mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communications by a network entity, comprising: scheduling, via a first component carrier, CC, having a first numerology, a user equipment, UE, for at least one downlink transmission in the first CC and at least one downlink transmission in a second CC having a second numerology, wherein for the downlink transmission scheduled in the second CC by the first CC, while the first CC having a larger subcarrier spacing, SCS, than the second CC, cross-carrier grants may not necessarily be enabled in every slot and, while the first CC has a smaller SCS than the second CC, one slot on the first CC may schedule two or more slots on the second CC, wherein via separate grants two or more downlink control information, DCI, messages are used for the two or more slots and wherein the grants for the two or more slots are differentiated by a cross-slot indication provided in DCI; receiving, from the UE, uplink control information, UCI, in one of the first or second CCs carrying feedback for the downlink transmissions in both the first and second CCs, wherein the UCI comprises acknowledgement information bundled as a single acknowledgement or negative acknowledgement per transport block over multiple time slots; and providing a downlink assignment index, DAI, for each of the downlink transmissions, wherein DAIs are assigned to the downlink transmissions in a time-first, frequency-second manner. scheduling, via a first component carrier, CC, having a first numerology, a user equipment, UE, for at least one downlink transmission in the first CC and at least one downlink transmission in a second CC having a second numerology, wherein for the downlink transmission scheduled in the second CC by the first CC, while the first CC having a larger subcarrier spacing, SCS, than the second CC, cross-carrier grants may not necessarily be enabled in every slot and, while the first CC has a smaller SCS than the second CC, one slot on the first CC may schedule two or more slots on the second CC, wherein via separate grants two or more downlink control information, DCI, messages are used for the two or more slots and wherein the grants for the two or more slots are differentiated by a cross-slot indication provided in DCI; receiving, from the UE, uplink control information, UCI, in one of the first or second CCs carrying feedback for the downlink transmissions in both the first and second CCs, wherein the UCI comprises acknowledgement information bundled as a single acknowledgement or negative acknowledgement per transport block over multiple time slots; and providing a downlink assignment index, DAI, for each of the downlink transmissions, wherein DAIs are assigned to the downlink transmissions in a time-first, frequency-second manner.
An apparatus for reactive distillation of a mixture of hydrogen and carbon monoxide to hydrocarbons comprising: a column comprising at least one combined distillation and reaction zone comprising a catalyst zone and a non-catalyst zone; the catalyst zone comprising a perforated vapour channel loading tube in the column comprising catalyst loaded within the tube; and a tray configuration that allows for both liquid and vapour contact with the catalyst within the catalyst zone, further comprising at least one sieve tray and/or at least one valve tray, wherein the or each tray comprises a weir, wherein the weir of the or each tray has a weir height which defines a maximum liquid height of a liquid retained on the or each tray, wherein said weir height is adjustable, and wherein the weir is disposed between the inside and the outside of the vapour channel, configured to allow an excess of the liquid retained on the or each tray to flow over the weir and into the vapour channel loading tube. a column comprising at least one combined distillation and reaction zone comprising a catalyst zone and a non-catalyst zone; the catalyst zone comprising a perforated vapour channel loading tube in the column comprising catalyst loaded within the tube; and a tray configuration that allows for both liquid and vapour contact with the catalyst within the catalyst zone, further comprising at least one sieve tray and/or at least one valve tray, wherein the or each tray comprises a weir, wherein the weir of the or each tray has a weir height which defines a maximum liquid height of a liquid retained on the or each tray, wherein said weir height is adjustable, and wherein the weir is disposed between the inside and the outside of the vapour channel, configured to allow an excess of the liquid retained on the or each tray to flow over the weir and into the vapour channel loading tube.
Process for manufacturing a steel Yankee cylinder, comprising the following steps: a.) Cutting and curling the individual shell plates; b.) Welding the shell plates together to form two or more cylinder sections (8, 9, 10); c.) Mechanical lathing of the individual cylinder sections (8, 9, 10) on the inside (15, 16), and on the face ends; d.) Welding the individual cylinder sections (8, 9, 10) together to form a complete cylinder shell of the Yankee cylinder, where the inside of the cylinder sections (8, 9, 10) is largely finish machined before the cylinder sections (8, 9, 10) are welded together to form a complete cylinder shell and only the inner weld seam formed in step d.) is re-machined if need be. a.) Cutting and curling the individual shell plates; b.) Welding the shell plates together to form two or more cylinder sections (8, 9, 10); c.) Mechanical lathing of the individual cylinder sections (8, 9, 10) on the inside (15, 16), and on the face ends; d.) Welding the individual cylinder sections (8, 9, 10) together to form a complete cylinder shell of the Yankee cylinder,
Moulding tool for shaping or forming a workpiece, having at least one tool part which has a shaping tool working surface and a temperature control apparatus which is arranged at least in regions below this tool working surface and has at least one temperature control channel, characterised in that the temperature control apparatus is formed by a hollow fibre textile.
Centrifugal spreader for pourable material, in particular fertilizer, with a storage container having at least one adjustable discharge opening, and a guide element which extends said discharge opening downwards and is similar to a discharge shaft, out of which the material to be spread emerges in a downward flow in the manner of a jet, and with a centrifugal disc which rotates thereunder about an axis arranged offset discharge opening to the guide element, said centrifugal disc having at least one thrower blade which extends over the entire radial extent of the spreading material jet in the direction towards the circumference of the centrifugal disc, the guide element ending close to the top side of the said thrower blade, wherein the discharge opening is intended to be closed, and the opening width thereof to be adjusted by means of a metering slide, wherein the guide walls (12, 14) adjoining the region of the guide wall of the guide element, which guide wall is assigned to the metering edge, have a contour profile at least approximately adapted to the contour profile of the side region of the discharge opening, characterized in that the guide element is arranged on the metering slide and has guide walls, wherein the guide wall assigned to the metering edge of the metering slide at least approximately has the contour of the metering edge of the metering slide.
Method for diagnosing batteries, characterized in that it comprises the stages of: - measuring the voltage of a module comprising a group of individual cells to check if an internal short circuit has occurred between any of the plates forming part of each cell of the module so that said module can be discarded as it is defective; - in case the module is not defective, measuring the impedance of the module; - correcting the value of the impedance of the module by means of applying a correction algorithm for correcting said impedance with the temperature; and - applying a second algorithm to the impedance corrected by means of the previous stage such that the effect that the ageing of the batteries has on said corrected impedance is taken into account; and comparing the value of the corrected impedance taking into account the temperature and the ageing of the battery previously obtained in the previous stages with an upper limit and performing the diagnosis of "usable - non-usable" according to whether or not said value of the impedance is greater than the mentioned upper limit. - measuring the voltage of a module comprising a group of individual cells to check if an internal short circuit has occurred between any of the plates forming part of each cell of the module so that said module can be discarded as it is defective; - in case the module is not defective, measuring the impedance of the module; - correcting the value of the impedance of the module by means of applying a correction algorithm for correcting said impedance with the temperature; and - applying a second algorithm to the impedance corrected by means of the previous stage such that the effect that the ageing of the batteries has on said corrected impedance is taken into account; and
Cryogenic container (300a, 300b) comprising an inner container, an outer container, an evacuable intermediate space between the inner container and the outer container, and at least one fluid distributor container (100, 200) having an inner space (120, 220) which extends from a wall of the inner container into the intermediate space, is arranged at least in part within the intermediate space, and is fluidically connected to the inner container, the inner space (120, 220) of the fluid distributor container (100, 200) being delimited by means of a wall (121, 221) having a curved portion (101, 201), the wall (121, 221) having a plurality of openings (111, 112, 113, 211, 212, 213) which are designed for the connection of at least one line (311, 312, 313), characterized in that a wall thickness of the wall (121, 221) at least one point is less than 90% of a wall thickness of the inner container.
A device for electroporating and delivering one or more antigens, the device comprising: a housing; a pulse generator (116,118); a programmable microcontroller electrically coupled to the pulse generator (116,118); and an electrical power source coupled to the pulse generator (116,118) and the microcontroller; characterized in that: the device further comprises at least two electrode arrays (106,108) projecting from the housing, the electrode arrays defining spatially separate sites, each electrode array including at least one electrode; the pulse generator (116,118) is electrically coupled to the electrodes, and the electrodes are configured to deliver an electroporating pulse to cells of epidermal tissues; and the microcontroller is configured to adjust parameters of the electroporating pulse of each electrode array (106,108) independently. a housing; a pulse generator (116,118); a programmable microcontroller electrically coupled to the pulse generator (116,118); and an electrical power source coupled to the pulse generator (116,118) and the microcontroller; characterized in that: the device further comprises at least two electrode arrays (106,108) projecting from the housing, the electrode arrays defining spatially separate sites, each electrode array including at least one electrode; the pulse generator (116,118) is electrically coupled to the electrodes, and the electrodes are configured to deliver an electroporating pulse to cells of epidermal tissues; and the microcontroller is configured to adjust parameters of the electroporating pulse of each electrode array (106,108) independently. the device further comprises at least two electrode arrays (106,108) projecting from the housing, the electrode arrays defining spatially separate sites, each electrode array including at least one electrode; the pulse generator (116,118) is electrically coupled to the electrodes, and the electrodes are configured to deliver an electroporating pulse to cells of epidermal tissues; and the microcontroller is configured to adjust parameters of the electroporating pulse of each electrode array (106,108) independently.
An internal combustion engine, comprising: an intake manifold; a plurality of jumper tubes coupled to the intake manifold and at least one cylinder head, the plurality of jumper tubes each having a passageway, and a central axis; characterized in that at least one of the plurality of jumper tubes further includes at least a fin portion (518, 519, 526, 532, 544) and a rib portion (536, 542), wherein the fin portion (518, 519, 526, 532, 544) traverses a distance between two points along the interior surface of the jumper tube to define a first transverse airflow passage (522, 538) and a second transverse airflow passage (524, 540), the rib portion (536, 542) extending partially inwardly from the interior surface of the jumper tube within the passageway. an intake manifold; a plurality of jumper tubes coupled to the intake manifold and at least one cylinder head, the plurality of jumper tubes each having a passageway, and a central axis; characterized in that at least one of the plurality of jumper tubes further includes at least a fin portion (518, 519, 526, 532, 544) and a rib portion (536, 542), wherein the fin portion (518, 519, 526, 532, 544) traverses a distance between two points along the interior surface of the jumper tube to define a first transverse airflow passage (522, 538) and a second transverse airflow passage (524, 540), the rib portion (536, 542) extending partially inwardly from the interior surface of the jumper tube within the passageway.
A system on a chip, SoC, comprising: a processor; memory coupled to the processor; link protection circuitry coupled to the memory, the link protection circuitry comprising an SoC encryption engine to: receive first data from the memory and a first key; generate, by an SoC encryption counter of the SoC encryption engine, an SoC encryption counter value; encrypt the first data using the SoC encryption counter value and the first key to generate first encrypted data; and cause the first encrypted data to be transmitted to a device comprising a device decryption counter, synchronized with the SoC encryption counter; the link protection circuitry is further characterized to generate a first message authentication code, MAC, using the first key; and the link protection circuitry further comprising a header insertion logic to: generate a trusted input/output, IO, transaction layer packet, TLP, header to carry the first MAC to the device for verifying authenticity of the first encrypted data; and add the trusted IO TLP header to the first encrypted data to maintain order of the first encrypted data among instances of encrypted data transmitted by the SoC. a processor; memory coupled to the processor; link protection circuitry coupled to the memory, the link protection circuitry comprising an SoC encryption engine to: receive first data from the memory and a first key; generate, by an SoC encryption counter of the SoC encryption engine, an SoC encryption counter value; encrypt the first data using the SoC encryption counter value and the first key to generate first encrypted data; and cause the first encrypted data to be transmitted to a device comprising a device decryption counter, synchronized with the SoC encryption counter; the link protection circuitry receive first data from the memory and a first key; generate, by an SoC encryption counter of the SoC encryption engine, an SoC encryption counter value; encrypt the first data using the SoC encryption counter value and the first key to generate first encrypted data; and cause the first encrypted data to be transmitted to a device comprising a device decryption counter, synchronized with the SoC encryption counter; the link protection circuitry is further characterized to generate a first message authentication code, MAC, using the first key; and the link protection circuitry further comprising a header insertion logic to: generate a trusted input/output, IO, transaction layer packet, TLP, header to carry the first MAC to the device for verifying authenticity of the first encrypted data; and add the trusted IO TLP header to the first encrypted data to maintain order of the first encrypted data among instances of encrypted data transmitted by the SoC. generate a trusted input/output, IO, transaction layer packet, TLP, header to carry the first MAC to the device for verifying authenticity of the first encrypted data; and add the trusted IO TLP header to the first encrypted data to maintain order of the first encrypted data among instances of encrypted data transmitted by the SoC.
An in vitro method for determining whether a test compound affects β-amyloid aggregation, comprising contacting a cell that comprises β-amyloid with the test compound, obtaining a visible near infrared (VNIR) hyperspectral image of the cell over a range of wavelengths from 400 nm to 2500 nm to obtain a HSI spectrum, and determining whether the HSI spectrum indicates that the test compound affects β-amyloid aggregation, wherein a decrease in β-amyloid aggregation indicates that the test compound is an inhibitor of β-amyloid aggregation, wherein the method is non-invasive and does not require administration of external dyes/reagents for detection of β-amyloid plaques.
A finger-mounted device configured to be worn on a finger of a user and configured to control a head-mounted device, comprising: a housing configured to be placed over a tip of the finger; force sensors (18, 46) coupled to sidewalls of the housing that measure forces exerted by the finger on the housing when the user presses the finger against a surface with the housing being placed over the tip of the finger, and wherein the force sensors (18, 46) are configured to sense lateral movement of the finger in the X-Y plane while the user presses the finger against the surface; a haptic output device; control circuitry configured to gather input from the force sensors as the finger moves and configured to provide haptic output to the finger using the haptic output device; and power receiving circuitry configured to receive power from an external power source in the head-mounted device, wherein the power receiving circuitry includes a coil configured to receive wireless power signals transmitted by the external power source while the finger-mounted device is temporarily coupled to the head-mounted device; and a battery configured to be charged with the received power. a housing configured to be placed over a tip of the finger; force sensors (18, 46) coupled to sidewalls of the housing that measure forces exerted by the finger on the housing when the user presses the finger against a surface with the housing being placed over the tip of the finger, and wherein the force sensors (18, 46) are configured to sense lateral movement of the finger in the X-Y plane while the user presses the finger against the surface; a haptic output device; control circuitry configured to gather input from the force sensors as the finger moves and configured to provide haptic output to the finger using the haptic output device; and power receiving circuitry configured to receive power from an external power source in the head-mounted device, wherein the power receiving circuitry includes a coil configured to receive wireless power signals transmitted by the external power source while the finger-mounted device is temporarily coupled to the head-mounted device; and a battery configured to be charged with the received power.
A method of building a tire in which, when layering and wrapping a plurality of strip-shaped rubber members around a building drum to form a cylindrical shape, an outer circumferential side strip-shaped rubber member wrapped around a relatively outer circumferential side of the building drum is layered on an inner circumferential side strip-shaped rubber member wrapped around a relatively inner circumferential side of the building drum such that the outer circumferential side strip-shaped rubber member projects in a drum width direction, and longitudinal direction end portions of the outer circumferential side strip-shaped rubber member that are inclined relative to the drum width direction when viewed in a front view are bonded together, the method 2. characterised by comprising: when bonding the longitudinal direction end portions together, supporting inner circumferential surfaces of projecting parts of the longitudinal direction end portions projecting relative to the inner circumferential side strip-shaped rubber member in the drum width direction; positioning the inner circumferential surfaces at a level of an outer circumferential surface of the inner circumferential side strip-shaped rubber member; and pressing the projecting parts in the drum width direction to bond the longitudinal direction end portions together. supporting inner circumferential surfaces of projecting parts of the longitudinal direction end portions projecting relative to the inner circumferential side strip-shaped rubber member in the drum width direction; positioning the inner circumferential surfaces at a level of an outer circumferential surface of the inner circumferential side strip-shaped rubber member; and pressing the projecting parts in the drum width direction to bond the longitudinal direction end portions together.
A method for holding calls which are established between an IP Multimedia Subsystem, IMS, network and a Circuit Switched, CS, network, wherein the method comprises: receiving, by an IMS Centralized Service, ICS, Application Server, AS, in the IMS network through an Serving Call Session Control Function, S-CSCF, a call hold request sent by an IMS Centralized Service, ICS, User Equipment, UE, ICS UE, in the Circuit Switched, CS, network, wherein the call hold request carries an indication that the ICS UE in the CS network will continue sending media streams to a peer User Equipment, UE, peer UE, and instructing, by the ICS AS in the IMS network through the S-CSCF, the peer UE to keep receiving media streams from the ICS UE in the CS network and stop sending media streams; wherein after the ICS UE in the CS network sends the call hold request, the method further comprises: sustaining a CS network channel, wherein sustaining a CS network channel comprises: receiving, by the ICS UE in the CS network, media streams and stopping decoding the received media streams; and sending, by the ICS UE in the CS network, media streams to the peer UE. receiving, by an IMS Centralized Service, ICS, Application Server, AS, in the IMS network through an Serving Call Session Control Function, S-CSCF, a call hold request sent by an IMS Centralized Service, ICS, User Equipment, UE, ICS UE, in the Circuit Switched, CS, network, wherein the call hold request carries an indication that the ICS UE in the CS network will continue sending media streams to a peer User Equipment, UE, peer UE, and instructing, by the ICS AS in the IMS network through the S-CSCF, the peer UE to keep receiving media streams from the ICS UE in the CS network and stop sending media streams; wherein after the ICS UE in the CS network sends the call hold request, the method further comprises: sustaining a CS network channel, wherein sustaining a CS network channel comprises: receiving, by the ICS UE in the CS network, media streams and stopping decoding the received media streams; and sending, by the ICS UE in the CS network, media streams to the peer UE. receiving, by the ICS UE in the CS network, media streams and stopping decoding the received media streams; and sending, by the ICS UE in the CS network, media streams to the peer UE.