mhurhangee/patent-ind-claim-en huggingface dataset:
A method for penetrating a material with a fastener dispensing needle , the material having a first surface and an opposing second surface , the fastener dispensing needle having a leading end with a sharpened tip , characterized in that the method comprises the steps of: (a) partially penetrating the material with the fastener dispensing needle along a linear path (P', W') using a first penetration stroke (S F' ); (b) after the partial penetration step, partially withdrawing the fastener dispensing needle from the material along the same linear path (P', W') using a first withdrawal stroke (S R' ); and (c) after the partial withdrawal step, fully penetrating the material with the fastener dispensing needle along the same linear path (P', W') using a second penetration stroke (S F" ). (a) partially penetrating the material with the fastener dispensing needle along a linear path (P', W') using a first penetration stroke (S F' ); (b) after the partial penetration step, partially withdrawing the fastener dispensing needle from the material along the same linear path (P', W') using a first withdrawal stroke (S R' ); and (c) after the partial withdrawal step, fully penetrating the material with the fastener dispensing needle along the same linear path (P', W') using a second penetration stroke (S F" ).
Valve for flowable media, in particular a glue valve, having a valve housing and having a closure member , in particular a valve plunger, which is movable in a valve interior space by way of an electromagnet and which bears with a closure piece against a valve seat in the closed position of the valve , and having a valve-stroke-setting unit for setting the valve stroke, said valve-stroke-setting unit comprising an elongate stop part which is arranged at least sectionally in the valve interior space and which is adjustable in terms of its axial position in the valve interior space by way of rotation of a setting means of the valve-stroke-setting unit and which limits the movement of the closure member in the direction of the valve-stroke-setting unit , wherein the valve-stroke-setting unit is designed in such a way that, during rotation of the setting means , the stop part is moved only axially, without the stop part rotating too, and wherein the setting means is connected to the stop part in particular so as to be rotatable about its longitudinal central axis, characterized in that the rotatable connection of the setting means is configured in such a way that the stop part , in relation to axial movements of the setting means towards the closure member or away therefrom, is positively coupled thereto.
An information processing apparatus configured to transit to a power-saving mode, comprising: a central processing unit, CPU ; an interface configured to connect a predetermined optional device for communicating therewith; and a power source unit configured to supply power to the optional device, a power factor correction, PFC, circuit included in the power source unit; and a power controller configured to turn off the PFC circuit, characterized in that the CPU is configured to determine whether the optional device is connected to the interface; the information processing apparatus is configured to transit to the power-saving mode without turning off the PFC circuit in a case where the predetermined optional device is connected to the interface, and the information processing apparatus is configured to transit to the power-saving mode and the power controller is configured to turn off the PFC circuit in a case where the predetermined optional device is not connected to the interface. a central processing unit, CPU ; an interface configured to connect a predetermined optional device for communicating therewith; and a power source unit configured to supply power to the optional device, a power factor correction, PFC, circuit included in the power source unit; and a power controller configured to turn off the PFC circuit, characterized in that the CPU is configured to determine whether the optional device is connected to the interface; the information processing apparatus is configured to transit to the power-saving mode without turning off the PFC circuit in a case where the predetermined optional device is connected to the interface, and the information processing apparatus is configured to transit to the power-saving mode and the power controller is configured to turn off the PFC circuit in a case where the predetermined optional device is not connected to the interface.
A battery management system comprising: a plurality of slave controllers (120-1, 120-2, 120-n) configured to be respectively connected with a plurality of battery modules (130-1, 130-2, 130-n) to generate battery sensing information related to the respective battery modules (130-1, 130-2, 130-n); and a master controller connected with an uppermost slave controller (120-1) from among the slave controllers (120-1, 120-2, 120-n), wherein each of the slave controllers (120-1, 120-2, 120-n) includes a first receiver (RX1) and a first transmitter (TX1) configured to communicate with a preceding slave controller or the master controller and a second receiver (RX2) and a second transmitter (TX2) configured to communicate with a following slave controller, and characterised in that each of the slave controllers is configured to connect the first receiver (RX1) with the first transmitter (TX1) or the second receiver, (RX2) with the second transmitter (TX2) depending on types of diagnosis packets inputted through the first receiver, wherein the diagnosis packets include at least one of a first diagnosis packet that indicates one of the slave controllers or a second diagnosis packet that indicates a communication route between two slave controllers. a plurality of slave controllers (120-1, 120-2, 120-n) configured to be respectively connected with a plurality of battery modules (130-1, 130-2, 130-n) to generate battery sensing information related to the respective battery modules (130-1, 130-2, 130-n); and a master controller connected with an uppermost slave controller (120-1) from among the slave controllers (120-1, 120-2, 120-n), wherein each of the slave controllers (120-1, 120-2, 120-n) includes a first receiver (RX1) and a first transmitter (TX1) configured to communicate with a preceding slave controller or the master controller and a second receiver (RX2) and a second transmitter (TX2) configured to communicate with a following slave controller, and characterised in that each of the slave controllers is configured to connect the first receiver (RX1) with the first transmitter (TX1) or the second receiver, (RX2) with the second transmitter (TX2) depending on types of diagnosis packets inputted through the first receiver, wherein the diagnosis packets include at least one of a first diagnosis packet that indicates one of the slave controllers or a second diagnosis packet that indicates a communication route between two slave controllers.
A processor for demotion, comprising: a plurality of cores to execute instructions; characterized in that the processor further comprises: a demotion control circuit to: for each core of the plurality of cores , determine an average count of power state break events in the core , wherein a break event is a change between power states; determine a sum of the average counts of the plurality of cores ; determine whether the average count of a first core exceeds a first demotion threshold; determine whether the sum of the average counts of the plurality of cores exceeds a second demotion threshold; and in response to a determination that the average count of the first core exceeds the first demotion threshold and the sum of the average counts exceeds the second demotion threshold, perform a power state demotion of the first core . a plurality of cores to execute instructions; characterized in that the processor further comprises: a demotion control circuit to: for each core of the plurality of cores , determine an average count of power state break events in the core , wherein a break event is a change between power states; determine a sum of the average counts of the plurality of cores ; determine whether the average count of a first core exceeds a first demotion threshold; determine whether the sum of the average counts of the plurality of cores exceeds a second demotion threshold; and in response to a determination that the average count of the first core exceeds the first demotion threshold and the sum of the average counts exceeds the second demotion threshold, perform a power state demotion of the first core . for each core of the plurality of cores , determine an average count of power state break events in the core , wherein a break event is a change between power states; determine a sum of the average counts of the plurality of cores ; determine whether the average count of a first core exceeds a first demotion threshold; determine whether the sum of the average counts of the plurality of cores exceeds a second demotion threshold; and in response to a determination that the average count of the first core exceeds the first demotion threshold and the sum of the average counts exceeds the second demotion threshold, perform a power state demotion of the first core .
An electric power steering apparatus of a vector control system that calculates dq-axis steering assist command values based on at least a steering torque, calculates dq-axis current command values from said dq-axis steering assist command values, converts dq-axis voltage command values calculated from said dq-axis current command values into duty command values of three phases, drives and controls a three-phase brushless motor by an inverter of a pulse width modulation (PWM) control, and applies an assist torque to a steering system of a vehicle, the electric power steering apparatus characterised by comprising: a first compensation function to perform a dead time compensation "A" based on respective phase motor terminal voltages and said duty command values; a second compensation function to perform a dead time compensation "B" based on said dq-axis steering assist command values; and a third compensation function to perform a dead time compensation "C" based on said dq-axis current command values, wherein switches of said first compensation function, said second compensation function and said third compensation function are performed by using a conditional branch due to software and a gradual-changing switch, wherein dq-axis dead time compensation values are calculated, and wherein saiddq-axis voltage command values are compensated by said dq-axis dead time compensation values. a first compensation function to perform a dead time compensation "A" based on respective phase motor terminal voltages and said duty command values; a second compensation function to perform a dead time compensation "B" based on said dq-axis steering assist command values; and a third compensation function to perform a dead time compensation "C" based on said dq-axis current command values, wherein switches of said first compensation function, said second compensation function and said third compensation function are performed by using a conditional branch due to software and a gradual-changing switch, wherein dq-axis dead time compensation values are calculated, and wherein saiddq-axis voltage command values are compensated by said dq-axis dead time compensation values.
A method for wirelessly transferring information from a portable device containing a wireless device to a second device containing a wireless device and a display, comprising: storing in the portable device user account information comprising user identification information and a user password for use in accessing at least one of a media website account or a social networking website account together with privacy settings for at least one of a media application or a social networking application; and sending the user account information comprising the user identification information, the user password and the privacy settings from the portable device to the second device via the wireless devices in the portable device and the second device. storing in the portable device user account information comprising user identification information and a user password for use in accessing at least one of a media website account or a social networking website account together with privacy settings for at least one of a media application or a social networking application; and sending the user account information comprising the user identification information, the user password and the privacy settings from the portable device to the second device via the wireless devices in the portable device and the second device.
A method of wireless communication performed by a user equipment, UE, comprising: determining a set of beam failure detection reference signals to monitor for a set of secondary cells based at least in part on a set of secondary cell reference signal selection rules, when the UE does not receive signaling identifying the set of beam failure detection reference signals; wherein determining the set of beam failure detection reference signals based at least in part on the set of secondary cell reference signal selection rules comprises: identifying a plurality of beam failure detection reference signals quasi-co-located with one or more control resource sets of the set of secondary cells; and selecting the set of beam failure detection reference signals based at least in part on the plurality of beam failure detection reference signals; monitoring the set of beam failure detection reference signals based at least in part on determining the set of beam failure detection reference signals; and detecting , based at least in part on monitoring the set of beam failure detection reference signals, a beam failure for a secondary cell of the set of secondary cells. identifying a plurality of beam failure detection reference signals quasi-co-located with one or more control resource sets of the set of secondary cells; and selecting the set of beam failure detection reference signals based at least in part on the plurality of beam failure detection reference signals; monitoring the set of beam failure detection reference signals based at least in part on determining the set of beam failure detection reference signals; and detecting , based at least in part on monitoring the set of beam failure detection reference signals, a beam failure for a secondary cell of the set of secondary cells. monitoring the set of beam failure detection reference signals based at least in part on determining the set of beam failure detection reference signals; and detecting , based at least in part on monitoring the set of beam failure detection reference signals, a beam failure for a secondary cell of the set of secondary cells.
A textile sleeve (10; 110; 210) for routing and protecting elongate members , comprising: an elongate, knitted wall (14; 114; 214; 314) having a circumferentially continuous, tubular outer periphery extending along a central axis between opposite open ends , said wall includes shrinkable yarn and non-shrinkable yarn , said shrinkable yarn providing the wall with an ability to be radially constricted from a first, diametrically enlarged state (D1) to a second, diametrically shrunken state (D2), characterised in that said shrinkable yarn and said non-shrinkable yarn are knit in alternating groups of courses with one another. an elongate, knitted wall (14; 114; 214; 314) having a circumferentially continuous, tubular outer periphery extending along a central axis between opposite open ends , said wall includes shrinkable yarn and non-shrinkable yarn , said shrinkable yarn providing the wall with an ability to be radially constricted from a first, diametrically enlarged state (D1) to a second, diametrically shrunken state (D2), characterised in that said shrinkable yarn and said non-shrinkable yarn are knit in alternating groups of courses with one another.
An ultrasound system for non-invasive sonodynamic therapy with planar acoustic waves to treat cells harboring a sonosensitizer , the ultrasound system comprising: a patient interface comprising: a flexible membrane; a rigid shell ; and a cooling system , wherein the flexible membrane is couplable to the rigid shell , wherein the rigid shell comprises an array of flat piezoelectric transducers (150a-150h, 904), wherein the array of flat piezoelectric transducers (150a-150h, 904) is configured to be driven, by a controller coupled thereto, with a signal at a frequency to produce a modulated acoustic wave to produce an acoustic intensity at the sonosensitizer to treat tumor cells in a patient, wherein each of the flat piezoelectric transducers is configured to emit a planar acoustic wave, wherein the flexible membrane is configured to acoustically couple the array of flat piezoelectric transducers to a skin surface of the patient, wherein the flexible membrane is configured for conforming to the skin surface of the patient, wherein the cooling system is configured to circulate a fluid to reduce heat at the patient interface, wherein the flexible membrane is configured to create an elastic, fluid-filled pocket in the cooling system that acoustically couples the array of flat piezoelectric transducers (105a-105h, 904) to the skin surface, and wherein the cooling system comprises a cooling channel connected to an inlet and an outlet configured to remove heat from the skin surface of the patient. a flexible membrane; a rigid shell ; and a cooling system , wherein the flexible membrane is couplable to the rigid shell , wherein the rigid shell comprises an array of flat piezoelectric transducers (150a-150h, 904), wherein the array of flat piezoelectric transducers (150a-150h, 904) is configured to be driven, by a controller coupled thereto, with a signal at a frequency to produce a modulated acoustic wave to produce an acoustic intensity at the sonosensitizer to treat tumor cells in a patient, wherein each of the flat piezoelectric transducers is configured to emit a planar acoustic wave, wherein the flexible membrane is configured to acoustically couple the array of flat piezoelectric transducers to a skin surface of the patient, wherein the flexible membrane is configured for conforming to the skin surface of the patient, wherein the cooling system is configured to circulate a fluid to reduce heat at the patient interface, wherein the flexible membrane is configured to create an elastic, fluid-filled pocket in the cooling system that acoustically couples the array of flat piezoelectric transducers (105a-105h, 904) to the skin surface, and wherein the cooling system comprises a cooling channel connected to an inlet and an outlet configured to remove heat from the skin surface of the patient.
A pharmaceutical composition comprising a complex comprising an ENOl polypeptide or a fragment thereof which is biologically active and a muscle targeting peptide.
An electronic device comprising: a display ; at least one processor ; a memory electrically connected to the at least one processor ; and a display driver integrated circuit electrically connected to the at least one processor , wherein the display driver integrated circuit comprises a gate driver that is electrically connected to the display , wherein the display driver integrated circuit is configured to: receive a synchronization signal request corresponding to a first process initiated by the at least one processor from the at least one processor, determine whether the first process is for displaying an image in response to the synchronization signal request, and control an activation state of the gate driver of the display driver integrated circuit for displaying the image based on a determination result of whether the first process is for displaying the image, wherein the memory is configured to store instructions for the at least one processor to initiate and run the first process. a display ; at least one processor ; a memory electrically connected to the at least one processor ; and a display driver integrated circuit electrically connected to the at least one processor , wherein the display driver integrated circuit comprises a gate driver that is electrically connected to the display , wherein the display driver integrated circuit is configured to: receive a synchronization signal request corresponding to a first process initiated by the at least one processor from the at least one processor, determine whether the first process is for displaying an image in response to the synchronization signal request, and control an activation state of the gate driver of the display driver integrated circuit for displaying the image based on a determination result of whether the first process is for displaying the image, receive a synchronization signal request corresponding to a first process initiated by the at least one processor from the at least one processor, determine whether the first process is for displaying an image in response to the synchronization signal request, and control an activation state of the gate driver of the display driver integrated circuit for displaying the image based on a determination result of whether the first process is for displaying the image, wherein the memory is configured to store instructions for the at least one processor to initiate and run the first process.
A coarse adjustment cell array applied to a digitally controlled oscillator, wherein the coarse adjustment cell array comprises X coarse adjustment cells, and each coarse adjustment cell in the coarse adjustment cell array comprises a logic cell and W fine adjustment cells; and wherein an input to a logic cell of a coarse adjustment cell i in the coarse adjustment cell array comprises Y coarse adjustment control bits and W fine adjustment control bits, and an output from the logic cell of the coarse adjustment cell i is used to control whether W fine adjustment cells in the coarse adjustment cell i work, where the coarse adjustment cell i is any coarse adjustment cell in the coarse adjustment cell array , Y is an integer greater than 1, X is an integer greater than 1, and W is an integer greater than 1, wherein if the Y coarse adjustment control bits are a first value, the output from the logic cell of the coarse adjustment cell i is used to control all the W fine adjustment cells in the coarse adjustment cell i to work; and if the Y coarse adjustment control bits are a second value, the output from the logic cell of the coarse adjustment cell i is used to control all the W fine adjustment cells in the coarse adjustment cell i not to work; and if the Y coarse adjustment control bits are a third value, the logic cell of the coarse adjustment cell i controls, based on a value of the W fine adjustment control bits, some of the W fine adjustment cells in the coarse adjustment cell i to work, wherein the first value, the second value, and the third value are different from each other.