or during evasive maneuvers by the autonomous vehicle, for example. The interior active safety systems may be configured to provide passengers with notice of an impending collision and/or emergency maneuvers by the vehicle by tensioning seat belts prior to executing an evasive maneuver and/or prior to a predicted point of collision.
Abstract:
A system, an apparatus or a process may be configured to implement an application that applies artificial intelligence and/or machine-learning techniques to predict an optimal course of action (or a subset of courses of action) for an autonomous vehicle system (e.g., one or more of a planner of an autonomous vehicle, a simulator, or a teleoperator) to undertake based on suboptimal autonomous vehicle performance and/or changes in detected sensor data (e.g., new buildings, landmarks, potholes, etc.). The application may determine a subset of trajectories based on a number of decisions and interactions when resolving an anomaly due to an event or condition. The application may use aggregated sensor data from multiple autonomous vehicles to assist in identifying events or conditions that might affect travel (e.g., using semantic scene classification). An optimal subset of trajectories may be formed based on recommendations responsive to semantic changes (e.g., road construction).
Abstract:
Various embodiments relate generally to autonomous vehicles and associated mechanical, electrical and electronic hardware, computer software and systems, and wired and wireless network communications to provide an autonomous vehicle fleet as a service. More specifically, systems, devices, and methods are configured to simulate navigation of autonomous vehicles in various simulated environments. In particular, a method may include receiving data representing characteristics of a dynamic object, calculating a classification of a dynamic object to identify a classified dynamic object, identifying data representing dynamic-related characteristics associated with the classified dynamic object, forming a data model of the classified dynamic object, simulating a predicted range of motion of the classified dynamic object in a simulated environment to form a simulated dynamic object, and simulating a predicted response of a data representation of a simulated autonomous vehicle.
Abstract:
A method of targeting, which involves capturing a first video of a scene about a potential targeting coordinate by a first video sensor (102) on a first aircraft (100); transmitting the first video (232) and associated potential targeting coordinate by the first aircraft; receiving the first video on a first display in communication with a processor, the processor also receiving the potential targeting coordinate; selecting the potential targeting coordinate to be an actual targeting coordinate (226) for a second aircraft (116) in response to viewing the first video on the first display; and guiding a second aircraft toward the actual targeting coordinate; where positive identification of a target (114) corresponding to the actual targeting coordinate is maintained from selection of the actual targeting coordinate.
Abstract:
This disclosure describes a collective UAV in which multiple UAVs may be coupled together to form the collective UAV. A collective UAV may be used to aerially transport virtually any size, weight or quantity of items, travel longer distances, etc. For example, rather than using one large UAV to carry a larger or heavier item, multiple smaller UAVs may couple together to form a collective UAV that is used to carry the larger or heavier item.