mhurhangee/patent-ind-claim-en huggingface dataset:
Method for manufacturing a brake disc comprising the following operating steps: a) preparing a brake disc, comprising a braking band and provided with two mutually opposite braking surfaces , each of which defines at least partially one of the two main faces of the disc, the braking band being made of aluminium or aluminium alloy, or being made of grey cast iron or steel; b) depositing on the disc a layer of chromium carbide and nickel-chromium in particulate form with High Velocity Oxygen Fuel technique, High Velocity Air Fuel technique or Kinetic Metallisation technique forming a base protective coating that covers at least one of the two braking surfaces of the braking band in direct contact with them; and c) depositing over said base protective coating a material in particulate form consisting of tungsten carbide (WC) and cobalt (Co) with High Velocity Oxygen Fuel technique, High Velocity Air Fuel technique or Kinetic Metallisation technique forming a surface protective coating that covers at least one of the two braking surfaces of the braking band. a) preparing a brake disc, comprising a braking band and provided with two mutually opposite braking surfaces , each of which defines at least partially one of the two main faces of the disc, the braking band being made of aluminium or aluminium alloy, or being made of grey cast iron or steel; b) depositing on the disc a layer of chromium carbide and nickel-chromium in particulate form with High Velocity Oxygen Fuel technique, High Velocity Air Fuel technique or Kinetic Metallisation technique forming a base protective coating that covers at least one of the two braking surfaces of the braking band in direct contact with them; and c) depositing over said base protective coating a material in particulate form consisting of tungsten carbide (WC) and cobalt (Co) with High Velocity Oxygen Fuel technique, High Velocity Air Fuel technique or Kinetic Metallisation technique forming a surface protective coating that covers at least one of the two braking surfaces of the braking band.
A method of establishing a wireless connection, comprising: transmitting , by a first communication device , a first advertising signal for a first period of time, the first advertising signal configured to advertise that the first communication device is available to establish a first wireless connection; scanning , by the first communication device, for a second advertising signal for a second period of time , the second advertising signal transmitted by a second communication device and configured to advertise that the second communication device is available to establish a second wireless connection; and listening , by the first communication device, for a third signal for a third period of time , the third signal transmitted by a third communication device in response to the first advertising signal, the third period of time occurring during the second period of time; wherein the first communication device comprises a Bluetooth® Low Energy-capable device, and wherein the first wireless connection comprises a Bluetooth® Low Energy connection; and wherein the third communication device is not the same communication device as the second communication device. transmitting , by a first communication device , a first advertising signal for a first period of time, the first advertising signal configured to advertise that the first communication device is available to establish a first wireless connection; scanning , by the first communication device, for a second advertising signal for a second period of time , the second advertising signal transmitted by a second communication device and configured to advertise that the second communication device is available to establish a second wireless connection; and listening , by the first communication device, for a third signal for a third period of time , the third signal transmitted by a third communication device in response to the first advertising signal, the third period of time occurring during the second period of time; wherein the first communication device comprises a Bluetooth® Low Energy-capable device, and wherein the first wireless connection comprises a Bluetooth® Low Energy connection; and wherein the third communication device is not the same communication device as the second communication device.
A method of operating a motor grader having front wheels that are steerable, the front wheels attached to a front frame , the front frame and a rear frame pivotally connected at an articulation joint , the method comprising: engaging at an electronic controller an automatic articulation control function that controls articulation of the motor grader at the articulation joint based on a steering angle of the front wheels; operating the motor grader at an articulation angle with a magnitude greater than a threshold angle between the front frame and the rear frame responsive to instructions from the electronic controller; determining at the electronic controller that a condition exists that indicates automatic articulation control function should be disengaged; characterized in that the condition is a groundspeed greater than a designated maximum groundspeed or an inability to determine a groundspeed at the electronic controller and, responsive to the determination, configuring the automatic articulation control function to only allow decreasing the articulation angle; decreasing the articulation angle of the motor grader until the articulation angle reaches the threshold angle; and disengaging via the electronic controller, the automatic articulation control function after the articulation angle reaches the threshold angle, wherein the threshold angle is in a range of about -0.2 degrees and + 0.2 degrees of articulation between the front frame and the rear frame. engaging at an electronic controller an automatic articulation control function that controls articulation of the motor grader at the articulation joint based on a steering angle of the front wheels; operating the motor grader at an articulation angle with a magnitude greater than a threshold angle between the front frame and the rear frame responsive to instructions from the electronic controller; determining at the electronic controller that a condition exists that indicates automatic articulation control function should be disengaged; characterized in that the condition is a groundspeed greater than a designated maximum groundspeed or an inability to determine a groundspeed at the electronic controller and, responsive to the determination, configuring the automatic articulation control function to only allow decreasing the articulation angle; decreasing the articulation angle of the motor grader until the articulation angle reaches the threshold angle; and disengaging via the electronic controller, the automatic articulation control function after the articulation angle reaches the threshold angle, wherein the threshold angle is in a range of about -0.2 degrees and + 0.2 degrees of articulation between the front frame and the rear frame.
A method by a network side for controlling an uplink transmission primary carrier switch, the method comprises: determining transmission resources of a set of cells configured for a User Equipment, UE, to serve the UE, so as to switch an uplink transmission primary carrier of the UE among the uplink transmission carriers corresponding to the different cells, wherein the transmission resources comprise configured resources of uplink transmission resources of a plurality of cells; and notifying the UE of the transmission resources of the set of cells; determining that a quality of transmission over an uplink transmission carrier of a secondary cell is higher than a quality of transmission over an uplink transmission carrier of a primary cell, but a quality of transmission over a downlink transmission carrier of the primary cell is higher than a quality of transmission over a downlink transmission carrier of the secondary cell, instructing the UE to switch the uplink transmission primary carrier to the secondary cell while a downlink transmission carrier is still the downlink transmission carrier of the primary cell. determining transmission resources of a set of cells configured for a User Equipment, UE, to serve the UE, so as to switch an uplink transmission primary carrier of the UE among the uplink transmission carriers corresponding to the different cells, wherein the transmission resources comprise configured resources of uplink transmission resources of a plurality of cells; and notifying the UE of the transmission resources of the set of cells; determining that a quality of transmission over an uplink transmission carrier of a secondary cell is higher than a quality of transmission over an uplink transmission carrier of a primary cell, but a quality of transmission over a downlink transmission carrier of the primary cell is higher than a quality of transmission over a downlink transmission carrier of the secondary cell, instructing the UE to switch the uplink transmission primary carrier to the secondary cell while a downlink transmission carrier is still the downlink transmission carrier of the primary cell.
A hard coat laminated film comprising, in order from a surface layer side, a first hard coat, a second hard coat and a transparent resin film layer, wherein the first hard coat is formed of a coating material comprising: (A) 100 parts by mass of a polyfunctional (meth)acrylate; (B) 0.01 to 7 parts by mass of a water repellent; (C) 0.01 to 10 parts by mass of a silane coupling agent; and (D) 0.1 to 10 parts by mass of resin microparticles having an average particle diameter of 0.5 to 10 μm, and containing no inorganic particles, and wherein the second hard coat is formed of a coating material comprising (E) inorganic microparticles having an average particle diameter measured as described in the description, of 1 to 300 nm. (A) 100 parts by mass of a polyfunctional (meth)acrylate; (B) 0.01 to 7 parts by mass of a water repellent; (C) 0.01 to 10 parts by mass of a silane coupling agent; and (D) 0.1 to 10 parts by mass of resin microparticles having an average particle diameter of 0.5 to 10 μm, and
A battery module, characterized by comprising: a housing having two oppositely disposed openings and a hollow chamber communicating with the two openings in a first direction (X); a battery stack disposed in the hollow chamber and comprising two or more battery cells stacked in a second direction (Y) and electrically connected to each other, wherein each of the two or more battery cells has a first vent plate and a second vent plate disposed opposite to each other in the first direction (X); a first end plate corresponding to one of the two openings and connected to the housing , wherein the first end plate is provided with a module output pole electrically connected to the battery stack and a deformable plate disposed opposite to the module output pole , and the deformable plate faces the first vent plate such that the deformable plate deforms and is electrically connected to the module output pole when the first vent plate is opened; a second end plate corresponding to the other of the two openings and connected to the housing ; and a blocking member disposed between the second end plate and the battery stack such that a pressure for opening the second vent plate is greater than a pressure for opening the first vent plate . a housing having two oppositely disposed openings and a hollow chamber communicating with the two openings in a first direction (X); a battery stack disposed in the hollow chamber and comprising two or more battery cells stacked in a second direction (Y) and electrically connected to each other, wherein each of the two or more battery cells has a first vent plate and a second vent plate disposed opposite to each other in the first direction (X); a first end plate corresponding to one of the two openings and connected to the housing , wherein the first end plate is provided with a module output pole electrically connected to the battery stack and a deformable plate disposed opposite to the module output pole , and the deformable plate faces the first vent plate such that the deformable plate deforms and is electrically connected to the module output pole when the first vent plate is opened; a second end plate corresponding to the other of the two openings and connected to the housing ; and a blocking member disposed between the second end plate and the battery stack such that a pressure for opening the second vent plate is greater than a pressure for opening the first vent plate .
A method for insulating at least one coil of a toroidal transformer, wherein one or more coils arranged on a core of the toroidal transformer are externally insulated, wherein forming the outer electrical insulation of the one or more coils arranged on the iron core comprises: forming an opening in an electrically insulating thermoplastic cup receiving an iron core with a coil for leading through terminals of the coil, arranging the iron core with the coil in the cup such that the coil terminals are led out of the cup through the opening , covering the cup with the inserted iron core and coil with a plastic lid which engages the cup in a form-fitting manner, temporarily fixing the cup comprising the iron core and coil in an irrotatable manner, joining the cup and the lid by friction welding by pressing the lid placed on the cup against the cup and rotating it in this pressed state until the lid and the cup heat up and the material of the lid and the cup soften and become viscous due to friction, after softening of the materials of the lid and cup pressed together, stopping the rotation of the lid within not more than 1 s while maintaining the pressure of the lid and the cup , at maintained pressure joining the lid and cup by their mixed material to form a continuous electrical insulation, and after cooling down and solidification of the materials of the joined lid and cup , removing the temporary fixing of the cup . forming an opening in an electrically insulating thermoplastic cup receiving an iron core with a coil for leading through terminals of the coil, arranging the iron core with the coil in the cup such that the coil terminals are led out of the cup through the opening , covering the cup with the inserted iron core and coil with a plastic lid which engages the cup in a form-fitting manner, temporarily fixing the cup comprising the iron core and coil in an irrotatable manner, joining the cup and the lid by friction welding by pressing the lid placed on the cup against the cup and rotating it in this pressed state until the lid and the cup heat up and the material of the lid and the cup soften and become viscous due to friction, after softening of the materials of the lid and cup pressed together, stopping the rotation of the lid within not more than 1 s while maintaining the pressure of the lid and the cup , at maintained pressure joining the lid and cup by their mixed material to form a continuous electrical insulation, and after cooling down and solidification of the materials of the joined lid and cup , removing the temporary fixing of the cup .
Device for separating sheet-like articles from a stack arranged in a stack area and for feeding them to a processing unit, in particular for feeding panels to a printing and/or varnishing unit of a coating machine or the like, comprising a transport device which is arranged above the stack area on the side of the stack area facing toward the processing unit and which comprises a pneumatic fixing element driven by at least one drive (02; 03), wherein the pneumatic fixing element executes a cyclically repeating transport movement with a vertical movement component, characterized in that a control device is connected to at least one means for detecting the format length of the sheet-like articles , said means being configured as a sensor, and is designed to control the at least one drive (02; 03) as a function of the format length.
An electronic device comprising: a microphone ; a display ; a communication circuit ; a memory in which an application is stored; and a processor electrically connected to the microphone , the display , the communication circuit , and the memory , wherein the processor is configured to: output an execution screen of the application on the display ; obtain voice data through the microphone ; display, on the execution screen, a text converted from the voice data; display, on the execution screen, an indicator associated with a standby time determined based on at least one of an acquisition time of the voice data and a length of the text, wherein the acquisition time of the voice data is the total time period from a point in time when the input of the voice data is started to when the voice input is terminated; and when the standby time elapses, transmit the text to an external device through the communication circuit . a microphone ; a display ; a communication circuit ; a memory in which an application is stored; and a processor electrically connected to the microphone , the display , the communication circuit , and the memory , wherein the processor is configured to: output an execution screen of the application on the display ; obtain voice data through the microphone ; display, on the execution screen, a text converted from the voice data; display, on the execution screen, an indicator associated with a standby time determined based on at least one of an acquisition time of the voice data and a length of the text, wherein the acquisition time of the voice data is the total time period from a point in time when the input of the voice data is started to when the voice input is terminated; and when the standby time elapses, transmit the text to an external device through the communication circuit . output an execution screen of the application on the display ; obtain voice data through the microphone ; display, on the execution screen, a text converted from the voice data; display, on the execution screen, an indicator associated with a standby time determined based on at least one of an acquisition time of the voice data and a length of the text, wherein the acquisition time of the voice data is the total time period from a point in time when the input of the voice data is started to when the voice input is terminated; and when the standby time elapses, transmit the text to an external device through the communication circuit .
A bifocal-glasses frame comprising: a pair of temples ; a connecting bar connecting respective ends of the pair of temples; at least one hanging shaft located at a middle of the connecting bar; nose pads fixed to the hanging shaft; a slide attached to the hanging shaft for a sliding movement; a pair of lens-holding frames arranged in front of the connecting bar with the slide being located therebetween so that the lens-holding frames are vertically slidable, the lens-holding frames each holding vertically arranged a first and a second lenses, whereby the first lens (A) has a center and the second lens (B) has a center; and a bridge coupling the lens-holding frames and comprising the slide, wherein the bridge is attached at a level lower than a center of lower one of the first and second lenses in each of the lens-holding frames, and the lens-holding frames are slidable for a distance at least corresponding to a distance between the center of the first lens and the center of the second lens. a pair of temples ; a connecting bar connecting respective ends of the pair of temples; at least one hanging shaft located at a middle of the connecting bar; nose pads fixed to the hanging shaft; a slide attached to the hanging shaft for a sliding movement; a pair of lens-holding frames arranged in front of the connecting bar with the slide being located therebetween so that the lens-holding frames are vertically slidable, the lens-holding frames each holding vertically arranged a first and a second lenses, whereby the first lens (A) has a center and the second lens (B) has a center; and a bridge coupling the lens-holding frames and comprising the slide, wherein the bridge is attached at a level lower than a center of lower one of the first and second lenses in each of the lens-holding frames, and the lens-holding frames are slidable for a distance at least corresponding to a distance between the center of the first lens and the center of the second lens.
Method to shim a magnetic field inside an MR apparatus , whereby a shim insert comprising several magnetic coils is placed inside a bore of the MR apparatus , wherein after placing the shim insert inside the bore , geometrical parameters, which are positions and/or orientations, of the individual magnetic coils of the shim insert are determined, wherein an uncorrected magnetic field heterogeneity distribution of the magnetic field is measured and wherein optimal shim currents for the magnetic coils are determined using the geometrical parameters and the uncorrected magnetic field heterogeneity distribution, characterized in that the optimal shim currents are determined by - generating a digital model of the shim insert such that magnetic field sensitivities of the individual coils can be calculated automatically, whereby the magnetic field sensitivities depend on the geometrical parameters, - finding optimal shim currents that minimize a deviation between the uncorrected measured magnetic field heterogeneity distribution and the magnetic field that is generated by the digital model of the shim insert for the geometrical parameters. - generating a digital model of the shim insert such that magnetic field sensitivities of the individual coils can be calculated automatically, whereby the magnetic field sensitivities depend on the geometrical parameters, - finding optimal shim currents that minimize a deviation between the uncorrected measured magnetic field heterogeneity distribution and the magnetic field that is generated by the digital model of the shim insert for the geometrical parameters.
A laminate comprising: a chemically amplified negative type resist layer; and a basic resin coat layer on the chemically amplified negative type resist layer that contains 0.001 to 10% by weight of a basic compound having a molecular weight of up to 10,000, characterized in that the resin coat layer is transmissive to light having a wavelength of 190 to 500 nm, wherein the resin coat layer contains at least one resin selected from among epoxy resins, phenolic resins, silicone resins, polyester resins, polyurethane resins, and polyimide resins. a chemically amplified negative type resist layer; and a basic resin coat layer on the chemically amplified negative type resist layer that contains 0.001 to 10% by weight of a basic compound having a molecular weight of up to 10,000, characterized in that the resin coat layer is transmissive to light having a wavelength of 190 to 500 nm, wherein the resin coat layer contains at least one resin selected from among epoxy resins, phenolic resins, silicone resins, polyester resins, polyurethane resins, and polyimide resins.