mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a Next Generation Node B, gNB, in a communications system implementing User Datagram Protocol, UDP, comprising: encapsulating a data packet to include a UDP header and a Generic UDP Encapsulation, GUE, header, wherein the GUE header comprises a proto/ctype or M type field and a multi-transport network context-identifier, MTNC-ID, field; indicating by the proto/ctype or M type field of the GUE header that the data packet comprises a MTNC-ID corresponding to a forwarding path and being associated with a set of resource provisioning requirements for one or more transport networks on the forwarding path to provision transport resources for traffic forwarding on the forwarding path; inserting the MTNC-ID into the Generic UDP Encapsulation, GUE, header of the data packet, wherein the MTNC-ID is inserted into and carried by the MTNC-ID field; and transmitting the data packet with the UDP header and the GUE header to a network element, NE, in the communications system based on the forwarding path corresponding to the MTNC-ID. encapsulating a data packet to include a UDP header and a Generic UDP Encapsulation, GUE, header, wherein the GUE header comprises a proto/ctype or M type field and a multi-transport network context-identifier, MTNC-ID, field; indicating by the proto/ctype or M type field of the GUE header that the data packet comprises a MTNC-ID corresponding to a forwarding path and being associated with a set of resource provisioning requirements for one or more transport networks on the forwarding path to provision transport resources for traffic forwarding on the forwarding path; inserting the MTNC-ID into the Generic UDP Encapsulation, GUE, header of the data packet, wherein the MTNC-ID is inserted into and carried by the MTNC-ID field; and transmitting the data packet with the UDP header and the GUE header to a network element, NE, in the communications system based on the forwarding path corresponding to the MTNC-ID.
A fluorescence detection system comprising: an optical source configured to generate excitation light (128; 328); a sample containing one or more fluorescent color centers that emit fluorescent light when irradiated with the excitation light from the optical source, wherein the sample has an index of refraction greater than its surrounding medium, said sample comprising at least one output face and further comprising at least two opposing faces configured to internally reflect the fluorescent light emitted by the one or more fluorescent color centers and optically guide the emitted fluorescent light to said at least one output face; at least one optical detector (140; 340) configured to receive fluorescent light emitted through said at least one output face; and a microwave source configured to manipulate electronic spin of the one or more fluorescent color centers, wherein the sample is formed of diamond material, wherein the diamond material is in the form of a plate, the plate major faces forming said at least two opposing faces for optically guiding the emitted fluorescent light and the plate further comprising one or more side faces forming said at least one output face, wherein the optical source is configured to emit the excitation light (128; 328) through the major faces of the plate of diamond material, and wherein said at least one optical detector (140; 340) is configured to receive the fluorescent light emitted through said one or more side faces of the plate of diamond material. an optical source configured to generate excitation light (128; 328); a sample containing one or more fluorescent color centers that emit fluorescent light when irradiated with the excitation light from the optical source, wherein the sample has an index of refraction greater than its surrounding medium, said sample comprising at least one output face and further comprising at least two opposing faces configured to internally reflect the fluorescent light emitted by the one or more fluorescent color centers and optically guide the emitted fluorescent light to said at least one output face; at least one optical detector (140; 340) configured to receive fluorescent light emitted through said at least one output face; and a microwave source configured to manipulate electronic spin of the one or more fluorescent color centers, wherein the sample is formed of diamond material, wherein the diamond material is in the form of a plate, the plate major faces forming said at least two opposing faces for optically guiding the emitted fluorescent light and the plate further comprising one or more side faces forming said at least one output face, wherein the optical source is configured to emit the excitation light (128; 328) through the major faces of the plate of diamond material, and wherein said at least one optical detector (140; 340) is configured to receive the fluorescent light emitted through said one or more side faces of the plate of diamond material.
A method of providing an evenly mixed additive enhanced gypsum slurry to a web, comprising: inserting calcined gypsum and water into a mixing chamber of a mixer through at least one inlet (26, 28) of the mixing chamber; agitating the contents of the mixing chamber to form a slurry comprising an aqueous dispersion of the calcined gypsum; passing the slurry from an outlet of the mixer into a slurry dispensing apparatus including a conduit; introducing an additive including a foam with an air content into the slurry at a point along a length of the conduit in the slurry dispensing apparatus to achieve a flow stream of a slurry/additive mixture through the conduit; characterized in changing a direction of the flow stream in a first bend of the conduit while not changing a cross section of the flow stream and thereafter, expanding a cross section of the flow stream in the conduit while not changing a direction of the flow stream, and thereafter changing a direction of the flow stream in a second bend while not changing a cross section of the flow stream prior to the flow steam exiting from an outlet of the conduit. inserting calcined gypsum and water into a mixing chamber of a mixer through at least one inlet (26, 28) of the mixing chamber; agitating the contents of the mixing chamber to form a slurry comprising an aqueous dispersion of the calcined gypsum; passing the slurry from an outlet of the mixer into a slurry dispensing apparatus including a conduit; introducing an additive including a foam with an air content into the slurry at a point along a length of the conduit in the slurry dispensing apparatus to achieve a flow stream of a slurry/additive mixture through the conduit; characterized in changing a direction of the flow stream in a first bend of the conduit while not changing a cross section of the flow stream and thereafter, expanding a cross section of the flow stream in the conduit while not changing a direction of the flow stream, and thereafter changing a direction of the flow stream in a second bend while not changing a cross section of the flow stream prior to the flow steam exiting from an outlet of the conduit.
Actuation unit for a household appliance, comprising: a circuit board (13, 13'), wherein a first switch element (14, 14') is provided on the circuit board (13, 13'), an actuation button (110, 110') with a recess (113, 113'), in particular in the form of a slot, an actuation element (20, 20') with an actuation element base (21, 21'), wherein the actuation element (20, 20') has a projecting section (23, 23) extending from the actuation element base (21, 21'), characterised in that the projecting section (23, 23') is introduced into the recess (113, 113') of the actuation button (110, 110') in such a manner that, in the assembled state, the actuation element (20, 20') and the actuation button (110, 110') in each case have a degree of freedom in a direction corresponding to the extension of the projecting section (23, 23') and a further direction. a circuit board (13, 13'), wherein a first switch element (14, 14') is provided on the circuit board (13, 13'), an actuation button (110, 110') with a recess (113, 113'), in particular in the form of a slot, an actuation element (20, 20') with an actuation element base (21, 21'), wherein the actuation element (20, 20') has a projecting section (23, 23) extending from the actuation element base (21, 21'), characterised in that the projecting section (23, 23') is introduced into the recess (113, 113') of the actuation button (110, 110') in such a manner that, in the assembled state, the actuation element (20, 20') and the actuation button (110, 110') in each case have a degree of freedom in a direction corresponding to the extension of the projecting section (23, 23') and a further direction.
A blood pump, comprising: - a pump casing having a blood flow inlet and a blood flow outlet connected by a passage, - an impeller arranged in said pump casing so as to be rotatable about an axis of rotation, the impeller being provided with blades sized and shaped for conveying blood along the passage from the blood flow inlet to the blood flow outlet, the impeller being rotatably supported in the pump casing by at least one contact-type bearing comprising a bearing surface of the impeller facing a bearing surface of the pump casing, wherein at least one wash out channel extends through the impeller and is in fluid connection with the passage via a first opening and with the bearing via a second opening, the wash out channel being operatively associated with a secondary pump for pumping blood through the wash out channel, wherein the secondary pump is formed at least partially by said at least one wash out channel, characterized in that the wash out channel is operatively associated with the secondary pump for pumping blood through the wash out channel towards the bearing, and in that said at least one wash out channel extends through the impeller along a direction having at least one tangential directional component. - a pump casing having a blood flow inlet and a blood flow outlet connected by a passage, - an impeller arranged in said pump casing so as to be rotatable about an axis of rotation, the impeller being provided with blades sized and shaped for conveying blood along the passage from the blood flow inlet to the blood flow outlet, the impeller being rotatably supported in the pump casing by at least one contact-type bearing comprising a bearing surface of the impeller facing a bearing surface of the pump casing, wherein at least one wash out channel extends through the impeller and is in fluid connection with the passage via a first opening and with the bearing via a second opening, the wash out channel being operatively associated with a secondary pump for pumping blood through the wash out channel, wherein the secondary pump is formed at least partially by said at least one wash out channel, characterized in that the wash out channel is operatively associated with the secondary pump for pumping blood through the wash out channel towards the bearing, and in that said at least one wash out channel extends through the impeller along a direction having at least one tangential directional component.
A particle delivery device for producing a spray of particles in an ambient gas at an ambient pressure, comprising a storage volume for a liquid substance; a nozzle having an inlet and an outlet, the nozzle inlet being coupled to the storage volume in fluid communication; an electric supply for providing an electric field between the liquid substance at the nozzle outlet and a counter electrode, wherein the storage volume is gastight, wherein the electric supply is arranged to control a release rate of the liquid substance from the nozzle outlet by a control of the electric field characterised in that the storage volume is a container with at least one moveable wall which is adapted to provide the liquid substance to the nozzle inlet at ambient pressure level, and wherein the liquid substance in the storage volume is at ambient pressure.
A low-ice-adhesion coating comprising a microstructure characterized in that said microstructure contains at least a first-material solid phase and a second-material solid phase that is microphase-separated from said first-material solid phase on an average length scale of phase inhomogeneity from about 1 micron to about 100 microns, wherein said phase inhomogeneity of said microstructure results in low ice adhesion of said coating, characterized in that said coating, when subjected to an AMIL Centrifuge Ice Adhesion Test, generates an AMIL Centrifuge Ice Adhesion Reduction Factor of about 10 or more, wherein one of said first-material phase and said second-material phase is hygroscopic, and the other comprises a low-surface-energy polymer having a surface energy between about 5 mJ/m 2 to about 50 mJ/m 2, wherein said hygroscopic material is selected from the group consisting of poly(acrylic acid), poly(ethylene glycol), poly(2-hydroxyethyl methacrylate), poly(vinyl imidazole), poly(2-methyl-2-oxazoline), poly(2-ethyl-2-oxazoline), poly(vinylpyrolidone), cellulose, modified cellulose, carboxymethyl cellulose, hydroxyethyl cellulose, hydroxypropyl cellulose, methyl cellulose, hydrogels, PEG diacryalate, monoacrylate, and combinations thereof, and wherein said low-surface-energy polymer is a fluoropolymer. wherein one of said first-material phase and said second-material phase is hygroscopic, and the other comprises a low-surface-energy polymer having a surface energy between about 5 mJ/m 2 to about 50 mJ/m 2, wherein said hygroscopic material is selected from the group consisting of poly(acrylic acid), poly(ethylene glycol), poly(2-hydroxyethyl methacrylate), poly(vinyl imidazole), poly(2-methyl-2-oxazoline), poly(2-ethyl-2-oxazoline), poly(vinylpyrolidone), cellulose, modified cellulose, carboxymethyl cellulose, hydroxyethyl cellulose, hydroxypropyl cellulose, methyl cellulose, hydrogels, PEG diacryalate, monoacrylate, and combinations thereof, and wherein said low-surface-energy polymer is a fluoropolymer.
A method in a mobile station for enabling more than eight mobile stations to share one uplink Packet Data Channel in a GSM network, the GSM network using one of GPRS, EGPRS and EGPRS2 and comprising the mobile station and a base station, wherein the method comprises: - assigning a combination of Uplink State Flag values to the mobile station, wherein each of the Uplink State Flag values is defined by a three bit field, - informing, through the base station, the mobile station about its assigned combination of Uplink State Flag values, - the mobile station listening for the assigned combination of Uplink State Flag values on one downlink Packet Data Channel, - the mobile station receiving (705; 1401) the combination of Uplink State Flag values in a set of two or more downlink radio blocks, wherein the set of two or more downlink radio blocks is being received on two or more consecutive radio blocks on the same Packet Data Channel, and wherein the packet data is being transmitted on all or only a subset of corresponding uplink radio blocks, - the mobile station jointly interpreting (706; 1402) the received Uplink State Flag values of the combination, and - the mobile station transmitting (707; 1403) packet data only when the combination of Uplink State Flag values assigned to the mobile station has been received. - assigning a combination of Uplink State Flag values to the mobile station, wherein each of the Uplink State Flag values is defined by a three bit field, - informing, through the base station, the mobile station about its assigned combination of Uplink State Flag values, - the mobile station listening for the assigned combination of Uplink State Flag values on one downlink Packet Data Channel, - the mobile station receiving (705; 1401) the combination of Uplink State Flag values in a set of two or more downlink radio blocks, wherein the set of two or more downlink radio blocks is being received on two or more consecutive radio blocks on the same Packet Data Channel, and wherein the packet data is being transmitted on all or only a subset of corresponding uplink radio blocks, - the mobile station jointly interpreting (706; 1402) the received Uplink State Flag values of the combination, and - the mobile station transmitting (707; 1403) packet data only when the combination of Uplink State Flag values assigned to the mobile station has been received.
A coaxial infusion catheter system comprising: a) an infusion catheter component having a infusion zone for infusing a thrombolytic agent to an occlusion in a vessel or a graft; and b) an occluding catheter component having an elongate body, wherein an expandable occluding element is coupled to a distal end of the elongate body, wherein the expandable occluding element is a dischargeable umbrella capable of trapping an emboli. wherein the expandable occluding element when expanded and in a closed configuration is capable of occluding a vessel or graft distal to a treatment zone, wherein the expandable occluding element when expanded and in an open position is capable of allowing blood flow through the treatment zone. a) an infusion catheter component having a infusion zone for infusing a thrombolytic agent to an occlusion in a vessel or a graft; and b) an occluding catheter component having an elongate body,
A touch control terminal comprising a touch control button and a touch control chip, the touch control button comprising a touch sensing layer (210; 420; 540), a pressure sensing layer (220; 440; 510) and a shielding layer (230; 450), the pressure sensing layer (220; 440; 510) being located right below the touch sensing layer (210; 420; 540) in a touch control button area; the shielding layer (230; 450) being a metal body of the touch control terminal located right below the pressure sensing layer (220; 440; 510) and at a preset distance from the pressure sensing layer (220; 440; 510), wherein a capacitance is formed between the pressure sensing layer and the metal body of the terminal, a flexible conductive board being arranged at an edge of the pressure sensing layer (220; 440; 510), wherein the flexible conductive board is provided with a first kind of bonding pad; and, the touch sensing layer (210; 420; 540) being provided with a second kind of bonding pad at a position corresponding to the first kind of bonding pad, wherein the second kind of bonding pad is configured to be electrically connected to the touch control chip. the pressure sensing layer (220; 440; 510) being located right below the touch sensing layer (210; 420; 540) in a touch control button area; the shielding layer (230; 450) being a metal body of the touch control terminal located right below the pressure sensing layer (220; 440; 510) and at a preset distance from the pressure sensing layer (220; 440; 510), wherein a capacitance is formed between the pressure sensing layer and the metal body of the terminal, a flexible conductive board being arranged at an edge of the pressure sensing layer (220; 440; 510), wherein the flexible conductive board is provided with a first kind of bonding pad; and, the touch sensing layer (210; 420; 540) being provided with a second kind of bonding pad at a position corresponding to the first kind of bonding pad, wherein the second kind of bonding pad is configured to be electrically connected to the touch control chip.
Tubular packaging body formed from a film having a thickness e, the ends of which are butt-welded and covered by a plastic reinforcing element positioned on the inner surface of said tubular body and having a cross section defined by a width 1 and a height h, said tubular body being characterized in that all of the following conditions must be met: - h is greater than or equal to e, - the ratio (l.e)/h 2 is between 1 and 10. - h is greater than or equal to e, - the ratio (l.e)/h 2 is between 1 and 10.
A swing hinge apparatus of a portable terminal, by which a pair of housings of the portable terminal are rotatably assembled while facing each other, the swing hinge apparatus comprising: a lower casing mounted to a first housing from among the pair of housings; a cam member mounted to a second housing from among the pair of housings and rotatably received in the lower casing; a guide groove formed on the lower casing and adapted to extend along a circumference; and a guide protrusion formed on a first surface of the cam member and adapted to move along the guide groove according to rotation of the cam member, characterized in that both ends of the guide protrusion have inclined outer walls, both ends of the guide groove have inclined inner walls, the guide protrusion is engaged with one of the inclined inner walls of the both ends of the guide groove, so as to limit a range of rotation of the cam member, and the guide protrusion is adapted to slide along the inclined inner walls of the guide groove when the guide protrusion collides with the inclined inner walls of the guide groove to reduce impact. a lower casing mounted to a first housing from among the pair of housings; a cam member mounted to a second housing from among the pair of housings and rotatably received in the lower casing; a guide groove formed on the lower casing and adapted to extend along a circumference; and a guide protrusion formed on a first surface of the cam member and adapted to move along the guide groove according to rotation of the cam member, characterized in that both ends of the guide protrusion have inclined outer walls, both ends of the guide groove have inclined inner walls, the guide protrusion is engaged with one of the inclined inner walls of the both ends of the guide groove, so as to limit a range of rotation of the cam member, and the guide protrusion is adapted to slide along the inclined inner walls of the guide groove when the guide protrusion collides with the inclined inner walls of the guide groove to reduce impact.
A system-on-chip, SoC, comprising: a hardware power-on-reset, POR, sequencer circuit coupled to a POR pin; a platform management unit, PMU, circuit, coupled to the hardware POR sequencer circuit, the PMU including one or more central processing units, CPUs, and a read only memory, ROM; random access memory, RAM; one or more circuit blocks; a first processing unit coupled to the ROM that stores BootROM code executable by the first processing unit to store a boot loader in the RAM; and a second processing unit (116, 118) configured to execute the boot loader stored in the RAM; wherein the hardware POR sequencer circuit is configured to initialize the PMU; and wherein the one or more CPUs of the PMU are configured to execute code stored in the ROM to perform a pre-boot initialization of the one or more circuit blocks prior to initialization of the first processing unit, the second processing unit (116, 118), and execution of the BootROM code by the first processing unit. a hardware power-on-reset, POR, sequencer circuit coupled to a POR pin; a platform management unit, PMU, circuit, coupled to the hardware POR sequencer circuit, the PMU including one or more central processing units, CPUs, and a read only memory, ROM; random access memory, RAM; one or more circuit blocks; a first processing unit coupled to the ROM that stores BootROM code executable by the first processing unit to store a boot loader in the RAM; and a second processing unit (116, 118) configured to execute the boot loader stored in the RAM; wherein the hardware POR sequencer circuit is configured to initialize the PMU; and wherein the one or more CPUs of the PMU are configured to execute code stored in the ROM to perform a pre-boot initialization of the one or more circuit blocks prior to initialization of the first processing unit, the second processing unit (116, 118), and execution of the BootROM code by the first processing unit.