mhurhangee/patent-ind-claim-en huggingface dataset:
A method by which a mobile terminal provides transport service information, the method comprising: receiving (S310) a user input for information regarding a transport service preferred by a user; transmitting (S210) information regarding the user and the information regarding the transport service preferred by the user to a transport service managing server ; receiving (S220) a list of a plurality of transport service providers corresponding to the transmitted information regarding the transport service preferred by the user, from the transport service managing server ; receiving (S550) a user selection of at least one transport service provider from the list of the plurality of transport service providers ; transmitting (S560) user selection information regarding the at least one transport service provider selected by the user to the transport service managing server ; receiving (S580) information regarding the at least one transport service provider selected by the user from the transport service managing server ; acquiring, via a short-range wireless communication with an available transport service provider, information regarding the available transport service provider; and confirming (S230) whether the available transport service provider corresponds to the at least one transport service provider selected by the user by comparing the information regarding the at least one transport service provider received from the transport service managing server to the information acquired from the available transport service provider via the short-range wireless communication by the mobile terminal . receiving (S310) a user input for information regarding a transport service preferred by a user; transmitting (S210) information regarding the user and the information regarding the transport service preferred by the user to a transport service managing server ; receiving (S220) a list of a plurality of transport service providers corresponding to the transmitted information regarding the transport service preferred by the user, from the transport service managing server ; receiving (S550) a user selection of at least one transport service provider from the list of the plurality of transport service providers ; transmitting (S560) user selection information regarding the at least one transport service provider selected by the user to the transport service managing server ; receiving (S580) information regarding the at least one transport service provider selected by the user from the transport service managing server ; acquiring, via a short-range wireless communication with an available transport service provider, information regarding the available transport service provider; and confirming (S230) whether the available transport service provider corresponds to the at least one transport service provider selected by the user by comparing the information regarding the at least one transport service provider received from the transport service managing server to the information acquired from the available transport service provider via the short-range wireless communication by the mobile terminal .
A steering assistance device comprising: a demarcation line detection unit configured to detect left (Ll) and right (Lr) lane demarcation lines in a lane in which a vehicle (V) travels; a horizontal velocity measurement unit configured to calculate a horizontal velocity, which is a velocity component of the vehicle (V) in a direction perpendicular to the lane; an assistance unit configured to perform steering assistance of the vehicle (V) such that the vehicle (V) travels parallel to the left and right lane demarcation lines (Ll, Lr); and a steering control unit configured to start the steering assistance of the vehicle (V) performed by the assistance unit in a case where the horizontal velocity is larger than a prescribed velocity (V T ); and a distance of a vehicle central line along a center of the vehicle (Vc) from a lane central line along a center between the left and right lane demarcation lines (Ll, Lr) is equal to or less than a prescribed distance (D T ). a demarcation line detection unit configured to detect left (Ll) and right (Lr) lane demarcation lines in a lane in which a vehicle (V) travels; a horizontal velocity measurement unit configured to calculate a horizontal velocity, which is a velocity component of the vehicle (V) in a direction perpendicular to the lane; an assistance unit configured to perform steering assistance of the vehicle (V) such that the vehicle (V) travels parallel to the left and right lane demarcation lines (Ll, Lr); and a steering control unit configured to start the steering assistance of the vehicle (V) performed by the assistance unit in a case where the horizontal velocity is larger than a prescribed velocity (V T ); and a distance of a vehicle central line along a center of the vehicle (Vc) from a lane central line along a center between the left and right lane demarcation lines (Ll, Lr) is equal to or less than a prescribed distance (D T ).
An electronic apparatus, comprising: a memory ; and a processor configured to: execute a process using data loaded into the memory , characterized in that , identify a current usage rate of the processor , execute a first memory recovery operation having a memory recovery rate faster than that of a second memory recovery operation when the identified current usage rate is greater than a usage rate threshold, and execute the second memory recovery operation when the identified current usage rate is not greater than the usage rate threshold. a memory ; and a processor configured to: execute a process using data loaded into the memory , characterized in that , identify a current usage rate of the processor , execute a first memory recovery operation having a memory recovery rate faster than that of a second memory recovery operation when the identified current usage rate is greater than a usage rate threshold, and execute the second memory recovery operation when the identified current usage rate is not greater than the usage rate threshold. execute a process using data loaded into the memory , characterized in that , identify a current usage rate of the processor , execute a first memory recovery operation having a memory recovery rate faster than that of a second memory recovery operation when the identified current usage rate is greater than a usage rate threshold, and execute the second memory recovery operation when the identified current usage rate is not greater than the usage rate threshold.
A cylinder, comprising a cylinder connection assembly comprising a ventilation connection sleeve sleeved on a piston shaft of a cylinder , wherein the ventilation connection sleeve is fixedly provided in a cylinder barrel of the cylinder and separates an inner cavity of the cylinder barrel to form a front air chamber and a rear air chamber , a first ventilation hole communicating with the front air chamber and a second ventilation hole communicating with the rear air chamber are provided on the ventilation connection sleeve, so that when the compressed gas is filled into the front air chamber through the first ventilation hole, or when the compressed gas is filled into the rear air chamber through the second ventilation hole, a piston assembly in the cylinder barrel can move axially, the piston assembly comprises a piston shaft , and a front piston and a rear piston which are fixedly provided on the piston shaft respectively, the piston shaft is sleeved on the drive shaft and both can move axially in a synchronous way, the ventilation connection sleeve is located between the front piston and the rear piston, the front air chamber is formed between the front piston and the ventilation connection sleeve, the rear air chamber is formed between the rear piston and the ventilation connection sleeve, characterised in that the cylinder further includes a cylinder barrel , a spline shaft , a drive shaft and a piston assembly ; wherin the drive shaft is sleeved on the spline shaft and is connected to the spline shaft by spline so that when the compressed air is filled into the front air chamber or the rear air chamber, the piston assembly moves axially and drives the drive shaft to move axially and circumferentially. the piston assembly comprises a piston shaft , and a front piston and a rear piston which are fixedly provided on the piston shaft respectively, the piston shaft is sleeved on the drive shaft and both can move axially in a synchronous way, the ventilation connection sleeve is located between the front piston and the rear piston, the front air chamber is formed between the front piston and the ventilation connection sleeve, the rear air chamber is formed between the rear piston and the ventilation connection sleeve, characterised in that the cylinder further includes a cylinder barrel , a spline shaft , a drive shaft and a piston assembly ; wherin the drive shaft is sleeved on the spline shaft and is connected to the spline shaft by spline so that when the compressed air is filled into the front air chamber or the rear air chamber, the piston assembly moves axially and drives the drive shaft to move axially and circumferentially.
A lighting device comprising a main body , a lighting body and a filter (30, 30', 30") characterized in that said filter is at least partially made of anodized metal for treating air (A), wherein said metal comprises a superficial porous layer of an oxide of said metal comprising at least one antimicrobial substance, and in that said filter comprises a plurality of threadlike elements of said anodized metal, at least partially in non-permanent contact with each other, randomly deformed to form a plurality of non-linear pathways, and/or a plurality of sheet metal disks with holes .
A method of making a cathode for an electrochemical cell, the cathode comprising a metal matrix material, which method comprises: a) combining a first metal salt comprising iron, a second metal salt comprising cobalt, and sulfur to provide a metal salt matrix admixture; b) adding water to the metal salt matrix admixture; c) hydrothermally reacting the metal salt matrix admixture to provide the metal matrix material having the general formula Fe 1-x Co x S 2 wherein 0.5 ≤x< 1.0; and d) forming the metal matrix material into a cathode, wherein a sodium sulfate is included in the aqueous metal salt matrix admixture. a) combining a first metal salt comprising iron, a second metal salt comprising cobalt, and sulfur to provide a metal salt matrix admixture; b) adding water to the metal salt matrix admixture; c) hydrothermally reacting the metal salt matrix admixture to provide the metal matrix material having the general formula Fe 1-x Co x S 2 wherein 0.5 ≤x< 1.0; and d) forming the metal matrix material into a cathode,
Wind turbine, comprising a tower and a nacelle rotatable relative to the tower by means of a yaw bearing arrangement comprising a yaw ring fixed relative to the tower , several upper sliding pads arranged between the upper side of the yaw ring and a sliding structure of the nacelle and several lower sliding pads arranged between the lower side of the yaw ring and the sliding structure , characterized in that the sliding pads are fixed to the yaw ring and that at least one radial opening is provided in the sliding structure allowing access to the upper or lower sliding pads .
A group of imaging pixels comprising: an upper substrate layer ; a lower substrate layer ; for each imaging pixel a floating diffusion region ( FD1, FD2, FD3, FD4) in the upper substrate layer ; for each imaging pixel a photodiode (PD1, PD2, PD3, PD4) in the upper substrate layer that is coupled to the floating diffusion region; for each imaging pixel a transfer transistor (TX1, TX2, TX3, TX4) in the upper substrate layer ; for each imaging pixel a source follower transistor (SF1, SF2, SF3, SD4) in the lower substrate layer ; and for each imaging pixel an interconnect layer (34-1, 34-2, 34-3, 34-4) formed from a conductive material in between the upper substrate layer and the lower substrate layer , wherein the interconnect layer couples the floating diffusion region to the source follower transistor, characterized in that the group of imaging pixels further comprises: a reset transistor (RST) in the upper substrate layer common to all the imaging pixels. an upper substrate layer ; a lower substrate layer ; for each imaging pixel a floating diffusion region ( FD1, FD2, FD3, FD4) in the upper substrate layer ; for each imaging pixel a photodiode (PD1, PD2, PD3, PD4) in the upper substrate layer that is coupled to the floating diffusion region; for each imaging pixel a transfer transistor (TX1, TX2, TX3, TX4) in the upper substrate layer ; for each imaging pixel a source follower transistor (SF1, SF2, SF3, SD4) in the lower substrate layer ; and for each imaging pixel an interconnect layer (34-1, 34-2, 34-3, 34-4) formed from a conductive material in between the upper substrate layer and the lower substrate layer , wherein the interconnect layer couples the floating diffusion region to the source follower transistor, characterized in that the group of imaging pixels further comprises: a reset transistor (RST) in the upper substrate layer common to all the imaging pixels.
Mapping apparatus, comprising: a transmitter , which is configured to emit at least two beams comprising pulses of light along respective beam axes ; a scanner , which is configured to scan the at least two beams over a scene and comprises at least one rotating mirror , which rotates, so as to generate a raster pattern by scanning in a first direction at a first speed and at second speed in a second direction, perpendicular to the first direction, wherein the second speed is lower than the first speed, while the transmitter directs the at least two beams to reflect from the at least one rotating mirror; a receiver , which comprises a detector, which receives, via reflection from the at least one mirror, the light reflected from the scene as the at least one mirror rotates and is configured to generate an output indicative of a time of flight of the pulses to and from points in the scene; and a processor , which is coupled to process the output of the receiver so as to generate a 3D map of the scene, wherein the scanner scans the at least two beams in a raster pattern , and the transmitter emits the at least two beams in alternation, while the beam axes are mutually offset transversely relative to a direction of the lines of the raster pattern, thereby creating a 2D scan of each of the beams. a transmitter , which is configured to emit at least two beams comprising pulses of light along respective beam axes ; a scanner , which is configured to scan the at least two beams over a scene and comprises at least one rotating mirror , which rotates, so as to generate a raster pattern by scanning in a first direction at a first speed and at second speed in a second direction, perpendicular to the first direction, wherein the second speed is lower than the first speed, while the transmitter directs the at least two beams to reflect from the at least one rotating mirror; a receiver , which comprises a detector, which receives, via reflection from the at least one mirror, the light reflected from the scene as the at least one mirror rotates and is configured to generate an output indicative of a time of flight of the pulses to and from points in the scene; and a processor , which is coupled to process the output of the receiver so as to generate a 3D map of the scene, wherein the scanner scans the at least two beams in a raster pattern , and the transmitter emits the at least two beams in alternation, while the beam axes are mutually offset transversely relative to a direction of the lines of the raster pattern, thereby creating a 2D scan of each of the beams.
A User Equipment (UE) comprising: a modem capable of connecting to a Long-Term Evolution, LTE, cellular network and capable of connecting to a Universal Mobile Telecommunications System UMTS cellular network for transmitting and receiving data, the modem , when using the UMTS cellular network, having an idle state, one or more intermediate states, and a dedicated channel state, wherein: (a) in the idle state the modem is not connected to the UMTS cellular network, (b) in the dedicated channel state the modem is connected to the UMTS cellular network via a dedicated communication channel, and (c) in each of the intermediate states the modem is not connected to the UMTS cellular network via the dedicated communication channel and a first time-period required to transition from the corresponding intermediate state to the dedicated channel state is shorter than a second time-period required to transition from the idle state to the dedicated channel state; and a processing resource ; the UE characterized by the processing resource being configured to: maintain a state transitioning regime of the UE when the modem is connected to the UMTS cellular network, wherein the state transitioning regime includes (a) preventing at least one transition of the UE to an idle state for at least one time-period, and (b) periodically transitioning the UE to the idle state, and enabling the modem to switch from the UMTS cellular network to the LTE cellular network. a modem capable of connecting to a Long-Term Evolution, LTE, cellular network and capable of connecting to a Universal Mobile Telecommunications System UMTS cellular network for transmitting and receiving data, the modem , when using the UMTS cellular network, having an idle state, one or more intermediate states, and a dedicated channel state, wherein: (a) in the idle state the modem is not connected to the UMTS cellular network, (b) in the dedicated channel state the modem is connected to the UMTS cellular network via a dedicated communication channel, and (c) in each of the intermediate states the modem is not connected to the UMTS cellular network via the dedicated communication channel and a first time-period required to transition from the corresponding intermediate state to the dedicated channel state is shorter than a second time-period required to transition from the idle state to the dedicated channel state; and a processing resource ; the UE characterized by the processing resource being configured to: maintain a state transitioning regime of the UE when the modem is connected to the UMTS cellular network, wherein the state transitioning regime includes (a) preventing at least one transition of the UE to an idle state for at least one time-period, and (b) periodically transitioning the UE to the idle state, and enabling the modem to switch from the UMTS cellular network to the LTE cellular network.
A system comprising: a stimulation generator configured to deliver a stimulation pulse to a patient; sensing circuitry configured to sense an evoked compound action potential (ECAP) signal evoked from the stimulation pulse; and processing circuitry configured to: determine a maximum value of a derivative of the ECAP signal; determine a minimum value of the derivative of the ECAP signal; determine, based on the maximum value of the derivative and the minimum value of the derivative, a characteristic value of the ECAP signal; and determine, based on the characteristic value of the ECAP signal, at least one parameter value at least partially defining electrical stimulation therapy to be delivered to the patient. a stimulation generator configured to deliver a stimulation pulse to a patient; sensing circuitry configured to sense an evoked compound action potential (ECAP) signal evoked from the stimulation pulse; and processing circuitry configured to: determine a maximum value of a derivative of the ECAP signal; determine a minimum value of the derivative of the ECAP signal; determine, based on the maximum value of the derivative and the minimum value of the derivative, a characteristic value of the ECAP signal; and determine, based on the characteristic value of the ECAP signal, at least one parameter value at least partially defining electrical stimulation therapy to be delivered to the patient. determine a maximum value of a derivative of the ECAP signal; determine a minimum value of the derivative of the ECAP signal; determine, based on the maximum value of the derivative and the minimum value of the derivative, a characteristic value of the ECAP signal; and determine, based on the characteristic value of the ECAP signal, at least one parameter value at least partially defining electrical stimulation therapy to be delivered to the patient.
A method of forming a sheet-metal based double-walled stationary blade for a blade set of a hair cutting appliance , the stationary blade comprising a first wall and a second wall that define therebetween a guide slot arranged to receive a movable cutter , wherein the first wall and the second wall are jointly connected at a longitudinal end thereof, thereby forming stationary blade teeth that guard respective cutter teeth of the cutter , the method comprising: - providing a first pre-product layer , - providing a second pre-product layer which is separate from the first pre-product layer , wherein the steps of providing the first pre-product layer and the second pre-product layer comprise providing no more than the first pre-product layer and the second pre-product layer , - providing a guide slot , for a cutter , between the first pre-product layer and the second pre-product layer , wherein at least one of the first pre-product layer and the second pre-product layer is either deformed or machined in a material-removing fashion, thereby forming at least one depressed guide recess that is arranged to receive the cutter , and that forms at least part of the guide slot , and - bonding the first pre-product layer and the second pre-product layer to one another such that the first pre-product layer and the second pre-product layer are arranged to jointly receive a to-be-mounted cutter , wherein the first pre-product layer and the second pre-product layer , in the bonded state, are at least partially offset from one another to provide a defined mating clearance fit for the to-be-mounted cutter , wherein a longitudinal end of the first pre-product layer and a longitudinal end the second pre-product layer are bonded to one another such that stationary blade teeth are partially formed by the first pre-product layer and partially formed by the second pre-product layer , and wherein tips of the stationary blade teeth are arranged adjacent to a transition zone between the first pre-product layer and the second pre-product layer . - providing a first pre-product layer , - providing a second pre-product layer which is separate from the first pre-product layer , wherein the steps of providing the first pre-product layer and the second pre-product layer comprise providing no more than the first pre-product layer and the second pre-product layer , - providing a guide slot , for a cutter , between the first pre-product layer and the second pre-product layer , wherein at least one of the first pre-product layer and the second pre-product layer is either deformed or machined in a material-removing fashion, thereby forming at least one depressed guide recess that is arranged to receive the cutter , and that forms at least part of the guide slot , and - bonding the first pre-product layer and the second pre-product layer to one another such that the first pre-product layer and the second pre-product layer are arranged to jointly receive a to-be-mounted cutter ,