Agilent Technologies, Inc.

Hewlett-packard Development Company, L.p.

Oracle International Corporation

James Walter Wichelman

Eric N Flink

Craig Chamberlain

Bruce Votipka

Peter M Maddocks

Jan Ryles

Brian Scott Hallisey

Andreas Lemos

Jagwinder Singh Brar

Travis Lauren Anderson

Sidney Lorenzo Bowen

Gary Lee Thunquest

Mark Evan Mills

Oana Ford

Marcy Lynn Davis

Yegendran Govender

Eric J Lundy

Chandramohan Krishnamoorthy

Kathy Hertzog

Alyssa Wachs Augsburger

Techniques are disclosed for managing aspects of a dedicated region cloud at a customer location (a 'DRCC'). A DRCC may comprise cloud infrastructure components provided by a cloud provider and hosted by computing devices located at the customer's (a “cloud owner's”) location. Services of the central cloud-computing environment may be similarly executed at the DRCC. The DRCC may include a service configured to collect, store, and/or present data corresponding to the cloud infrastructure components via one or more interfaces (e.g., interfaces provided to the cloud provider and/or the cloud owner). Data collected within the DRCC (e.g., capacity and usage data, etc.) may be provided and accessible to the central cloud at any suitable time. Obtaining such data enables the user to ascertain various operational aspects of the DRCC, while enabling the system and/or user to execute various DRCC-specific operations regarding capacity planning, health and performance, change management, and the like.

Dedicated cloud regions at customer premises

Techniques are disclosed for managing aspects of identifying and/or deploying hardware of a dedicated cloud to be hosted at a customer location (a 'DRCC'). A DRCC may comprise cloud infrastructure components provided by a cloud provider but hosted by computing devices located at the customer's (a “cloud owner's”) location. Services of the central cloud-computing environment may be similarly executed at the DRCC. A number of user interfaces may be hosted within the central cloud-computing. These interfaces may be used to track deployment and region data of the DRCC. A deployment state may be transitioned from a first state to a second state based at least in part on the tracking and the deployment state may be presented at one or more user interfaces. Using the disclosed user interfaces, a user may manage the entire lifecycle of a DRCC and its corresponding hardware components.

User interfaces for cloud lifecycle management

A method of using a Graphical User Interface (GUI) to display relationships amongst resources of a system can include illustrating at least two overlapping but separate hierarchies in the same mosaic-like graphic, each hierarchy representing one or more of the relationships amongst the resources.

Methods of displaying resources of overlapping but separate hierarchies

Systems and methods for presenting managed data from one or more applications are invented and disclosed. A data storage management system comprises a data store, a data storage manager, and a graphical user interface. The data storage manager is communicatively coupled to the data store and configured to allocate and use logical and physical storage elements of the data store via an application instance. The graphical user interface exposes data storage in application specific storage units. A method for managing data comprises coupling a data store to one or more applications, allocating storage on the data store in accordance with respective storage requirements expressed as an application instance associated with each of the one or more applications, and using a graphical user interface to expose the data store in application storage units associated with the one or more applications.

Systems and methods for presenting managed data

A method generates a graphical portion of a graphical user interface (GUI), the graphical portion concerning aspects of a storage domain. Such a method may include: illustrating a tree hierarchy; including, on the tree hierarchy, a node at a first level corresponding to a set of at least two file systems that are members of the storage domain; and including, on the tree hierarchy, nodes at a second level reporting to the first-level node, each second-level node corresponding to a member of the set of files systems to which the first node corresponds. Related apparatus and machine-readable media having instructions can each include features similar to elements of the method.

Storage domain GUI

Channel and test plans are implemented in connection with a plurality of nodes that communicate signals. The channel plan enables a monitoring system to, among other things, conduct automatic periodic test plans, comprising tests, on the nodes, based upon the predefined data specified in the channel plan. The monitoring system includes a controller controlling a spectrum analyzer and a node interface switch. Notably, the controller also enables user friendly plan set-up and warning interface logic implementation. The warning interface logic generates a channel percent advisory indicator on the display device within a channel level interface component upon an occurrence of an advisory event in a channel associated therewith and generates a channel critical alarm indicator on the display device within a channel level interface component upon an occurrence of a critical event in a channel associated therewith.

Monitoring system and method implementing warning interface logic

A channel plan with a corresponding test plan are implemented in connection with a plurality of nodes that communicate signals. The channel plan has one or more predefined specifications for each of one or more signal channels on each of the nodes. The channel plan may comprise a specification of the following, for example, for each of the channels: a label describing use of the corresponding channel, a center frequency, a bandwidth, a power level, information regarding the carrier roll-off, a default status indicator identifying whether the corresponding channel is currently allocated or reserved for future use, one or more default threshold levels for various tests, and an alternate center frequency that may be utilized by the corresponding channel. The channel plan enables a monitoring system to, among other things, conduct automatic periodic test plans, comprising tests, on the nodes, based upon the predefined data specified in the channel plan. Each test plan prescribes measurement of at least one signal parameter, pertaining to one or more nodes as a whole and/or to one or more channels contained within the nodes. The monitoring system includes a spectrum analyzer, a switch enabling the spectrum analyzer to interface with the nodes, and a controller controlling the switch and the spectrum analyzer. The controller is configured to enable creation of and display the channel plan and test plan, based upon user inputs. Notably, the controller also implements user friendly test result display logic that enables a user to quickly and efficiently view test results associated with a system under test at various hierarchical conceptual levels.

Monitoring system and method implementing test result display logic

A channel plan with a corresponding test plan are implemented in connection with a plurality of nodes that communicate signals. The channel plan has one or more predefined specifications for each of one or more signal channels on each of the nodes. The channel plan enables a monitoring system to, among other things, conduct automatic periodic test plans, comprising tests, on the nodes, based upon the predefined data specified in the channel plan. Each test plan prescribes measurement of at least one signal parameter, pertaining to one or more nodes as a whole and/or to one or more channels contained within the nodes. The monitoring system includes a spectrum analyzer, a switch enabling the spectrum analyzer to interface with the nodes, and a controller controlling the switch and the spectrum analyzer. The controller is configured to enable creation of and display the channel plan and test plan, based upon user inputs. Notably, the controller can be configured to compare results from tests with alarm limits, specified in the test plan, to control the spectrum analyzer to perform a failure time spectrum scan when one or more test results exceed one or more alarm limits, and to generate a plot of power amplitude versus frequency over the frequency spectrum of the node at issue.

Monitoring system and method implementing failure time spectrum scan

A channel plan with a corresponding test plan are implemented in connection with a plurality of nodes that communicate signals. The channel plan has one or more predefined specifications for each of one or more signal channels on each of the nodes. The channel plan may comprise a specification of the following, for example, for each of the channels: a label describing use of the corresponding channel, a center frequency, a bandwidth, a power level, information regarding the carrier roll-off, a default status indicator identifying whether the corresponding channel is currently allocated or reserved for future use, one or more default threshold levels for various tests, and an alternate center frequency that may be utilized by the corresponding channel. The channel plan enables a monitoring system to, among other things, conduct automatic periodic test plans, comprising tests, on the nodes, based upon the predefined data specified in the channel plan. Each test plan prescribes measurement of at least one signal parameter, pertaining to one or more nodes as a whole and/or to one or more channels contained within the nodes. The monitoring system includes a spectrum analyzer, a switch enabling the spectrum analyzer to interface with the nodes, and a controller controlling the switch and the spectrum analyzer. The controller is configured to enable creation of and display the channel plan and test plan, based upon user inputs. Notably, the test plan may include alarm limits that are triggered and tracked when a signal parameter of a node or channel exceeds an alarm limit.

Monitoring system and method implementing a channel plan and test plan

A channel plan with a corresponding test plan are implemented in connection with a plurality of nodes that communicate signals. The channel plan has one or more predefined specifications for each of one or more signal channels on each of the nodes. The channel plan enables a monitoring system to, among other things, conduct automatic periodic test plans, comprising tests, on the nodes, based upon the predefined data specified in the channel plan. Each test plan prescribes measurement of at least one signal parameter, pertaining to one or more nodes as a whole and/or to one or more channels contained within the nodes. The monitoring system includes a spectrum analyzer, a switch enabling the spectrum analyzer to interface with the nodes, and a controller controlling the switch and the spectrum analyzer. The controller is configured to enable creation of and display the channel plan and test plan, based upon user inputs. Notably, the controller also implements user friendly configuration interface logic that enables a user to configure the test plan. The configuration interface logic generates, among other things, on a display screen, a device configuration interface, a channel plan configuration interface, a test plan configuration interface, and a configuration display interface that includes a number of navigational mechanisms that are manipulated to display one of the device, channel plan, and test plan configuration interfaces.

Monitoring system and method implementing test configuration logic

A system includes a plurality of nodes. The plurality of nodes each communicate signals pursuant to a single channel plan. The channel plan includes predefined characteristics for each of a plurality of signal channels. The system further includes a spectrum analyzer, a switch, and a controller. The switch connects the spectrum analyzer to the nodes. The controller tests communication signals on at least one of the nodes by conducting a test plan. The test plan prescribes performance of at least an average power test. The controller also derives a total node power based on the average power test results.

Monitoring system and method implementing a total node power test

A system includes a plurality of nodes. The plurality of nodes each communicate signals pursuant to a channel plan. The channel plan includes one or more predefined specifications for each of one or more signal channels on each of the plurality of nodes.

Monitoring system and method implementing a channel plan

Channel and test plans are implemented in connection with a plurality of nodes that communicate signals. The channel plan has one or more predefined specifications for each of one or more signal channels on each of the nodes. The channel plan enables a monitoring system to generate and conduct automatic periodic node test plans based upon the predefined specifications. Each test plan prescribes measurement of at least one node and/or channel signal parameter. The monitoring system includes a spectrum analyzer, a switch enabling the spectrum analyzer to interface with the nodes, and a controller. The controller is configured to enable creation of and display the channel plan and test plan, and to automate the node testing. The test plan may include alarm thresholds that are triggered and tracked when a signal parameter of a node or channel exceeds an alarm threshold.

Monitoring system and method implementing an automatic test plan

A channel plan and a corresponding test plan are implemented in connection with a plurality of nodes that communicate signals. The channel plan enables a monitoring system to conduct automatic periodic test plans, comprising tests, on the nodes, based upon data specified in the channel plan. Each test plan prescribes measurement of at least one signal parameter, pertaining to one or more nodes and/or to one or more channels contained within the nodes. The monitoring system includes a spectrum analyzer, a switch enabling the spectrum analyzer to interface with the nodes, and a controller. Navigation interface logic is configured to generate a universal interface component on the display device, one or more group level interface components on the display device, one or more node level interface components on the display device, and one or more channel level interface components on the display device.

Growing community of inventors

Fort Collins, CO, United States of America

James Walter Wichelman