mhurhangee/ep-ind-claims huggingface dataset:
A method of packet processing, comprising: receiving a packet at one of a plurality of network ports (N1-N5) at a switch device, the one of the plurality of network ports (N1-N5) included in one of a plurality of network port groups (NG1, NG2); tagging the packet with a first identification including a group identification, the group identification based on the one of the plurality of network port groups (NG1, NG2) that includes the one of the plurality of network ports (N1-N5) at which the packet was received; tagging the packet with a second identification, wherein the second identification is different than the first identification; using a first table to determine a first set of output port identifications based at least in part on the first identification; using a second table to determine a second set of output port identifications based at least in part on the second identification; and performing a logical operation using the first set of output port identifications and the second set of output port identifications to identify one or more of a plurality of output ports at the switch device. receiving a packet at one of a plurality of network ports (N1-N5) at a switch device, the one of the plurality of network ports (N1-N5) included in one of a plurality of network port groups (NG1, NG2); tagging the packet with a first identification including a group identification, the group identification based on the one of the plurality of network port groups (NG1, NG2) that includes the one of the plurality of network ports (N1-N5) at which the packet was received; tagging the packet with a second identification, wherein the second identification is different than the first identification; using a first table to determine a first set of output port identifications based at least in part on the first identification; using a second table to determine a second set of output port identifications based at least in part on the second identification; and performing a logical operation using the first set of output port identifications and the second set of output port identifications to identify one or more of a plurality of output ports at the switch device.
Pouring element for a composite packaging, in particular for a beverage carton for liquid foodstuffs, comprising a basic body having a fastening flange and a pouring tube, a cutting element which is arranged and guided in the pouring tube and a closure cap which can be joined to the basic body, wherein during actuation for the first time, the cutting element can be driven by first drive means formed on the closure cap and by second drive means formed on the inner wall of the cutting element and wherein the movement of the cutting element follows different gradients, characterised in that the second drive means is configured as a rib extending obliquely to and thus includes an angle (α) with the longitudinal direction of the cutting element, in that the end face of the rib projects partly above its rib foot and in that the rib includes an acute valley angle (β) between the inner wall of the cutting element and the contact area of the rib on its drive-side rib foot.
A method comprising: receiving, by a digital assistant device, a biometric sample from a user; converting, by the digital assistant device, the biometric sample to a biometric template; scanning, by the digital assistant device, for user devices in communication range of the digital assistant device, thereby receiving user device identifiers; transmitting, by the digital assistant device to a server computer, an authentication request comprising the biometric template and a list of the user device identifiers; receiving, by the digital assistant device from the server computer, a cryptogram request message comprising a user device identifier of the user device identifiers; transmitting, by the digital assistant device to a user device corresponding to the user device identifier, the cryptogram request message; receiving, by the digital assistant device from the user device, a cryptogram; and transmitting, by the digital assistant device to the server computer, the cryptogram, wherein the server computer verifies the cryptogram before further processing of a transaction. receiving, by a digital assistant device, a biometric sample from a user; converting, by the digital assistant device, the biometric sample to a biometric template; scanning, by the digital assistant device, for user devices in communication range of the digital assistant device, thereby receiving user device identifiers; transmitting, by the digital assistant device to a server computer, an authentication request comprising the biometric template and a list of the user device identifiers; receiving, by the digital assistant device from the server computer, a cryptogram request message comprising a user device identifier of the user device identifiers; transmitting, by the digital assistant device to a user device corresponding to the user device identifier, the cryptogram request message; receiving, by the digital assistant device from the user device, a cryptogram; and transmitting, by the digital assistant device to the server computer, the cryptogram, wherein the server computer verifies the cryptogram before further processing of a transaction.
A refrigerator comprising: a cabinet defining a first storage area to store food; a door connected to the cabinet by first hinge members, so as to be rotatable about a first rotary shaft located at the front portion of the cabinet thereby opening or closing the first storage area; a gasket provided on the door; and a container defining a second storage area received in the first storage area, being rotatable by a second hinge member installed on the cabinet; a latch configured to combine the container with the door when both the door and the container are opened, and to release combination between the container and the door when the door alone is opened, wherein the second hinge member includes: a first link and a second link rotatably installed on the container; and a third link and a fourth link rotatably installed on the cabinet, wherein each of the first link and the second link is rotatably connected to at least one of the third link and the fourth link, wherein the gasket is in a rectangular shape corresponding to the rectangular shape of the door, and wherein the gasket is arranged to contact a front surface of the cabinet when the door closes the first storage area, so that the gasket prevents leakage of cool air from the first storage area. a cabinet defining a first storage area to store food; a door connected to the cabinet by first hinge members, so as to be rotatable about a first rotary shaft located at the front portion of the cabinet thereby opening or closing the first storage area; a gasket provided on the door; and a container defining a second storage area received in the first storage area, being rotatable by a second hinge member installed on the cabinet; a latch configured to combine the container with the door when both the door and the container are opened, and to release combination between the container and the door when the door alone is opened, wherein the second hinge member includes: a first link and a second link rotatably installed on the container; and a third link and a fourth link rotatably installed on the cabinet, wherein each of the first link and the second link is rotatably connected to at least one of the third link and the fourth link, wherein the gasket is in a rectangular shape corresponding to the rectangular shape of the door, and wherein the gasket is arranged to contact a front surface of the cabinet when the door closes the first storage area, so that the gasket prevents leakage of cool air from the first storage area. a first link and a second link rotatably installed on the container; and a third link and a fourth link rotatably installed on the cabinet, wherein each of the first link and the second link is rotatably connected to at least one of the third link and the fourth link, wherein the gasket is in a rectangular shape corresponding to the rectangular shape of the door, and wherein the gasket is arranged to contact a front surface of the cabinet when the door closes the first storage area, so that the gasket prevents leakage of cool air from the first storage area.
A spindle device configured for attachment to a machine tool and configured for rotating a tool or a workpiece, the spindle device comprising: a spindle for supporting the tool or the workpiece; a spindle motor for rotating the spindle; a rolling bearing (16a, 16b) having an inner ring, rolling elements, and an outer ring, the inner ring supporting the spindle; a bearing support part for securing the outer ring of the rolling bearing, wherein the bearing support part is formed of a material having a thermal expansion coefficient larger than that of the spindle, wherein the bearing support part has a first flow path (21, 22, 23) through which a first coolant flows, the first flow path (21, 22, 23) being disposed on the side of the outer ring of the rolling bearing (16a, 16b); a first coolant supply device for supplying a first coolant to the bearing support part, the first coolant supply device being configured to adjust the temperature of the first coolant and being further configured to supply the first coolant to the first flow path (21, 22, 23); characterised by a controller for controlling the first coolant supply device, the controller being configured to perform a first control for maintaining the temperature of the first coolant constant when a rotational speed of the spindle motor is equal to or less than a predetermined determination value (Nt), and being further configured to perform a second control for increasing the temperature of the first coolant as the rotational speed of the spindle motor increases when the rotational speed of the spindle motor is greater than the determination value (Nt). a spindle for supporting the tool or the workpiece; a spindle motor for rotating the spindle; a rolling bearing (16a, 16b) having an inner ring, rolling elements, and an outer ring, the inner ring supporting the spindle; a bearing support part for securing the outer ring of the rolling bearing, wherein the bearing support part is formed of a material having a thermal expansion coefficient larger than that of the spindle, wherein the bearing support part has a first flow path (21, 22, 23) through which a first coolant flows, the first flow path (21, 22, 23) being disposed on the side of the outer ring of the rolling bearing (16a, 16b); a first coolant supply device for supplying a first coolant to the bearing support part, the first coolant supply device being configured to adjust the temperature of the first coolant and being further configured to supply the first coolant to the first flow path (21, 22, 23); characterised by a controller for controlling the first coolant supply device, the controller being configured to perform a first control for maintaining the temperature of the first coolant constant when a rotational speed of the spindle motor is equal to or less than a predetermined determination value (Nt), and being further configured to perform a second control for increasing the temperature of the first coolant as the rotational speed of the spindle motor increases when the rotational speed of the spindle motor is greater than the determination value (Nt).
A method performed by a base station, BS, in a wireless communication system, the method comprising: transmitting a synchronization signal/physical broadcast channel block, SSB; transmitting a first channel state information-reference signal, CSI-RS, for a first control resource set, CORESET; transmitting a second CSI-RS for a second CORESET; and i) based on an overlap between physical downlink control channel, PDCCH, monitoring occasions of a user equipment, UE, in the first CORESET and the second CORESET and ii) based on the first CSI-RS for the first CORESET and the second CSI-RS for the second CORESET being related with the SSB: transmitting at least one control signal through at least one PDCCH in the overlapping PDCCH monitoring occasions in the first CORESET and the second CORESET. transmitting a synchronization signal/physical broadcast channel block, SSB; transmitting a first channel state information-reference signal, CSI-RS, for a first control resource set, CORESET; transmitting a second CSI-RS for a second CORESET; and i) based on an overlap between physical downlink control channel, PDCCH, monitoring occasions of a user equipment, UE, in the first CORESET and the second CORESET and ii) based on the first CSI-RS for the first CORESET and the second CSI-RS for the second CORESET being related with the SSB: transmitting at least one control signal through at least one PDCCH in the overlapping PDCCH monitoring occasions in the first CORESET and the second CORESET.
A hopper railway car with an undercarriage mounted in a swivelling manner on two-axle trailer bogies and with two truss loading platforms mounted in a swivelling manner on an undercarriage in one pivoting axis extending parallel to the longitudinal axis of the railway car, while between the undercarriage and the loading platforms of the railway car, a pivoting rotation mechanisms and actuators for the platforms inclining are located, characterized in that it contains: - two pairs of rectangular swingarms to incline each loading platform, installed between a backbone beam of the railway car undercarriage and transverse beams of the loading platform, along with a blocking mechanism of the inclined position of the platform in transportation mode, - two rotary cranes with a vertical rotation axis, mounted via bases on the undercarriage of the railway car in a transition zone between the backbone beam and a swivel beam, along with a mechanical lock of transverse position of the crane in the transport mode, - two pairs of extensible and rotating support legs installed at the bases of cranes, along with a mechanical blocking of the vertical position of reversed support legs in the transport mode, - two power unit cabinets, comprising a motor and hydraulic equipment for each crane, installed on the swivel beam between end sill and the base of the crane, - two brake actuators, mounted on the side of the backbone beam on the heel side of the railway car, with a brake lever inserted into the centre of the backbone beam through a side opening, - two ballast boxes installed under the loading platforms on the side of the backbone beam on the heel side of the railway car between a plates of horizontal bumpers. - two pairs of rectangular swingarms to incline each loading platform, installed between a backbone beam of the railway car undercarriage and transverse beams of the loading platform, along with a blocking mechanism of the inclined position of the platform in transportation mode, - two rotary cranes with a vertical rotation axis, mounted via bases on the undercarriage of the railway car in a transition zone between the backbone beam and a swivel beam, along with a mechanical lock of transverse position of the crane in the transport mode, - two pairs of extensible and rotating support legs installed at the bases of cranes, along with a mechanical blocking of the vertical position of reversed support legs in the transport mode, - two power unit cabinets, comprising a motor and hydraulic equipment for each crane, installed on the swivel beam between end sill and the base of the crane, - two brake actuators, mounted on the side of the backbone beam on the heel side of the railway car, with a brake lever inserted into the centre of the backbone beam through a side opening, - two ballast boxes installed under the loading platforms on the side of the backbone beam on the heel side of the railway car between a plates of horizontal bumpers.
A method for reducing latency within a digital media system (100, 200), said system further comprising a set of servers (102, 214, 216), at least one of said servers further comprising a buffer and said servers receiving digital data from a set of end points (104, 106, 108, 110, 112, 204, 206, 208, 210, 212), the steps of said method comprising: determining at least one end point as dominant; indicating said digital data from said dominant end point is preferred; mixing (214a, 216a) synchronous digital data from end points not determined as dominant; putting the synchronous digital data in a queue; and forwarding said preferred digital data from said dominant end point asynchronously, characterized in that said forwarding comprising forwarding said preferred digital data from said dominant end point outside of the queue. determining at least one end point as dominant; indicating said digital data from said dominant end point is preferred; mixing (214a, 216a) synchronous digital data from end points not determined as dominant; putting the synchronous digital data in a queue; and forwarding said preferred digital data from said dominant end point asynchronously, characterized in that said forwarding comprising forwarding said preferred digital data from said dominant end point outside of the queue.
A centrifugal microfluidic disc comprising: - an inlet reservoir; - at least one inlet channel; - at least one sample chamber for growth and in vitro studies of microorganisms; - at least one effluent channel; and - an outlet reservoir; wherein the microfluidic disc is configured for engaging with a rotatable platform or a motor for spinning the microfluidic disc, and wherein the disc is configured such that during rotation of the disc, liquid in the inlet reservoir will be centrifugally forced outwards such that liquid can be controllably transferred from the inlet reservoir to the outlet reservoir via 1) the inlet channel, 2) the sample chamber and 3) the effluent channel, wherein the geometry of the inlet reservoir resembles an arc of a first circle and the outlet reservoir resembles an arc of a second circle, wherein the center of the first and second circles are located at the center of the disc and wherein the volume of the inlet reservoir is at least 1 mL. - an inlet reservoir; - at least one inlet channel; - at least one sample chamber for growth and in vitro studies of microorganisms; - at least one effluent channel; and - an outlet reservoir;
A method of generating a soft schedule for the transmission of data to a User Equipment, UE, comprising: receiving traffic to be scheduled for transmission; generating a soft schedule for the transmission of the received data in accordance with a resource allocation and the received traffic; transmitting the soft schedule to a scheduler in an underlying network slice, for the transmission of the received data to the UE; the method further comprising buffering a portion of the received traffic in accordance with an indication that the portion cannot be scheduled for transmission in a current transmission window; wherein the soft schedule is generated in accordance with traffic demands associated with a buffered portion of traffic received in a previous transmission window. receiving traffic to be scheduled for transmission; generating a soft schedule for the transmission of the received data in accordance with a resource allocation and the received traffic; transmitting the soft schedule to a scheduler in an underlying network slice, for the transmission of the received data to the UE;
A secondary battery, comprising: a positive electrode; a negative electrode; and an electrolyte liquid, wherein the electrolyte liquid includes: a solvent containing water; and a lithium salt, the negative electrode has a negative electrode active material including a carbon material, the carbon material has a peak intensity ratio of a D band to a G band (D/G value) of 0.9 to 1.5 in a Raman spectrum obtained by Raman spectroscopy, the carbon material has a coating formed on a surface thereof, and in an XPS spectrum measured by X-ray photoelectron spectroscopy, when an intensity of a peak appearing near a bond energy of 685 eV and corresponding to a 1s electron orbital of a F atom is defined as P1, and an intensity of a peak appearing near a bond energy of 532 eV and corresponding to a 1s electron orbital of an O atom is defined as P2, the coating has a ratio of the peak intensity P1 to the peak intensity P2 (P1/P2 value) of 0.5 to 3.0. a positive electrode; a negative electrode; and an electrolyte liquid, the electrolyte liquid includes: a solvent containing water; and a lithium salt, the negative electrode has a negative electrode active material including a carbon material, the carbon material has a peak intensity ratio of a D band to a G band (D/G value) of 0.9 to 1.5 in a Raman spectrum obtained by Raman spectroscopy, the carbon material has a coating formed on a surface thereof, and in an XPS spectrum measured by X-ray photoelectron spectroscopy, when an intensity of a peak appearing near a bond energy of 685 eV and corresponding to a 1s electron orbital of a F atom is defined as P1, and an intensity of a peak appearing near a bond energy of 532 eV and corresponding to a 1s electron orbital of an O atom is defined as P2, the coating has a ratio of the peak intensity P1 to the peak intensity P2 (P1/P2 value) of 0.5 to 3.0.
A method performed by a first user equipment to cancel co-channel interference in coordination with a second user equipment, the method comprising the first user equipment: receiving a first downlink transmission from a first base station; receiving, from the second user equipment, first information regarding a second downlink transmission from a second base station to the second user equipment, the first information including I/Q samples of the second downlink transmission as demodulated; receiving second information from the first base station regarding scheduling of the second downlink transmission, the second information indicating Multiple Input Multiple Output modes and modulation modes at different points in time; based on the received first information and second information, modeling interference from the second downlink transmission to the reception of the first downlink transmission at the first user equipment; and based on the modeling of the interference, canceling the co-channel interference to the received first downlink transmission from the second downlink transmission. receiving a first downlink transmission from a first base station; receiving, from the second user equipment, first information regarding a second downlink transmission from a second base station to the second user equipment, the first information including I/Q samples of the second downlink transmission as demodulated; receiving second information from the first base station regarding scheduling of the second downlink transmission, the second information indicating Multiple Input Multiple Output modes and modulation modes at different points in time; based on the received first information and second information, modeling interference from the second downlink transmission to the reception of the first downlink transmission at the first user equipment; and based on the modeling of the interference, canceling the co-channel interference to the received first downlink transmission from the second downlink transmission.