mhurhangee/patent-ind-claim-en huggingface dataset:
A dispenser for dispensing a web-shaped sheet product , in particular paper, with a dispensing unit which is driven by means of an electric motor and which is supplied with energy from a power source disposed in the dispenser and by means of which, in a motor operational mode, the web-shaped sheet product can be dispensed from the dispenser after a - preferably contactlessly operating - trigger sensor reacts, characterized in that in a manual operational mode in which the user pulls the web-shaped sheet product out of the dispenser manually, the electric motor operates as a generator and charges a power storage unit for supplying power to the electronic control system and/or charges the power source supplying the electric motor , wherein the power storage unit is separately configured for the electronic control system on the one hand and the power source is separately configured for the electric motor on the other hand.
A gas turbine combustor comprising a cylindrical flow sleeve extending along a combustor axis (A-A), a cylindrical combustion liner located coaxial to and radially within the flow sleeve , the liner having an inlet end and an opposing outlet end , a set of main fuel injectors positioned radially outward of the combustion liner and proximate an upstream end of the flow sleeve , and a combustor dome assembly encompassing the inlet end of the combustion liner , the dome assembly extending from proximate the set of main fuel injectors to a generally hemispherical-shaped cap positioned a distance forward of the inlet end of the combustion liner and turning to extend a distance into the combustion liner , such that a first passageway and a second passageway are formed between the combustion liner and a dome assembly outer wall , and a third passageway is formed between the combustion liner and a dome assembly inner wall , wherein the first passageway has a first radial height (H1), the second passageway is formed between two cylindrical wall portions and has a second radial height (H2) and the third passageway is formed between two cylindrical wall portions and has a third radial height (H3) such that the second radial height regulates the volume of a fuel-air mixture entering the gas turbine combustor; wherein the first passageway tapers towards the second passageway to accelerate the fuel-air mixture, and the first passageway has its largest height at a region adjacent the set of main fuel injectors characterized in that the ratio of H2/H3 is 032.
A cartridge for storing a liquid aerosol-forming substrate , for use with an electrically operated smoking system for heating the liquid aerosol-forming substrate , the cartridge comprising: a container for storing the liquid aerosol-forming substrate ; a capillary wick for conveying the liquid aerosol-forming substrate from the container ; an electric heater for heating the liquid aerosol-forming substrate , the electric heater being connectable to an electric power supply in the electrically operated smoking system ; at least one electrical connector for the heater ; and leakage prevention means configured to prevent or reduce leakage of the liquid aerosol-forming substrate from the container , wherein the leakage prevention means comprises a first sealing means between the container and the capillary wick , and wherein the leakage prevention means comprises a second sealing means between the container and the at least one electrical connector . a container for storing the liquid aerosol-forming substrate ; a capillary wick for conveying the liquid aerosol-forming substrate from the container ; an electric heater for heating the liquid aerosol-forming substrate , the electric heater being connectable to an electric power supply in the electrically operated smoking system ; at least one electrical connector for the heater ; and leakage prevention means configured to prevent or reduce leakage of the liquid aerosol-forming substrate from the container , wherein the leakage prevention means comprises a first sealing means between the container and the capillary wick , and wherein the leakage prevention means comprises a second sealing means between the container and the at least one electrical connector .
High-voltage battery for a motor vehicle , having at least one storage element for electrical energy, at least one control unit operated at a lower voltage than the high voltage, and a modular unit comprising at least one switching device and/or at least one fuse as electrical components, wherein the modular unit is attached in a pre-determined position on a housing, externally to said housing that holds the storage element and the control unit , in such a way that when the modular unit is fitted onto the housing at least two high-voltage contacts of the modular unit , which are connected to at least one of the electrical components of the modular unit , are connected in an electrically conducting manner to assigned high-voltage contacts on the housing side, and at least one contact arrangement of the modular unit comprising at least one current supply contact and/or at least one control line contact are connected in an electrically conducting manner to an assigned contact arrangement connected to the control unit on the housing side, characterised in that the modular unit is attached onto the housing by way of fastening means provided as screws , such that the interfaces formed by the contact arrangements and by the high-voltage contacts are contacted when the modular unit is secured by the screws onto the housing .
An inner member rotatable within an angled outer tubular member of a rotary surgical cutting instrument, comprising: a first tubular member , comprising: a rigid proximal portion comprised of a first material, the proximal portion including a hub ; a flexible intermediate portion comprised of a second material; and a rigid distal portion comprised of the first material, the distal portion terminating at a distal end configured to couple with a cutting tip, wherein the flexible intermediate portion extends between and is fixedly coupled to the proximal portion and the distal portion. a rigid proximal portion comprised of a first material, the proximal portion including a hub ; a flexible intermediate portion comprised of a second material; and a rigid distal portion comprised of the first material, the distal portion terminating at a distal end configured to couple with a cutting tip, wherein the flexible intermediate portion extends between and is fixedly coupled to the proximal portion and the distal portion.
A signal processing apparatus that is configured to generate a motor control signal (Str) for controlling a motor by performing a smoothing process on a torque value signal (St) from a torque sensor of an electric tool by using a filter , the electric tool comprising an anvil , a shaft , and an impact sensor , wherein the impact sensor is configured to detect impact applied to the shaft due to a hit given to the anvil and the shaft , and is configured to output an impact pulse indicating the detected impact, wherein the signal processing apparatus comprises: a half width detector circuit that is configured to detect a half width of the torque value signal (St); and a calculator circuit that is configured to control a cut-off frequency (fc) of the filter to change the cut-off frequency (fc) according to a number of hits (H) of the electric tool, based on the detected half width of the torque value signal, wherein the number of hits (H) is a counted value of the impact pulses from the impact sensor . wherein the impact sensor is configured to detect impact applied to the shaft due to a hit given to the anvil and the shaft , and is configured to output an impact pulse indicating the detected impact, wherein the signal processing apparatus comprises: a half width detector circuit that is configured to detect a half width of the torque value signal (St); and a calculator circuit that is configured to control a cut-off frequency (fc) of the filter to change the cut-off frequency (fc) according to a number of hits (H) of the electric tool, based on the detected half width of the torque value signal, wherein the number of hits (H) is a counted value of the impact pulses from the impact sensor . a half width detector circuit that is configured to detect a half width of the torque value signal (St); and a calculator circuit that is configured to control a cut-off frequency (fc) of the filter to change the cut-off frequency (fc) according to a number of hits (H) of the electric tool, based on the detected half width of the torque value signal, wherein the number of hits (H) is a counted value of the impact pulses from the impact sensor .
A control system for controlling operation of an execution device, the control system comprising: a master controller (ECU); a microprocessor (MCU); and a signal line (BUS); wherein the master controller is configured to send a control signal to the microprocessor via the signal line; the microprocessor is configured to: send the control signal to the execution device to drive the execution device to operate; acquire, at a time interval, a feedback signal representing an operation state of the execution device; and send the feedback signal to the signal line; and the master controller is further configured to: acquire the feedback signal from the signal line; determine, from the feedback signal, the operation state of the execution device; and regulate the control signal based on the operation state; characterized in that , a first control module of the main controller comprises a first storage module configured to prestore a first combination list, wherein the first combination list comprises a plurality of combinations of a duration of the control signal and a duration of a low level signal; a third feedback signal is a combination of a duration of the control signal and a duration of the low level signal; and the master controller is configured to: determine the operation state of the execution device based on whether the third feedback signal is same as one of the plurality of combinations of the duration of the control signal and the duration of the low level signal in the first combination list; and regulate the control signal based on the operation state. a master controller (ECU); a microprocessor (MCU); and a signal line (BUS); wherein the master controller is configured to send a control signal to the microprocessor via the signal line; the microprocessor is configured to: send the control signal to the execution device to drive the execution device to operate; acquire, at a time interval, a feedback signal representing an operation state of the execution device; and send the feedback signal to the signal line; and the master controller is further configured to: acquire the feedback signal from the signal line; determine, from the feedback signal, the operation state of the execution device; and regulate the control signal based on the operation state; characterized in that , a first control module of the main controller comprises a first storage module configured to prestore a first combination list, wherein the first combination list comprises a plurality of combinations of a duration of the control signal and a duration of a low level signal; a third feedback signal is a combination of a duration of the control signal and a duration of the low level signal; and the master controller is configured to: determine the operation state of the execution device based on whether the third feedback signal is same as one of the plurality of combinations of the duration of the control signal and the duration of the low level signal in the first combination list; and regulate the control signal based on the operation state.
A pump comprising: a casing ; a driving rotor that is supported for rotation within the casing, the driving rotor having a plurality of teeth, each of the plurality of teeth having a leading convex surface and a trailing surface; and a plurality of driven rotors coupled to said driving rotor and supported for rotation within the casing, each of said plurality of driven rotors having an inlet port and a discharge port and a plurality of teeth, each of the plurality of teeth having a leading surface and a trailing flat surface; wherein the driving rotor and the plurality of driven rotors are positioned in the casing such that, as the driving rotor and the plurality of driven rotors rotate, the plurality of teeth of the driving rotor and the respective pluralities of teeth of the driven rotors are interfaced with one another to form a seal between the inlet port and the discharge port of each driven rotor, the seal being formed only between the leading convex surfaces of the teeth of the driving rotor and the trailing flat surfaces of the teeth of the driven rotors. a casing ; a driving rotor that is supported for rotation within the casing, the driving rotor having a plurality of teeth, each of the plurality of teeth having a leading convex surface and a trailing surface; and a plurality of driven rotors coupled to said driving rotor and supported for rotation within the casing, each of said plurality of driven rotors having an inlet port and a discharge port and a plurality of teeth, each of the plurality of teeth having a leading surface and a trailing flat surface; wherein the driving rotor and the plurality of driven rotors are positioned in the casing such that, as the driving rotor and the plurality of driven rotors rotate, the plurality of teeth of the driving rotor and the respective pluralities of teeth of the driven rotors are interfaced with one another to form a seal between the inlet port and the discharge port of each driven rotor, the seal being formed only between the leading convex surfaces of the teeth of the driving rotor and the trailing flat surfaces of the teeth of the driven rotors.
A method performed by a user equipment, UE, in a suspended state in a radio access network, RAN, for performing RAN Notification Area Update, RNAU, the method comprising: in response to expiration of a first timer associated with RNAU, transmitting to a base station an RRCResumeRequest message with a cause value related to RNAU; receiving, in response to the RRCResumeRequest message, a reject message, wherein the reject message is a RRCReject; in response to receiving the reject message, starting a second timer; in response to receiving the reject message setting the value of a RNAU pending register to 'TRUE'; and upon expiry of said second timer, transmitting to the base station a further RRCResumeRequest message if the value of said RNAU pending register is set to 'TRUE'. in response to expiration of a first timer associated with RNAU, transmitting to a base station an RRCResumeRequest message with a cause value related to RNAU; receiving, in response to the RRCResumeRequest message, a reject message, wherein the reject message is a RRCReject; in response to receiving the reject message, starting a second timer; in response to receiving the reject message setting the value of a RNAU pending register to 'TRUE'; and upon expiry of said second timer, transmitting to the base station a further RRCResumeRequest message if the value of said RNAU pending register is set to 'TRUE'.
Isolation transformer (100is1, 100is2, 100is3, 100is4) comprising: - a Faraday cage comprising a magnetic core and at least one primary coil (120, 120-1..120-3) and at least one secondary coil (130, 130-1..130-3); - input terminals (Ti1, Ti2, Ti3) connected to the at least one primary coil (120, 120-1..120-3) via input wires (i1, i2, i3); - output terminals (To1, To2, To3) connected to the at least one secondary coil (130, 130-1..130-3) via output wires (o1, o2, o3), and - an input ground terminal (GT1) for connecting to the Faraday cage and an output ground terminal (GT2) connected to the Faraday cage for further connection to a further circuit to be connected to the isolation transformer (100is1, 100is2, 100is3, 100is4), characterised in that the isolation transformer (100is1, 100is2, 100is3, 100is4) further comprises: - a clean ground input terminal for receiving an external clean ground (ISPE); - a clean ground output terminal for connecting to a further clean ground input terminal of the further circuit , and - a physical electrical node placed at a location within the Faraday cage where the magnetic flux and electric field are the lowest, wherein the clean ground input terminal is electrically fed into the isolation transformer (100is1, 100is2, 100is3, 100is4) and connected to the physical electrical node through a first electric connection , wherein the physical electrical node is further electrically connected to a clean ground output terminal through a second electric connection . - a Faraday cage comprising a magnetic core and at least one primary coil (120, 120-1..120-3) and at least one secondary coil (130, 130-1..130-3); - input terminals (Ti1, Ti2, Ti3) connected to the at least one primary coil (120, 120-1..120-3) via input wires (i1, i2, i3); - output terminals (To1, To2, To3) connected to the at least one secondary coil (130, 130-1..130-3) via output wires (o1, o2, o3), and - an input ground terminal (GT1) for connecting to the Faraday cage and an output ground terminal (GT2) connected to the Faraday cage for further connection to a further circuit to be connected to the isolation transformer (100is1, 100is2, 100is3, 100is4), - a clean ground input terminal for receiving an external clean ground (ISPE); - a clean ground output terminal for connecting to a further clean ground input terminal of the further circuit , and - a physical electrical node placed at a location within the Faraday cage where the magnetic flux and electric field are the lowest,
A coated glazing comprising: a transparent substrate directly or indirectly coated on a major surface thereof with at least one layer based on silica and/or an organo silica, wherein the at least one layer based on silica and/or an organo silica has a thickness of at least 5 nm but at most 45 nm, and wherein the at least one layer based on silica and/or an organo silica is obtained by partially or completely converting at least one layer based on one or more silazane; and wherein the coefficient of kinetic friction between an exterior surface of the at least one layer based on silica and/or an organo silica and a contact surface of a wiping means does not change between a wet and a dry state by more than 50%. a transparent substrate directly or indirectly coated on a major surface thereof with at least one layer based on silica and/or an organo silica, wherein the at least one layer based on silica and/or an organo silica has a thickness of at least 5 nm but at most 45 nm, and wherein the at least one layer based on silica and/or an organo silica is obtained by partially or completely converting at least one layer based on one or more silazane; and wherein the coefficient of kinetic friction between an exterior surface of the at least one layer based on silica and/or an organo silica and a contact surface of a wiping means does not change between a wet and a dry state by more than 50%.
Method for determining traffic density information in a motor vehicle which is to be taken into account in a function of a vehicle system and describes the traffic density in the vicinity of the motor vehicle , wherein radar data describing objects in the vicinity of the motor vehicle is recorded by means of at least one radar sensor directed at the vicinity of the motor vehicle , characterised in that a radar sensor based on semiconductor technology is used, wherein an environment map containing the detected objects classified into static and dynamic objects is determined by evaluating the radar data, and local traffic density information is determined from at least some of the positions of dynamic objects contained in the environment map, wherein the position of at least one cluster region of dynamic objects in which a threshold value for the density of dynamic objects is exceeded is determined as local traffic density information.
Biometric sensor module for a chip card , comprising - a dielectric substrate having an outer face and an inner face, each situated respectively on either side of this dielectric substrate considered along its thickness, the inner and outer faces of the dielectric substrate corresponding to the main faces thereof, - tracks and connection pads formed in a sheet of electrically conductive material that rests on the inner face of the dielectric substrate and is fastened thereto, - a biometric sensor with a detection element formed of sensitive elements, this sensor being connected to at least some connection pads , and being fastened to an area of the inner face that does not have any electrically conductive material, an area of the outer face situated opposite the detection element corresponding to a biometric detection area configured such that a finger placed on it establishes contact therewith, and - an encapsulation deposited at least on the sensor , on the side of the inner face of the dielectric substrate , characterized in that , at least over the detection area , the outer face of the dielectric substrate corresponds to a homogeneous polymer material that is exposed and that has a glass transition temperature greater than or equal to 110 degrees Celsius. - a dielectric substrate having an outer face and an inner face, each situated respectively on either side of this dielectric substrate considered along its thickness, the inner and outer faces of the dielectric substrate corresponding to the main faces thereof, - tracks and connection pads formed in a sheet of electrically conductive material that rests on the inner face of the dielectric substrate and is fastened thereto, - a biometric sensor with a detection element formed of sensitive elements, this sensor being connected to at least some connection pads , and being fastened to an area of the inner face that does not have any electrically conductive material, an area of the outer face situated opposite the detection element corresponding to a biometric detection area configured such that a finger placed on it establishes contact therewith, and - an encapsulation deposited at least on the sensor , on the side of the inner face of the dielectric substrate ,