Microsoft Technology Licensing, LLC

Amazon Technologies, Inc.

Chef Software, Inc.

The Boeing Company

Other

Opscode, Inc.

Christopher David Brown

Roland Alexander Paterson-Jones

Quinton Robin Hoole

Willem Robert Van Biljon

Benjamin Tobler

Christopher C Pinkham

Gabriel Smit

Adam Brent Jacob

Kevin Allen Smith

John Palmer Cordell

Joseph Paul-Emile Pierre Cote

Daniel Stephen DeLeo

Marc Alan Paradise

Mark Andrew Anderson

John Braden Keiser

Barry Allen Fetzer

Bryan T Starbuck

Zeke Koch

Felix G T I Andrew

Michael A Schmidt

Sean L Flynn

Sankar Ramasubramanian

Christopher R Jones

Mark H Enomoto

Edward Jason Anderson

Christopher A Heilman

Christa Stephens Glenn

Gayna Williams

Stephen Michael Kidson

Seth Yosef Falcon

Lamont Curtis Granquist

Jon Morrow

Jason Lee Brooks

Eric George Wallinger

Jonathan Pennucci Alexander

Thomas Emmanuel Van De Velde

Ripley Graeme MacDonald

Nicholas Groenke

Jeffrey Reyner Kollgaard

Christopher Wellington Brumme

Raja Krishnaswamy

Dennis P Sarr

Justin Michael Maguire

Sean Edwin Trowbridge

Beysim Sezgin

Marshall Friend Tappen

William Joseph Tapia

Hien T Bui

Mahesh Prakriya

Peter Alan Carlin

Alan C Shi

Michael J Duncan

Steven Ray Walton

Xiaohan Nie

Steven J Pratschner

Suzanne Maurine Cook

Mason K Bendixen

Ian H Carmichael

Mei-Chin Tsai

WeiWen Liu

Hakan Boyraz

Baoyuan Liu

Sheng Chen

David K Brooks

Kevin R Bray

Joseph Paul-Emile-Pierre Cote

Justin M Maquire, Iii

Techniques are described for managing communications between multiple intercommunicating computing nodes, such as multiple virtual machine nodes hosted on one or more physical computing machines or systems. In some situations, users may specify groups of computing nodes and optionally associated access policies for use in the managing of the communications for those groups, such as by specifying which source nodes are allowed to transmit data to particular destinations nodes. In addition, determinations of whether initiated data transmissions from source nodes to destination nodes are authorized may be dynamically negotiated for and recorded for later use in automatically authorizing future such data transmissions without negotiation. This abstract is provided to comply with rules requiring an abstract, and it is submitted with the intention that it will not be used to interpret or limit the scope or meaning of the claims.

Network-accessible service for executing virtual machines using client-provided virtual machine images

An autonomous delivery robot system to enable delivery of a product to a customer is described. One autonomous ground vehicle (AGV) includes a processing device that receives a delivery request comprising a route divided into multiple navigation segments and computes a navigable space from perception data stored in a perception map. The perception map is a robot-centered local map that stores the perception data indicative of the surroundings of the AGV. The processing device computes a cost inflation from the perception data stored in the perception map, determines a sub-goal that is on the navigable space and reachable by the AGV using the navigable space and the cost inflation, and determines a path to achieve the sub-goal using the using the navigable space and the cost inflation. The processing device controls one or more actuators to move along the path.

Navigation directly from perception data without pre-mapping

Methods and systems for delivering a package to a customer employ an on-demand locker assembly having a plurality of lockers. A computer-implemented method of staging delivery of a package to a customer includes displaying a network link that is selectable by the customer on an electronic client device. In response to selection of the network link, the package is transferred to one of the lockers. An access code for the locker is sent to the electronic client device. Upon entry of the access code, the locker is opened to provide the customer with access to the package to retrieve the package from the locker.

On demand locker system and related methods for delivering a package

Techniques are described for managing the execution of programs on multiple computing systems, such as on virtual machine nodes executing on the computing systems. A program execution service may in some situations provide the multiple computing systems and manage the program execution on behalf of multiple customers or other users, including to select appropriate computing systems to execute one or more instances of a program for a user, such as based in part on configuration information specified by the user. The described techniques may further include managing communications between multiple intercommunicating computing nodes in some situations.

Methods and systems for delivering a package to a customer employ an on-demand locker assembly having a plurality of lockers into which a package is placed for retrieval by the customer. A computer-implemented method for delivering a package to a customer includes receiving the package into a facility. The customer is notified that the package has arrived at the facility. In response to receiving a check-in notification from the customer, the package is placed into a locker having a closed configuration that blocks access to the package by the customer. The customer is sent an access code for use by the customer in retrieving the package from the locker. Entry of the access code by the customer is received. In response to receipt of the entry of the access code, the locker is reconfigured so that the customer can retrieve the package from the locker.

Managing execution of programs by multiple computing systems

Embodiments are directed towards push signaling to run jobs on available servers. Users may provide jobs or job instructions to a job control node. Job control node may determine one or more available job target nodes from among a plurality of managed nodes associated with the job control node. The job target nodes may be determined based on information included in the provided job instructions. If there are available job target nodes, the job control node may provide the job instructions to each available job target node. Further, the job control node may receive communications from one or more available job target nodes that indicates that the job target node is prepared and ready to execute the received job instructions. Next, the job control node may issue a job start command that triggers the prepared job target nodes to begin executing the provided job instructions.

Push signaling to run jobs on available servers

Systems, methods, and devices are disclosed for inspecting a manufacturing component. Devices include a centering device configured to modify a position of an ultrasonic probe assembly relative to a manufacturing component to bisect an angle associated with the manufacturing component. Devices may also include a surface sensing device configured to sense a curvature associated with the manufacturing component. Devices may further include a plurality of sensors configured to measure a first displacement value associated with the centering device and a second displacement value associated with the surface sensing device. The devices may include a control circuit configured to determine a position adjustment value based on at least one of the first displacement value and the second displacement value. The devices may also include an actuator configured to modify a position of an ultrasonic transducer based, at least in part, on the position adjustment value.

Systems, methods, and devices for probe assemblies for variable curvature and variable angle configurations

Embodiments are directed towards employing a configuration management system to report one or more assumptions based on whether or not prerequisites for a resource are satisfied. The configuration management system may determine at least one prerequisite that corresponds to a provided resource. The prerequisites may indicate what the resource requires in order to put the system into the target state. If the prerequisites are unsatisfied, then assumptions regarding the system may be determined and reported to a user of the system. The assumptions may include at least a state transition that upon occurrence puts the system into the target state. If the system is in a non-operational mode, such that state actions and state transitions are simulated, rather than being executed, the system may be enabled to perform other actions as if the prerequisites were satisfied and the state transition occurred, even if it is not.

Configuration management for a resource with prerequisites

As described herein, a system for inspecting a component includes an ultrasonic inspection probe with a component surface interface, and a robotic device with an end effector coupled to the ultrasonic inspection probe. The robotic device is automatably controllable to move the ultrasonic inspection probe across a surface of the component. Additionally, the system includes an angle sensor subsystem coupled between the ultrasonic inspection probe and the end effector. The angle sensor subsystem is configured to operably detect an actual orientation of the end effector relative to a presently inspected portion of the surface of the component. The system includes a controller configured to receive orientation data from the angle sensor subsystem, the orientation data comprising the actual orientation of the end effector, compare the actual orientation to a desired orientation, and control the robotic device to adjust an orientation of the end effector to be in the desired orientation.

Non-destructive ultrasonic inspection apparatus, systems, and methods

Embodiments are directed towards managing application delivery over a network. Change information that corresponds to changes to an application may be provided to a delivery pipeline. The change information may be verified in part based on a static analysis of the content of the change information, compiling, and unit testing. Reviewers may be notified to approve the change information. A version of the application that includes the change information may be generated. Acceptance testing may be performed that includes provisioning computing resources in an acceptance computing environment. And, deploying a version of application that includes the change information into the acceptance computing environment. If the acceptance testing passes, a shipping operation may be enabled pausing the delivery pipeline until an authorized user activates the shipping operation restarting the delivery pipeline and deploying the application to one or more computing environments.

Vertically integrated continuous delivery of an application

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Seattle, WA, United States of America

Christopher David Brown