mhurhangee/ep-ind-claims huggingface dataset:
A method of sending a packet, comprising: querying, by a first Non-Uniform Memory Architecture, NUMA, node on a network device, a forwarding table based on a destination IP address of a packet to be forwarded to obtain a plurality of egress interfaces corresponding to the destination IP address; for each of the plurality of egress interfaces, obtaining, by the first NUMA node, node information of a second NUMA node to which the egress interface belongs, determining, by the first NUMA node, that the egress interface is on the first NUMA node when the node information of the second NUMA node is the same as the node information of the first NUMA node, wherein the second NUMA node is on the network device; and sending, by the first NUMA node, the packet via an egress interface which belongs to the first NUMA node and is in the plurality of egress interfaces; and selecting, by the first NUMA node, an egress interface on the second NUMA node from the plurality of egress interfaces, when the node information of the second NUMA node to which the egress interface belongs is different from the node information of the first NUMA node for all interfaces, such that the packet is sent via the selected egress interface. querying, by a first Non-Uniform Memory Architecture, NUMA, node on a network device, a forwarding table based on a destination IP address of a packet to be forwarded to obtain a plurality of egress interfaces corresponding to the destination IP address; for each of the plurality of egress interfaces, obtaining, by the first NUMA node, node information of a second NUMA node to which the egress interface belongs, determining, by the first NUMA node, that the egress interface is on the first NUMA node when the node information of the second NUMA node is the same as the node information of the first NUMA node, wherein the second NUMA node is on the network device; and sending, by the first NUMA node, the packet via an egress interface which belongs to the first NUMA node and is in the plurality of egress interfaces; and obtaining, by the first NUMA node, node information of a second NUMA node to which the egress interface belongs, determining, by the first NUMA node, that the egress interface is on the first NUMA node when the node information of the second NUMA node is the same as the node information of the first NUMA node, wherein the second NUMA node is on the network device; and sending, by the first NUMA node, the packet via an egress interface which belongs to the first NUMA node and is in the plurality of egress interfaces; and selecting, by the first NUMA node, an egress interface on the second NUMA node from the plurality of egress interfaces, when the node information of the second NUMA node to which the egress interface belongs is different from the node information of the first NUMA node for all interfaces, such that the packet is sent via the selected egress interface.
Sensor system including a calculating unit for a road finishing machine for calculating material consumption as well as at least one sensor for determining the filling level (24a, 24b, 24c) in the area of the plank and/or at least one sensor for determining the filling level (24a, 24b, 24c) in the area of the bucket and/or at least one sensor for determining the plank width; wherein the calculating unit is configured to calculate a continuous material flow based on a difference between delivery amount and residual filling amount in the road finishing machine related to a distance travelled and/or an applied area; wherein the residual filling amount is calculated based on the sum over material volume in the tunnel of the road finishing machine, wherein the material volume in the tunnel is calculated based on the known geometry of the tunnel of the road finishing machine; material volume in the area of the plank of the road finishing machine, wherein the material volume in the area of the plank is calculated based on a determined plank width and a determined filling level; and material volume in the bucket of the road finishing machine, wherein the material volume in the bucket is calculated based on a known bucket dimension and a determined filling level. wherein the calculating unit is configured to calculate a continuous material flow based on a difference between delivery amount and residual filling amount in the road finishing machine related to a distance travelled and/or an applied area; wherein the residual filling amount is calculated based on the sum over material volume in the tunnel of the road finishing machine, wherein the material volume in the tunnel is calculated based on the known geometry of the tunnel of the road finishing machine; material volume in the area of the plank of the road finishing machine, wherein the material volume in the area of the plank is calculated based on a determined plank width and a determined filling level; and material volume in the bucket of the road finishing machine, wherein the material volume in the bucket is calculated based on a known bucket dimension and a determined filling level. material volume in the tunnel of the road finishing machine, wherein the material volume in the tunnel is calculated based on the known geometry of the tunnel of the road finishing machine; material volume in the area of the plank of the road finishing machine, wherein the material volume in the area of the plank is calculated based on a determined plank width and a determined filling level; and material volume in the bucket of the road finishing machine, wherein the material volume in the bucket is calculated based on a known bucket dimension and a determined filling level.
An adaptable container handling system comprising: a boundary subsystem comprising at least one boundary marker for directing placement of containers; and one or more of robots each including: a chassis, a container lift mechanism moveable with respect to the robot chassis for transporting at least one container, a drive subsystem for maneuvering the chassis, a boundary sensing subsystem, a container detection subsystem, and a controller responsive to the boundary sensing subsystem and the container detection subsystem and configured to: control the drive subsystem to intercept a boundary marker, then follow the boundary marker until a container is detected, then turn, and maneuver until another container is detected, and control the container lift mechanism to place a transported container proximate the second detected container. a boundary subsystem comprising at least one boundary marker for directing placement of containers; and one or more of robots each including: a chassis, a container lift mechanism moveable with respect to the robot chassis for transporting at least one container, a drive subsystem for maneuvering the chassis, a boundary sensing subsystem, a container detection subsystem, and a controller responsive to the boundary sensing subsystem and the container detection subsystem and configured to: control the drive subsystem to intercept a boundary marker, then follow the boundary marker until a container is detected, then turn, and maneuver until another container is detected, and control the container lift mechanism to place a transported container proximate the second detected container. a chassis, a container lift mechanism moveable with respect to the robot chassis for transporting at least one container, a drive subsystem for maneuvering the chassis, a boundary sensing subsystem, a container detection subsystem, and a controller responsive to the boundary sensing subsystem and the container detection subsystem and configured to: control the drive subsystem to intercept a boundary marker, then follow the boundary marker until a container is detected, then turn, and maneuver until another container is detected, and control the container lift mechanism to place a transported container proximate the second detected container. control the drive subsystem to intercept a boundary marker, then follow the boundary marker until a container is detected, then turn, and maneuver until another container is detected, and control the container lift mechanism to place a transported container proximate the second detected container.
A cell frame for a redox flow battery, the cell frame comprising: an electrolyte inlet part disposed adjacent to a side of an electrode of the redox flow battery; an electrolyte outlet part disposed adjacent to the other side of the electrode; a multi-step distribution channel connected to the electrolyte inlet part, deployed in a transverse direction of the cell frame, and divided into a plurality of channels; multi-step buffer channels, each of which is connected to one of the divided channels of the distribution channel, deployed in a longitudinal direction of the cell frame, and divided into a plurality of sub-channels, wherein a width of each sub-channel is increased toward the electrode; a penetration channel connected to an outlet portion of the sub-channels; a mixing zone disposed between the penetration channel and the electrode, and configured to mix electrolytes flowed from the buffer channels; and a mixing block disposed in the mixing zone, and configured to distribute and buffer the electrolytes in the mixing zone. an electrolyte inlet part disposed adjacent to a side of an electrode of the redox flow battery; an electrolyte outlet part disposed adjacent to the other side of the electrode; a multi-step distribution channel connected to the electrolyte inlet part, deployed in a transverse direction of the cell frame, and divided into a plurality of channels; connected to the electrolyte inlet part, deployed in a transverse direction of the cell frame, and divided into a plurality of channels; multi-step buffer channels, each of which is connected to one of the divided channels of the distribution channel, deployed in a longitudinal direction of the cell frame, and divided into a plurality of sub-channels, wherein a width of each sub-channel is increased toward the electrode; deployed in a longitudinal direction of the cell frame, and divided into a plurality of sub-channels, wherein a width of each sub-channel is increased toward the electrode; a penetration channel connected to an outlet portion of the sub-channels; a mixing zone disposed between the penetration channel and the electrode, and configured to mix electrolytes flowed from the buffer channels; and disposed between the penetration channel and the electrode, and configured to mix electrolytes flowed from the buffer channels; and a mixing block disposed in the mixing zone, and configured to distribute and buffer the electrolytes in the mixing zone. disposed in the mixing zone, and configured to distribute and buffer the electrolytes in the mixing zone.
A method for performing random access in a wireless communication system, the method comprising: transmitting a preamble for random access in uplink;and receiving, as a response to the preamble, a Medium Access Control, MAC, random access response, RAR, message comprising a header including a sub-header; wherein the sub-header includes a one-bit indicator indicating that a Random Access Identifier, RAID, is included in the sub-header when the one-bit indicator has a first value, and indicating that a back-off parameter is included in the sub-header of the MAC random access response message when the one-bit indicator has a second value, and wherein the MAC RAR message includes a MAC RAR payload that corresponds to the MAC sub-header when the one-bit indicator has the first value, and does not include any MAC RAR payload that corresponds to the MAC sub-header when the one-bit indicator has the second value. transmitting a preamble for random access in uplink;and receiving, as a response to the preamble, a Medium Access Control, MAC, random access response, RAR, message comprising a header including a sub-header; wherein the sub-header includes a one-bit indicator indicating that a Random Access Identifier, RAID, is included in the sub-header when the one-bit indicator has a first value, and indicating that a back-off parameter is included in the sub-header of the MAC random access response message when the one-bit indicator has a second value, and wherein the MAC RAR message includes a MAC RAR payload that corresponds to the MAC sub-header when the one-bit indicator has the first value, and does not include any MAC RAR payload that corresponds to the MAC sub-header when the one-bit indicator has the second value.
A computer-readable medium comprising program code, the program code comprising program code defining a haptic widget, the haptic widget being an interface element providing access to haptic functionalities of a device capable of providing haptic effects, whereby the widget embodies particular functionality which comprises: program code defining a haptic effect; program code defining an interface for the haptic widget for receiving inputs and providing outputs; program code for outputting, via the interface, a signal configured to cause the haptic effect; and program code defining an external parameter, and the signal configured to cause the haptic effect to be output in response to the external parameter; characterized in that the haptic widget further comprises a configuration parameter to verify its authenticity or to allow its authenticity to be verified. program code defining a haptic effect; program code defining an interface for the haptic widget for receiving inputs and providing outputs; program code for outputting, via the interface, a signal configured to cause the haptic effect; and program code defining an external parameter, and the signal configured to cause the haptic effect to be output in response to the external parameter; characterized in that the haptic widget further comprises a configuration parameter to verify its authenticity or to allow its authenticity to be verified.
A fluid pressure actuator comprising: a cylinder and a plunger slidably mounted in the cylinder and operable by application of a pressurized fluid to extend axially relative to the cylinder, a closed-loop speed control system for adjusting an extension speed of the plunger while moving, comprising: a screw shaft rotatably supported by the cylinder and extending axially in a hollow interior of the plunger, an internally threaded member disposed in the cylinder and threadably receiving the screw shaft in close fitting relation thereto, the internally threaded member is restrained from rotation such that a rotary motion of the screw shaft translates into an axial motion of the internally threaded member relative to the cylinder, a proportional valve for adjusting a volume flow rate of the pressurized fluid, when applied to operate the plunger, characterized in that the proportional valve is rigidly connected to the plunger, and the internally threaded member is operatively coupled to the valve such that a cross-sectional area of a fluid passageway through the valve is reduced or increased in order to compensate for a difference in speed magnitudes of the moving plunger and the oppositely moving internally threaded member in respect of the cylinder. a cylinder and a plunger slidably mounted in the cylinder and operable by application of a pressurized fluid to extend axially relative to the cylinder, a closed-loop speed control system for adjusting an extension speed of the plunger while moving, comprising: a screw shaft rotatably supported by the cylinder and extending axially in a hollow interior of the plunger, an internally threaded member disposed in the cylinder and threadably receiving the screw shaft in close fitting relation thereto, the internally threaded member is restrained from rotation such that a rotary motion of the screw shaft translates into an axial motion of the internally threaded member relative to the cylinder, a proportional valve for adjusting a volume flow rate of the pressurized fluid, when applied to operate the plunger, a screw shaft rotatably supported by the cylinder and extending axially in a hollow interior of the plunger, an internally threaded member disposed in the cylinder and threadably receiving the screw shaft in close fitting relation thereto, the internally threaded member is restrained from rotation such that a rotary motion of the screw shaft translates into an axial motion of the internally threaded member relative to the cylinder, a proportional valve for adjusting a volume flow rate of the pressurized fluid, when applied to operate the plunger, characterized in that the proportional valve is rigidly connected to the plunger, and the internally threaded member is operatively coupled to the valve such that a cross-sectional area of a fluid passageway through the valve is reduced or increased in order to compensate for a difference in speed magnitudes of the moving plunger and the oppositely moving internally threaded member in respect of the cylinder.
A method of making methylcellulose-type ether in powder form, said method comprising (a) providing a solution of said methylcellulose-type ether in water, wherein the_methylcellulose-type ether is selected from the group consisting of methyl cellulose polymer and hydroxyalkyl methylcellulose polymers, wherein the methylcellulose-type ether is present in the solution in an amount of 0.2% to 15% by weight based on the weight of the solution, wherein the molecules of the methylcellulose-type ether are intimately mixed with the molecules of an aqueous medium wherein the aqueous medium comprises 75% or more water by weight based on the weight of the aqueous medium, wherein the solution behaves as a liquid, and (b) then separating said methylcellulose-type ether from said water to produce dried methylcellulose-type ether, with the proviso that either (i) step (b) produces said methylcellulose-type ether in powder form, or (ii) after step (b), said method additionally comprises a step (c) of subjecting said dried methylcellulose-type ether to mechanical stress to produce said methylcellulose-type ether in powder form. (a) providing a solution of said methylcellulose-type ether in water, wherein the_methylcellulose-type ether is selected from the group consisting of methyl cellulose polymer and hydroxyalkyl methylcellulose polymers, wherein the methylcellulose-type ether is present in the solution in an amount of 0.2% to 15% by weight based on the weight of the solution, wherein the molecules of the methylcellulose-type ether are intimately mixed with the molecules of an aqueous medium wherein the aqueous medium comprises 75% or more water by weight based on the weight of the aqueous medium, wherein the solution behaves as a liquid, and wherein the_methylcellulose-type ether is selected from the group consisting of methyl cellulose polymer and hydroxyalkyl methylcellulose polymers, wherein the methylcellulose-type ether is present in the solution in an amount of 0.2% to 15% by weight based on the weight of the solution, wherein the molecules of the methylcellulose-type ether are intimately mixed with the molecules of an aqueous medium wherein the aqueous medium comprises 75% or more water by weight based on the weight of the aqueous medium, wherein the solution behaves as a liquid, and (b) then separating said methylcellulose-type ether from said water to produce dried methylcellulose-type ether, (i) step (b) produces said methylcellulose-type ether in powder form, or (ii) after step (b), said method additionally comprises a step (c) of subjecting said dried methylcellulose-type ether to mechanical stress to produce said methylcellulose-type ether in powder form.
A composition comprising (a) an octoxynol; and (b) a quinolizidine alkaloid compound or a source thereof, for use in the prevention of transmission of a sexually transmitted disease caused by a viral or bacterial infection in a subject, or prevention of conception and transmission of a sexually transmitted disease caused by a viral or bacterial infection in a subject, wherein the quinolizidine alkaloid compound has a structure: or a pharmaceutically acceptable salt, solvate or stereoisomer thereof, wherein: R is H or OH; X and Y are each CH 2 or CH; and Z is N or NO. R is H or OH; X and Y are each CH 2 or CH; and Z is N or NO.
An implant, comprising: an antenna configured to communicate with an external unit using inductive coupling of a magnetic field; circuitry configured to produce data for transmission to the external unit and to receive electrical power from the magnetic field via the antenna for powering the circuitry; a voltage clamping element coupled to clamp a voltage induced by the magnetic field across the antenna; and a modulation switch configured to modulate a load impedance applied to the antenna as a function of the data so as to transmit the data; characterized in that the circuitry is configured to receive electrical power that powers the circuitry from a connection point between the modulation switch and the voltage clamping element; and in that the circuitry and the antenna are configured to be disconnected from one another when the modulation switch is open. an antenna configured to communicate with an external unit using inductive coupling of a magnetic field; circuitry configured to produce data for transmission to the external unit and to receive electrical power from the magnetic field via the antenna for powering the circuitry; a voltage clamping element coupled to clamp a voltage induced by the magnetic field across the antenna; and a modulation switch configured to modulate a load impedance applied to the antenna as a function of the data so as to transmit the data; characterized in that the circuitry is configured to receive electrical power that powers the circuitry from a connection point between the modulation switch and the voltage clamping element; and in that the circuitry and the antenna are configured to be disconnected from one another when the modulation switch is open.
A catheter, comprising: a tubular body (20, 50, 70),a radiopaque marker (30, 60, 80) arranged in the tubular body (20, 50, 70);and a coil or a braid (27, 57, 77) arranged along a long axis direction of the tubular body (20, 50, 70) in the tubular body (20, 50, 70), characterized in that the radiopaque marker (30, 60, 80) is fixed to a distal end of the coil or braid (27, 57, 77) so that a gap (35, 65, 85) is provided between the radiopaque marker (30, 60, 80) and the tubular body (20, 50, 70) in a radial direction of the tubular body (20, 50, 70). a tubular body (20, 50, 70),a radiopaque marker (30, 60, 80) arranged in the tubular body (20, 50, 70);and a coil or a braid (27, 57, 77) arranged along a long axis direction of the tubular body (20, 50, 70) in the tubular body (20, 50, 70), characterized in that the radiopaque marker (30, 60, 80) is fixed to a distal end of the coil or braid (27, 57, 77) so that a gap (35, 65, 85) is provided between the radiopaque marker (30, 60, 80) and the tubular body (20, 50, 70) in a radial direction of the tubular body (20, 50, 70).
A method for channel estimation in a wireless device, the method comprising: - obtaining an indication that a set of antenna ports share at least one channel property; - estimating one or more of the shared channel properties based at least on a first reference signal received from a first antenna port included in the set; and - performing channel estimation based on a second reference signal received from a second antenna port included in the set, wherein the channel estimation is performed using at least the estimated channel properties. - obtaining an indication that a set of antenna ports share at least one channel property; - estimating one or more of the shared channel properties based at least on a first reference signal received from a first antenna port included in the set; and - performing channel estimation based on a second reference signal received from a second antenna port included in the set, wherein the channel estimation is performed using at least the estimated channel properties.