mhurhangee/ep-ind-claims huggingface dataset:
A method for establishing a path, comprising: on a first node in a path from an ingress node to an egress node, taking a label of a host Forwarding Equivalence Class, FEC, of the egress node as the label of a parasitic FEC of the egress node to establish a label borrowing relationship between the host FEC and the parasitic FEC, and establishing a Multiprotocol Label Switching, MPLS, based Label Switched Path, LSP, corresponding to the parasitic FEC; wherein, the host FEC indicates label Lender and the parasitic FEC indicates label borrowing, and the host FEC of the egress node corresponds to a host route prefix of the egress node and the parasitic FEC corresponds to route prefixes originated from the egress node that borrows the label from the host FEC, wherein the label is an incoming label, an outgoing label, or a combination of the incoming label and the outgoing label. on a first node in a path from an ingress node to an egress node, taking a label of a host Forwarding Equivalence Class, FEC, of the egress node as the label of a parasitic FEC of the egress node to establish a label borrowing relationship between the host FEC and the parasitic FEC, and establishing a Multiprotocol Label Switching, MPLS, based Label Switched Path, LSP, corresponding to the parasitic FEC; wherein, the host FEC indicates label Lender and the parasitic FEC indicates label borrowing, and the host FEC of the egress node corresponds to a host route prefix of the egress node and the parasitic FEC corresponds to route prefixes originated from the egress node that borrows the label from the host FEC, wherein the label is an incoming label, an outgoing label, or a combination of the incoming label and the outgoing label.
A method for equilibrating an isotope dilution mass spectrometry sample, comprising the steps of: a) adding to a solid phase carrier, a quantity or concentration of an isotopically tagged analyte analogue; and immobilizing by absorption or chemical attachment said isotopically tagged analyte, said solid phase carrier being selected from the group consisting of surface modified and/or functionalized ion exchange medium, adsorption medium, solid phase extraction resin, resin bonded solid phase, sorbents, solid and/or porous beads, particular and surface activated beads, mixed-bed media, filters, dual-state liquids used for immobilized liquid extraction, fibers packaged in packed columns, microarray and liquefiable solid phase gel, immunoassay solid phase media carriers, surface modified solid phase supports, surface modified SELDI plates, solid phase surface-modified plates, surface-modified filters and solid-phase extraction cartridges. b) further adding to said solid phase carrier a sample containing or suspected to contain an analyte of interest corresponding to said isotopically tagged analyte analogue; c) conducting an equilibration step with said solid phase carrier by incubating the solid phase carrier and said sample for between 1 second and 24 hours, to make an equilibrated sample containing isotopically tagged analyte analogue; and d) subjecting said equilibrated sample containing said isotopically tagged analyte analogue to direct ionization and transport into a mass spectrometer for analysis. a) adding to a solid phase carrier, a quantity or concentration of an isotopically tagged analyte analogue; and immobilizing by absorption or chemical attachment said isotopically tagged analyte, said solid phase carrier being selected from the group consisting of surface modified and/or functionalized ion exchange medium, adsorption medium, solid phase extraction resin, resin bonded solid phase, sorbents, solid and/or porous beads, particular and surface activated beads, mixed-bed media, filters, dual-state liquids used for immobilized liquid extraction, fibers packaged in packed columns, microarray and liquefiable solid phase gel, immunoassay solid phase media carriers, surface modified solid phase supports, surface modified SELDI plates, solid phase surface-modified plates, surface-modified filters and solid-phase extraction cartridges. b) further adding to said solid phase carrier a sample containing or suspected to contain an analyte of interest corresponding to said isotopically tagged analyte analogue; c) conducting an equilibration step with said solid phase carrier by incubating the solid phase carrier and said sample for between 1 second and 24 hours, to make an equilibrated sample containing isotopically tagged analyte analogue; and d) subjecting said equilibrated sample containing said isotopically tagged analyte analogue to direct ionization and transport into a mass spectrometer for analysis.
Seat having a seating surface, which has a foot-side and a back-side region, and a frame for the seating surface, wherein the seating surface is mounted movably relative to the frame, and an adjusting mechanism with a pivot element is provided, wherein the seating surface is attached to the pivot element and the back-side region of the seating surface can be rotated about the foot-side region of the seating surface by means of the pivot element and can be tilted in a tilting movement predetermined and guided by the adjusting mechanism at a tilting angle dependent on the angle of rotation, wherein the pivot element is designed as a pivot arm, characterized in that the pivot arm is rotatably attached at its end arranged below the foot-side region of the seating surface to an extension aim with an axis of rotation perpendicular to the extension arm, and extends with its opposite, free end in the direction of the back-side region of the seating surface, wherein the extension arm is rotatably mounted on the frame and projects obliquely upwards from the frame in the direction of the foot-side region of the seating surface.
A method of using a unified cargo carrier rack and storage system to secure cargo comprising: providing a receiver unit installed in the rear of the vehicle; providing a modular carrier rack, the modular carrier rack further comprising: a secondary bar, a cargo carrier bar, and a transitional carrier bar having distal and proximal ends, wherein the proximal end engages the receiver unit and provide immobilization for cargo and the distal end engages the secondary bar, wherein a distal end of the secondary bar engages the cargo carrier bar and at a height sufficient to provide clearance from the ground for cargo, and wherein the cargo carrier bar is further operable to engage and immobilize cargo; and wherein the modular carrier rack is lightweight and compactable such that the transitional carrier bar, secondary bar, and cargo carrier bar can be reconfigured into a compact size providing a cradle system operable to support and secure a bar of the cargo, wherein the cradle is nestable within the cargo carrier bar, characterised in that the cradle is lockable into place for support using a rotational locking mechanism allowing the cradle once secured to rotate to provide an appropriate orientation for carrying cargo and wherein securing the bar of the cargo includes engaging a screw clamping mechanism. providing a receiver unit installed in the rear of the vehicle; providing a modular carrier rack, the modular carrier rack further comprising: a secondary bar, a cargo carrier bar, and a transitional carrier bar having distal and proximal ends, wherein the proximal end engages the receiver unit and provide immobilization for cargo and the distal end engages the secondary bar, wherein a distal end of the secondary bar engages the cargo carrier bar and at a height sufficient to provide clearance from the ground for cargo, and wherein the cargo carrier bar is further operable to engage and immobilize cargo; and a secondary bar, a cargo carrier bar, and a transitional carrier bar having distal and proximal ends, wherein the proximal end engages the receiver unit and provide immobilization for cargo and the distal end engages the secondary bar, wherein a distal end of the secondary bar engages the cargo carrier bar and at a height sufficient to provide clearance from the ground for cargo, and wherein the cargo carrier bar is further operable to engage and immobilize cargo; and wherein the modular carrier rack is lightweight and compactable such that the transitional carrier bar, secondary bar, and cargo carrier bar can be reconfigured into a compact size providing a cradle system operable to support and secure a bar of the cargo, wherein the cradle is nestable within the cargo carrier bar, characterised in that the cradle is lockable into place for support using a rotational locking mechanism allowing the cradle once secured to rotate to provide an appropriate orientation for carrying cargo and wherein securing the bar of the cargo includes engaging a screw clamping mechanism.
A vehicle speed limiter to limit the speed of a vehicle to a predetermined maximum for use with a vehicle throttle system comprising: a mechanical actuator, for instance an accelerator pedal; an engine speed controller; and a throttle signal unit in data communication with the engine speed controller and operably coupled to the mechanical actuator so as to generate an electronic generated throttle signal in functional response to a degree of actuation of the mechanical actuator, and to transmit a transmitted throttle signal to the engine speed controller whereby an engine speed is controlled; characterised in that the vehicle speed limiter comprises: a vehicle speed sensor configured to obtain a signal indicative of vehicle speed; a data store comprising a limit speed data register for a limit speed data item indicative of at least a first predetermined limit speed; a comparator configured to compare the speed sensor output with the limit speed data item stored in the limit speed data register; a throttle signal modifier unit configured to act on the output of the throttle signal unit in use when fitted in conjunction with the vehicle throttle system to modify the generated throttle signal so that the transmitted throttle signal is produced such as to tend to limit the vehicle to the applied limit speed. a mechanical actuator, for instance an accelerator pedal; an engine speed controller; and a throttle signal unit in data communication with the engine speed controller and operably coupled to the mechanical actuator so as to generate an electronic generated throttle signal in functional response to a degree of actuation of the mechanical actuator, and to transmit a transmitted throttle signal to the engine speed controller whereby an engine speed is controlled; characterised in that the vehicle speed limiter comprises: a vehicle speed sensor configured to obtain a signal indicative of vehicle speed; a data store comprising a limit speed data register for a limit speed data item indicative of at least a first predetermined limit speed; a comparator configured to compare the speed sensor output with the limit speed data item stored in the limit speed data register; a throttle signal modifier unit configured to act on the output of the throttle signal unit in use when fitted in conjunction with the vehicle throttle system to modify the generated throttle signal so that the transmitted throttle signal is produced such as to tend to limit the vehicle to the applied limit speed. a vehicle speed sensor configured to obtain a signal indicative of vehicle speed; a data store comprising a limit speed data register for a limit speed data item indicative of at least a first predetermined limit speed; a comparator configured to compare the speed sensor output with the limit speed data item stored in the limit speed data register; a throttle signal modifier unit configured to act on the output of the throttle signal unit in use when fitted in conjunction with the vehicle throttle system to modify the generated throttle signal so that the transmitted throttle signal is produced such as to tend to limit the vehicle to the applied limit speed.
A row unit for precision sowing of seeds to obtain a predetermined number of plants per unit of length, comprising a seed discharging tube adapted to feed said seed by means of an excess air pressure from a seed distributing device to a seed outlet, a seed furrow opener, comprising two sowing discs (15a, 15b) arranged at an angle relative to each other, and a resilient press surface (16, 16', 16") for pressing the seed into the soil, wherein said press surface (16, 16', 16") is designed such that a direction of flow of the seeds at the seed outlet intersects or is substantially tangent to at least a portion of the press surface (16, 16', 16"), characterised in that the seed outlet is located between the sowing discs (15a, 15b) and, as seen in the transverse direction, inside the periphery of at least one of the sowing discs (15a, 15b).
A fluid ejection apparatus (20, 220, 320, 420, 520, 620, 720, 820, 920, 1020, 1120, 1220, 1320, 1420, 1490, 1720, 1820) comprising: a fluid slot (40, 240, 1540); a passage (44, 244, 1344, 1444, 1494, 1544, 1744) having a first inlet (54, 254, 1554) connected to the fluid slot (40, 240, 1540) and an outlet (56, 256, 1556) spaced from the first inlet (54, 254, 1554) and connected to the fluid slot (40, 240, 1540); a drop generator (46, 246, 1546) along the passage (44, 244, 1344, 1444, 1494, 1544, 1744); a first fluid circulation pump (48, 248, 1548) between the drop generator (46, 246, 1546) and the first inlet (54, 254, 1554); and characterized in that the fluid ejection apparatus further comprises: a filter (50, 250, 650, 1550) across the passage (44, 244, 1344, 1444, 1494, 1544, 1744) between the fluid slot (40, 240, 1540) and the fluid circulation pump (48, 248, 1548); a second inlet for the passage that is connected to the fluid slot; and a second fluid circulation pump between the drop generator and the second inlet. a fluid slot (40, 240, 1540); a passage (44, 244, 1344, 1444, 1494, 1544, 1744) having a first inlet (54, 254, 1554) connected to the fluid slot (40, 240, 1540) and an outlet (56, 256, 1556) spaced from the first inlet (54, 254, 1554) and connected to the fluid slot (40, 240, 1540); a drop generator (46, 246, 1546) along the passage (44, 244, 1344, 1444, 1494, 1544, 1744); a first fluid circulation pump (48, 248, 1548) between the drop generator (46, 246, 1546) and the first inlet (54, 254, 1554); and characterized in that the fluid ejection apparatus further comprises: a filter (50, 250, 650, 1550) across the passage (44, 244, 1344, 1444, 1494, 1544, 1744) between the fluid slot (40, 240, 1540) and the fluid circulation pump (48, 248, 1548); a second inlet for the passage that is connected to the fluid slot; and a second fluid circulation pump between the drop generator and the second inlet. a filter (50, 250, 650, 1550) across the passage (44, 244, 1344, 1444, 1494, 1544, 1744) between the fluid slot (40, 240, 1540) and the fluid circulation pump (48, 248, 1548); a second inlet for the passage that is connected to the fluid slot; and a second fluid circulation pump between the drop generator and the second inlet.
Communications system comprising at least one node (101, 102, 110), a control entity and a shared communications medium, wherein the at least one node is designed to receive messages which were or are sent in a first transmission mode; wherein furthermore the control entity is designed to determine a first of the nodes in order to send data to said first node in a second transmission mode or in order to release the shared communications medium to the effect that the first node sends data in the second transmission mode, and wherein the control entity is furthermore designed to notify the first node by means of a message (501, 502, 503, 504) that it has determined said first node, wherein said message is sent in the first transmission mode; and wherein the second transmission mode has a higher data transmission rate and/or transmission complexity than the first transmission mode, wherein the first node is designed, after receiving the message, as required, to send data in the second transmission mode to the control entity; or to send an announcement message to another node in the communications system in the first transmission mode and subsequently to send data in the second transmission mode to the other node; or to receive data which were or are sent in the second transmission mode.
A method of printing a three-dimensional object, the method comprising: depositing, by a processor, a layer of a sinterable material on a support member; heating, by the processor, the layer of the sinterable material using a moveable radiation source; depositing, by the processor, a fusing agent on an imaged area of the layer of the sinterable material; and fusing, by the processor, the imaged area of the layer of the sinterable material using the moveable radiation source; characterized in that the moveable radiation source is controlled, by the processor, to apply various first and second passes over the support member dependent on a surface temperature of the layer of sinterable material, and wherein a sensor is to provide, to the processor, temperature data of the surface of the layer of sinterable material. depositing, by a processor, a layer of a sinterable material on a support member; heating, by the processor, the layer of the sinterable material using a moveable radiation source; depositing, by the processor, a fusing agent on an imaged area of the layer of the sinterable material; and fusing, by the processor, the imaged area of the layer of the sinterable material using the moveable radiation source; characterized in that the moveable radiation source is controlled, by the processor, to apply various first and second passes over the support member dependent on a surface temperature of the layer of sinterable material, and wherein a sensor is to provide, to the processor, temperature data of the surface of the layer of sinterable material.
A method for transmitting data, the method comprising: receiving a block of data from a content provider (705, 707); generating a signature from the block of data; determining if the signature exists in a content cache, wherein the content cache comprises previously transmitted signatures and blocks of data associated with the previously transmitted signatures; the method being characterized by the steps: if the signature exists in the content cache, saving the signature but not the block of data in a buffer; if the signature does not exist in the content cache, saving the signature and the block of data in the buffer; and transmitting contents of the buffer over a backhaul link. receiving a block of data from a content provider (705, 707); generating a signature from the block of data; determining if the signature exists in a content cache, wherein the content cache comprises previously transmitted signatures and blocks of data associated with the previously transmitted signatures; the method being characterized by the steps: if the signature exists in the content cache, saving the signature but not the block of data in a buffer; if the signature does not exist in the content cache, saving the signature and the block of data in the buffer; and if the signature exists in the content cache, saving the signature but not the block of data in a buffer; if the signature does not exist in the content cache, saving the signature and the block of data in the buffer; and transmitting contents of the buffer over a backhaul link.
Process for firing an industrial furnace wherein coal or cokes together with a secondary fuel comprising cellulose and plastic in the form of pellets of a size larger than 3 mm thickness and having a caloric value of 16 GJ/ton or more is co-grinded to a powder, wherein the milling is performed in a roller mill or ball mill, and wherein 95 wt% or more of the powder has a particle size smaller than 2 mm and wherein the d50 of the particle size distribution measured by sieving analysis is between 5 and 100 μm, wherein the powder is injected in the flame of the furnace.
A sealed-type electric compressor, comprising: an electric motor and a compressor mechanism accommodated in a cylindrical casing, the compressor mechanism being able to be driven by the electric motor, wherein the electric motor is fixedly disposed by each of both-end portions (E1, E2) of a stator of the electric motor being shrink-fit, press-fit, or welded to a circular inner circumferential surface of the cylindrical casing, an intermediate portion excluding the both-end portions (E1, E2) is not in contact with the casing over a part of the intermediate portion excluding a contact portion, and a section of the casing corresponding to the intermediate portion is in a non-contact state, as a result of the section being caused to bulge outward in a rib-like shape, apart from a section corresponding to a notched portion formed for a refrigerant passage provided on an outer circumference of the stator. an electric motor and a compressor mechanism accommodated in a cylindrical casing, the compressor mechanism being able to be driven by the electric motor, wherein the electric motor is fixedly disposed by each of both-end portions (E1, E2) of a stator of the electric motor being shrink-fit, press-fit, or welded to a circular inner circumferential surface of the cylindrical casing, an intermediate portion excluding the both-end portions (E1, E2) is not in contact with the casing over a part of the intermediate portion excluding a contact portion, and a section of the casing corresponding to the intermediate portion is in a non-contact state, as a result of the section being caused to bulge outward in a rib-like shape, apart from a section corresponding to a notched portion formed for a refrigerant passage provided on an outer circumference of the stator.