mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a vector-by-matrix multiplication array in an artificial neural network, the array comprising a plurality of non-volatile memory cells; an input block to receive a digital input comprising n+1 bits (DIN[n:0]), to apply the digital input to the array one bit at a time by converting the bit into an analog input signal and applying the analog input signal to a row of non-volatile memory cells in the array, wherein a "1" for the bit is converted into an analog input signal with a voltage whose magnitude depends on the bit location of the bit in the digital input; and an output block to receive an output current from the array in response to each analog input signal applied to the array and to combine the output currents to form an output (DOUT[m:0]), the output block comprising: an analog-to-digital converter to generate a digital value (DOUT_n) in response to each analog input signal applied to the array; and an adder to add the digital values from the analog-to-digital converter to generate the output (DOUT[m:0]); a register to store the output (DOUT[m:0]). a vector-by-matrix multiplication array in an artificial neural network, the array comprising a plurality of non-volatile memory cells; an input block to receive a digital input comprising n+1 bits (DIN[n:0]), to apply the digital input to the array one bit at a time by converting the bit into an analog input signal and applying the analog input signal to a row of non-volatile memory cells in the array, wherein a "1" for the bit is converted into an analog input signal with a voltage whose magnitude depends on the bit location of the bit in the digital input; and an output block to receive an output current from the array in response to each analog input signal applied to the array and to combine the output currents to form an output (DOUT[m:0]), the output block comprising: an analog-to-digital converter to generate a digital value (DOUT_n) in response to each analog input signal applied to the array; and an adder to add the digital values from the analog-to-digital converter to generate the output (DOUT[m:0]); a register to store the output (DOUT[m:0]). an analog-to-digital converter to generate a digital value (DOUT_n) in response to each analog input signal applied to the array; and an adder to add the digital values from the analog-to-digital converter to generate the output (DOUT[m:0]); a register to store the output (DOUT[m:0]).
A computer-implemented method for obtaining a physical model having physical model parameters wherein solutions (field) to one or more partial-differential-equations (PDE's) are calculated, wherein the PDE's are constrained by observed data from a system whose response to a known source function and known sampling operator is modeled by solutions of those PDEs for a given physical model using physical model parameters, wherein (i) an appropriate initial model is selected, (ii) a system of equations for the field is set up, referred to as the data-augmented PDE for the field, comprising of the discretized PDE, the sampling operator, the source function and the observed data, and solve the data-augmented PDE in a suitable manner to obtain a field that both satisfies the PDE and fits the observed data to some degree, (iii) a system of equations is set up by using the PDE, the source function and the field obtained in step (ii) and solve this system of equations in a suitable manner to obtain an update of the physical model parameters and repeat steps (ii)-(iii) until a predetermined stopping criterion is met.
A nozzle for a gas turbine engine comprising: a nozzle assembly defining at least one of a fuel circuit and an air circuit therethrough, wherein the nozzle assembly extends along an injection axis (I); and a plurality of supports extending from the nozzle assembly circumferentially spaced apart from one another about the injection axis, wherein each support in the plurality of supports extends along a respective support axis (S), characterized in that : the support axes are circumferentially spaced apart around an insertion axis (i) along which the nozzle assembly can be inserted during assembly into a combustor dome that is oblique relative to the injection axis, wherein the insertion axis (i) is oblique to the injection axis and parallel to a main axis (A) of the dome; and each support in the plurality of supports includes a side face , wherein the side faces are circumferentially spaced apart around the insertion axis (i). a nozzle assembly defining at least one of a fuel circuit and an air circuit therethrough, wherein the nozzle assembly extends along an injection axis (I); and a plurality of supports extending from the nozzle assembly circumferentially spaced apart from one another about the injection axis, wherein each support in the plurality of supports extends along a respective support axis (S), characterized in that : the support axes are circumferentially spaced apart around an insertion axis (i) along which the nozzle assembly can be inserted during assembly into a combustor dome that is oblique relative to the injection axis, wherein the insertion axis (i) is oblique to the injection axis and parallel to a main axis (A) of the dome; and each support in the plurality of supports includes a side face , wherein the side faces are circumferentially spaced apart around the insertion axis (i). the support axes are circumferentially spaced apart around an insertion axis (i) along which the nozzle assembly can be inserted during assembly into a combustor dome that is oblique relative to the injection axis, wherein the insertion axis (i) is oblique to the injection axis and parallel to a main axis (A) of the dome; and each support in the plurality of supports includes a side face , wherein the side faces are circumferentially spaced apart around the insertion axis (i).
A structural ultra-thick steel material having excellent brittle crack initiation resistance, the structural ultra-thick steel comprising, by weight %, 0.03 to 0.08% of carbon (C), 1.6 to 2.2% of manganese (Mn), 0.6 to 1.3% of nickel (Ni), 0.005 to 0.03% of niobium (Nb), 0.005 to 0.02% of titanium (Ti), 0.1 to 0.4% of copper (Cu), 100 ppm or less of phosphorus (P), 40ppm or less of sulfur (S), 1.5 ppm or less of hydrogen (H), and a balance of iron (Fe) and inevitable impurities, wherein a sum of acicular ferrite and granular bainite in a microstructure is 80% or more by area fraction, a sum of total lengths of cracks having a size of 30 μm or more per unit area of 1 mm 2 in regions of ±1 mm from a thickness center of the steel material is 130 μm or less, and yield strength is 500 MPa or more. wherein a sum of acicular ferrite and granular bainite in a microstructure is 80% or more by area fraction, a sum of total lengths of cracks having a size of 30 μm or more per unit area of 1 mm 2 in regions of ±1 mm from a thickness center of the steel material is 130 μm or less, and yield strength is 500 MPa or more.
Oscillator for a timepiece, comprising a balance and a hairspring (3; 3'), the balance having a lack of equilibrium, wherein the lack of equilibrium in the balance and the geometry of the hairspring are such that a) the curves (S1-S4; S1'-S4') representing the running of the oscillator owing to the weight of the hairspring as a function of the oscillation amplitude of the balance in at least four vertical positions of the oscillator spaced apart by 90° each pass through the value zero at an oscillation amplitude of the balance between 200° and 240°; b) between the oscillation amplitude of 150° and the oscillation amplitude of 280°, the curves (B1-B4; B1'-B4') representing the running of the oscillator owing to the lack of equilibrium in the balance as a function of the oscillation amplitude of the balance in said vertical positions of the oscillator each have an average slope of opposite sign to the average slope of the corresponding curve among said curves (S1-S4; S1'-S4') representing the running of the oscillator owing to the weight of the hairspring. a) the curves (S1-S4; S1'-S4') representing the running of the oscillator owing to the weight of the hairspring as a function of the oscillation amplitude of the balance in at least four vertical positions of the oscillator spaced apart by 90° each pass through the value zero at an oscillation amplitude of the balance between 200° and 240°; b) between the oscillation amplitude of 150° and the oscillation amplitude of 280°, the curves (B1-B4; B1'-B4') representing the running of the oscillator owing to the lack of equilibrium in the balance as a function of the oscillation amplitude of the balance in said vertical positions of the oscillator each have an average slope of opposite sign to the average slope of the corresponding curve among said curves (S1-S4; S1'-S4') representing the running of the oscillator owing to the weight of the hairspring.
An animated figure system , comprising: an animated figure comprising a flexible skin layer ; an actuating system coupled to a connection location of the flexible skin layer ; and an automation controller configured to: access a digital model of the animated figure , wherein the digital model comprises a virtual three-dimensional model of the animated figure and a vertex associated with the connection location ; determine a first positioning of the vertex within the digital model ; control the actuating system to set a second positioning of the connection location based on the first positioning of the vertex ; determine a movement of the vertex from the first positioning to a third positioning within the digital model ; and control the actuating system to move the connection location from the second positioning to a fourth positioning to match the movement of the vertex from the first positioning to the third positioning; wherein the first and third positionings of the vertex are absolute positionings within the virtual space of the three-dimensional model. an animated figure comprising a flexible skin layer ; an actuating system coupled to a connection location of the flexible skin layer ; and an automation controller configured to: access a digital model of the animated figure , wherein the digital model comprises a virtual three-dimensional model of the animated figure and a vertex associated with the connection location ; determine a first positioning of the vertex within the digital model ; control the actuating system to set a second positioning of the connection location based on the first positioning of the vertex ; determine a movement of the vertex from the first positioning to a third positioning within the digital model ; and control the actuating system to move the connection location from the second positioning to a fourth positioning to match the movement of the vertex from the first positioning to the third positioning; wherein the first and third positionings of the vertex are absolute positionings within the virtual space of the three-dimensional model. access a digital model of the animated figure , wherein the digital model comprises a virtual three-dimensional model of the animated figure and a vertex associated with the connection location ; determine a first positioning of the vertex within the digital model ; control the actuating system to set a second positioning of the connection location based on the first positioning of the vertex ; determine a movement of the vertex from the first positioning to a third positioning within the digital model ; and control the actuating system to move the connection location from the second positioning to a fourth positioning to match the movement of the vertex from the first positioning to the third positioning; wherein the first and third positionings of the vertex are absolute positionings within the virtual space of the three-dimensional model.
A circuit comprising: a signal processing part configured to perform a signal processing; an amplification part configured to amplify a signal output from the signal processing part ; a first power supply path (R1) connected from a battery to the signal processing part ; a second power supply path (R2) connected from the battery to the amplification part ; characterized by further comprising: a capacitor connected to the second power supply path (R2) and that assists power supplied to the amplification part ; and a power limiting part connected to the second power supply path (R2) and that limits input power supplied from the battery to the amplification part . a signal processing part configured to perform a signal processing; an amplification part configured to amplify a signal output from the signal processing part ; a first power supply path (R1) connected from a battery to the signal processing part ; a second power supply path (R2) connected from the battery to the amplification part ; characterized by further comprising: a capacitor connected to the second power supply path (R2) and that assists power supplied to the amplification part ; and a power limiting part connected to the second power supply path (R2) and that limits input power supplied from the battery to the amplification part . a capacitor connected to the second power supply path (R2) and that assists power supplied to the amplification part ; and a power limiting part connected to the second power supply path (R2) and that limits input power supplied from the battery to the amplification part .
A stirring tool for stirring food in a bowl of a kitchen appliance, the tool comprising a shaft adapted to be driven in rotation by a drive outlet of the kitchen appliance about a drive axis of the shaft, and a blade extending outwardly of the shaft at or adjacent a base thereof, the blade being shaped so as to lift food from a leading edge to a trailing edge thereof upon rotation of the blade, and the leading edge being shaped so as to urge food inwardly towards the shaft, wherein the blade terminates in a scraper having an axially extending end face which extends concentrically of the shaft.
A data retransmission method, comprising: receiving , by a base station , first acknowledgement sequence number, ACK-SN, information sent by a terminal , wherein the first ACK-SN information is comprised in a status report, and the first ACK-SN information carries a sequence number subsequent to the sequence number of the last data packet received by the terminal in sequence; recording , by the base station , the first ACK-SN information and a quantity of times of receiving the first ACK-SN information; and retransmitting, by the base station , the first data packet to the terminal based on the first ACK-SN information when the quantity of times of receiving the first ACK-SN information accumulatively reaches a preset value, wherein the preset value is less than a maximum quantity of retransmissions, wherein the preset value is greater than one; allocating, by the base station , a target transmission resource to the status report when the quantity of times of receiving the ACK-SN information accumulatively reaches the preset value, wherein the target transmission resource supports transmission of the status report carrying the ACK-SN information and negative acknowledgement sequence number, NACK-SN, information; receiving, by the base station , the first ACK-SN information and the NACK-SN information that are sent by the terminal ; and retransmitting, by the base station , the first data packet to the terminal based on the first ACK-SN information and the NACK-SN information. receiving , by a base station , first acknowledgement sequence number, ACK-SN, information sent by a terminal , wherein the first ACK-SN information is comprised in a status report, and the first ACK-SN information carries a sequence number subsequent to the sequence number of the last data packet received by the terminal in sequence; recording , by the base station , the first ACK-SN information and a quantity of times of receiving the first ACK-SN information; and retransmitting, by the base station , the first data packet to the terminal based on the first ACK-SN information when the quantity of times of receiving the first ACK-SN information accumulatively reaches a preset value, wherein the preset value is less than a maximum quantity of retransmissions, wherein the preset value is greater than one; allocating, by the base station , a target transmission resource to the status report when the quantity of times of receiving the ACK-SN information accumulatively reaches the preset value, wherein the target transmission resource supports transmission of the status report carrying the ACK-SN information and negative acknowledgement sequence number, NACK-SN, information; receiving, by the base station , the first ACK-SN information and the NACK-SN information that are sent by the terminal ; and retransmitting, by the base station , the first data packet to the terminal based on the first ACK-SN information and the NACK-SN information.
Vehicle having an electric machine, which has a rotor rotatably mounted on a shaft and a stator surrounding the rotor , at least one device of the electric machine lying in at least one pressure chamber of the electric machine , characterized in that the at least one pressure chamber can be pressurized via a compressed air connection with compressed airfrom an intake tract of an internal combustion engine, and in that a control unit is provided, which controls the compressed air supply to the pressure chamber as a function of environmental parameters and/or other parameters.
A toner container for detachably installing in an image forming apparatus, comprising: an elongated toner container main body to accommodate toner, the toner container main body including an upper case and a lower case ; ribs provided at edges of the upper case and the lower case to join the upper case and the lower case ; a discharge port formed on one side of the lower case in a width direction perpendicular to an elongated direction of the toner container main body to discharge the toner from the toner container main body ; a screw provided at the bottom of an interior of the lower case and extending along the elongated direction to convey the toner to the discharge port ; a coupling member provided at a tip portion of the screw which is connectable to a driving device provided in the image forming apparatus being configured to rotate the screw ; a shutter movably provided at the discharge port ; a positioning member in form of a pressed plate being provided on the other side of the lower case in the width direction; and a plate-like handle provided on a front surface side of the upper case along the width direction and extending in a vertical direction, wherein the pressed plate is configured to be pressed to the front surface side by a lever provided in the image forming apparatus to project the handle out of the image forming apparatus. an elongated toner container main body to accommodate toner, the toner container main body including an upper case and a lower case ; ribs provided at edges of the upper case and the lower case to join the upper case and the lower case ; a discharge port formed on one side of the lower case in a width direction perpendicular to an elongated direction of the toner container main body to discharge the toner from the toner container main body ; a screw provided at the bottom of an interior of the lower case and extending along the elongated direction to convey the toner to the discharge port ; a coupling member provided at a tip portion of the screw which is connectable to a driving device provided in the image forming apparatus being configured to rotate the screw ; a shutter movably provided at the discharge port ; a positioning member in form of a pressed plate being provided on the other side of the lower case in the width direction; and a plate-like handle provided on a front surface side of the upper case along the width direction and extending in a vertical direction, wherein the pressed plate is configured to be pressed to the front surface side by a lever provided in the image forming apparatus to project the handle out of the image forming apparatus.
An extracorporeal blood treatment device prepared for automatic priming thereof, comprising: an extracorporeal circuit , in which a flow machine , in particular a compressor or pump, is provided, a dialyzer , a dialysis liquid circuit and a control unit , wherein the extracorporeal circuit and the dialysis liquid circuit are separated from each other via a membrane provided in the dialyzer , wherein the control unit is configured to control the priming in such a way that a liquid, in particular priming/dialysis liquid, is supplied from the dialysis liquid circuit via the membrane of the dialyzer to the extracorporeal circuit , and to control valves and/or pumps provided in the dialysis liquid circuit in such a way that a pressure build-up takes place in the dialyzer on the dialysis liquid side, characterized in that the control unit is configured to control the flow machine provided in the extracorporeal circuit , in particular cyclically alternating, to perform a push/ or press cycle (A), in which the flow machine pushes air into the extracorporeal circuit , and a pull/ or suck cycle (B), in which the flow machine pulls air out of the extracorporeal circuit , for supporting a transfer of the liquid via the membrane of the dialyzer during priming. an extracorporeal circuit , in which a flow machine , in particular a compressor or pump, is provided, a dialyzer , a dialysis liquid circuit and a control unit , wherein the extracorporeal circuit and the dialysis liquid circuit are separated from each other via a membrane provided in the dialyzer , wherein the control unit is configured to control the priming in such a way that a liquid, in particular priming/dialysis liquid, is supplied from the dialysis liquid circuit via the membrane of the dialyzer to the extracorporeal circuit , and to control valves and/or pumps provided in the dialysis liquid circuit in such a way that a pressure build-up takes place in the dialyzer on the dialysis liquid side, characterized in that the control unit is configured to control the flow machine provided in the extracorporeal circuit , in particular cyclically alternating, to perform a push/ or press cycle (A), in which the flow machine pushes air into the extracorporeal circuit , and a pull/ or suck cycle (B), in which the flow machine pulls air out of the extracorporeal circuit , for supporting a transfer of the liquid via the membrane of the dialyzer during priming.