mhurhangee/patent-ind-claim-en huggingface dataset:
A method for implementing network virtualization, comprising: receiving, by a software-defined network SDN controller, a virtual network creation request that carries virtual network topology information; creating, by the SDN controller, a virtual network, wherein the virtual network has a topology described by the virtual network topology information, and the virtual network comprises a first virtual forwarding device and a second virtual forwarding device; establishing, by the SDN controller , a device mapping relationship, wherein the device mapping relationship comprises a mapping relationship between the first virtual forwarding device and a first physical forwarding device in a physical network, and a mapping relationship between the second virtual forwarding device and a second physical forwarding device in the physical network; establishing, by the SDN controller, a port mapping relationship, wherein the port mapping relationship comprises a mapping relationship between a port of the first virtual forwarding device and a port of the first physical forwarding device, and a mapping relationship between a port of the second virtual forwarding device and a port of the second physical forwarding device; registering, by the SDN controller, the first virtual forwarding device and the second virtual forwarding device with a virtual SDN controller. receiving, by a software-defined network SDN controller, a virtual network creation request that carries virtual network topology information; creating, by the SDN controller, a virtual network, wherein the virtual network has a topology described by the virtual network topology information, and the virtual network comprises a first virtual forwarding device and a second virtual forwarding device; establishing, by the SDN controller , a device mapping relationship, wherein the device mapping relationship comprises a mapping relationship between the first virtual forwarding device and a first physical forwarding device in a physical network, and a mapping relationship between the second virtual forwarding device and a second physical forwarding device in the physical network; establishing, by the SDN controller, a port mapping relationship, wherein the port mapping relationship comprises a mapping relationship between a port of the first virtual forwarding device and a port of the first physical forwarding device, and a mapping relationship between a port of the second virtual forwarding device and a port of the second physical forwarding device; registering, by the SDN controller, the first virtual forwarding device and the second virtual forwarding device with a virtual SDN controller.
A test element analysis system for the analytical examination of a sample, comprising a measurement device , the measurement device comprising a test element receptacle for receiving at least one test element at least partially, wherein the test element receptacle comprises at least one first part and at least one second part , wherein the first part comprises at least one support surface for placement of the test element , wherein the second part comprises at least one optical detector for detecting at least one detection reaction of at least one test chemical contained in the test element , wherein the second part is movable relative to the first part , wherein the test element receptacle is configured to position the second part in at least one position such that a test element may be inserted into the test element receptacle and to subsequently position the second part in a closed position such that at least one abutment surface of the second part rests on the test element , wherein the test element analysis system further comprises at least one actuator for driving a relative movement of the first part and the second part , wherein the actuator is configured for performing a predetermined sequence of movements, sequentially bringing the second part into at least two positions, wherein the actuator is configured for stopping the movement in one of the at least two positions, respectively, the test element analysis system being characterized in that the actuator is configured to move the second part towards the first part and to decouple as soon as the second part rests on the test element , wherein due to the decoupling of the actuator a contact pressure is defined by a weight of the second part .
A rotary pump comprising: a housing defining an annular chamber with inlet and outlet ports spaced apart around the chamber, a flexible annular diaphragm forming one side of the chamber spaced opposite an annular wall of the housing, the diaphragm being sealed at its edges to the housing, a partition extending across the chamber from a location between the inlet and outlet ports to the diaphragm; wherein the diaphragm is configured to be pressed progressively against the opposite wall of the housing to force fluid drawn in at the inlet port on one side of the partition around the chamber and to expel it at the outlet port at the other side of the partition; characterised in that the outer face of the annular diaphragm has a trough at the part of the diaphragm which faces the inlet port and/or at the part of the diaphragm which faces the outlet port . a housing defining an annular chamber with inlet and outlet ports spaced apart around the chamber, a flexible annular diaphragm forming one side of the chamber spaced opposite an annular wall of the housing, the diaphragm being sealed at its edges to the housing, a partition extending across the chamber from a location between the inlet and outlet ports to the diaphragm; wherein the diaphragm is configured to be pressed progressively against the opposite wall of the housing to force fluid drawn in at the inlet port on one side of the partition around the chamber and to expel it at the outlet port at the other side of the partition; characterised in that the outer face of the annular diaphragm has a trough at the part of the diaphragm which faces the inlet port and/or at the part of the diaphragm which faces the outlet port .
An energy storage device , comprising: a housing comprising one or more side walls that define an internal volume , the side walls comprising, at least, a bottom side wall and a front side wall , the front side wall comprising an air inlet and an air outlet ; a plurality of cells arranged in a matrix within the internal volume atop the bottom side wall and defining a top surface ; an airflow distribution network configured with the air inlet and the air outlet , the airflow distribution network being at least partially sealed from the plurality of cells so as to reduce temperature variability across the cells when external air is provided through the air inlet ; a heater and at least one electrical insulation plate positioned on the top surface of the plurality of cells ; and a thermal spreader plate positioned between the heater and the at least one electrical insulation plate further comprising one or more strips of insulation material configured atop at least a portion of the airflow distribution network so as to insulate the airflow distribution network from the cells adjacent to the front side wall of the inner housing . a housing comprising one or more side walls that define an internal volume , the side walls comprising, at least, a bottom side wall and a front side wall , the front side wall comprising an air inlet and an air outlet ; a plurality of cells arranged in a matrix within the internal volume atop the bottom side wall and defining a top surface ; an airflow distribution network configured with the air inlet and the air outlet , the airflow distribution network being at least partially sealed from the plurality of cells so as to reduce temperature variability across the cells when external air is provided through the air inlet ; a heater and at least one electrical insulation plate positioned on the top surface of the plurality of cells ; and a thermal spreader plate positioned between the heater and the at least one electrical insulation plate further comprising one or more strips of insulation material configured atop at least a portion of the airflow distribution network so as to insulate the airflow distribution network from the cells adjacent to the front side wall of the inner housing .
A granulate formulation of 5-methyl-1-phenyl-2- -pyridone, comprising granules comprising: 5-methyl-1-phenyl-2- -pyridone and a glidant; and one or more extragranular excipients comprising an extragranular glidant.
A system comprising: a catheter navigable to a desired location within a patient; a lumen extending through the catheter and ending at the distal end of the catheter in an orifice; a fluid controller in fluid communication with the lumen of the catheter and operable to affect a dielectric constant of an area proximate the desired location by controlling fluid in the area proximate the desired location by supplying a fluid to or removing a fluid from the area proximate the desired location; a microwave energy source ; and a microwave ablation probe operably connected to the microwave energy source, the microwave ablation probe being navigable through the catheter to a desired location within the patient, the microwave ablation probe including a return lumen configured to return fluid supplied via the catheter; wherein the system is configured for the microwave ablation probe to spherically ablate tissue in the area proximate the desired location by applying energy from the microwave energy source to the microwave ablation probe in an area proximate the desired location having the affected dielectric constant. a catheter navigable to a desired location within a patient; a lumen extending through the catheter and ending at the distal end of the catheter in an orifice; a fluid controller in fluid communication with the lumen of the catheter and operable to affect a dielectric constant of an area proximate the desired location by controlling fluid in the area proximate the desired location by supplying a fluid to or removing a fluid from the area proximate the desired location; a microwave energy source ; and a microwave ablation probe operably connected to the microwave energy source, the microwave ablation probe being navigable through the catheter to a desired location within the patient, the microwave ablation probe including a return lumen configured to return fluid supplied via the catheter; wherein the system is configured for the microwave ablation probe to spherically ablate tissue in the area proximate the desired location by applying energy from the microwave energy source to the microwave ablation probe in an area proximate the desired location having the affected dielectric constant.
Device for locking and/or unlocking an access and/or drive authorization and/or for other services in a motor vehicle in the type of a keyless entry/go functionality, for a wireless remote control with a first device with a transmitter for arrangement in the motor vehicle and with an associated second device in the form of an electronic key , an ID-transponder, or a chip card, wherein the two devices have transmitters and/or receivers for electromagnetic signals for their intended operation and, wherein the transmitter of the first device for transmitting a first cyclically repeated signal for the activation of the second device with a first data protocol within a first transmission time interval (TXshort) and with a first cycle time, wherein the second device has a cyclically repeated receiving mode for a specific first receiving time interval (RX) of the second device , characterized in that this receiving time interval (RX) of the second device is longer than the first transmission time interval (TXshort) of the first data protocol of the first device and corresponds essentially to the first cycle time of the first device for activation of the second device and in that the first cycle time of the first device is 1 ms and the cycle time of the second device is substantially longer than the cycle time of the first device and is, for example, 1000 ms. with a first device with a transmitter for arrangement in the motor vehicle and with an associated second device in the form of an electronic key , an ID-transponder, or a chip card, wherein the two devices have transmitters and/or receivers for electromagnetic signals for their intended operation and, wherein the transmitter of the first device for transmitting a first cyclically repeated signal for the activation of the second device with a first data protocol within a first transmission time interval (TXshort) and with a first cycle time, wherein the second device has a cyclically repeated receiving mode for a specific first receiving time interval (RX) of the second device , characterized in that this receiving time interval (RX) of the second device is longer than the first transmission time interval (TXshort) of the first data protocol of the first device and corresponds essentially to the first cycle time of the first device for activation of the second device and in that the first cycle time of the first device is 1 ms and the cycle time of the second device is substantially longer than the cycle time of the first device and is, for example, 1000 ms.
An optical fiber ribbon , comprising: N pieces of optical fibers (11A....11X) in a state of being disposed in parallel, wherein at least some parts of the N pieces of optical fibers contact each other and are connected to each other by a resin, an outer diameter of the optical fiber is equal to or larger than 0.135 mm and equal to or smaller than 0.180 mm, a connection part connected by the resin and a non-connection part not connected by the resin by formation of a slit in the resin are intermittently provided in a longitudinal direction between intermittently connected core wires of an optical fiber disposed at the Mth and an optical fiber disposed at the (M+1)th among the N pieces of optical fibers, thereby to divide the N optical fibers into sets of M fibers, each set being without any non-connection part between the fibers, the N is a multiple of 12, and the M is a multiple of 4. N pieces of optical fibers (11A....11X) in a state of being disposed in parallel, wherein at least some parts of the N pieces of optical fibers contact each other and are connected to each other by a resin, an outer diameter of the optical fiber is equal to or larger than 0.135 mm and equal to or smaller than 0.180 mm, a connection part connected by the resin and a non-connection part not connected by the resin by formation of a slit in the resin are intermittently provided in a longitudinal direction between intermittently connected core wires of an optical fiber disposed at the Mth and an optical fiber disposed at the (M+1)th among the N pieces of optical fibers, thereby to divide the N optical fibers into sets of M fibers, each set being without any non-connection part between the fibers, the N is a multiple of 12, and the M is a multiple of 4.
A wireless communication method, comprising: receiving, by a user device and from a base station, information (S102) including 1) state indication information that indicates a target state of the user device, the target state being a second state in which power consumption is greater than power consumption in a first state, and 2) a frequency-domain resource information indicating a frequency-domain resource to be used by the user device to enter the target state; and performing, by the user device, an operation based on the information, and wherein the information further includes a first indication indicating whether additional information needs to be received by the user device, and wherein, responsive to the first indication indicating that the additional information needs to be received by the user device, the user device performs the operation to receive the additional information. receiving, by a user device and from a base station, information (S102) including 1) state indication information that indicates a target state of the user device, the target state being a second state in which power consumption is greater than power consumption in a first state, and 2) a frequency-domain resource information indicating a frequency-domain resource to be used by the user device to enter the target state; and performing, by the user device, an operation based on the information, and wherein the information further includes a first indication indicating whether additional information needs to be received by the user device, and wherein, responsive to the first indication indicating that the additional information needs to be received by the user device, the user device performs the operation to receive the additional information.
A composition, comprising: (i) a lipid particle, comprising one or more lipids conjugated to polyethylene glycol (PEG), wherein the PEG is present at a concentration between about 0.5 molar percent and about 20 molar percent; and (ii) mannose-1-phosphate encapsulated in the lipid particle. (i) a lipid particle, comprising one or more lipids conjugated to polyethylene glycol (PEG), wherein the PEG is present at a concentration between about 0.5 molar percent and about 20 molar percent; and (ii) mannose-1-phosphate encapsulated in the lipid particle.
An image capture device for capturing an image of barcodes of a plurality of test tubes held in a test tube rack , the plurality of test tubes each having an individual barcode thereon, the image capture device comprising: an enclosure comprising a transparent window for supporting the test tube rack to be imaged; and a plurality of stationary non-movable components, the plurality of stationary non-movable components comprising: at least one camera mounted within the enclosure for capturing an image of the barcodes; a lighting arrangement mounted within the enclosure, the lighting arrangement comprising at least one light source for illuminating the barcodes of the plurality of test tubes held in the test tube rack through the transparent window; an interface for outputting the captured image to a host computer ; characterized by a mirror in an optical path between the at least one camera and the transparent window, the mirror for relaying light rays reflecting from the barcodes of the plurality of test tubes held in the test tube rack to the at least one camera. an enclosure comprising a transparent window for supporting the test tube rack to be imaged; and a plurality of stationary non-movable components, the plurality of stationary non-movable components comprising: at least one camera mounted within the enclosure for capturing an image of the barcodes; a lighting arrangement mounted within the enclosure, the lighting arrangement comprising at least one light source for illuminating the barcodes of the plurality of test tubes held in the test tube rack through the transparent window; an interface for outputting the captured image to a host computer ; characterized by at least one camera mounted within the enclosure for capturing an image of the barcodes; a lighting arrangement mounted within the enclosure, the lighting arrangement comprising at least one light source for illuminating the barcodes of the plurality of test tubes held in the test tube rack through the transparent window; an interface for outputting the captured image to a host computer ; characterized by a mirror in an optical path between the at least one camera and the transparent window, the mirror for relaying light rays reflecting from the barcodes of the plurality of test tubes held in the test tube rack to the at least one camera.
An antenna system , comprising: a plurality of true time delay, TTD, modules , each TTD module comprising a plurality of switching elements configured to selectively define alternative RF signal transmission paths between a signal input of the TTD module and a signal output of the TTD module ; and a controller programmed to control the plurality of TTD modules to steer a beam by: closing a first pair of switching elements within at least a subset of the plurality of TTD modules to activate a first RF signal transmission path; and characterized by closing a second pair of switching elements of the subset of the plurality of TTD modules to activate a second RF signal transmission path, the second RF signal transmission path in parallel with the first RF transmission path; and opening the first pair of switching elements of the subset of TTD modules after closing the second pair of switching elements . a plurality of true time delay, TTD, modules , each TTD module comprising a plurality of switching elements configured to selectively define alternative RF signal transmission paths between a signal input of the TTD module and a signal output of the TTD module ; and a controller programmed to control the plurality of TTD modules to steer a beam by: closing a first pair of switching elements within at least a subset of the plurality of TTD modules to activate a first RF signal transmission path; and characterized by closing a second pair of switching elements of the subset of the plurality of TTD modules to activate a second RF signal transmission path, the second RF signal transmission path in parallel with the first RF transmission path; and opening the first pair of switching elements of the subset of TTD modules after closing the second pair of switching elements . closing a first pair of switching elements within at least a subset of the plurality of TTD modules to activate a first RF signal transmission path; and characterized by closing a second pair of switching elements of the subset of the plurality of TTD modules to activate a second RF signal transmission path, the second RF signal transmission path in parallel with the first RF transmission path; and opening the first pair of switching elements of the subset of TTD modules after closing the second pair of switching elements .
One or more computer-readable media storing computer-executable instructions that, when executed by one or more processors, instruct the one or more processors to perform steps comprising: receiving at a client device an instant message that includes link information associated with a transaction of an item; retrieving , at the client device from the link information, one or more parameters associated with the item based on the instant message; obtaining at the client device from a server item feature information and image layout strategy data, wherein the item feature information is associated with the item based on the one or more parameters; and generating at the client device an item information image based on the item feature information and the image layout strategy data. receiving at a client device an instant message that includes link information associated with a transaction of an item; retrieving , at the client device from the link information, one or more parameters associated with the item based on the instant message; obtaining at the client device from a server item feature information and image layout strategy data, wherein the item feature information is associated with the item based on the one or more parameters; and generating at the client device an item information image based on the item feature information and the image layout strategy data.