mhurhangee/patent-ind-claim-en huggingface dataset:
Integrated current sensor system, comprising - a printed circuit board (CB) with an magnetic field sensor (MS) and with a sensor interface (SI) being coupled to the sensor (MS), the printed circuit board (CB) having a first main surface (M1) defining a first side, and a second main surface (M2) being opposite to the first main surface (M1) and defining a second side; - a first current conductor (CC1), which is, isolated from the printed circuit board (CB), arranged on the first side in a plane being parallel to the printed circuit board (CB) and connected to a first current terminal (CT1), wherein a longitudinal edge of a portion of the first current conductor (CC1) is arranged proximate to a sensitive area of the sensor (MS); and - a second current conductor (CC2) which is, isolated from the printed circuit board (CB), arranged on the second side in a plane being parallel to the printed circuit board (CB) and connected to a second current terminal (CT2), wherein a longitudinal edge of a portion of the second current conductor (CC2) is arranged proximate to the sensitive area of the sensor (MS); - wherein the first current conductor (CC1) and the second current conductor (CC2) are electrically connected by means of at least one conductive via (PV) through the printed circuit board (CB) such that a current path is formed between the first current terminal (CT1) and the second current terminal (CT2). - a printed circuit board (CB) with an magnetic field sensor (MS) and with a sensor interface (SI) being coupled to the sensor (MS), the printed circuit board (CB) having a first main surface (M1) defining a first side, and a second main surface (M2) being opposite to the first main surface (M1) and defining a second side; - a first current conductor (CC1), which is, isolated from the printed circuit board (CB), arranged on the first side in a plane being parallel to the printed circuit board (CB) and connected to a first current terminal (CT1), wherein a longitudinal edge of a portion of the first current conductor (CC1) is arranged proximate to a sensitive area of the sensor (MS); and - a second current conductor (CC2) which is, isolated from the printed circuit board (CB), arranged on the second side in a plane being parallel to the printed circuit board (CB) and connected to a second current terminal (CT2), wherein a longitudinal edge of a portion of the second current conductor (CC2) is arranged proximate to the sensitive area of the sensor (MS); - wherein the first current conductor (CC1) and the second current conductor (CC2) are electrically connected by means of at least one conductive via (PV) through the printed circuit board (CB) such that a current path is formed between the first current terminal (CT1) and the second current terminal (CT2).
A wear part for use with earthmoving equipment comprising a wearable surface , a mounting configuration to mount the wear part on the earthmoving equipment, and a lifting connector mechanically attached to the wear part , the lifting connector having a head to facilitate connection with a lifting device and a base to engage the wear member characterized by a hole preformed in the wear part and the lifting connector base secured in the hole.
A terminal management method, comprising: obtaining , by a terminal, a first light intensity at a first moment and a second light intensity at a second moment according to a first interval period, wherein the second moment is later than the first moment; and determining, by the terminal, that the terminal is in the blocked state, and executing a first power management policy to close a target program when a difference between the first light intensity and the second light intensity is greater than a first threshold, and the second light intensity is less than a second threshold; obtaining , by the terminal, a third light intensity at a third moment according to a second interval period; and determining, by the terminal, that the terminal is in the unblocked state, and executing a second power management policy to start the target program when the third light intensity is greater than a third threshold. obtaining , by a terminal, a first light intensity at a first moment and a second light intensity at a second moment according to a first interval period, wherein the second moment is later than the first moment; and determining, by the terminal, that the terminal is in the blocked state, and executing a first power management policy to close a target program when a difference between the first light intensity and the second light intensity is greater than a first threshold, and the second light intensity is less than a second threshold; obtaining , by the terminal, a third light intensity at a third moment according to a second interval period; and determining, by the terminal, that the terminal is in the unblocked state, and executing a second power management policy to start the target program when the third light intensity is greater than a third threshold.
Drive system for transport devices having at least two, preferably individually driven drive wheels , which are arranged in alignment on a common first axis, the drive-wheel axis of rotation , which is arranged at an angle to a second axis, the pendulum axis , to which first and second axes a third axis, the pivot axis , is likewise arranged at an angle, characterised in that at least one rim of at least one of the drive wheels is mounted by means of at least one wheel bearing and at least one drive of at least one of the drive wheels is arranged within the wheel bearing , and in that at least one of the drive wheels is coupled to at least one braking device , in that the braking device is designed as a disk brake, in that the braking device has a first brake pad , a brake disk and a second brake pad , and in that the braking device is designed having a brake cylinder , which has a cavity to which the pressure of a brake medium can be applied and whose volume can thereby be varied, and in that at least the first brake pad can be moved as a function of the volume of the brake cylinder.
A dispenser for dispensing rolled product having a series of interconnected sheets separated by perforations, the dispenser comprising: a body having a product holding area for holding the rolled product ; a dispensing device having an orifice defining an opening in the body to the product holding area, a gate configured to move between a first position and a second position with respect to the orifice, a biasing device configured to bias the gate towards the first position, and a dampener coupled to the gate and configured to impede the biasing device from biasing the gate towards the first position to delay, in time, the gate from moving from the second position to the first position; wherein: in the first position the gate frictionally engages the series of interconnected sheets passing through the orifice with enough force to break a perforation separating two contiguous sheets of the series to cause single sheet dispensing; and the delay allows multiple sheets of the series of interconnected sheets to pass through the orifice, when pulled at a given rate, before the gate moves from the second position to the first position; and wherein the dispenser further comprises a movable door , wherein the orifice is defined at least in part by the gate, and the movable door is configured to allow the series of interconnected sheets to enter the orifice through a side of the orifice. a body having a product holding area for holding the rolled product ; a dispensing device having an orifice defining an opening in the body to the product holding area, a gate configured to move between a first position and a second position with respect to the orifice, a biasing device configured to bias the gate towards the first position, and a dampener coupled to the gate and configured to impede the biasing device from biasing the gate towards the first position to delay, in time, the gate from moving from the second position to the first position; wherein: in the first position the gate frictionally engages the series of interconnected sheets passing through the orifice with enough force to break a perforation separating two contiguous sheets of the series to cause single sheet dispensing; and the delay allows multiple sheets of the series of interconnected sheets to pass through the orifice, when pulled at a given rate, before the gate moves from the second position to the first position; and in the first position the gate frictionally engages the series of interconnected sheets passing through the orifice with enough force to break a perforation separating two contiguous sheets of the series to cause single sheet dispensing; and the delay allows multiple sheets of the series of interconnected sheets to pass through the orifice, when pulled at a given rate, before the gate moves from the second position to the first position; and wherein the dispenser further comprises a movable door , wherein the orifice is defined at least in part by the gate, and the movable door is configured to allow the series of interconnected sheets to enter the orifice through a side of the orifice.
System for carrying out a dialysis treatment using a dialysis machine, a control unit, and a sensor, wherein the sensor is in signal communication with the control unit, wherein the control unit is configured to measure the blood glucose level or the interstitial glucose value of a patient using the sensor during a dialysis treatment, to record a time progression of the blood glucose level or of the interstitial glucose values on the basis of the measurement values, and to automatically adapt one or more treatment parameters of the dialysis machine while taking into account the progression or to output instructions for a user-side adaptation of a treatment parameter or to output another user-side behavior, characterized in that the dialysis machine is a peritoneal dialysis machine.
A drive roll carrier , comprising: a gear ; a hub coupled to and extending axially from the gear along a rotational axis, wherein the gear is configured to be rotated via a wire feed motor ; an engagement feature coupled to and extending axially from the gear , wherein the engagement feature is configured to engage a drive roll and to urge rotation of the drive roll as the gear is rotated; characterized by a retainer disposed about the hub , wherein the retainer comprises an alignment feature configured to receive the drive roll onto the drive roll carrier ; wherein the retainer is configured to be selectively locked into an indexed position relative to the hub , wherein the alignment feature and the engagement feature are aligned in the indexed position to allow insertion or removal of the drive roll relative to the engagement feature . a gear ; a hub coupled to and extending axially from the gear along a rotational axis, wherein the gear is configured to be rotated via a wire feed motor ; an engagement feature coupled to and extending axially from the gear , wherein the engagement feature is configured to engage a drive roll and to urge rotation of the drive roll as the gear is rotated; characterized by a retainer disposed about the hub , wherein the retainer comprises an alignment feature configured to receive the drive roll onto the drive roll carrier ; wherein the retainer is configured to be selectively locked into an indexed position relative to the hub , wherein the alignment feature and the engagement feature are aligned in the indexed position to allow insertion or removal of the drive roll relative to the engagement feature .
An image generation method for an imaging apparatus that includes a plurality of pixels , the image generation method comprising: performing a first imaging operation (S20) of capturing an image when each of the plurality of pixels is shielded from light, in a state in which a first reference signal level in the first imaging operation is set to a first offset value, the first offset value corresponding to a first reset voltage, V RST1 , said reset voltage resetting the potential of a charge accumulator of said pixels ; and generating first image data (S24) based on a first pixel signal obtained (S23) by the first imaging operation (S22), wherein the first offset value is set (S21) higher than a second offset value, the second offset value corresponding to a second reset voltage, V RST2 , that is a second reference signal level in a second imaging operation of capturing an image in a state in which light is incident on each of the plurality of pixels , performing the second imaging operation (S10); generating second image data based on a second pixel signal obtained by the second imaging operation (S10); and generating third image data by subtracting the first image data from the second image data (S30). performing a first imaging operation (S20) of capturing an image when each of the plurality of pixels is shielded from light, in a state in which a first reference signal level in the first imaging operation is set to a first offset value, the first offset value corresponding to a first reset voltage, V RST1 , said reset voltage resetting the potential of a charge accumulator of said pixels ; and generating first image data (S24) based on a first pixel signal obtained (S23) by the first imaging operation (S22), wherein the first offset value is set (S21) higher than a second offset value, the second offset value corresponding to a second reset voltage, V RST2 , that is a second reference signal level in a second imaging operation of capturing an image in a state in which light is incident on each of the plurality of pixels , performing the second imaging operation (S10); generating second image data based on a second pixel signal obtained by the second imaging operation (S10); and generating third image data by subtracting the first image data from the second image data (S30).
A bone traction device , comprising: a base ; a support vertically disposed on the base ; a traction shaft provided at the support in a perpendicular direction and adapted to be driven in forward and backward directions; characterised by a double-joint part connected to the traction shaft and adapted to be bent in multiple stages with respect to a driving direction of the traction shaft , wherein the double-joint part includes: a first ball joint pivotally connected to one end portion of the traction shaft ; a second ball joint spaced apart from the first ball joint ; a connection member interconnecting the first and second ball joints; and a socket member pivotally connected with the second ball joint and connected to a patient. a base ; a support vertically disposed on the base ; a traction shaft provided at the support in a perpendicular direction and adapted to be driven in forward and backward directions; characterised by a double-joint part connected to the traction shaft and adapted to be bent in multiple stages with respect to a driving direction of the traction shaft , wherein the double-joint part includes: a first ball joint pivotally connected to one end portion of the traction shaft ; a second ball joint spaced apart from the first ball joint ; a connection member interconnecting the first and second ball joints; and a socket member pivotally connected with the second ball joint and connected to a patient.
A method for controlling a screen of a mobile terminal, comprising: obtaining (S101) a current motion parameter of a mobile terminal, wherein the motion parameter is used to determine whether the mobile terminal is picked up or put down; determining (S102, S103), when the motion parameter meets a pick-up parameter threshold, that the mobile terminal is picked up; obtaining (S104) a sight line parameter of a user after the mobile terminal is picked up, wherein the sight line parameter of the user is used to determine whether a visual center of the user is on the screen of the mobile terminal; and when the visual center of the user is on the screen and the screen is in an off state, switching (S105) the screen to an on state; characterized in that the method further comprises: when the motion parameter does not meet the pick-up parameter threshold (S204) and it is determined that the screen is switched from being blocked to not being blocked (S205), adjusting (S206), by the mobile terminal, the pick-up parameter threshold; and the determining, when the motion parameter meets a pick-up parameter threshold, that the mobile terminal is picked up comprises: when the motion parameter meets the pick-up parameter threshold obtained after the adjustment, determining (S207) that the mobile terminal is picked up. obtaining (S101) a current motion parameter of a mobile terminal, wherein the motion parameter is used to determine whether the mobile terminal is picked up or put down; determining (S102, S103), when the motion parameter meets a pick-up parameter threshold, that the mobile terminal is picked up; obtaining (S104) a sight line parameter of a user after the mobile terminal is picked up, wherein the sight line parameter of the user is used to determine whether a visual center of the user is on the screen of the mobile terminal; and when the visual center of the user is on the screen and the screen is in an off state, switching (S105) the screen to an on state; characterized in that the method further comprises: when the motion parameter does not meet the pick-up parameter threshold (S204) and it is determined that the screen is switched from being blocked to not being blocked (S205), adjusting (S206), by the mobile terminal, the pick-up parameter threshold; and the determining, when the motion parameter meets a pick-up parameter threshold, that the mobile terminal is picked up comprises: when the motion parameter meets the pick-up parameter threshold obtained after the adjustment, determining (S207) that the mobile terminal is picked up. when the motion parameter does not meet the pick-up parameter threshold (S204) and it is determined that the screen is switched from being blocked to not being blocked (S205), adjusting (S206), by the mobile terminal, the pick-up parameter threshold; and the determining, when the motion parameter meets a pick-up parameter threshold, that the mobile terminal is picked up comprises: when the motion parameter meets the pick-up parameter threshold obtained after the adjustment, determining (S207) that the mobile terminal is picked up.
A computer-implemented method for generating a treatment plan specifying an irradiation of a patient, the method comprising: a dose inference stage , including using a model to infer a spatial dose from patient data; a dose mimicking stage , including executing a robust optimization process to generate a deliverable treatment plan which is consistent with the inferred spatial dose, wherein the robust optimization considers a plurality of scenarios relating to patient data uncertainty. a dose inference stage , including using a model to infer a spatial dose from patient data; a dose mimicking stage , including executing a robust optimization process to generate a deliverable treatment plan which is consistent with the inferred spatial dose, wherein the robust optimization considers a plurality of scenarios relating to patient data uncertainty.
Method for adjusting a proportional-integral type corrector in a control device of a servo system , in particular of a servo valve-cylinder system, the corrector comprising a setpoint weighting coefficient (β), a proportional gain (K p ) and an integral gain (K i ), the adjustment method comprising the successive steps of: • Setting of the setpoint weighting coefficient (β) to a unit value, • Adjustment of the proportional gain (K p ) and the integral gain (K i ) of the corrector meeting at least one predefined performance criterion, • Definition of a characteristic drag error (ε TC ) permitting to meet the performance constraints of the servo system , and • Setting the setpoint weighting coefficient (β) to a setpoint weighting coefficient value (β) depending on the characteristic drag error (ε TC ) and the proportional gain (K p ) and the integral gain (K i ) previously set. • Setting of the setpoint weighting coefficient (β) to a unit value, • Adjustment of the proportional gain (K p ) and the integral gain (K i ) of the corrector meeting at least one predefined performance criterion, • Definition of a characteristic drag error (ε TC ) permitting to meet the performance constraints of the servo system , and • Setting the setpoint weighting coefficient (β) to a setpoint weighting coefficient value (β) depending on the characteristic drag error (ε TC ) and the proportional gain (K p ) and the integral gain (K i ) previously set.
Evaluation apparatus for a level meter for determining a characteristic variable (d L ) for the location of a boundary surface in a container , having: an echo curve evaluation device for receiving and evaluating an echo curve ; an output device for providing the characteristic variable (d L ) for the location of the boundary surface ; wherein the output device is connected to the echo curve evaluation device ; wherein the echo curve evaluation device is configured to recognize a multiple echo in the echo curve , to determine the position (D ML1 , D ML2 , D MB1 ) of the multiple echo, and to determine the order (N, N 1 , N 2 ) of the multiple echo; wherein the multiple echo has at least the order (N, N 1 , N 2 ) of one; and wherein the echo curve evaluation device is configured to determine the characteristic variable (d L ) for the location of the boundary surface in the container based on the the position (D ML1 , D ML2 , D MB1 )of the multiple echo, the environmental parameters of the material characteristic of an overlay medium ( ε L , μ L ), and the order (N, N 1 , N 2 ) of the multiple according to the relation d L = D ML 1 + ε L ⋅ μ L ⋅ N ⋅ d D 1 + N ⋅ ε L ⋅ μ L and to provide the characteristic variable (d L ) via the output device , wherein ε L specifies the relative permittivity of an overlying atmosphere, wherein μ L specifies the relative permeability of an overlying atmosphere ( μ L ), wherein d D is the length of an optionally present dome shaft. an echo curve evaluation device for receiving and evaluating an echo curve ; an output device for providing the characteristic variable (d L ) for the location of the boundary surface ; wherein the output device is connected to the echo curve evaluation device ; wherein the echo curve evaluation device is configured to recognize a multiple echo in the echo curve , to determine the position (D ML1 , D ML2 , D MB1 ) of the multiple echo, and to determine the order (N, N 1 , N 2 ) of the multiple echo; wherein the multiple echo has at least the order (N, N 1 , N 2 ) of one; and wherein the echo curve evaluation device is configured to determine the characteristic variable (d L ) for the location of the boundary surface in the container based on the the position (D ML1 , D ML2 , D MB1 )of the multiple echo, the environmental parameters of the material characteristic of an overlay medium ( ε L , μ L ), and the order (N, N 1 , N 2 ) of the multiple according to the relation d L = D ML 1 + ε L ⋅ μ L ⋅ N ⋅ d D 1 + N ⋅ ε L ⋅ μ L and to provide the characteristic variable (d L ) via the output device , wherein ε L specifies the relative permittivity of an overlying atmosphere, wherein μ L specifies the relative permeability of an overlying atmosphere ( μ L ), wherein d D is the length of an optionally present dome shaft.