mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless receiver for neutralizing a blocking signal, comprising: a first module operative to receive radio-frequency, RF, signals containing a desired signal and a blocking signal along a first signal path (212→214→216) and configured to extract a minor sample portion of the magnitudes of the received desired and blocking signals to produce a specimen signal; a second module , in communication with the first module along a second signal path, operative to receive the specimen signal and configured to: isolate the blocking signal from the specimen signal to produce an isolated blocking specimen signal, generate an anti-blocking signal based on the isolated blocking specimen signal, and introduce the anti-blocking signal to the received desired and blocking signals, wherein the anti-blocking signal destructively interferes to neutralize the received blocking signal, wherein the first module includes a first coupling element configured to extract the minor sample portion of the magnitudes of the received desired and blocking signals to produce a specimen signal and to supply the specimen signal to the second module along the second signal path. a first module operative to receive radio-frequency, RF, signals containing a desired signal and a blocking signal along a first signal path (212→214→216) and configured to extract a minor sample portion of the magnitudes of the received desired and blocking signals to produce a specimen signal; a second module , in communication with the first module along a second signal path, operative to receive the specimen signal and configured to: isolate the blocking signal from the specimen signal to produce an isolated blocking specimen signal, generate an anti-blocking signal based on the isolated blocking specimen signal, and introduce the anti-blocking signal to the received desired and blocking signals, wherein the anti-blocking signal destructively interferes to neutralize the received blocking signal, isolate the blocking signal from the specimen signal to produce an isolated blocking specimen signal, generate an anti-blocking signal based on the isolated blocking specimen signal, and introduce the anti-blocking signal to the received desired and blocking signals, wherein the anti-blocking signal destructively interferes to neutralize the received blocking signal, wherein the first module includes a first coupling element configured to extract the minor sample portion of the magnitudes of the received desired and blocking signals to produce a specimen signal and to supply the specimen signal to the second module along the second signal path.
A current sensor comprising: an inductor configured for sensing an alternating current signal component of an observed signal; a central opening in a multi-layered substrate having a central axis; a magnetic field sensor configured for sensing a direct current signal component of the observed signal; a plurality of primary ferrite members spaced apart from the magnetic field sensor on opposite sides of the magnetic field sensor to concentrate or steer an orientation of a magnetic field of the observed signal toward a target area of the magnetic field sensor; a first filtering circuit having a high-pass filter response, the first filtering circuit coupled to the inductor to provide a filtered alternating current signal component; a second filtering circuit having a low-pass filter response, the second filtering circuit coupled to the magnetic field sensor to provide a filtered direct current signal component; and a sensor fusion circuit configured for accepting the filtered alternating current signal component and the filtered direct current signal component and for determining an aggregate sensed current. an inductor configured for sensing an alternating current signal component of an observed signal; a central opening in a multi-layered substrate having a central axis; a magnetic field sensor configured for sensing a direct current signal component of the observed signal; a plurality of primary ferrite members spaced apart from the magnetic field sensor on opposite sides of the magnetic field sensor to concentrate or steer an orientation of a magnetic field of the observed signal toward a target area of the magnetic field sensor; a first filtering circuit having a high-pass filter response, the first filtering circuit coupled to the inductor to provide a filtered alternating current signal component; a second filtering circuit having a low-pass filter response, the second filtering circuit coupled to the magnetic field sensor to provide a filtered direct current signal component; and a sensor fusion circuit configured for accepting the filtered alternating current signal component and the filtered direct current signal component and for determining an aggregate sensed current.
An electric assist bicycle comprising a motor drive unit with a motor , the electric assist bicycle being capable of traveling with a combination of a human driving force generated by a pedal force from a pedal and an auxiliary driving force generated by the motor , wherein the electric assist bicycle comprises a crank shaft that receives the human driving force transmitted from the pedal and rotates about a different axis from the motor , the crank shaft has a human-power transmission member on an outer periphery of the crank shaft , the human-power transmission member receiving the transmitted human driving force, the crank shaft has a resultant-force transmission member on the outer periphery of the crank shaft , the resultant-force transmission member receiving a resultant force of the human driving force and the auxiliary driving force from the motor , and the motor drive unit includes a planet gear mechanism that changes a gear for the resultant force of the human driving force and the auxiliary driving force from the motor , wherein the planet gear mechanism includes an internal gear that inputs the resultant force of the human driving force and the auxiliary driving force from the motor , and a carrier that outputs the resultant force with a variable speed, characterized by the electric assist bicycle further comprising a transmission clutch that switches the internal gear and the carrier between an integral rotation state and a non-integral rotation state.
A method of repairing synthetic DNA encoding digital information comprising: incubating the synthetic DNA with a repair mixture, the repair mixture comprising a Bst DNA polymerase, Taq DNA ligase, Endonuclease IV, formamidopyrimidine DNA glycosylase, Uracil-DNA Glycosylase, T4 Endonuclease V, and Endonuclease VIII, wherein the incubating the synthetic DNA with the repair mixture is performed for approximately 4 hours at approximately 37°C, and wherein approximately denotes a range of ±10% of the stated value; and amplifying the synthetic DNA by polymerase chain reaction, PCR. incubating the synthetic DNA with a repair mixture, the repair mixture comprising a Bst DNA polymerase, Taq DNA ligase, Endonuclease IV, formamidopyrimidine DNA glycosylase, Uracil-DNA Glycosylase, T4 Endonuclease V, and Endonuclease VIII, wherein the incubating the synthetic DNA with the repair mixture is performed for approximately 4 hours at approximately 37°C, and wherein approximately denotes a range of ±10% of the stated value; and amplifying the synthetic DNA by polymerase chain reaction, PCR.
A control unit for a heavy-duty vehicle , where the control unit is arranged to control the vehicle according to a mode of operation selected from at least three different modes of operation, where the mode of operation is configurable by a driver via a mode selection device , where a first mode of operation is a mode of operation where the vehicle is in an inactivated state, where a second mode of operation is a stand-by mode of operation where the vehicle is in an active state , and where the control unit is arranged to turn off a combustion engine of the vehicle in case a vehicle state meets a pre-determined power-down criterion, and where a third mode of operation is a mode of operation where the vehicle is in the active state, and wherein the third mode of operation corresponds to a non-stand-by regular active state of the vehicle, and where the control unit is configured to require manual input from a driver prior to transitioning into the third mode of operation from the second mode of operation. where a first mode of operation is a mode of operation where the vehicle is in an inactivated state, where a second mode of operation is a stand-by mode of operation where the vehicle is in an active state , and where the control unit is arranged to turn off a combustion engine of the vehicle in case a vehicle state meets a pre-determined power-down criterion, and where a third mode of operation is a mode of operation where the vehicle is in the active state, and wherein the third mode of operation corresponds to a non-stand-by regular active state of the vehicle, and where the control unit is configured to require manual input from a driver prior to transitioning into the third mode of operation from the second mode of operation.
Airbag system for a vehicle having - a first airbag and - a second airbag which is disposed in intended main supporting direction for the main part above the first airbag , wherein both airbags are disposed in a shared airbag module and can be filled by the shared airbag module , - both airbags can be triggered simultaneously, wherein - both airbags can be triggered independently of one another, - a control device , which is configured to control both airbags , and - the airbag system is designed such that the second airbag can be triggered without the first airbag being triggered, characterised in that - the control device is designed to send to the airbag system a signal for triggering, wherein - the control device is configured to detect a seat position of a vehicle occupant and - the control device is configured in the case of a predetermined standard seat position to trigger only the second airbag when the vehicle occupant is located in the predetermined standard seat position, wherein the second airbag rests directly on a wall of the airbag module if the first airbag is not triggered - a first airbag and - a second airbag which is disposed in intended main supporting direction for the main part above the first airbag , wherein both airbags are disposed in a shared airbag module and can be filled by the shared airbag module , - both airbags can be triggered simultaneously, wherein - both airbags can be triggered independently of one another, - a control device , which is configured to control both airbags , and - the airbag system is designed such that the second airbag can be triggered without the first airbag being triggered, characterised in that - the control device is designed to send to the airbag system a signal for triggering, wherein - the control device is configured to detect a seat position of a vehicle occupant and - the control device is configured in the case of a predetermined standard seat position to trigger only the second airbag when the vehicle occupant is located in the predetermined standard seat position, wherein the second airbag rests directly on a wall of the airbag module if the first airbag is not triggered
An axle assembly comprising: an electric motor ; a drive pinion that is rotatable about a first axis and that includes a gear portion and a shaft portion ; and a countershaft transmission that operatively connects the electric motor to the drive pinion , the countershaft transmission having a first countershaft subassembly that is rotatable about a first countershaft axis , characterized in that the countershaft transmission has a second countershaft subassembly that is rotatable about a second countershaft axis , whereby the electric motor has a rotor that is operatively connected to a first gear through which the drive pinion extends, the rotor and the first gear being rotatable together about the first axis . an electric motor ; a drive pinion that is rotatable about a first axis and that includes a gear portion and a shaft portion ; and a countershaft transmission that operatively connects the electric motor to the drive pinion , the countershaft transmission having a first countershaft subassembly that is rotatable about a first countershaft axis , characterized in that the countershaft transmission has a second countershaft subassembly that is rotatable about a second countershaft axis , whereby the electric motor has a rotor that is operatively connected to a first gear through which the drive pinion extends, the rotor and the first gear being rotatable together about the first axis .
A vibration-controlling sheet comprising: a thermoplastic elastomer sheet having numerous through-holes; and an adhesive layer present on one or both sides of the thermoplastic elastomer sheet, wherein the thermoplastic elastomer sheet has a porosity of 5 to 80 % and a loss factor tanδ of 0.3 or more at 0 °C and 30 Hz, as measured in accordance with the respective methods specified in the description, and wherein the thermoplastic elastomer is a block copolymer (a) composed of at least two polymer blocks A made up of structural units derived from a vinyl aromatic compound and at least one polymer block B made up of structural units derived from a conjugated diene compound, and/or a hydrogenated product of the block copolymer.
A method for electrical islanding detection, comprising: receiving a three-phase voltage in an electrical power system; for the three-voltage voltage, calculating a voltage angle sudden-change of each phase, respectively; determining whether an absolute value of the voltage angle sudden-change of each phase is greater than a first angle sudden-change setting value; determining whether directions of the voltage angle sudden-changes of the three phases are the same if the absolute value of the voltage angle sudden-change of each phase is greater than the first angle sudden-change setting value; and determining that the electrical islanding appears if the directions of the voltage angle sudden-changes of the three phases are the same, wherein determining whether directions of the voltage angle sudden-change of the three phases are the same comprises: determining whether an absolute value of the average of the voltage angle sudden-changes of the three phases is greater than the first angle sudden-change setting value, and wherein determining that the electrical islanding appears if the absolute value of the average of the voltage angle sudden-changes of the three phases is greater than the first angle sudden-change setting value. receiving a three-phase voltage in an electrical power system; for the three-voltage voltage, calculating a voltage angle sudden-change of each phase, respectively; determining whether an absolute value of the voltage angle sudden-change of each phase is greater than a first angle sudden-change setting value; determining whether directions of the voltage angle sudden-changes of the three phases are the same if the absolute value of the voltage angle sudden-change of each phase is greater than the first angle sudden-change setting value; and determining that the electrical islanding appears if the directions of the voltage angle sudden-changes of the three phases are the same, wherein determining whether directions of the voltage angle sudden-change of the three phases are the same comprises: determining whether an absolute value of the average of the voltage angle sudden-changes of the three phases is greater than the first angle sudden-change setting value, and wherein determining that the electrical islanding appears if the absolute value of the average of the voltage angle sudden-changes of the three phases is greater than the first angle sudden-change setting value. determining whether an absolute value of the average of the voltage angle sudden-changes of the three phases is greater than the first angle sudden-change setting value, and wherein determining that the electrical islanding appears if the absolute value of the average of the voltage angle sudden-changes of the three phases is greater than the first angle sudden-change setting value.
A control system for use in a smart kitchen including a kitchen device , comprising: a master module having control over a slave module through wireless technology; and the slave module is configured to associate with the kitchen device and to collect information therefrom, the slave module being in-built with the kitchen device ; the master module is configured to exercise remote control over the slave module based on instructions provided to the master module and information collected from the slave module ; and, the slave module includes a timer for keeping time when the kitchen device is to perform a function based on instructions from the master module , wherein, upon interruption of the remote control from the master module , the slave module is configured to maintain the performed function of the kitchen device according to the timer; characterized in that , the master module is in wireless communication with a mobile device ; and the smart kitchen is at a location defined by predetermined parameters within which the mobile device is connected to the system via a router of the master module and outside which the mobile device is connected to the system via cloud of the master module , an alert is sent to the mobile device when location of the mobile device exceeds the predetermined parameters and after status of the slave device is taken into consideration. a master module having control over a slave module through wireless technology; and the slave module is configured to associate with the kitchen device and to collect information therefrom, the slave module being in-built with the kitchen device ; the master module is configured to exercise remote control over the slave module based on instructions provided to the master module and information collected from the slave module ; and, the slave module includes a timer for keeping time when the kitchen device is to perform a function based on instructions from the master module , wherein, upon interruption of the remote control from the master module , the slave module is configured to maintain the performed function of the kitchen device according to the timer; characterized in that , the master module is in wireless communication with a mobile device ; and the smart kitchen is at a location defined by predetermined parameters within which the mobile device is connected to the system via a router of the master module and outside which the mobile device is connected to the system via cloud of the master module , an alert is sent to the mobile device when location of the mobile device exceeds the predetermined parameters and after status of the slave device is taken into consideration.
Use of a plant, comprising: - a distillation column, comprising an inlet for the feeding-in of the laden methanol, an outlet for the methanol freed of its load, an outlet for the top product, an inlet for the reflux of the top product, internals for the mass transfer, a heat exchanger for introducing heat into the methanol, - a circulating loop for the top product, comprising at least one heat exchanger to cool the top product and to condense the condensable components contained therein, and a liquid separator for the separation of the condensate from the top product, whereby the circulating loop for the top product comprises furthermore a stripping column for separating volatile components out of the condensate, and also a heater, arranged upstream of the stripper, for heating the condensate, as part of a plant for the purification of raw synthesis gas through separation of carbon dioxide and sulphur-containing accompanying gases, whereby low-temperature methanol is used as absorption agent, to separate sulphur-containing components from the laden metha nol, whereby the plant for the purification of raw synthesis gas comprises, respectively, a scrubber for the separation of the sulphur-containing components of the raw synthesis gas and one for the separation of the carbon dioxide contained in the raw synthesis gas, and whereby this plant for the purification of the raw synthesis gas comprises devices for the flashing of the methanol laden during these separation steps. - a distillation column, comprising an inlet for the feeding-in of the laden methanol, an outlet for the methanol freed of its load, an outlet for the top product, an inlet for the reflux of the top product, internals for the mass transfer, a heat exchanger for introducing heat into the methanol, - a circulating loop for the top product, comprising at least one heat exchanger to cool the top product and to condense the condensable components contained therein, and a liquid separator for the separation of the condensate from the top product, whereby the circulating loop for the top product comprises furthermore a stripping column for separating volatile components out of the condensate, and also a heater, arranged upstream of the stripper, for heating the condensate,
A data transmission method of a second base station in a wireless communication system that supports carrier aggregation with a first base station, the method comprising: receiving, by a second radio link control, RLC, entity in the second base station, in case that a condition for assigning data to be transmitted is fulfilled, RLC data assigned to the second base station and RLC sequence numbers associated with the RLC data from a first RLC entity in the first base station ; transmitting, to a user equipment, UE, first medium access control, MAC, data based on a first part of the RLC data and a first RLC sequence number among the RLC sequence numbers; receiving acknowledgement/not-acknowledgement, ACK/NACK, information corresponding to the first MAC data from the first base station; transmitting, to the UE, second MAC data based on a second part of the RLC data and a second RLC sequence number among the RLC sequence numbers, in case that the ACK/NACK information is ACK; and retransmitting, to the UE, the first MAC data, in case that the ACK/NACK information is NACK. receiving, by a second radio link control, RLC, entity in the second base station, in case that a condition for assigning data to be transmitted is fulfilled, RLC data assigned to the second base station and RLC sequence numbers associated with the RLC data from a first RLC entity in the first base station ; transmitting, to a user equipment, UE, first medium access control, MAC, data based on a first part of the RLC data and a first RLC sequence number among the RLC sequence numbers; receiving acknowledgement/not-acknowledgement, ACK/NACK, information corresponding to the first MAC data from the first base station; transmitting, to the UE, second MAC data based on a second part of the RLC data and a second RLC sequence number among the RLC sequence numbers, in case that the ACK/NACK information is ACK; and retransmitting, to the UE, the first MAC data, in case that the ACK/NACK information is NACK.
A session management method, characterized in selecting, by a network device, a first intermediate session management entity for a protocol data unit, PDU, session based on a local data network name, DNN, wherein the network device is a session management entity; and sending, by the network device, user equipment, UE, location information to the first intermediate session management entity, wherein the UE location information is used to select a user plane entity. selecting, by a network device, a first intermediate session management entity for a protocol data unit, PDU, session based on a local data network name, DNN, wherein the network device is a session management entity; and sending, by the network device, user equipment, UE, location information to the first intermediate session management entity, wherein the UE location information is used to select a user plane entity.