Abstract: This patent specification relates to systems and methods that use networks of standardized time series and models in a generic and extensible platform. More particularly, this patent specification relates to standardizing time series and models, using standardized time series and models in a network of time series (NOTS), and creating networks of time series in a NOTS platform. In addition, this patent specification relates to use of nodes that can be arranged in any user defined order, and each node is evaluated to return a time array that may be used to populate a time series. A layering framework may be used to define how each node is evaluated.

Abstract: This patent specification relates to systems and methods that use networks of standardized time series and models in a generic and extensible platform. More particularly, this patent specification relates to standardizing time series and models, using standardized time series and models in a network of time series (NOTS), and creating networks of time series in a NOTS platform. In addition, this patent specification relates to use of nodes that can be arranged in any user defined order, and each node is evaluated to return a time array that may be used to populate a time series. A layering framework may be used to define how each node is evaluated.

Abstract: This patent specification relates to systems and methods that use networks of standardized time series and models in a generic and extensible platform. More particularly, this patent specification relates to standardizing time series and models, using standardized time series and models in a network of time series (NOTS), and creating networks of time series in a NOTS platform. In addition, this patent specification relates to use of nodes that can be arranged in any user defined order, and each node is evaluated to return a time array that may be used to populate a time series. A layering framework may be used to define how each node is evaluated.

Abstract: A labelling apparatus for labelling a tray while the tray is conveyed by a conveyor means. A label feeder device is configured to place a label onto a top surface of the tray. A first tucker device is arranged sidewise to the conveyor means and includes an applicator block. A first moving mechanism is configured to move the applicator block in a back and forth direction perpendicular to the conveying direction of the tray. The applicator block is movable from an initial position to a labelling position where the applicator block presses the portion of the label exceeding a side surface of the tray such that the applicator block follows the shape of the side surface of the tray via a rotational movement of the applicator block around the rotation axis.

Abstract: Resizing circuitry comprises at least one buffer having buffer entries each corresponding to one of at least two shift registers, each shift register comprising storage circuits connected in a ring to transfer a token bit between storage circuits. Selection circuitry controls, based on the shift registers, writing of data sections of input data units having a first number of data sections to the buffer(s), to form output data units having a second number of data sections. For a given buffer entry corresponding to a given shift register, depending on whether the token bit is stored in a first or second subset of storage circuits, the selection circuitry controls writing of a selected data section of a received input data unit to the given buffer entry or prevents overwriting of the given buffer entry. At least two of the shift registers have different relative arrangements of the first and second subsets of storage circuits.

Abstract: An aft heat shield for a fuel nozzle tip includes: an annular shield wall; an annular shield flange extending radially outward from an aft end of the shield wall; an annular baffle flange surrounding the conical section, and disposed such that an axial gap is defined between the shield flange and the baffle flange, the baffle flange including a radially outer rim extending axially forward therefrom; and a plurality of impingement cooling holes passing through the baffle flange and oriented to as to direct air flow towards the shield wall.

Abstract: An on-chip interconnect comprises control circuitry which responds to a burst read request received at an initiating requester interface, to control issuing of at least one read request to at least one target completer device via at least one target completer interface. For a chunking enabled burst read transaction, the control circuitry supports returning the requested data items to the initiating requester device in a number of data transfers, with an order of the data items in the data transfers permitted to differ from a default order and each data transfer specifying chunk identifying information identifying which portion of the data items is represented by returned data for that data transfer. For a data transfer returned to the initiating requester device based on data returned from one of a second subset of completer interfaces, the control circuitry generates the chunk identifying information to be specified by the given data transfer.

Abstract: An interconnection network is provided for managing data transfer between a plurality of nodes of an integrated circuit. The interconnection network has at least one transmission path originating from an upstream location of the interconnection network, each transmission path being arranged to transmit data blocks from the upstream location to an associated downstream location within that transmission path. Digest generation circuitry is used to generate digests for data blocks, and fault detection circuitry provided in association with the upstream location is arranged to determine presence of a fault condition in the interconnection network. The digest generation circuitry is arranged to generate an upstream digest for a given data block at the upstream location, and to generate a corresponding downstream digest for the given data block at the associated downstream location.

Abstract: A lockdown barrier system and method includes a first mount that is secured to a wall surface and a sheet of shielding material formed of an anti-ballistic material that is moveable between a retracted position and an extended position. The sheet of shielding material has a first end that is secured to the first mount and a second end opposite the first end that is freely moveable away from the first mount. The system includes a second mount that is secured to the wall surface at a location that is spaced from the first mount. The second end of the sheet of shielding material is releasably connectable to the second mount and is secured proximate to the first mount when in the retracted position. The second end is secured to the second mount when in the extended position.

Abstract: A method comprises generating, using a computer, an integrated circuit layout including a plurality of data handling nodes interconnected by routing circuitry defining data packet routes between the plurality of data handling nodes; for a transaction source node configured to generate data packets associated with a data handling translation between that transaction source node and a transaction target node and having one or more routing data fields controlling routing of the data packet, detecting, using the computer, a difference between a first routing controlled by the one or more routing data fields and a selected second routing provided by the integrated circuit layout; and providing, using the computer, one or more data mapping nodes in the integrated circuit layout to map an initial value of one or more of the routing data fields of a data packet generated by the transaction source node to a mapped data value, so that the mapped data value controls routing of the data packet using the selected second r

Abstract: Data access routing circuitry 4, 6 is provided for routing data access request to a selected destination node. The data access routing circuitry supports read requests requiring a read response, write requests requiring a write response and at least one type of atomic data access request requiring both a read response and a write response. Resource allocation circuitry 70, 71 is provided to control allocation of resource for handling data access requests which require a read response. The resource allocation circuitry 70, 71 reserves resource for handling the at least one type of atomic data access request and prevents use of the reserved resource 76 for handling read requests.

Abstract: A method comprises generating, using a computer, an integrated circuit layout including a plurality of data handling nodes interconnected by routing circuitry defining data packet routes between the plurality of data handling nodes; for a transaction source node configured to generate data packets associated with a data handling translation between that transaction source node and a transaction target node and having one or more routing data fields controlling routing of the data packet, detecting, using the computer, a difference between a first routing controlled by the one or more routing data fields and a selected second routing provided by the integrated circuit layout; and providing, using the computer, one or more data mapping nodes in the integrated circuit layout to map an initial value of one or more of the routing data fields of a data packet generated by the transaction source node to a mapped data value, so that the mapped data value controls routing of the data packet using the selected second r

Abstract: An apparatus for connecting a first wellsite tube to a second wellsite tube includes a collar configured to engage with outer conduits of the first and second wellsite tubes. A coupling is disposed inside the collar and includes a first end axially disposed from a second end. A first structure is configured to provide sliding engagement between the first end of the coupling and an inner conduit of the first wellsite tube. A second structure is configured to provide threaded engagement between the second end of the coupling and an inner conduit of the second wellsite tube. A plurality of radially extending ribs are disposed between the opposing ends of the collar and support the coupling inside the collar.

Abstract: A protectively enclosed panel of frangible thermal insulation having a panel of frangible thermal insulation with C-channel binding bars fitted over each edge of the panel and wear protective cover sheets covering the first and second major surface of the panel with the peripheral margin of the cover sheets adhered to the C-channel binding bars.

Abstract: Techniques for configuring test operations on a per-module basis are disclosed. A system receives a command for configuring, on a per-module basis, test operations recited in a set of module code corresponding to a particular module of a plurality of modules in a module system. The module system specifies accessibility of each module in the plurality of modules to other modules in the plurality of modules. The system stores configuration information based on the command and configures a test operation included in an element of the particular module based on the stored configuration information. Configuring the test operation includes one of: (a) enabling the test operation without affecting other code recited in-line with the test operation in the element of the particular module; or (b) disabling the test operation without affecting other code recited in-line with the test operation in the element of the particular module.

Abstract: An interconnect, and method of handling supplementary data in an interconnect, are provided. The interconnect has routing circuitry providing a plurality of paths, and routing control circuitry to use the plurality of paths to establish routes through the interconnect between source devices and destination devices coupled to the interconnect, to enable system data to be routed through the interconnect between the source devices and the destination devices. The system data relates to functional operation of a system comprising the interconnect, the source devices and the destination devices. At least a subset of the paths are redundant paths whose use by the routing control circuitry provides the system data with resilience to faults when routing the system data through the interconnect.

Abstract: A fuel nozzle apparatus includes: an outer body having an exterior surface and a plurality of openings in the exterior surface. An inner body is disposed inside the outer body, cooperating with the outer body to define an annular space. A main injection ring is disposed in the annular space and includes an array of fuel posts extending outward therefrom, each fuel post including a perimeter wall defining a lateral surface and a recessed floor. Each fuel post is aligned with one of the openings and separated from the opening by a perimeter gap defined between the opening and the lateral surface. A main fuel gallery extends within the main injection ring. The main injection ring includes plurality of main fuel orifices, each main fuel orifice communicating with the main fuel gallery and extending through one of the fuel posts.

Abstract: Techniques for providing backup power to distributed computing systems are disclosed herein. In one embodiment, a method includes receiving, via the computer network, data indicating a power failure of the main power source configured to provide electrical power to the servers. The method also includes instructing, via the computer network, a heating, ventilation, and air conditioning (“HVAC”) system to provide emergency power to the servers. The HVAC system includes an air mover having blades and a motor-generator mechanically coupled to the blades of the air mover. The motor-generator includes a motor that is configured to rotate the blades of the air mover and a generator that is configured to convert kinetic energy of the rotating blades of the air mover into electrical energy during a power failure of the main power source and provide the generated electrical energy as the emergency power to the servers.

Abstract: A lockdown barrier system and method includes a first mount that is secured to a wall surface and a sheet of shielding material formed of an anti-ballistic material that is moveable between a retracted position and an extended position. The sheet of shielding material has a first end that is secured to the first mount and a second end opposite the first end that is freely moveable away from the first mount. The system includes a second mount that is secured to the wall surface at a location that is spaced from the first mount. The second end of the sheet of shielding material is releasably connectable to the second mount and is secured proximate to the first mount when in the retracted position. The second end is secured to the second mount when in the extended position.

Abstract: An interconnection network is provided for managing data transfer between a plurality of nodes of an integrated circuit. The interconnection network has at least one transmission path originating from an upstream location of the interconnection network, each transmission path being arranged to transmit data blocks from the upstream location to an associated downstream location within that transmission path. Digest generation circuitry is used to generate digests for data blocks, and fault detection circuitry provided in association with the upstream location is arranged to determine presence of a fault condition in the interconnection network. The digest generation circuitry is arranged to generate an upstream digest for a given data block at the upstream location, and to generate a corresponding downstream digest for the given data block at the associated downstream location.