mhurhangee/ep-ind-claims huggingface dataset:
A method for managing packet transfer carried out by a device comprising: receiving incoming packets for local memory within the device that is configured as fabric attached memory and is addressable by other devices through a memory fabric physical layer interface, at least some of the packets comprising different instruction types, the memory fabric physical layer interface having a higher data rate than a data rate of a physical layer interface of the device; determining, by a controller of the device, a packet type of the incoming packets received from the memory fabric physical layer interface via the physical layer interface; and when the determined incoming packet type from the memory fabric physical layer interface is of a type containing an atomic request, queuing incoming packets determined to contain the atomic request in a first priority buffer, queuing incoming packets determined to contain other types of requests in one or more lower priority buffers to the first priority buffer and prioritizing, by the controller, transfer of the incoming packet with the atomic request over other packet types of incoming packets, to memory access logic that accesses the local memory within the device. receiving incoming packets for local memory within the device that is configured as fabric attached memory and is addressable by other devices through a memory fabric physical layer interface, at least some of the packets comprising different instruction types, the memory fabric physical layer interface having a higher data rate than a data rate of a physical layer interface of the device; determining, by a controller of the device, a packet type of the incoming packets received from the memory fabric physical layer interface via the physical layer interface; and when the determined incoming packet type from the memory fabric physical layer interface is of a type containing an atomic request, queuing incoming packets determined to contain the atomic request in a first priority buffer, queuing incoming packets determined to contain other types of requests in one or more lower priority buffers to the first priority buffer and prioritizing, by the controller, transfer of the incoming packet with the atomic request over other packet types of incoming packets, to memory access logic that accesses the local memory within the device.
Method for charging an electrochemical rechargeable battery cell with charge pulse control, the pulses being controlled in voltage regulation in the form of voltage levels (Pt) of variable amplitude, characterized in what it consists of calculating the value (Ut+1) of each voltage level (Pt+1) in relation to the value (Ut) of the previous voltage level (Pt) and as a function of a progression variable ( Var) representative of the variation in the internal resistance of the cell (d /dt), during a period finalizing at the previous level (Pt), relative to a predetermined tolerated variation threshold (α), where said variable Var Equals: Var = dR dt − α Where: Var is the progression variable, d /dt is the variation in the internal resistance of the cell, and α the predetermined tolerated variation threshold.
A method for laser machining a workpiece, in particular for laser cutting, with a) generating a machining laser beam and imaging the machining laser beam on the workpiece with at least one optical element (17, 18); b) machining the workpiece with the imaged machining laser beam and generating a cutting gap in the workpiece; c) monitoring at least one geometric parameter of the cutting gap during step b); and d) regulating the monitored geometric parameter of the cutting gap during step c) for harmonisation with a target value of the geometric parameter of the cutting gap, by varying a position of the focus of the machining laser beam in the direction of propagation thereof; T wherein step d) is carried out independently of a caustic of the machining laser beam; T wherein in step d) the geometric parameter, in particular the width of the cutting gap, is kept independent of the power of the machining laser source; characterized in that step d) is carried out additionally by varying at least one parameter selected from a width of the machining laser beam, a diameter of the machining laser beam, a surface curvature of at least one of the optical elements (17; 18), a focal length of an optical system that includes the at least one optical element, and an intensity distribution of the machining laser beam, in particular an intensity distribution of the machining laser beam perpendicular to the direction of propagation thereof. a) generating a machining laser beam and imaging the machining laser beam on the workpiece with at least one optical element (17, 18); b) machining the workpiece with the imaged machining laser beam and generating a cutting gap in the workpiece; c) monitoring at least one geometric parameter of the cutting gap during step b); and d) regulating the monitored geometric parameter of the cutting gap during step c) for harmonisation with a target value of the geometric parameter of the cutting gap, by varying a position of the focus of the machining laser beam in the direction of propagation thereof; T wherein step d) is carried out independently of a caustic of the machining laser beam; T wherein in step d) the geometric parameter, in particular the width of the cutting gap, is kept independent of the power of the machining laser source;
Method for the horizontal, painting of objects having two prevailing sides, wherein the painting of the first side and the painting of the second side are performed one after the other inside two distinct painting stations (2,6), characterized by the following steps: a) Inserting an object to be painted inside a frame; b) The assembly of object and frame is conveyed inside a first painting station so that said object is horizontally painted on its top prevailing side; c) The assembly of object and frame is conveyed from the first painting station to an overturning device so that the object never touches said conveying means; d) The assembly of object and frame is turned of 180° inside the overturning device; e) The assembly of object and frame is conveyed to the second painting station so that the object never touches said conveying means; f) The second prevailing side of the object, turned upwards, is horizontally painted inside the second painting station and the drying of the object takes place only after the two prevailing sides have been painted. a) Inserting an object to be painted inside a frame; b) The assembly of object and frame is conveyed inside a first painting station so that said object is horizontally painted on its top prevailing side; c) The assembly of object and frame is conveyed from the first painting station to an overturning device so that the object never touches said conveying means; d) The assembly of object and frame is turned of 180° inside the overturning device; e) The assembly of object and frame is conveyed to the second painting station so that the object never touches said conveying means; f) The second prevailing side of the object, turned upwards, is horizontally painted inside the second painting station
A modular child restraint system comprising: a base (100, 600, 1010, 1100, 1150, 1700) including a base hub (510, 880, 1000, 1120, 1160, 1705); a seat (110, 120) including a seat hub (820, 1210, 1715) configured to rotationally engage with the base hub, wherein the base hub has a circumferentially inwardly facing lip (850, 3130) and a plurality of detents, and the seat hub (820, 1210, 1715) has a retractable latch (830, 1230, 1350, 1510) configured to engage under the lip (850, 3130) to secure the seat hub (820, 1210, 1715) to the base hub (510, 880, 1000, 1120, 1160, 1705); and a retractable locking pin that is configured to lock into a recess to prevent rotation of the seat (110, 120) relative to the base (100, 600, 1010, 1100, 1150, 1700). a base (100, 600, 1010, 1100, 1150, 1700) including a base hub (510, 880, 1000, 1120, 1160, 1705); a seat (110, 120) including a seat hub (820, 1210, 1715) configured to rotationally engage with the base hub, wherein the base hub has a circumferentially inwardly facing lip (850, 3130) and a plurality of detents, and the seat hub (820, 1210, 1715) has a retractable latch (830, 1230, 1350, 1510) configured to engage under the lip (850, 3130) to secure the seat hub (820, 1210, 1715) to the base hub (510, 880, 1000, 1120, 1160, 1705); and a retractable locking pin that is configured to lock into a recess to prevent rotation of the seat (110, 120) relative to the base (100, 600, 1010, 1100, 1150, 1700).
A heating element for use in a machine that seals a protective wrap around stacks of cut sheets of paper, wherein the wrap comprises a heat sealable material folded so that it has overlapped flaps at opposite ends of the stack and the heating element heats the overlapped wrap material to fuse it together, wherein the heating element is configured to apply heat sufficient to fuse the overlapped wrap material only in selected areas that comprise a minor portion of the overlapped material, wherein the heating element comprises a plate having a flat surface that faces said ends of the stack when in use, said plate comprising a recessed lower front edge portion, said surface being grooved to define one or more raised bars that focus or concentrate heat in an area defined by the raised bar, said area defined by the raised bar corresponding to the selected areas of the wrap that are fused together, characterised in that at least one groove of the surface is filled with at least one low friction material and wherein the low friction material is recessed into the at least one groove.
A pixelated light emitting diode chip comprising: a plurality of pixels (104a-104c), wherein each pixel (104a-104c) of the plurality of pixels (104a-104c) includes semiconductor layers (21, 22) that form a mesa, a passivation layer on the semiconductor layers (21, 22) and laterally bounding the mesa, and electrical contacts (90, 92), and wherein inter-pixel spaces (106-1, 106-2) are provided between adjacent pixels (104a-104c) of the plurality of pixels (104a-104c); and an underfill material arranged in the inter-pixel spaces (106-1, 106-2) between the adjacent pixels (104a-104c); and characterized in that a wetting layer is arranged between the underfill material and the passivation layer of each pixel (104a-104c), wherein the wetting layer is arranged to laterally bound the passivation layer along the mesa of each pixel (104a-104c), wherein the wetting layer comprises a contact angle with the underfill material of less than about 30 degrees. a plurality of pixels (104a-104c), wherein each pixel (104a-104c) of the plurality of pixels (104a-104c) includes semiconductor layers (21, 22) that form a mesa, a passivation layer on the semiconductor layers (21, 22) and laterally bounding the mesa, and electrical contacts (90, 92), and wherein inter-pixel spaces (106-1, 106-2) are provided between adjacent pixels (104a-104c) of the plurality of pixels (104a-104c); and an underfill material arranged in the inter-pixel spaces (106-1, 106-2) between the adjacent pixels (104a-104c); and characterized in that a wetting layer is arranged between the underfill material and the passivation layer of each pixel (104a-104c), wherein the wetting layer is arranged to laterally bound the passivation layer along the mesa of each pixel (104a-104c),
A gradient coil assembly (11,12) for a magnetic resonance examination system and comprising: a primary transverse gradient coil having primary windings on a primary cylindrical surface, a shield coil of the primary transverse gradient coil having shield windings that are shaped as saddle coils on a shield cylindrical surface, the shield cylindrical surface located radially outward relative to the primary cylindrical surface, a conical end-flange surface between the primary cylindrical surface and the shield cylindrical surface at their adjacent axial ends, interconnecting winding portions between the primary windings and the shield windings disposed on the conical end-flange surface and serially connecting at least some of the shield windings to some of the primary windings, characterised in that the shield coil is provided with a recessed patch of electrical conductors located radially inward relative to the shield cylindrical surface, wherein the conductors of the recessed patch are connected in series with some of the windings of the shield coil, close to the recessed patch, wherein the windings of the recessed patch that are connected to windings of the shield coil near the patch are connected in series to some of the electrical conductors of the primary transverse gradient coil. a primary transverse gradient coil having primary windings on a primary cylindrical surface, a shield coil of the primary transverse gradient coil having shield windings that are shaped as saddle coils on a shield cylindrical surface, the shield cylindrical surface located radially outward relative to the primary cylindrical surface, a conical end-flange surface between the primary cylindrical surface and the shield cylindrical surface at their adjacent axial ends, interconnecting winding portions between the primary windings and the shield windings disposed on the conical end-flange surface and serially connecting at least some of the shield windings to some of the primary windings, characterised in that the shield coil is provided with a recessed patch of electrical conductors located radially inward relative to the shield cylindrical surface, wherein the conductors of the recessed patch are connected in series with some of the windings of the shield coil, close to the recessed patch, wherein the windings of the recessed patch that are connected to windings of the shield coil near the patch are connected in series to some of the electrical conductors of the primary transverse gradient coil.
A vibrating flow meter comprising: a conduit defining a fluid flow path; at least one pick-off (230, 231) that measures the motion of the conduit; characterized by: a driven member consisting of a cantilevered arm extending generally orthogonal to a base configured to flex about the base; at least one driver that vibrates the conduit and the driven member in phase opposition; a base coupled to the conduit and the driven member, said base switching between remaining substantially stationary or moving substantially in phase with the conduit or moving substantially in phase with the driven member in order to balance the motion of the conduit and the driven member. a conduit defining a fluid flow path; at least one pick-off (230, 231) that measures the motion of the conduit; characterized by: a driven member consisting of a cantilevered arm extending generally orthogonal to a base configured to flex about the base; at least one driver that vibrates the conduit and the driven member in phase opposition; a base coupled to the conduit and the driven member, said base switching between remaining substantially stationary or moving substantially in phase with the conduit or moving substantially in phase with the driven member in order to balance the motion of the conduit and the driven member. a driven member consisting of a cantilevered arm extending generally orthogonal to a base configured to flex about the base; at least one driver that vibrates the conduit and the driven member in phase opposition; a base coupled to the conduit and the driven member, said base switching between remaining substantially stationary or moving substantially in phase with the conduit or moving substantially in phase with the driven member in order to balance the motion of the conduit and the driven member.
A shell-and-tube apparatus comprising a vessel with an exchanging section, wherein: said exchanging section contains a bundle of U-tubes having respective tube inlet ends and tube outlet ends, and a hot chamber around said tubes, said hot chamber being in communication with an input for a hot process stream, said apparatus also comprises an input for an evaporable liquid medium, which is in communication with said tube inlet ends, so that, during operation, said tubes are exposed to said hot process stream while traversing said hot chamber, and the evaporable medium is heated and at least partially evaporated by flowing inside said tubes, said apparatus being characterized in that said vessel comprises a separating section, wherein said separating section comprises a collection chamber in communication with said outlet ends of tubes, the at least partially evaporated medium is admitted to said collection chamber after leaving said tubes, said separating section comprising a separator and being arranged to provide separation of vapour fraction and liquid fraction from said at least partially evaporated medium. said exchanging section contains a bundle of U-tubes having respective tube inlet ends and tube outlet ends, and a hot chamber around said tubes, said hot chamber being in communication with an input for a hot process stream, said apparatus also comprises an input for an evaporable liquid medium, which is in communication with said tube inlet ends, so that, during operation, said tubes are exposed to said hot process stream while traversing said hot chamber, and the evaporable medium is heated and at least partially evaporated by flowing inside said tubes, said apparatus being characterized in that said vessel comprises a separating section, wherein said separating section comprises a collection chamber in communication with said outlet ends of tubes, the at least partially evaporated medium is admitted to said collection chamber after leaving said tubes, said separating section comprising a separator and being arranged to provide separation of vapour fraction and liquid fraction from said at least partially evaporated medium.
The use of the suspension medium for reagent red blood cells, characterized in that it comprises a combination of amino acids of any group, in analysis techniques which require reagent red blood cells.
Metal oxide having a surface onto which a multitude of individual polymers are grafted, each polymer comprising an addition polymer having a first and a second end, and a first moiety comprising a terminal phosphonate group, which first moiety is bonded to the first end, which phosphonate group attaches to the metal oxide surface in such a way that the multitude of the grafted polymers comprises at least one group of adjacent polymers that have a stretched chain conformation wherein the adjacent stretched chains have a substantially parallel orientation, such that the polymers within said group together form a brush structure, wherein each of the grafted polymers has a second moiety comprising a terminal aliphatic group, which second moiety is bonded to the second end via a thiocarbonylthio (-SC(=S)-) group, preferably via a tristhiocarbonate (-SC(=S)S-) group. and a first moiety comprising a terminal phosphonate group, which first moiety is bonded to the first end, which phosphonate group attaches to the metal oxide surface in such a way that the multitude of the grafted polymers comprises at least one group of adjacent polymers that have a stretched chain conformation wherein the adjacent stretched chains have a substantially parallel orientation, such that the polymers within said group together form a brush structure, wherein each of the grafted polymers has a second moiety comprising a terminal aliphatic group, which second moiety is bonded to the second end via a thiocarbonylthio (-SC(=S)-) group, preferably via a tristhiocarbonate (-SC(=S)S-) group.
A method of managing flash memory allocation in an electronic token, said token having a memory comprising a list area and a managed area, said managed area comprising allocated spaces (AS1, AS2, AS3) and at least one free memory chunk (FC1, FC2), said list area comprising at least one valid entry (EN1, EN3) referencing a free memory chunk (FC1, FC2), said valid entry (EN1, EN3) comprising a state field, said method comprises the following steps: - selecting a free memory chunk further to an allocation request, said free memory chunk being referenced by an old valid entry, - identifying a new allocated space in the selected free memory chunk, characterized in that the state field of said valid entry (EN1, EN3) is preset with a virgin state, and in that said method comprises the further step of invalidating the old valid entry referencing the selected free memory chunk. - selecting a free memory chunk further to an allocation request, said free memory chunk being referenced by an old valid entry, - identifying a new allocated space in the selected free memory chunk,
Cutter unit for a rotary shaver, comprising a series of cutters (20', 20", 25) arranged in at least two rings (R 1, R 2, R 3) of different diameters (D 1, D 2, D 3) around a central axis of the cutter unit, and comprising a cutter disc (15, 16) mounted on a coupling body of the cutter unit, characterized in that the cutter unit comprises at least two cutter discs (15, 16), each provided with a plurality of cutters (20', 20", 25) and each mounted on the coupling body, wherein one of the discs is nested into the other in such way that the combined cutters (20', 20", 25) form said at least two rings (R 1, R 2, R 3).
Seal comprising a sealing ring composed of an elastic plastic, and comprising at least one preload ring (2, 3) composed of a rubber-elastic material, wherein the sealing ring and the preload ring (2, 3) are arranged concentrically in relation to one another, are in contact in an abutting manner by way of the circumferential sides (5, 6, 7) thereof that are directed towards one another in a radial direction, and have on both sides in an axial direction in each case one end side (9, 10; 11, 12), these end sides being configured as a high-pressure side, or low-pressure side, and as a low-pressure side, or high-pressure side, during the intended use of the seal, and wherein the sealing ring has at least one pressure-relief channel which extends between its end sides (9, 10) substantially in the axial direction and which, by way of a differential-pressure-actuatable valve body, is able to be brought into an open position or closed position in a differential-pressure-dependent manner, characterized in that the valve body is formed by a valve lip, which is connected to the sealing ring so as to be pivotable in the radial direction about an articulation.