Abstract: Computer-implemented methods and systems include downstream execution for individual rule-based flagging of upstream data quality errors by receiving upstream data from a plurality of sources, identifying a downstream task to be executed, applying a plurality of rules to the upstream data, generating a plurality of outputs including at least one output for each of the plurality of rules applied to the upstream data, each of the plurality of outputs being associated with a corresponding rule of the plurality of rules, identifying a tagged population based on the plurality of outputs, determining that at least one of the plurality of outputs does not meet a corresponding rule threshold, and activating the downstream execution for the tagged population after at least one of (i) updating the corresponding rule threshold or (ii) overriding an error.

Abstract: Computer-implemented methods and systems include downstream execution for individual rule-based flagging of upstream data quality errors by receiving upstream data from a plurality of sources, identifying a downstream task to be executed, applying a plurality of rules to the upstream data, generating a plurality of outputs including at least one output for each of the plurality of rules applied to the upstream data, each of the plurality of outputs being associated with a corresponding rule of the plurality of rules, identifying a tagged population based on the plurality of outputs, determining that at least one of the plurality of outputs does not meet a corresponding rule threshold, and activating the downstream execution for the tagged population after at least one of (i) updating the corresponding rule threshold or (ii) overriding an error.

Abstract: In some implementations, a device may obtain a first set of information for establishing a computing node cluster that is applicable to multiple environments. The device may receive, from a client device, an indication of a second set of information for establishing the computing node cluster, wherein the second set of information is associated with a user of the client device and an environment associated with the user. The device may compile a third set of information for establishing the computing node cluster based on the first set of information and the second set of information. The device may transmit, to a server device, an indication of the third set of information to cause the server device to establish the computing node cluster. The device may monitor the computing node cluster using one or more monitoring techniques to determine a status of the computing node cluster.

Abstract: In some implementations, a device may receive action information, for an action from multiple actions, that indicates at least one of code associated with the action or one or more inputs required to complete the action. The device may receive workflow information, for a workflow included in a set of workflows, that indicates one or more actions from the multiple actions and an order in which the one or more actions are to be completed for the workflow. The device may receive, via an application programming interface (API) call, a request to complete the workflow The device may identify the workflow information associated with the workflow in a data structure. The device may perform the workflow based on the workflow information and the one or more inputs by executing code for the one or more actions indicated by the workflow information and in the order indicated by the workflow information.

Abstract: In some implementations, a device may receive action information, for an action from multiple actions, that indicates at least one of code associated with the action or one or more inputs required to complete the action. The device may receive workflow information, for a workflow included in a set of workflows, that indicates one or more actions from the multiple actions and an order in which the one or more actions are to be completed for the workflow. The device may receive, via an application programming interface (API) call, a request to complete the workflow The device may identify the workflow information associated with the workflow in a data structure. The device may perform the workflow based on the workflow information and the one or more inputs by executing code for the one or more actions indicated by the workflow information and in the order indicated by the workflow information.

Abstract: Computer-implemented methods and systems include downstream execution for individual rule-based flagging of upstream data quality errors by receiving upstream data from a plurality of sources, identifying a downstream task to be executed, applying a plurality of rules to the upstream data, generating a plurality of outputs including at least one output for each of the plurality of rules applied to the upstream data, each of the plurality of outputs being associated with a corresponding rule of the plurality of rules, identifying a tagged population based on the plurality of outputs, determining that at least one of the plurality of outputs does not meet a corresponding rule threshold, and activating the downstream execution for the tagged population after at least one of (i) updating the corresponding rule threshold or (ii) overriding an error.

Abstract: In some implementations, a device may receive action information, for an action from multiple actions, that indicates at least one of code associated with the action or one or more inputs required to complete the action. The device may receive workflow information, for a workflow included in a set of workflows, that indicates one or more actions from the multiple actions and an order in which the one or more actions are to be completed for the workflow. The device may receive, via an application programming interface (API) call, a request to complete the workflow The device may identify the workflow information associated with the workflow in a data structure. The device may perform the workflow based on the workflow information and the one or more inputs by executing code for the one or more actions indicated by the workflow information and in the order indicated by the workflow information.

Abstract: In some implementations, a device may obtain a first set of information for establishing a computing node cluster that is applicable to multiple environments. The device may receive, from a client device, an indication of a second set of information for establishing the computing node cluster, wherein the second set of information is associated with a user of the client device and an environment associated with the user. The device may compile a third set of information for establishing the computing node cluster based on the first set of information and the second set of information. The device may transmit, to a server device, an indication of the third set of information to cause the server device to establish the computing node cluster. The device may monitor the computing node cluster using one or more monitoring techniques to determine a status of the computing node cluster.

Abstract: In some implementations, a device may obtain a first set of information for establishing a computing node cluster that is applicable to multiple environments. The device may receive, from a client device, an indication of a second set of information for establishing the computing node cluster, wherein the second set of information is associated with a user of the client device and an environment associated with the user. The device may compile a third set of information for establishing the computing node cluster based on the first set of information and the second set of information. The device may transmit, to a server device, an indication of the third set of information to cause the server device to establish the computing node cluster. The device may monitor the computing node cluster using one or more monitoring techniques to determine a status of the computing node cluster.

Abstract: Methods and systems that utilize centrifugally tensioned metastable fluid detector (CTMFD) sensors and an external probing source to detect the presence of fissile and fissionable materials, including but not limited to special nuclear materials (SNMs), in containers. Such a method includes subjecting a container to probing with a fission-inducing radiation species that induces fission in an fissile or fissionable material, detecting fission neutrons emitted from the fissile or fissionable material with CTMFD sensors that each contain a detection fluid in which the fission neutrons induce cavitation in a centrifugally tensioned portion of the detection fluid. A threshold energy neutron analysis mode is then utilized to reject the radiation species and detect a fraction of the fission neutrons that have energies above a predetermined energy threshold determined by centrifugally-induced tension in the centrifugally tensioned portion of the detection fluid within each of the CTMFD sensors.

Abstract: Methods and systems that utilize centrifugally tensioned metastable fluid detector (CTMFD) sensors and an external probing source to detect the presence of fissile and fissionable materials, including but not limited to special nuclear materials (SNMs), in containers. Such a method includes subjecting a container to probing with a fission-inducing radiation species that induces fission in an fissile or fissionable material, detecting fission neutrons emitted from the fissile or fissionable material with CTMFD sensors that each contain a detection fluid in which the fission neutrons induce cavitation in a centrifugally tensioned portion of the detection fluid. A threshold energy neutron analysis mode is then utilized to reject the radiation species and detect a fraction of the fission neutrons that have energies above a predetermined energy threshold determined by centrifugally-induced tension in the centrifugally tensioned portion of the detection fluid within each of the CTMFD sensors.

Abstract: The present invention provides an apparatus and method of removably fixing and carrying workpiece objects on a motor driven tool. A magnetized accessory for the motor driven tool includes a flexible pad configured to conform to at least a portion of an exterior surface of the tool such that the pad does not cover any air flow vent of the tool. A magnet is disposed within the pad and the accessory includes a mechanism for attaching the pad to the exterior surface of the tool. A process for removably fixing and carrying workpiece objects on a motor driven tool includes providing a generally flat, flexible, magnetized pad. The pad is engaged with the tool and a workpiece object is removably attached to the pad.

Abstract: A methodology for determining the common attributes of two systems or entities is shown. This methodology includes a content independent options negotiation. Tree structures are defined for each entity or system. These tree structures include relational operators and attributes. The tree defining the relational operations and attributes is installed within each entity. For initiating communications between entities, each entity sends its own tree and receives the other system's tree. Comparison analysis is then performed upon the trees to determine where they intersect or match. Matching attributes may indicate that communications between entities may take place.