Hewlett-packard Company

Hewlett-packard Development Company, L.p.

Vce IP Holding Company LLC

Hewlett Packard Enterprise Development LP

Emc IP Holding Company LLC

International Business Machines Corporation

Agilent Technologies, Inc.

Other

Avago Technologies General IP (singapore) Pte. Ltd.

Hewlett-packard Corporation

Hewlett-packard Development, L.p.

Vce IP Holding LLC

Michael R Tan

Shih-Yuan Wang

Akshaya Mahapatra

Sagi Varghese Mathai

Scott W Corzine

Wayne V Sorin

Paul Kessler Rosenberg

Albert T Yuen

Alexandre M Bratkovski

Peng Liu

William David Holland

Wei Guang Wu

John Phillip Ertel

Tao Zhang

David A Fattal

Russell Alan Budd

Theodore I Kamins

Terrel L Morris

Long Yang

Richard P Schneider

Jeremy Daniel Schaub

Jeannine Madelyn Trewhella

Jeffrey Alan Kash

Raymond G Beausoleil

Zhiyong Li

David P Bour

Philip John Kuekes

Kostadin Dimitrov Djordjev

Keith Alexander Harrison

Andreas G Weber

Duncan R Stewart

Arlen Lee Roesner

Stanley Cheung

Georgios Panotopoulos

Gilbert Lau

Richard R Baldwin

Richard Kirchhofer

Zunhe Jin

Leif Eric Larson

David M Sears

Sayajirao Patil

Hong Lin

Boyu Wang

Punit P Chiniwalla

Yu-Min Houng

Joaquin Matres

Kenneth H Hahn

Binhao Wang

John Andrew Guckenberger

Rahul Talekar

Chaokun Lin

Garry Trott

Tetsuya Takeuchi

William John Munro

Nathan Lorenzo Binkert

Moray McLaren

Mihail Sigalas

Timothy Paul Spiller

Qianfan Xu

Dubravko I Babic

Jing Tang

Chung-Yi Su

Ghulam Hasnain

Sagi Mathal

Vandana Rao

William J Anklam

Chun Lei

Joanna Duligall

Radu Ionicioiu

Ying-Ian Chang

Dirk Nathaniel Milotz

Sazzadul K Khan

Bill Perez

Nilay Chheda

Sazzadul K Kahn

Moray Mclaren

A method for executing workflows is provided. The method includes querying a workflow engine regarding an input parameter of a workflow, responsive to a selection from a portal to execute the workflow. The method includes generating a graphical user interface requesting a value of the input parameter and transmitting the graphical user interface to the portal for display. The method includes sending a workflow invocation request, with the value of the input parameter from the graphical user interface, to the workflow engine, wherein at least one method operation is performed by a processor. In some embodiments, a workflow execution framework is provided.

Workflow execution framework

In the examples provided herein, a system has a plurality of arrayed waveguide gratings (AWG) having a plurality of input ports and a plurality of output ports. A signal within a given wavelength channel transmitted to one of the input ports of a given AWG is routed to one of the output ports of the given AWG based on a signal wavelength. The system also has a plurality of nodes, with each node comprising a set of components for each AWG that the node is coupled to. Each set of components comprises a plurality of optical transmitters, where each optical transmitter is tunable over multiple wavelength channels within a different wavelength band; a band multiplexer to multiplex the multiple wavelength channels within each different wavelength band; and a first output fiber to couple an output of the band multiplexer to one of the input ports of a first AWG.

Reconfigurable interconnected nodes

An example adaptor for passively aligning an optical component of an optical connector with a ferrule of the optical connector. The adaptor may include first alignment feature and second alignment features. The first alignment features may be to, when the adaptor is connected to the ferrule, cooperate with alignment features of the ferrule to passively force the adaptor into a first configuration relative to the ferrule. The second alignment features may be arranged such that, when the optical component is held in contact with the second alignment features and the adaptor is in the first configuration relative to the ferrule, the optical component is in an aligned position relative to the ferrule.

Adaptor for optical component of optical connector

A VCSEL transmitter includes a first VCSEL terminal disposed on a substrate and a second VCSEL terminal adjacent thereto. The transmitter also includes a first diffraction element within a first optical path of the first VCSEL terminal which receives and changes a first direction of a first light transmission having a low-order Laguerre Gaussian mode emitted from the first VCSEL terminal. The transmitter further includes a second diffraction element within a second optical path of the second VCSEL terminal which receives the second light transmission and converts the received light into a high-order Laguerre Gaussian mode. The transmitter also includes a mode combiner to direct the first light transmission into a lens which directs the light into a multi-mode optical fiber.

Mode division multiplexing using vertical-cavity surface emitting lasers

A multi-cloud orchestration system includes a computer executed set of instructions that communicates with multiple computing clouds and/or computing clusters each having one or more resources for executing an application. The instructions are executed to receive information associated with an application, allocate a resource pool to be used for executing the application in which the resource pool including at least one resource from each of the computing clouds and/or computing clusters. The instructions may be further executed to provision the resources to execute the application.

Orchestration management system and method for managing a resource pool across multiple computing clouds

A dynamic resource configuration system that includes a computer executed application that receives, from resource of the distributed computing environment, a network configuration request message to dynamically configure one or more network parameters of the resource. In response, the application obtains a unique identity of the resource using the received network configuration request message, obtains customized configuration parameters for the resource using the obtained unique identity, and configures the resource using the customized configuration parameters.

Dynamic resource configuration system and method for distributed computing environments

A hybrid optical transceiver is provided. An optical component disposed on a substrate, the optical component comprising a transmitter section and a receiver section. Transmitter section comprises a plurality of vertical cavity surface emitting laser (VCSEL) arrays communicatively coupled to a plurality of multiplexers, configured to launch multiplexed optical signals into the lowest order mode group of a multimode fiber or the lowest order mode of a single mode fiber. Receiver section comprises a photodetector array comprising a plurality of optical detectors, and configured to receive demultiplexed optical signals of unknown polarization without routing waveguides. In various embodiments, each section being independently removable from a substrate.

Hybrid coarse wavelength division multiplexing (CWDM) transceiver

Aspects of the present disclosure involve systems and methods for the automatic packaging and deployment of virtual machines in a virtual environment. More particularly, the disclosure involves a system that automatically packages two virtual machines, a console virtual machine and a template virtual machine, in a virtual application. The template virtual machine initiates communication with the console virtual machine to generate multiple virtual machine instances.

Deployable console-based virtual application deployment and configuration systems and methods

A distributed computing task management system includes an application for monitoring a processing load of multiple resources that are used to execute a distributed computing task. The resources include at least one hardware resource and one or more virtual objects executed on the hardware resources in a virtual computing environment. Using the monitored processing load, the application adjusts a performance of the resources to compensate for changes in the processing load incurred by the resources due to execution of the distributed computing task.

Distributed computing task management system and method

A provisioning system for a distributed computing environment includes a map reduce framework that includes a splitter process, a mapper process, and a reduce process. The splitter process receives a task associated with a distributed application to be deployed on the distributed computing environment, and selects which of the resources are to be provisioned for executing the distributed application. The mapper process converts at least one abstract address included in the task to an absolute address, and executes the task for provisioning the selected resources, while the reduce process consolidates results of the executed task.

Provisioning system and method for a distributed computing environment using a map reduce process

Methods, systems, and computer readable mediums for creating a tenant cloud are disclosed. According to one exemplary embodiment, a method for creating a tenant cloud includes receiving a request for creating a tenant cloud, wherein the request includes a tenant cloud policy indicating at least one application for utilizing a tenant cloud, wherein the tenant cloud includes a set of resources configured to act as a single tenant computing environment. The method also includes determining, using the tenant cloud policy, a set of resources for the tenant cloud. The method further includes configuring the set of resources to act as the single tenant computing environment. The method also includes deploying the at least one application for utilizing the tenant cloud.

Methods, systems, and computer readable mediums for creating a tenant cloud

A computing infrastructure management system includes a processing system and a memory for storing a configuration management client, which is executed by the processing system to receive a manifest file associated with a computing infrastructure comprising a plurality of computing devices each having one or more resources. Using the received manifest file, the client translates the manifest file by arranging one or more directives of the manifest file according to one or more dependencies of each resource relative to the resources of the other computing devices, and provisions the resources of each computing device using the translated manifest file.

System and method to manage interrelated devices in a computing infrastructure

An example system may include a first vertical cavity surface emitting laser (VCSEL) that includes a first integrated polarization locking structure to produce a polarized optical data signal. The system may also comprise a second VCSEL that includes a second integrated polarization locking structure, the second integrated polarization locking structure orthogonal to the first integrated polarization locking structure, to produce an orthogonally polarized optical data signal. Lenses may be disposed on the substrate opposite the first VCSEL, to collimate the polarized optical data signal, and opposite the second VCSEL to collimate the orthogonally polarized optical data signal. A polarization division multiplexer may combine the first collimated polarized optical data signal and the second collimated orthogonally polarized optical data signal.

Orthoganolly polarized VCSELs

Methods and/or systems for provisioning storage capacity of a virtual machine are disclosed. Storage provisioning requests are received from virtual machines executing within a physical host environment. The provisioning requests are validated and processed to generate or otherwise expand storage capacities of the requesting virtual machines.

Systems and methods for virtual machine storage provisioning

Growing community of inventors

Menlo Park, CA, United States of America

Michael R Tan