mhurhangee/patent-ind-claim-en huggingface dataset:
An amplifier capable of operating in multiple modes, the amplifier comprising: a first voltage input (V P ) and a second voltage input (V N ); and a first current output (I OUT1 ), a second current output (I OUT2 ), and a third current output (-I OUT3 ); wherein the first current output and the second current output are configured to have substantially the same amplitude and substantially the same polarity, wherein the third current output is configured to have an amplitude that is substantially the same as the amplitudes of the first and second current outputs and a polarity that is substantially opposite to the polarities of the first current output and the second current output, and wherein the first current output and the second current output are each configured to comprise an amplified version of a difference between the first voltage input and the second voltage input; wherein the amplifier is configured to operate in a first mode when the first current output and the second current output are coupled together; wherein the amplifier is configured to operate in a second mode when one of the first current output and the second current output is coupled to the second voltage input; and wherein the amplifier is configured to operate in a third mode when one of the first current output and the second current output is floating. a first voltage input (V P ) and a second voltage input (V N ); and a first current output (I OUT1 ), a second current output (I OUT2 ), and a third current output (-I OUT3 ); wherein the first current output and the second current output are configured to have substantially the same amplitude and substantially the same polarity, wherein the third current output is configured to have an amplitude that is substantially the same as the amplitudes of the first and second current outputs and a polarity that is substantially opposite to the polarities of the first current output and the second current output, and wherein the first current output and the second current output are each configured to comprise an amplified version of a difference between the first voltage input and the second voltage input; wherein the amplifier is configured to operate in a first mode when the first current output and the second current output are coupled together; wherein the amplifier is configured to operate in a second mode when one of the first current output and the second current output is coupled to the second voltage input; and wherein the amplifier is configured to operate in a third mode when one of the first current output and the second current output is floating.
A method of operating a network entity, wherein the network entity corresponds to a serving base station, comprising: scheduling, as part of a positioning procedure for a user equipment, UE, a first set of resources for transmission of at least one downlink, DL, reference signal, RS, by at least one neighboring base station to the UE; associating the at least one DL RS with at least one uplink, UL, RS for transmission by the UE on a second set of resources to one or more neighboring base stations as part of the positioning procedure for the UE; and transmitting , to the UE, an indication of the association between the at least one DL RS and the at least one UL RS. scheduling, as part of a positioning procedure for a user equipment, UE, a first set of resources for transmission of at least one downlink, DL, reference signal, RS, by at least one neighboring base station to the UE; associating the at least one DL RS with at least one uplink, UL, RS for transmission by the UE on a second set of resources to one or more neighboring base stations as part of the positioning procedure for the UE; and transmitting , to the UE, an indication of the association between the at least one DL RS and the at least one UL RS.
A system for moving a portion of a patient's body comprising: a housing having a first cavity , a longitudinal axis (Z), a proximal end, and a distal end; a first distraction rod having a proximal end, a distal end, and a second cavity extending along the longitudinal axis (Z), wherein the first distraction rod is configured for telescopic displacement relative to the housing ; a second distraction rod having a proximal end and a distal end, wherein the second distraction rod is configured for telescopic displacement from within the second cavity ; and characterised by a drive system comprising a first lead screw having a first external thread , and a second lead screw having an internal thread and disposed annularly around and threadingly engaged with the first lead screw , wherein the drive system is configured to rotate the first lead screw to move the second distraction rod and the second lead screw relative to the first lead screw , and wherein upon fully displacing the second lead screw relative to the first lead screw , the second lead screw is configured to rotate with the first lead screw to move at least one of the first distraction rod and the second distraction rod relative to the housing . a housing having a first cavity , a longitudinal axis (Z), a proximal end, and a distal end; a first distraction rod having a proximal end, a distal end, and a second cavity extending along the longitudinal axis (Z), wherein the first distraction rod is configured for telescopic displacement relative to the housing ; a second distraction rod having a proximal end and a distal end, wherein the second distraction rod is configured for telescopic displacement from within the second cavity ; and characterised by a drive system comprising a first lead screw having a first external thread , and a second lead screw having an internal thread and disposed annularly around and threadingly engaged with the first lead screw , wherein the drive system is configured to rotate the first lead screw to move the second distraction rod and the second lead screw relative to the first lead screw , and wherein upon fully displacing the second lead screw relative to the first lead screw , the second lead screw is configured to rotate with the first lead screw to move at least one of the first distraction rod and the second distraction rod relative to the housing .
An agricultural round bale press for producing round bales pressed from crop material, including - at least one housing delimiting an internal space of the round bale press , - at least one pressing chamber which is arranged within the internal space and by means of which fed crop material can be pressed to form a round bale, - at least one feed device , by means of which a wrapping material which can be pulled off a wrapping roll can be fed to the pressing chamber for wrapping a pressed round bale, wherein the feed device has at least one roller holder including at least two elongate support rollers which are oriented parallel to each other and are rotatable about their respective axis of rotation , wherein the feed device includes at least one loading arm , by means of which a wrapping roll to be loaded can be transferred into a loading position in which the wrapping roll is oriented at least substantially parallel to the support rollers and is arranged at least substantially at a heightwise level of the roller holder , characterised in that the feed device has at least one carriage which is moveable along a guide rail of the feed device , that extends parallel to the support rollers , wherein the carriage is suitable for at least partially taking over from the loading arm a wrapping roll starting from its loading position, so that the wrapping roll can then be guided by means of the carriage along the guide rail , the guide rail extending between the support rollers of the roller holder . - at least one housing delimiting an internal space of the round bale press , - at least one pressing chamber which is arranged within the internal space and by means of which fed crop material can be pressed to form a round bale, - at least one feed device , by means of which a wrapping material which can be pulled off a wrapping roll can be fed to the pressing chamber for wrapping a pressed round bale,
A loading tool for use with a medical device, the loading tool comprising: a tubular member configured to be disposed about a balloon catheter , the tubular member including a distal portion , a proximal portion , and a necked down region disposed between the distal portion and the proximal portion ; wherein the distal portion has a distal inner diameter and the necked down region includes a necked inner diameter smaller than the distal inner diameter; and characterized in that the proximal portion has a plurality of axial slits formed therein, wherein the axial slits are in the form of slots . a tubular member configured to be disposed about a balloon catheter , the tubular member including a distal portion , a proximal portion , and a necked down region disposed between the distal portion and the proximal portion ; wherein the distal portion has a distal inner diameter and the necked down region includes a necked inner diameter smaller than the distal inner diameter; and characterized in that the proximal portion has a plurality of axial slits formed therein, wherein the axial slits are in the form of slots .
Sensor system for a battery module, comprising: a shunt resistor having a first current clamp and a second current clamp that are each configured to be connected to a current path of the battery module, a first voltage clamp and a second voltage clamp , and a measurement resistance electrically connecting the first current clamp and the second current clamp and being disposed between the first voltage clamp and the second voltage clamp positioned adjacent the measurement resistance , a first landing pad electrically connected to the first voltage clamp and a second landing pad electrically connected to the second voltage clamp , wherein the first landing pad and the second landing pad are separated from the shunt resistor and are configured for tapping voltage signals from the shunt resistor , and a first temperature sensor connected to the first landing pad and configured to measure a temperature of the first landing pad and a second temperature sensor connected to the second landing pad and configured for measuring a temperature of the second landing pad . a shunt resistor having a first current clamp and a second current clamp that are each configured to be connected to a current path of the battery module, a first voltage clamp and a second voltage clamp , and a measurement resistance electrically connecting the first current clamp and the second current clamp and being disposed between the first voltage clamp and the second voltage clamp positioned adjacent the measurement resistance , a first current clamp and a second current clamp that are each configured to be connected to a current path of the battery module, a first voltage clamp and a second voltage clamp , and a measurement resistance electrically connecting the first current clamp and the second current clamp and being disposed between the first voltage clamp and the second voltage clamp positioned adjacent the measurement resistance , a first landing pad electrically connected to the first voltage clamp and a second landing pad electrically connected to the second voltage clamp , wherein the first landing pad and the second landing pad are separated from the shunt resistor and are configured for tapping voltage signals from the shunt resistor , and a first temperature sensor connected to the first landing pad and configured to measure a temperature of the first landing pad and a second temperature sensor connected to the second landing pad and configured for measuring a temperature of the second landing pad .
A method of operating a transformerless inverter connected on the input side to a generator and on the output side to a multiphase AC grid and comprising a multi-phase inverter bridge with a switch between a midpoint of a DC intermediate circuit on the input side and a terminal for a neutral conductor of the multiphase AC grid , wherein, when first operating conditions are present, electric power is fed from the DC intermediate circuit into the AC grid by the inverter bridge at closed switch , wherein at a transition from the first operating conditions to second operating conditions, different from the first operating conditions, the switch is opened, wherein at a transition from the second operating conditions to the first operating conditions the switch is closed, and wherein, when the second operating conditions are present, electric power is fed from the DC intermediate circuit into the AC grid by the inverter bridge at open switch , wherein in the case of the second operating conditions a symmetric feed into all phase conductors (22 to 24) of the AC grid is intended, characterized in that the second operating conditions additionally comprise at least one of the following operating conditions: - a residual current or leakage current measured at the inverter maintains a first current limit at open switch , - a residual current or leakage current measured at the inverter maintains a second current limit at closed switch , - a leakage capacitance determined for the generator connected to the DC intermediate circuit maintains a capacitance limit, - an intermediate circuit voltage of the DC intermediate circuit does not reach the double value of the peak phase-to-neutral line voltage of the AC grid . - a residual current or leakage current measured at the inverter maintains a first current limit at open switch , - a residual current or leakage current measured at the inverter maintains a second current limit at closed switch , - a leakage capacitance determined for the generator connected to the DC intermediate circuit maintains a capacitance limit, - an intermediate circuit voltage of the DC intermediate circuit does not reach the double value of the peak phase-to-neutral line voltage of the AC grid .
A switching device comprising: a first terminal and a second terminal; and a plurality of switching elements connected in series to form a stack between the first terminal and the second terminal having a non-uniform distribution of a physical parameter of each switching element of the stack , the stack being configured to provide a first voltage handling capacity greater than a second voltage handling capacity corresponding to a similar stack having a uniform distribution of the physical parameter of each switching element of the similar stack, the switching elements of the similar stack having a non-uniform distribution of an electrical parameter of each respective switching element, the non-uniform distribution of the physical parameter of each respective switching element of the stack tracking the non-uniform distribution of the electrical parameter of each respective switching element of the similar stack. a first terminal and a second terminal; and a plurality of switching elements connected in series to form a stack between the first terminal and the second terminal having a non-uniform distribution of a physical parameter of each switching element of the stack , the stack being configured to provide a first voltage handling capacity greater than a second voltage handling capacity corresponding to a similar stack having a uniform distribution of the physical parameter of each switching element of the similar stack, the switching elements of the similar stack having a non-uniform distribution of an electrical parameter of each respective switching element, the non-uniform distribution of the physical parameter of each respective switching element of the stack tracking the non-uniform distribution of the electrical parameter of each respective switching element of the similar stack.
A method for operating a food processor driven by an electric motor for preparing a preparation item based on a recipe, wherein the preparation item is prepared in a vessel of the food processor in one or more sequential preparation steps, in particular via mixing and/or heating and/or comminuting, characterized in that an operating parameter of the food processor is automatically controlled as a function of repeated user behavior of the same type when processing a recipe, wherein the user behavior includes an exchange of ingredients provided for a recipe by other ingredients and/or an amount of an ingredient that differs from a recipe, wherein the user behavior comprises a plurality of data, wherein the data are stored within a data memory, wherein an evaluation and control device of the food processor evaluates the large number of data stored in the data memory, recognizes repetitions of user behavior and controls the current operating parameters of the food processor analogously to the operating parameters of previous preparations.
A method for thermal diagnostics of a single-crystal pressure sensor , the method comprising: providing a single-crystal pressure sensor with a resistive element and a pressure sensitive element therein, said pressure sensitive element having at least one electrical characteristic that varies with applied pressure; and said resistive element is a temperature sensor having a resistance which varies as a function of temperature; sensing temperature based upon resistance of the temperature sensor ; applying a current through the temperature sensor to heat the pressure sensor ; monitoring at least one output of the pressure sensitive element to determine a response of the pressure sensor to the heat, including monitoring a temperature sensor output; and providing a diagnostics output based on the response of the pressure sensor. providing a single-crystal pressure sensor with a resistive element and a pressure sensitive element therein, said pressure sensitive element having at least one electrical characteristic that varies with applied pressure; and said resistive element is a temperature sensor having a resistance which varies as a function of temperature; said pressure sensitive element having at least one electrical characteristic that varies with applied pressure; and said resistive element is a temperature sensor having a resistance which varies as a function of temperature; sensing temperature based upon resistance of the temperature sensor ; applying a current through the temperature sensor to heat the pressure sensor ; monitoring at least one output of the pressure sensitive element to determine a response of the pressure sensor to the heat, including monitoring a temperature sensor output; and providing a diagnostics output based on the response of the pressure sensor.
Active chassis having at least two gear mechanisms connected mechanically in parallel, each of which is configured as a three-shaft gear mechanism, wherein at least one of the gear mechanisms is configured as a strain wave gearing or both gear mechanisms are configured as strain wave gearing , and wherein a respective circular spline of the strain wave gearing is connected rotationally fixedly to a housing and wherein a respective first shaft forms a drive that is driven by a drive motor and wherein a respective second shaft forms an output to which there is connected a respective dedicated torsion bar that is configured to be coupled to a respective wheel suspension, and wherein the third shafts are both supported on the same supporting component , which a. is configured as a load-bearing element of a vehicle body or is configured and intended to be fastened to a vehicle body, and which b. is configured as a housing that houses the two gear mechanisms and at least one drive motor that is operatively connected to the drives. a. is configured as a load-bearing element of a vehicle body or is configured and intended to be fastened to a vehicle body, and which b. is configured as a housing that houses the two gear mechanisms and at least one drive motor that is operatively connected to the drives.
A cleaning robot, comprising: a robot body ; a side brush assembly disposed on the robot body ; and a mopping assembly , the side brush assembly being located in front of the mopping assembly along a travelling direction of the cleaning robot; characterized in that , the cleaning robot further comprises a controller disposed on the robot body and configured for controlling a target bristle of the side brush assembly to be limited in a designated sub-area when the cleaning robot is in a cleaning mode in which the side brush assembly is not in work; wherein a designated area is a projection area of the robot body on a horizontal plane; the designated area comprises the designated sub-area; and the designated sub-area is an area where an area formed by two tangent lines of a mopping area formed by the mopping assembly along the travelling direction of the cleaning robot overlaps with the designated area; and the target bristle has a length greater than a preset length threshold, and the preset length threshold is a minimum distance between a rotation center of the side brush assembly and an edge of the robot body . a robot body ; a side brush assembly disposed on the robot body ; and a mopping assembly , the side brush assembly being located in front of the mopping assembly along a travelling direction of the cleaning robot; characterized in that , the cleaning robot further comprises a controller disposed on the robot body and configured for controlling a target bristle of the side brush assembly to be limited in a designated sub-area when the cleaning robot is in a cleaning mode in which the side brush assembly is not in work; wherein a designated area is a projection area of the robot body on a horizontal plane; the designated area comprises the designated sub-area; and the designated sub-area is an area where an area formed by two tangent lines of a mopping area formed by the mopping assembly along the travelling direction of the cleaning robot overlaps with the designated area; and the target bristle has a length greater than a preset length threshold, and the preset length threshold is a minimum distance between a rotation center of the side brush assembly and an edge of the robot body .