Walmart Apollo, LLC

John Jeremiah O'Brien

Donald R High

Robert L Cantrell

Todd Davenport Mattingly

Brian G McHale

David C Winkle

Michael D Atchley

John Paul Thompson

Nathan Glenn Jones

John F Simon

Robert C Taylor

Bruce Walter Wilkinson

Nicholas Ray Antel

ChandraShekar Natarajan

Joseph Jurich

Daniel Wayne Young

David G Tovey

Christopher R Heeney

Richard Carl McSorley, Jr

Samantha M Mangosing

Justin Schuhardt

Robert J Taylor

David Martin Nelms

Andrew B Millhouse

Charles Harry Lobo

Sid Shake

Chandrashekar Natarajan

Jennifer Hedges

Jeremy Varner

Patricia Bird

Samantha M O'Brien

Coleman Johnson

Jeff Byrne

Muhenned Abdulsahib

Trey Bishop

Elizabeth Fretheim

Jimmie Ray Bishop, Iii

A method for tracking an item in a distributed environment is provided. At least one node in a network adds a new block to a first cryptographically verifiable ledger represented by a first sequence of blocks that is stored in one or more non-transitory computer-readable media. The new block added to the first cryptographically verifiable ledger contains a component identifier and a hash of a previous block in the first sequence of blocks. The at least one node in the network adds a new block to a second cryptographically verifiable ledger represented by a second sequence of blocks that is stored in the one or more non-transitory computer-readable media. The new block added to the second cryptographically verifiable ledger contains a destination identifier, the first sequence of blocks, and a hash of a previous block in the second sequence of blocks.

System and methods for tracking an item in a distributed environment

In some embodiments, methods and systems are provided that provide for monitoring and controlling communication capabilities of unmanned transport vehicles that via one or more intermediate communication devices that provide relay communications between the unmanned transport vehicles and a control station device when the unmanned transport vehicles travel through areas where the network quality does not permit direct communication between the unmanned transport vehicles and the control station device.

Systems and methods for controlling communication capabilities of unmanned vehicles via intermediate communication devices

A system for storing one or more unmanned aerial vehicles is described herein. The system includes one or more shelves attached to a holding structure, the one or more shelves being configured to support one or more unmanned aerial vehicles (UAVs), the one or more shelves defining one or more shelf areas configured to receive the one or more unmanned aerial vehicles. The system also includes an electrical charging station configured to charge electrical batteries of the one or more unmanned aerial vehicles supported by the one or more shelves; and a data transfer and storage system configured to transfer and store data that is previously stored in a data storage device of the one or more unmanned aerial vehicles in a data storage unit.

System for storing unmanned aerial vehicles

An autonomous vehicle system includes a body and a plurality of sensors coupled to the body and configured to generate a plurality of sensor measurements corresponding to the plurality of sensors. The system also includes a control unit configured to: receive inputs from a plurality of sources wherein the plurality sources comprise the plurality of sensors, the inputs comprise the plurality of sensor measurements; determine a confidence level of each input based on other inputs; prioritize, based on the confidence level associated with each input, the inputs; generate, based on the prioritization of the inputs and the confidence level, a combined input with a combined confidence level; and determine, based on the combined input and the combined confidence level, a mission task to be performed.

System and method for autonomous decision making, corrective action, and navigation in a dynamically changing world

In some embodiments, apparatuses and methods are provided herein useful to creating a crowdsourced delivery plan. In some embodiments, a system for creating a crowdsourced delivery plan for a package comprises a certification system configured to receive, from a retailer, an indication of items included in the package, determine, based on the indication of items included in the package, a set of requirements, and transmit, to a plurality of portable devices, information regarding the delivery, each of the plurality of portable devices configured to receive, from the certification system, the information regarding the delivery, transmit, to the certification system, an acceptance of the delivery, wherein only ones of the plurality of portable devices associated with delivery agents meeting the set of requirements is capable of acceptance of the delivery, receive, in response to the transmission of the acceptance, an authorization, and present, at a pickup point, the authorization.

Crowdsourced delivery based on a set of requirements

Systems and methods for a storage unit are disclosed. A storage unit includes a container defining an interior storage space and an opening configured to provide access to the interior storage space, a door configured to open and close the opening, a heating/cooling mechanism configured to adjust a temperature in the interior storage space, a temperature sensor configured to monitor the temperature in the interior storage space. A control unit is configured to receive the temperature in the interior storage space, receive a required temperature of an item in the storage unit, receive a signal indicative of a distance of a delivery vehicle, and activate the heating/cooling mechanism based on the temperature, the required temperature, and the distance of the delivery vehicle. The heating/cooling mechanism is activated at a time configured to achieve the required temperature within the interior storage space when the delivery vehicle arrives at the storage unit.

System and method for securely receiving and storing deliveries

A dynamic resource allocation engine which can assist in automating activities and processes within an organization. More specifically, the concepts disclosed herein can reduce operational costs by eliminating unnecessary devices, processes, and/or personnel, while also providing an efficient mechanism for testing the effects of new resources on the entire system. This is done by first combining data associated with devices, processes, and personnel, in a common (normalized) data format. This combination represents a simulation of the business or enterprise associated with the data, and can be referred to as a 'resource allocation engine.' The resource allocation engine provides information about how resources are being used within the organization.

System and method for a dynamic resource allocation engine

An aerial vehicle for delivering a package. The aerial vehicle having a package deployment system coupled to the aerial vehicle. The package deployment system having a spool coupled to the aerial vehicle, a lowering line fixedly coupled to the spool at a first end, the lowering line having a second end secured to a grasping device, and a cutting device coupled to one of the spool or the lowering line. The aerial vehicle also having a package coupled to the grasping device and a monitoring system couple to one of the aerial vehicle or the package deployment system. The package deployment system is configured to deliver the package at a delivery location. The cutting device is configured to sever the lowering line to deliver the package. A method for delivering a package with an aerial vehicle having the package deployment system.

Drone delivery system having a single use lowering line

Methodologies, systems, and computer-readable media are provided for generating a dynamic 3D communication map. Data is collected from a number of autonomous drones as they navigate through a particular area. The autonomous drones can collect environmental data, location data, signal strength data, signal usability data, etc. and transmit that data back to a computing system. The computing system analyzes the data received from the autonomous drones and generates a dynamic 3D communication map that indicates the signal strength and/or the signal usability of various wireless communication signals as a function of time and other variables.

Systems, devices, and methods for generating a dynamic three dimensional communication map

A propeller-less unmanned aerial vehicle having a body having a plurality of channels, an inlet formed in the body and configured to allow air flow to enter the plurality of channels from an exterior of the body, an anechoic chamber formed in the body and coupled to the plurality of channels, a rotor comprising a plurality of angled fins located in the anechoic chamber, a control system configured to direct air flow within the plurality of channels, and one or more circular tubes coupled to the exterior of the body and in communication with the plurality of channels. The air flows into the body through the inlet, into the plurality of channels and the anechoic chamber, and exits through the one or more circular tubes to provide lift and directional control to the propeller-less unmanned aerial vehicle.

Aerial vehicle turbine system

Systems and methods for recording codes in a distributed environment are provided. A first node receives data including at least one code from a code generation computing device via a network. The first node adds a first new block to a first cryptographically verifiable encrypted ledger, the first block containing the at least one code. The first node adds a second new block to a second cryptographically verifiable, the second block containing the at least one code. The first node or a second node retrieves the at least one code from the second cryptographically verifiable unencrypted ledger. The first node or the second node analyzes the at least one code pursuant to a set of rules.

System and methods for recording codes in a distributed environment

Systems, methods, and computer-readable storage media for a task management and distribution system. Systems configured as disclosed manage task distribution between various robots, drones, and autonomous vehicles. As tasks are identified as not capable of completion by the detecting robot, they are transmitted to a central task-management system which identifies a subset of robots which are capable of completing the task, determines the availability of the robots in the subset, and assigns one of those robots in the subset to complete the task.

System and method for a task management and communication system

Systems, apparatuses, and methods are provided herein for unmanned flight optimization. A system for unmanned flight comprises a set of motors configured to provide locomotion to an unmanned aerial vehicle, a set of wings coupled to a body of the unmanned aerial vehicle via an actuator and configured to move relative to the body of the unmanned aerial vehicle, a sensor system on the unmanned aerial vehicle, and a control circuit. The control circuit being configured to: control the unmanned aerial vehicle, cause the set of motors to lift the unmanned aerial vehicle, detect condition parameters based on the sensor system, determine a position for the set of wings based on the condition parameters, and cause the actuator to move the set of wings to the wing position while the unmanned aerial vehicle is in flight.

Apparatus and method for unmanned flight

Methodologies, systems, and computer-readable media are provided for in-field authentication of autonomous electronic devices. A first mobile autonomous electronic device wirelessly communicates with a second mobile autonomous electronic device and receives a set of identification information associated with the second mobile autonomous electronic device. The first electronic device autonomously travels to a specified location and transmits a first authentication signal to the second electronic device upon arrival at the specified location. The second electronic device confirms the identity of the first electronic device based on the first authentication signal and transmits a second authentication signal to the first electronic device. Once the first electronic device has confirmed that the identity of the second electronic device corresponds to an expected identity, the first electronic device transfers the object to the second electronic device.

Growing community of inventors

Farmington, AR, United States of America

John Jeremiah O'Brien