Abstract: Cloud computing has emerged as an extremely popular implementation option for a wide range of computing services. However, provisioning services into the cloud is an extremely difficult technical challenge. This is due in part to the regular emergence of new cloud service providers, as well as the routine changing and reconfiguration of the disparate computing platforms, services, assets, supported technical components, and other features offered by the service providers. An analysis architecture determines how to map a particular technical component into the execution environment of any particular service provider, including translation through a reference type.

Abstract: Methods, systems, and apparatuses, including computer programs encoded on computer-readable media, for receiving from responders conversation selection criteria and mode of communication information. A request for a conversation is received, from an initiator using a first communication mode that identifies a topic, but does not identify any responders. A conversation identifier is created. Possible responders are determined based on the topic and the conversation selection criteria. The topic of the conversation is sent to the possible responders, without identifying the initiator. A first response from a first responder is received using a second communication mode that is different than the first communication mode. The first response is mapped to the conversation based in part on the conversation identifier. The response is sent to the initiator using the first communication mode.

Abstract: Methods, systems, and apparatuses, including computer programs encoded on computer-readable media, for receiving from responders conversation selection criteria and mode of communication information. A request for a conversation is received, from an initiator using a first communication mode that identifies a topic, but does not identify any responders. A conversation identifier is created. Possible responders are determined based on the topic and the conversation selection criteria. The topic of the conversation is sent to the possible responders, without identifying the initiator. A first response from a first responder is received using a second communication mode that is different than the first communication mode. The first response is mapped to the conversation based in part on the conversation identifier. The response is sent to the initiator using the first communication mode.

Abstract: Cloud computing has emerged as an extremely popular implementation option for a wide range of computing services. However, provisioning services into the cloud is an extremely difficult technical challenge. This is due in part to the regular emergence of new cloud service providers, as well as the routine changing and reconfiguration of the disparate computing platforms, services, assets, supported technical components, and other features offered by the service providers. An analysis architecture determines how to map a particular technical component into the execution environment of any particular service provider.

Abstract: A device, system and method are provided for using a seal sub to isolate a well. The seal sub generally has a primary channel extending through the seal sub and seat positioned within the primary channel. As a ball setting tool passes through the seal sub and the seat, a ball connected to the setting tool with a shear pin contacts the seat and selectively connects to the seal sub. A predetermined force can be applied to the ball setting tool to break the shear pin, which leaves the seal ball in place, and the seal sub and the seal ball isolate the downhole pressures and contents from the uphole pressures and contents.

Abstract: Determining placement options for technical components of a specified service is a difficult technical challenge. A metadata architecture addresses, in part, the technical challenge by defining a complex metadata collection and attachment mechanism. In one implementation, the metadata architecture defines metadata domains and obtains descriptive metadata for those domains, e.g., metadata for the technical components from multiple disparate sources and across multiple different characteristics of the technical components. The metadata architecture is linked to the technical components and the metadata architecture injects specific metadata subsets into, e.g., a placement pipeline that determines where the technical components may be placed in the extensive provider/platform/service space.

Abstract: We fabricate a stereoscopic hologram of an object by capturing a sequence of 2D images of the object, moving camera along a linear axis past the object and keeping the optical axis of the camera perpendicular at each of the positions. The camera lens and image recording surface are translated along the axis such that a fiducial part of the image does not move. The sequence is replayed and a first volume hologram is recorded by recording holograms of the captured images on a diffusing screen in different spatial locations on a surface of the first volume hologram. This is then replayed to form a stereoscopic image of the object and a second, volume reflection hologram of the replayed image is recorded to provide the stereoscopic hologram. A central image of the sequence is aligned to the fiducial part of the holographic image to make the resulting hologram “user-friendly”.

Abstract: Cloud computing has emerged as an extremely popular implementation option for a wide range of computing services. However, provisioning services into the cloud is an extremely difficult technical challenge. This is due in part to the regular emergence of new cloud service providers, as well as the routine changing and reconfiguration of the disparate computing platforms, services, assets, supported technical components, and other features offered by the service providers. An analysis architecture determines how to map a particular technical component into the execution environment of any particular service provider with the aid of translation scripts.

Abstract: Cloud computing has emerged as an extremely popular implementation option for a wide range of computing services. However, provisioning services into the cloud is an extremely difficult technical challenge. This is due in part to the regular emergence of new cloud service providers, as well as the routine changing and reconfiguration of the disparate computing platforms, services, assets, supported technical components, and other features offered by the service providers. An analysis architecture determines how to map a particular technical component into the execution environment of any particular service provider, including translation through a reference type.

Abstract: Implementations of the present disclosure involve a system and/or method for handling errors in a multi-node commercial computing system running a number of guest applications simultaneously. In particular, the system and/or method provides the ability to program on a per-error basis the destination within the system for an interrupt based on an I/O error, the ability to provision for multiple/redundant error reporting paths for a class of more severe errors and/or distributed set of error status and log registers to aid software in narrowing down the source of an error that triggered the interrupt. In addition, the system provides for dynamically altering the destination of the error handling in response to one or more operating conditions of the system. Such flexibility in the system provides for a more robust error handling without impacting the performance of the multi-node computing system.

Abstract: A system and method for monitoring environmental state that includes a structure element with a base substrate and at least one reflector element integrated to the base substrate, wherein the reflector element is physically configured with at least one response signature that is discretely expressed based on an substance induced environmental condition of the reflector element; and a remote monitor device comprising a transmitter and receiver unit and a controller, wherein the monitor device is configured to interrogate the structure element; detect a response signature corresponding to at least the one reflector element; and map the response signature to a corresponding substance induced environmental condition.

Abstract: Circuitry is disclosed that includes a first conductive portion of a first die and a first conductive pillar electrically and physically connected to the first conductive portion. The first conductive pillar includes a first conductive pillar surface. A first bond connects the first conductive pillar surface to a first end of a bond wire.

Abstract: A network component placement architecture addresses the difficult technical challenge of determining where specific technical components of an overall service may be provisioned. The architecture is particularly effective at determining where, among a myriad of possible service provides, platforms, and regions, the technical components can be placed and meet all of the applicable technical constraints on the placement of the technical components. In one implementation, the placement architecture includes a sequence of pipeline stages that define an analysis sequence leading to a set of possible placement options.

Abstract: A network component placement architecture addresses the difficult technical challenge of determining where specific technical components of an overall service may be provisioned. The architecture is particularly effective at determining where, among a myriad of possible service provides, platforms, and regions, the technical components can be placed and meet all of the applicable technical constraints on the placement of the technical components. In one implementation, the placement architecture includes a sequence of pipeline stages that define an analysis sequence leading to a set of possible placement options.

Abstract: Determining placement options for technical components of a specified service is a difficult technical challenge. A metadata architecture addresses, in part, the technical challenge by defining a complex metadata collection and attachment mechanism. In one implementation, the metadata architecture defines metadata domains and obtains descriptive metadata for those domains, e.g., metadata for the technical components from multiple disparate sources and across multiple different characteristics of the technical components. The metadata architecture is linked to the technical components and the metadata architecture injects specific metadata subsets into, e.g., a placement pipeline that determines where the technical components may be placed in the extensive provider/platform/service space.

Abstract: A network component placement architecture addresses the difficult technical challenge of determining where specific technical components of an overall service may be provisioned. The architecture is particularly effective at determining where, among a myriad of possible service provides, platforms, and regions, the technical components can be placed and meet all of the applicable technical constraints on the placement of the technical components. In one implementation, the placement architecture includes a sequence of pipeline stages that define an analysis sequence leading to a set of possible placement options.

Abstract: Provisioning resources into the cloud is a constantly increasing technical challenge as more cloud service providers emerge, each offering disparate computing platforms, services, assets, supported technical components, and other features. A cloud computing provisioning architecture implements a sequence of complex technical analyses that successfully provisions complex cloud computing services. The provisioning architecture disaggregates resources into individual provisioning actions, and also selectively re-aggregates the resources into template blocks which a service provider accepts for native provisioning.

Abstract: Provisioning resources into the cloud is a constantly increasing technical challenge as more cloud service providers emerge, each offering disparate computing platforms, services, assets, supported technical components, and other features. A cloud computing provisioning architecture implements a sequence of complex technical analyses that successfully provisions complex cloud computing services.

Abstract: A network component placement architecture addresses the difficult technical challenge of determining where specific technical components of an overall service may be provisioned. However, the placement decision can change over time in response to complex updates relating to service providers, the regions they support, the assets they support, and many other dynamic factors. Dynamic network component placement effectively determines updated possibilities for placing the technical components of a specified service, while meeting all of the applicable technical constraints on the placement of the technical components.

Abstract: Cloud computing has emerged as an extremely popular implementation option for a wide range of computing services. However, provisioning services into the cloud is an extremely difficult technical challenge. This is due in part to the regular emergence of new cloud service providers, as well as the routine changing and reconfiguration of the disparate computing platforms, services, assets, supported technical components, and other features offered by the service providers. An analysis architecture determines how to map a particular technical component into the execution environment of any particular service provider.