mhurhangee/patent-ind-claim-en huggingface dataset:
A method for multi-virtualization scheme selection, comprising: receiving, by a software defined network, SDN, controller , device information from a pair of nodes from a number of nodes of a network, wherein the device information includes a number of virtualization schemes; the method characterized in that it further comprises determining , by the SDN controller , a number of operable virtualization schemes from the number of virtualization schemes for a pair of nodes from the pair of nodes , wherein determining the number of operable virtualization schemes includes determining a plurality of virtualization schemes that can be supported for communication by the pair of nodes; analyzing , by the SDN controller , a number of properties of a communication between the pair of nodes, whereby the number of properties of the communication is at least one of a list comprising a type of flow, speed of flow, a determined number of middleboxes, a determined number of firewalls, a determined number of packet prevention systems, a size of communication packets, data packets, location of the number of nodes compared to a physical router; and selecting , by the SDN controller , an operable virtualization scheme for communication between the pair of nodes from the determined number of operable virtualization schemes based on the number of properties of the communication between the pair of nodes; whereby a first tenant hosted by a particular node from the number of nodes has different operable virtualization schemes compared to a second tenant hosted by the particular node. receiving, by a software defined network, SDN, controller , device information from a pair of nodes from a number of nodes of a network, wherein the device information includes a number of virtualization schemes; the method characterized in that it further comprises determining , by the SDN controller , a number of operable virtualization schemes from the number of virtualization schemes for a pair of nodes from the pair of nodes , wherein determining the number of operable virtualization schemes includes determining a plurality of virtualization schemes that can be supported for communication by the pair of nodes; analyzing , by the SDN controller , a number of properties of a communication between the pair of nodes, whereby the number of properties of the communication is at least one of a list comprising a type of flow, speed of flow, a determined number of middleboxes, a determined number of firewalls, a determined number of packet prevention systems, a size of communication packets, data packets, location of the number of nodes compared to a physical router; and selecting , by the SDN controller , an operable virtualization scheme for communication between the pair of nodes from the determined number of operable virtualization schemes based on the number of properties of the communication between the pair of nodes;
An X-ray input apparatus comprising: a body configured to be accommodated in a holder of an X-ray imaging apparatus ; a touch sensor disposed on an outer circumferential surface of the body, the touch sensor configured to sense a touch and a radiation button disposed on a top of the body, the radiation button configured to receive a control command from an operator; characterized in that an input controller is configured to perform calibration control while the body is accommodated in the holder, thereby deciding a capacitance threshold value of the touch sensor. a body configured to be accommodated in a holder of an X-ray imaging apparatus ; a touch sensor disposed on an outer circumferential surface of the body, the touch sensor configured to sense a touch and a radiation button disposed on a top of the body, the radiation button configured to receive a control command from an operator; characterized in that an input controller is configured to perform calibration control while the body is accommodated in the holder, thereby deciding a capacitance threshold value of the touch sensor.
An air purifier comprising: an air intake port ; an air exhaust port ; a fan between the air intake port and the air exhaust port; and a filter stack between the air intake port and the exhaust port, comprising in order from the air intake port: a pre-filter for coarse matter; a first particulate filter for particles of a first size range with a first maximum size; a general VOC filter which comprises a porous gas absorbent filter; a target gas filter comprising a catalyst filter or a chemisorption filter; and a second particulate filter for particles of a second size range, with a second maximum size smaller than the first maximum size, wherein the fan is between the pre-filter and the second particulate filter . an air intake port ; an air exhaust port ; a fan between the air intake port and the air exhaust port; and a filter stack between the air intake port and the exhaust port, comprising in order from the air intake port: a pre-filter for coarse matter; a first particulate filter for particles of a first size range with a first maximum size; a general VOC filter which comprises a porous gas absorbent filter; a target gas filter comprising a catalyst filter or a chemisorption filter; and a second particulate filter for particles of a second size range, with a second maximum size smaller than the first maximum size, a pre-filter for coarse matter; a first particulate filter for particles of a first size range with a first maximum size; a general VOC filter which comprises a porous gas absorbent filter; a target gas filter comprising a catalyst filter or a chemisorption filter; and a second particulate filter for particles of a second size range, with a second maximum size smaller than the first maximum size, wherein the fan is between the pre-filter and the second particulate filter .
Filling level sensor for a fuel tank , comprising a ceramic mounting plate with a resistance network arranged thereon and a contact structure for the detection of an electrical filling level signal, and a pot-shaped cover which is connected to the mounting plate and which has an outwardly pointing encircling edge and side surfaces adjoining said edge, the cover and mounting plate forming a closed housing by virtue of the edge of the cover lying on the carrier plate , the cover having an edge area formed by the edge and by the adjoining side surfaces , characterized in that the cover is, in its edge area, metallically strengthened along at least one side surface by means of a separate element .
A system for adjusting temperature of cooling-liquid for a fuel cell, comprising: a fuel cell ; a radiator configured to radiate heat of the cooling-liquid; a cooling-liquid circulation flow-channel configured to connect the fuel cell and the radiator in a manner that the cooling-liquid flows in circulation; a radiator bypass flow-channel configured to connect an upstream and a downstream of the radiator in a manner that the cooling-liquid bypasses the radiator ; and a thermostat valve which is disposed in the radiator bypass flow-channel and is configured to adjust a flow-rate for flowing through the radiator bypass flow-channel ; characterized by : a valve bypass flow-channel through which the cooling-liquid of the radiator bypass flow-channel flows at a predetermined amount even if the thermostat valve is in a fully opened state in which all of the cooling-liquid that flows through the cooling-liquid circulation flow-channel flows through the radiator and does not flow in the radiator bypass flow-channel . a fuel cell ; a radiator configured to radiate heat of the cooling-liquid; a cooling-liquid circulation flow-channel configured to connect the fuel cell and the radiator in a manner that the cooling-liquid flows in circulation; a radiator bypass flow-channel configured to connect an upstream and a downstream of the radiator in a manner that the cooling-liquid bypasses the radiator ; and a thermostat valve which is disposed in the radiator bypass flow-channel and is configured to adjust a flow-rate for flowing through the radiator bypass flow-channel ; characterized by : a valve bypass flow-channel through which the cooling-liquid of the radiator bypass flow-channel flows at a predetermined amount even if the thermostat valve is in a fully opened state in which all of the cooling-liquid that flows through the cooling-liquid circulation flow-channel flows through the radiator and does not flow in the radiator bypass flow-channel .
Method for synchronizing parallel-connected inverter units (INU11, INU12) supplying a motor (M), in which motor (M) is either one winding, which is supplied by inverter units (INU11, INU12) connected in parallel, or several parallel windings, in which each winding is supplied by its own inverter unit (INU11, INU12), in which parallel connection one inverter unit functions as a master (INU11) and the others as slaves (INU12), in which method a serial telecommunications bus (W1...W3) is arranged between the inverter units (INU11, INU12), and in which each inverter unit (INU11, INU12) has its own modulation counter (Clk1, Clk2) of the modulation cycle, which are synchronized with each other based on telecommunications messages (Mes1, Mes2), preferably serial messages (Mes1, Mes2), characterized in that all the inverter units (INU11, INU12) take into memory the value of their own modulation counter (Clk1, Clk2) at the termination time of a telecommunications message (Mes1, Mes2), the master inverter unit (INU 11) sends the reading (Count 1) of its own modulation counter (Clk1) in the following telecommunications message (Mes1, Mes2) to the other inverter units (INU12), and the other inverter units (INU12) compare their own readings (Count 2) to the reading (Count 1) of the master (INU11) and correct the length of the modulation cycle if there is a difference in the readings, the correction being in the direction that makes the modulation counters (Clk2) operate as simultaneously as possible. in which motor (M) is either one winding, which is supplied by inverter units (INU11, INU12) connected in parallel, or several parallel windings, in which each winding is supplied by its own inverter unit (INU11, INU12), in which parallel connection one inverter unit functions as a master (INU11) and the others as slaves (INU12), in which method a serial telecommunications bus (W1...W3) is arranged between the inverter units (INU11, INU12), and in which each inverter unit (INU11, INU12) has its own modulation counter (Clk1, Clk2) of the modulation cycle, which are synchronized with each other based on telecommunications messages (Mes1, Mes2), preferably serial messages (Mes1, Mes2), characterized in that all the inverter units (INU11, INU12) take into memory the value of their own modulation counter (Clk1, Clk2) at the termination time of a telecommunications message (Mes1, Mes2), the master inverter unit (INU 11) sends the reading (Count 1) of its own modulation counter (Clk1) in the following telecommunications message (Mes1, Mes2) to the other inverter units (INU12), and the other inverter units (INU12) compare their own readings (Count 2) to the reading (Count 1) of the master (INU11) and correct the length of the modulation cycle if there is a difference in the readings, the correction being in the direction that makes the modulation counters (Clk2) operate as simultaneously as possible.
A linear compressor , comprising: a shell having a cylindrical shape; a frame fixed inside the shell ; a cylinder inserted to pass through the frame ; a piston provided in the cylinder ; a motor that linearly reciprocates the piston ; and a stator cover coupled to the motor , wherein the stator cover includes: a cover body ; and characterized in that : a reinforcement sleeve that extends from an outer edge of the cover body in an axial direction, wherein the reinforcement sleeve includes a plurality of protrusions that protrudes in a radial direction from the reinforcement sleeve and which is spaced equidistant around the reinforcement sleeve , and wherein portions of the shell corresponding to a position of each of the plurality of protrusions include a bulge that protrudes in the radial direction of the shell . a shell having a cylindrical shape; a frame fixed inside the shell ; a cylinder inserted to pass through the frame ; a piston provided in the cylinder ; a motor that linearly reciprocates the piston ; and a stator cover coupled to the motor , wherein the stator cover includes: a cover body ; and characterized in that : a reinforcement sleeve that extends from an outer edge of the cover body in an axial direction, wherein the reinforcement sleeve includes a plurality of protrusions that protrudes in a radial direction from the reinforcement sleeve and which is spaced equidistant around the reinforcement sleeve , and wherein portions of the shell corresponding to a position of each of the plurality of protrusions include a bulge that protrudes in the radial direction of the shell . a cover body ; and characterized in that : a reinforcement sleeve that extends from an outer edge of the cover body in an axial direction, wherein the reinforcement sleeve includes a plurality of protrusions that protrudes in a radial direction from the reinforcement sleeve and which is spaced equidistant around the reinforcement sleeve , and wherein portions of the shell corresponding to a position of each of the plurality of protrusions include a bulge that protrudes in the radial direction of the shell . a reinforcement sleeve that extends from an outer edge of the cover body in an axial direction, wherein the reinforcement sleeve includes a plurality of protrusions that protrudes in a radial direction from the reinforcement sleeve and which is spaced equidistant around the reinforcement sleeve , and wherein portions of the shell corresponding to a position of each of the plurality of protrusions include a bulge that protrudes in the radial direction of the shell .
A method of transmitting signals, the method comprising: transmitting a first multi-carrier on-off keyed signal comprising a plurality of on periods and a plurality of off periods; wherein transmitting the first signal in each on period comprises, for each subcarrier of a plurality of subcarriers : transmitting , from a plurality of antennas, a frequency domain symbol associated with that subcarrier, wherein the frequency domain symbol comprises a symbol transmitted from the plurality of antennas using the subcarrier, characterized in that the frequency domain symbol transmitted from each antenna is phase shifted by a respective factor of a set of factors associated with that subcarrier, wherein the set of factors associated with that subcarrier is different from the set of factors associated with at least one other subcarrier of the plurality of subcarriers. transmitting a first multi-carrier on-off keyed signal comprising a plurality of on periods and a plurality of off periods; wherein transmitting the first signal in each on period comprises, for each subcarrier of a plurality of subcarriers : transmitting , from a plurality of antennas, a frequency domain symbol associated with that subcarrier, wherein the frequency domain symbol comprises a symbol transmitted from the plurality of antennas using the subcarrier, characterized in that the frequency domain symbol transmitted from each antenna is phase shifted by a respective factor of a set of factors associated with that subcarrier, wherein the set of factors associated with that subcarrier is different from the set of factors associated with at least one other subcarrier of the plurality of subcarriers.
An electromechanical front gear changer for a bicycle having a chain , comprising: a base member attachable to the bicycle ; a linkage movably coupled to the base member ; a chain guide movably coupled to the linkage for contacting the chain ; a motor supported by the base member ; a gear transmission driven by the motor to move the linkage ; a CPU for controlling the motor ; a power supply supported by the base member to power the motor and the CPU ; a receiver for receiving wireless signals and powered by the power supply , wherein the CPU is in operative communication with the receiver and processes the received wireless signals; and a housing attached to the base member , wherein the housing is formed of a material permitting the passage of wireless signals therethrough, and wherein in particular the motor , the gear transmission , receiver , and CPU are positioned within the housing , wherein the housing has a front housing portion positioned at or near a front of the front gear changer and a rear housing portion positioned behind the front housing portion , wherein the receiver is positioned in or proximate the front housing portion , and wherein the power supply is removably coupled to the rear housing portion . a base member attachable to the bicycle ; a linkage movably coupled to the base member ; a chain guide movably coupled to the linkage for contacting the chain ; a motor supported by the base member ; a gear transmission driven by the motor to move the linkage ; a CPU for controlling the motor ; a power supply supported by the base member to power the motor and the CPU ; a receiver for receiving wireless signals and powered by the power supply , wherein the CPU is in operative communication with the receiver and processes the received wireless signals; and a housing attached to the base member , wherein the housing is formed of a material permitting the passage of wireless signals therethrough, and wherein in particular the motor , the gear transmission , receiver , and CPU are positioned within the housing , wherein the housing has a front housing portion positioned at or near a front of the front gear changer and a rear housing portion positioned behind the front housing portion , wherein the receiver is positioned in or proximate the front housing portion , and wherein the power supply is removably coupled to the rear housing portion .
A fastener tool comprising: a motor; a drive mechanism connected to the motor and adapted to drive a piston; and a cylinder filled with high-pressure gas; wherein the piston is accommodated in the cylinder and suitable for a reciprocating motion within the cylinder; the piston connected to a striking element suitable for striking a workpiece; the drive mechanism comprising a blade fixed to the piston, and a gear coupled to the motor; the gear comprising a plurality of teeth adapted to engage with a plurality of lugs on the blade such that a rotation of the gear is transformed to a linear movement of the blade; characterized in that the drive mechanism further comprising a disengagement module which is adapted to, within a period of a rotation cycle of the gear, prevent one of the plurality of teeth from unintentionally engaging with a misaligned one of the lugs of the plurality of the blade. a motor; a drive mechanism connected to the motor and adapted to drive a piston; and a cylinder filled with high-pressure gas; wherein the piston is accommodated in the cylinder and suitable for a reciprocating motion within the cylinder; the piston connected to a striking element suitable for striking a workpiece; the drive mechanism comprising a blade fixed to the piston, and a gear coupled to the motor; the gear comprising a plurality of teeth adapted to engage with a plurality of lugs on the blade such that a rotation of the gear is transformed to a linear movement of the blade; characterized in that the drive mechanism further comprising a disengagement module which is adapted to, within a period of a rotation cycle of the gear, prevent one of the plurality of teeth from unintentionally engaging with a misaligned one of the lugs of the plurality of the blade.
Extruded hollow-chamber profile for a window or door, preferably with factory-installed stiffening , having at least one fastening region for fastening or connecting the hollow-chamber profile to an external component , which fastening region is configured and provided for receiving a peripherally profiled fastening means , which hollow-chamber profile has an intermediate region which is configured as a reinforcement chamber for receiving a reinforcement , preferably a metal reinforcement, which hollow-chamber profile has, in the fastening region , at least one fastening channel which is oriented perpendicularly to a longitudinal extrusion direction of the hollow-chamber profile , which fastening channel has a channel longitudinal axis , is closed at each of its ends perpendicular to the channel longitudinal axis by an outside wall of the hollow-chamber profile and, parallel to the channel longitudinal axis , is delimited laterally by channel side walls , characterised in that between the two outside walls the fastening channel is divided into at least two fastening sub-channels (7.1, 7.2), which fastening sub-channels (7.1, 7.2) are spaced apart from one another in the direction of the channel longitudinal axis by at least the intermediate region and are in alignment along the channel longitudinal axis . which hollow-chamber profile has, in the fastening region , at least one fastening channel which is oriented perpendicularly to a longitudinal extrusion direction of the hollow-chamber profile , which fastening channel has a channel longitudinal axis , is closed at each of its ends perpendicular to the channel longitudinal axis by an outside wall of the hollow-chamber profile and, parallel to the channel longitudinal axis , is delimited laterally by channel side walls , characterised in that between the two outside walls the fastening channel is divided into at least two fastening sub-channels (7.1, 7.2), which fastening sub-channels (7.1, 7.2) are spaced apart from one another in the direction of the channel longitudinal axis by at least the intermediate region and are in alignment along the channel longitudinal axis .
A method performed by a terminal in a wireless communication system, the method comprising: receiving multimedia broadcast multicast service single frequency network, MBSFN, sub-frames configuration information in a broadcast message; receiving transmission mode information, wherein the transmission mode information is used for determining whether a physical downlink shared channel, PDSCH, over a MBSFN sub-frame is supported; identifying whether the PDSCH over the MBSFN sub-frame is supported based on the transmission mode information; in case that the PDSCH over the MBSFN sub-frame is supported, detecting a physical downlink control channel, PDCCH, for receiving the PDSCH in the MBSFN sub-frame, and in case that the PDSCH over the MBSFN sub-frame is not supported, not attempting decoding of the PDCCH for receiving the PDSCH in the MBSFN sub-frame. receiving multimedia broadcast multicast service single frequency network, MBSFN, sub-frames configuration information in a broadcast message; receiving transmission mode information, wherein the transmission mode information is used for determining whether a physical downlink shared channel, PDSCH, over a MBSFN sub-frame is supported; identifying whether the PDSCH over the MBSFN sub-frame is supported based on the transmission mode information; in case that the PDSCH over the MBSFN sub-frame is supported, detecting a physical downlink control channel, PDCCH, for receiving the PDSCH in the MBSFN sub-frame, and in case that the PDSCH over the MBSFN sub-frame is not supported, not attempting decoding of the PDCCH for receiving the PDSCH in the MBSFN sub-frame.