mhurhangee/patent-ind-claim-en huggingface dataset:
An electric power steering apparatus for assisting steering of a motor vehicle by conferring a support torque generated by an electric motor to a steering mechanism, the electric power steering apparatus comprising: the steering mechanism comprising a steering column with an upper steering shaft and a lower steering shaft (2") linked by a torsion bar and an angle sensor (AS) , which comprises at least one gear with a magnet to measure the steering shaft angle (α), and a torque sensor (TS) , which can measure the relative shift angle between the upper steering shaft and the lower steering shaft (2") and wherein the TS comprises a multi-pole ring magnet and a magnetic flux conductor , and wherein the TS and AS are arranged in such a way, that the at least one AS magnet influences the TS measurement creating a steering shaft angle (α) depending error signal of the TS, characterized in that , the steering mechanism is arranged in the apparatus in such a way, that a zero crossing of an envelope curve of the steering shaft angle depending error signal is given for the neutral position of the steering apparatus or a range of the steering position in which the steering angle is less than a threshold angle limit being a threshold value of +/- 10°. the steering mechanism comprising a steering column with an upper steering shaft and a lower steering shaft (2") linked by a torsion bar and an angle sensor (AS) , which comprises at least one gear with a magnet to measure the steering shaft angle (α), and a torque sensor (TS) , which can measure the relative shift angle between the upper steering shaft and the lower steering shaft (2") and wherein the TS comprises a multi-pole ring magnet and a magnetic flux conductor , and wherein the TS and AS are arranged in such a way, that the at least one AS magnet influences the TS measurement creating a steering shaft angle (α) depending error signal of the TS, characterized in that , the steering mechanism is arranged in the apparatus in such a way, that a zero crossing of an envelope curve of the steering shaft angle depending error signal is given for the neutral position of the steering apparatus or a range of the steering position in which the steering angle is less than a threshold angle limit being a threshold value of +/- 10°.
Remote control comprising - first information reading device and a second information reading device , each of which is set up to read information based on a pressure exerted by a user in a printing direction , - a first pressure recording element assigned to the first information reading device and a second pressure recording element assigned to the second information reading device , each having a pressure recording side for receiving the pressure of the user and have a print delivery page for delivering the recorded pressure to the respective information reading device , - a, the pressure receiving sides of the pressure receiving elements interconnecting, flexible printed circuit board on which at least one capacitive sensor is formed, which capacity is dependent on the location of a finger of the user on the flexible circuit board , and - a first key element and a second key element , that is respectively laid on the side of the flexible circuit board opposite to the pressure receiving sides of the pressure receiving elements characterized in that - the flexible printed circuit board is held at least on one of the key elements at an angle to the printing direction in a positive manner . - first information reading device and a second information reading device , each of which is set up to read information based on a pressure exerted by a user in a printing direction , - a first pressure recording element assigned to the first information reading device and a second pressure recording element assigned to the second information reading device , each having a pressure recording side for receiving the pressure of the user and have a print delivery page for delivering the recorded pressure to the respective information reading device , - a, the pressure receiving sides of the pressure receiving elements interconnecting, flexible printed circuit board on which at least one capacitive sensor is formed, which capacity is dependent on the location of a finger of the user on the flexible circuit board , and - a first key element and a second key element , that is respectively laid on the side of the flexible circuit board opposite to the pressure receiving sides of the pressure receiving elements characterized in that - the flexible printed circuit board is held at least on one of the key elements at an angle to the printing direction in a positive manner .
A device for performing at least one medical action at a human or animal body; wherein the device comprises an energy source and a computer ; wherein the computer a) comprises a first erasable non-volatile memory , and b) is configured for performing at least one application, the application being configured to control the medical action; characterized in that the application is configured to prioritize the medical action over a memory cleaning called by a wear leveling, wherein the application is further configured to prioritize a securing of a communication connection of the device over the memory cleaning called by the wear leveling. wherein the device comprises an energy source and a computer ; wherein the computer a) comprises a first erasable non-volatile memory , and b) is configured for performing at least one application, the application being configured to control the medical action; a) comprises a first erasable non-volatile memory , and b) is configured for performing at least one application, the application being configured to control the medical action;
An exhaust sensor comprising a sensing electrode and a reference electrode each in physical contact with an electrolyte portion ; wherein at least one of the sensing electrode and the reference electrode are formed by depositing an electrode precursor material configured as a pattern on an electrolyte portion precursor material and sintering the combination at a sufficient temperature for a sufficient time to achieve densification of the electrolyte portion , wherein the electrode precursor material comprises an alkali salt, wherein the sensing electrode and the reference electrode are disposed on opposite sides of, and in ionic contact with, the electrolyte portion , characterised in that the perimeter of at least one of the sensing electrode and the reference electrode is greater than the perimeter of the smallest rectangle that can be defined to completely enclose the pattern of said sensing electrode or said reference electrode by an amount sufficient to produce an exhaust sensor impedance after sintering less than 200 ohms at an exhaust sensor temperature at or below 450 degrees C.
A brake valve arrangement for use in a trailer electronic braking system comprising a pressure control module controllable by an electronic control unit , wherein the pressure control module is adapted to receive pressure inputs and/or electronic inputs to signal that air flow into or from airbags on each wheel or axle should be controlled for the purpose of raising or lowering the level of the trailer, which airflow is actuated by the pressure control module, the electronic control module being further adapted to provide EBS functionality in a brake system, characterised in that the arrangement has a first pneumatic input to supply air to at least four solenoid valves (68-71) adapted to provide said EBS functionality, a second pneumatic input for raise and lower solenoids , which solenoids are adapted to raise and lower the height of the trailer, a pneumatic connection being provided between the said at least four solenoid valves and a further valve for controlling a lift axle on the trailer.
An actuator pressure intensifying assembly comprising a mode valve and a gear motor assembly , the mode valve arranged to receive, at an input port , a supply pressure and to provide, at an output port , a control pressure to an actuator, the mode valve further configured to move, in response to the supply pressure exceeding a predetermined activation threshold pressure, from a first mode in which the supply pressure flows directly from the input port to the output port in a first fluid flow path, and a second mode in which the supply pressure flows from the input port to the output port in a second fluid flow path which includes the gear motor assembly between the input port and the output port which intensifies the supply pressure such that the control pressure is higher than the supply pressure; wherein the mode valve comprises a valve body and a spool arranged for axial movement within the valve body, the valve body defining the input port and the output port and further defining second mode outlet ports , and wherein the mode valve is arranged such that in the first mode, the spool is arranged to provide a flow path between the input port and the output port and to block the second mode output ports , and in the second mode, to provide a flow path from the input port to a second mode output port connected to the gear motor assembly; and the mode valve further comprising a spring at each end of the spool , the springs selected such that in the first mode, the spool body is positioned, by the springs, to create the flow path between the input port and the output port, and the mode valve being configured such that when the supply pressure applied at the input port exceeds the predetermined threshold pressure, the spool body is moved against the force of the springs to create the flow path from the input port to the second mode output port connected to the gear motor assembly.
A dynamic support system for an article of footwear comprising: at least one first sensor (621-625, 721-729, 905, 907, 910) located in a first article of footwear; at least one second sensor (821-827, 906, 908, 909) located in an article configured to be worn by a wearer of the first article of footwear, wherein the article worn by the wearer is different than the first article of footwear; characterized by a microprocessor in the first article of footwear in communication with the at least one first sensor located in the first article of footwear and with the at least one second sensor located in the article configured to be worn by the wearer of the article of footwear; wherein the microprocessor receives a first input from the at least one first sensor located in the first article of footwear and a second input from the at least one second sensor located in the article worn by the wearer of the first article of footwear over a personal-area network and responds to at least one of the first input and the second input by determining whether to activate a motor to compress an array of tiles in a fabric portion of the first article of footwear; wherein the array of tiles comprises columns and rows of tiles and wherein at least two cables are laced diagonally through the tiles and mechanically connected to a reel attached to the motor, the motor being configured to rotate the reel and compress the array of tiles upon activation by the microprocessor. at least one first sensor (621-625, 721-729, 905, 907, 910) located in a first article of footwear; at least one second sensor (821-827, 906, 908, 909) located in an article configured to be worn by a wearer of the first article of footwear, wherein the article worn by the wearer is different than the first article of footwear; characterized by a microprocessor in the first article of footwear in communication with the at least one first sensor located in the first article of footwear and with the at least one second sensor located in the article configured to be worn by the wearer of the article of footwear; wherein the microprocessor receives a first input from the at least one first sensor located in the first article of footwear and a second input from the at least one second sensor located in the article worn by the wearer of the first article of footwear over a personal-area network and responds to at least one of the first input and the second input by determining whether to activate a motor to compress an array of tiles in a fabric portion of the first article of footwear; wherein the array of tiles comprises columns and rows of tiles and wherein at least two cables are laced diagonally through the tiles and mechanically connected to a reel attached to the motor, the motor being configured to rotate the reel and compress the array of tiles upon activation by the microprocessor.
An electrode structure comprising: an electrode ; a current collector facing the electrode ; an elastic body located between the electrode and the current collector , the elastic body having conductivity; and an electrode fixing member located between the elastic body and the current collector , wherein at least a part of a peripheral edge of the electrode is fixed between the electrode fixing member and the current collector . an electrode ; a current collector facing the electrode ; an elastic body located between the electrode and the current collector , the elastic body having conductivity; and an electrode fixing member located between the elastic body and the current collector , wherein at least a part of a peripheral edge of the electrode is fixed between the electrode fixing member and the current collector .
A picking station (1; 17) for picking articles from storage containers into order containers according to the good-to-person-principle having a storage container conveyor technique for transporting storage containers containing articles , in particular boxes, from a storage rack into at least two storage container bays , arranged in an arrangement row , of the picking station (1; 17) and having a picking area arranged along the arrangement row for a picking person or a picking robot and having a first order container conveyor technique (14; 18) arranged in a further arrangement row for the transport of first order containers (15; 18) for receiving articles retrieved from the storage containers , wherein there is provided a second order container conveyor technique for the transport of second order containers , in particular boxes, for receiving articles into order container bays , also arranged in the arrangement row , of the picking station (1; 17), characterized in that the first order container conveyor technique (14; 18) is formed by a sorting belt having tilting trays or a suspension conveyor technique having conveyor bags . storage container conveyor technique for transporting storage containers containing articles , in particular boxes, from a storage rack into at least two storage container bays , arranged in an arrangement row , of the picking station (1; 17) and having a picking area arranged along the arrangement row for a picking person or a picking robot and having a first order container conveyor technique (14; 18) arranged in a further arrangement row for the transport of first order containers (15; 18) for receiving articles retrieved from the storage containers , wherein there is provided a second order container conveyor technique for the transport of second order containers , in particular boxes, for receiving articles into order container bays , also arranged in the arrangement row , of the picking station (1; 17), characterized in that the first order container conveyor technique (14; 18) is formed by a sorting belt having tilting trays or a suspension conveyor technique having conveyor bags .
A neural probe structure , comprising: a probe for inserting into a subject; a body to support a rear end of the probe ; at least one light source included in the body ; a photo diode formed in the probe ; and an optical waveguide formed on the probe and extending from the at least one light source in the body to the photo diode of the probe , wherein the photo diode is formed in the probe at a smaller height than the optical waveguide , being formed on the probe , along a longitudinal axis from the photo diode . a probe for inserting into a subject; a body to support a rear end of the probe ; at least one light source included in the body ; a photo diode formed in the probe ; and an optical waveguide formed on the probe and extending from the at least one light source in the body to the photo diode of the probe , wherein the photo diode is formed in the probe at a smaller height than the optical waveguide , being formed on the probe , along a longitudinal axis from the photo diode .
A camera component, wherein the camera component comprises a first camera module sensing first-band light, a second camera module sensing the first-band light and second-band light, an infrared light source emitting the second-band light, and a processor ; wherein the processor is coupled with the first camera module , the second camera module and the infrared light source respectively; the first camera module is configured to generate a first image under control of the processor ; the infrared light source is configured to emit the second-band light under the control of the processor ; the second camera module is configured to generate a second image under the control of the processor , the second image comprising a bayer subimage generated by sensing the first-band light and an infrared subimage generated by sensing the second-band light; and the processor is further configured to perform image processing on at least one of the bayer subimage or the infrared subimage and the first image; characterized in that the processor is configured to perform the image processing on the infrared subimage and the first image by fusing the infrared subimage and the first image to enhance the first image, wherein the processor is configured, therefor, to extract high-frequency information of the infrared subimage and add the extracted high-frequency information into a frequency domain of the first image. the first camera module is configured to generate a first image under control of the processor ; the infrared light source is configured to emit the second-band light under the control of the processor ; the second camera module is configured to generate a second image under the control of the processor , the second image comprising a bayer subimage generated by sensing the first-band light and an infrared subimage generated by sensing the second-band light; and the processor is further configured to perform image processing on at least one of the bayer subimage or the infrared subimage and the first image; characterized in that the processor is configured to perform the image processing on the infrared subimage and the first image by fusing the infrared subimage and the first image to enhance the first image, wherein the processor is configured, therefor, to extract high-frequency information of the infrared subimage and add the extracted high-frequency information into a frequency domain of the first image.
A barrier assembly for determining an extent of opening of an openable barrier , the barrier assembly comprising the openable barrier and barrier frame around the openable barrier ; a magnet , a magnetic sensor , a status monitoring device and a lock state sensor being configured to detect when the openable barrier is in a locked state; wherein the barrier assembly is configured to activate the magnetic sensor when the lock sensor detects that the openable barrier is in a locked state and when a sensor on a handle detects that the handle is being operated; wherein one of the magnet and the magnetic sensor is provided in the openable barrier and the other of the magnet and the magnetic sensor is provided in the barrier frame ; and the status monitoring device is configured to determine an extent of opening of the openable barrier based on a direction of a magnetic field detected by the magnetic sensor . wherein the barrier assembly is configured to activate the magnetic sensor when the lock sensor detects that the openable barrier is in a locked state and when a sensor on a handle detects that the handle is being operated; wherein one of the magnet and the magnetic sensor is provided in the openable barrier and the other of the magnet and the magnetic sensor is provided in the barrier frame ; and the status monitoring device is configured to determine an extent of opening of the openable barrier based on a direction of a magnetic field detected by the magnetic sensor .
An electronic device comprising: a user input unit configured to receive an input of a user; a communicator configured to communicate with a user terminal and communication relays ; and a controller configured to perform control for: based on a first user input via the user input unit , connecting with a first communication relay detected by the communicator as emitting the strongest signal strength; based on a second user input via the user input unit , connecting with the user terminal detected by the communicator as emitting the next strongest signal strength; receiving information about connection with a second communication relay from the user terminal ; and based on the received information about connection with the second communication relay , connecting with the second communication relay . a user input unit configured to receive an input of a user; a communicator configured to communicate with a user terminal and communication relays ; and a controller configured to perform control for: based on a first user input via the user input unit , connecting with a first communication relay detected by the communicator as emitting the strongest signal strength; based on a second user input via the user input unit , connecting with the user terminal detected by the communicator as emitting the next strongest signal strength; receiving information about connection with a second communication relay from the user terminal ; and based on the received information about connection with the second communication relay , connecting with the second communication relay . based on a first user input via the user input unit , connecting with a first communication relay detected by the communicator as emitting the strongest signal strength; based on a second user input via the user input unit , connecting with the user terminal detected by the communicator as emitting the next strongest signal strength; receiving information about connection with a second communication relay from the user terminal ; and based on the received information about connection with the second communication relay , connecting with the second communication relay .