mhurhangee/patent-ind-claim-en huggingface dataset:
A steering arrangement for a vehicle , the steering arrangement comprising: - a steering column connectable to a steering wheel of the vehicle, the steering column comprises a pair of steering column walls , each of the steering column walls comprises a respective laterally extending recess ; - a steering lever connected to the steering column, wherein the steering lever is connectable to the wheels of the vehicle for controlling steering operation thereof; and - a steering column bracket comprising a pair of bracket walls , each of the bracket walls being arranged in connection with a respective one of the steering column walls, wherein the steering column bracket comprises a laterally movable resilient member on each of the bracket walls, each of the laterally movable resilient members being snap-fitted to a respective one of the laterally extending recesses of the steering column for attaching the steering column bracket to the steering column, characterized in that the laterally movable resilient members are formed by means of a cut-through groove in the respective bracket walls. - a steering column connectable to a steering wheel of the vehicle, the steering column comprises a pair of steering column walls , each of the steering column walls comprises a respective laterally extending recess ; - a steering lever connected to the steering column, wherein the steering lever is connectable to the wheels of the vehicle for controlling steering operation thereof; and - a steering column bracket comprising a pair of bracket walls , each of the bracket walls being arranged in connection with a respective one of the steering column walls, wherein the steering column bracket comprises a laterally movable resilient member on each of the bracket walls, each of the laterally movable resilient members being snap-fitted to a respective one of the laterally extending recesses of the steering column for attaching the steering column bracket to the steering column,
A method for applying a water-absorbing polymer coating onto an optical fibre comprising a core, a cladding and at least a primary coating, the method comprising coating the optical fibre with an organic solvent-free radiation curable coating composition, and initiating polymerization, preferably with UV, wherein said coating composition in percentages by weight based on the total composition (wt.%) consists essentially of: a. 40-70 wt.% of neutralized or partly neutralized acrylic acid or acrylic acid mixture comprising at most 10 wt.% of a copolymerizable monofunctional monomer having a single unsaturated carbon-carbon bond (monofunctional); wherein at least 10 mol% of the acrylic acid groups are neutralized with an inorganic base; b. 0.1-1 wt.% of a copolymerizable multifunctional monomer with more than one unsaturated carbon-carbon bond, acting as crosslinker; c. water; d. 3-7 wt.% of thickening agent; e. optionally, one or more colouring agents; f. optionally, one or more additive(s), and g. 1-10 wt.% of free radical initiator. a. 40-70 wt.% of neutralized or partly neutralized acrylic acid or acrylic acid mixture comprising at most 10 wt.% of a copolymerizable monofunctional monomer having a single unsaturated carbon-carbon bond (monofunctional); wherein at least 10 mol% of the acrylic acid groups are neutralized with an inorganic base; b. 0.1-1 wt.% of a copolymerizable multifunctional monomer with more than one unsaturated carbon-carbon bond, acting as crosslinker; c. water; d. 3-7 wt.% of thickening agent; e. optionally, one or more colouring agents; f. optionally, one or more additive(s), and g. 1-10 wt.% of free radical initiator.
A near field communication, NFC, reader , comprising: - an NFC controller ; - an antenna ; - a filter coupled to the NFC controller ; - a tuner coupled to the antenna ; and - a dynamic power control unit coupled between the filter and the tuner , wherein the dynamic power control unit includes a voltage controlled capacitor and a direct current, DC, part extraction circuit coupled to the voltage controlled capacitor ; wherein the dynamic power control unit is configured to tune the NFC reader in symmetrical tuning under normal load conditions and in asymmetrical tuning under increased load conditions such that an impedance of the antenna remains above a preselected threshold; wherein said symmetrical tuning comprises using the filter with a first cut-off frequency which causes an impedance curve of the antenna to be represented symmetrically on capacitive and inductive sides on a smith chart; and wherein said asymmetrical tuning comprises using the filter with a second cut-off frequency which causes the impedance curve of the antenna to be represented asymmetrically on the capacitive and inductive sides on said smith chart. - an NFC controller ; - an antenna ; - a filter coupled to the NFC controller ; - a tuner coupled to the antenna ; and - a dynamic power control unit coupled between the filter and the tuner , wherein the dynamic power control unit includes a voltage controlled capacitor and a direct current, DC, part extraction circuit coupled to the voltage controlled capacitor ; wherein the dynamic power control unit is configured to tune the NFC reader in symmetrical tuning under normal load conditions and in asymmetrical tuning under increased load conditions such that an impedance of the antenna remains above a preselected threshold; wherein said symmetrical tuning comprises using the filter with a first cut-off frequency which causes an impedance curve of the antenna to be represented symmetrically on capacitive and inductive sides on a smith chart; and wherein said asymmetrical tuning comprises using the filter with a second cut-off frequency which causes the impedance curve of the antenna to be represented asymmetrically on the capacitive and inductive sides on said smith chart.
A single sign-on, SSO, authentication system comprising: a service provider node configured to provide access to at least one service over a network ; an identity authenticator accessible over the network; a user terminal including a authentication component configured to build a secure association with the identity authenticator; and a user agent configured to access the service provider node to request a service of the provided at least one service, wherein the service provider node is further configured to request a user identifier from a user via the user agent and to connect, once the service provider node has received the user identifier from the user agent , to the identity authenticator via the network to request the identity authenticator for verification of a given user identifier, and wherein the identity authenticator is further configured to connect to the authentication component of the user terminal to verify the user identifier and to provide the service provider node with verification information indicating the verification of the given user identifier. a service provider node configured to provide access to at least one service over a network ; an identity authenticator accessible over the network; a user terminal including a authentication component configured to build a secure association with the identity authenticator; and a user agent configured to access the service provider node to request a service of the provided at least one service, wherein the service provider node is further configured to request a user identifier from a user via the user agent and to connect, once the service provider node has received the user identifier from the user agent , to the identity authenticator via the network to request the identity authenticator for verification of a given user identifier, and wherein the identity authenticator is further configured to connect to the authentication component of the user terminal to verify the user identifier and to provide the service provider node with verification information indicating the verification of the given user identifier.
Solid insulation material usable together with an anhydride-free impregnating agent for production of an insulation system in a vacuum impregnation process, wherein said insulation material comprises a carrier, a barrier material, a curing catalyst and a tape adhesive, the curing catalyst and the tape adhesive are inert toward one another but react under the conditions of the vacuum impregnation with an anhydride-free impregnating agent with gelation times of 1 h to 15 h at impregnation temperature, wherein the tape adhesive is free of oxirane groups, is a carbon-based organic compound and has at least two free hydroxyl groups, i.e. for example is a diol, triol and/or polyol and wherein the curing catalyst is selected from the following compounds: cationic superacids and/or superacid salts, for example sulfonium derivatives based on hexafluoroantimonates, tetrafluoroborates or hexafluoro-phosphates.
A work vehicle , comprising: - a plurality of control valves configured to selectively convey hydraulic fluid to a hydraulic machine, - a plurality of controllers connected to said control valves , the controllers being user-manipulated controllers to command the control valve , - a terminal comprising a display screen displaying graphics associated with said valves , the work vehicle being characterized in that it further comprises a setting button configured to selectively modify the connection between the control valves and the controllers so as to connect two or more of the control valves to the same controller , and modifying graphics based on changes of the connection. - a plurality of control valves configured to selectively convey hydraulic fluid to a hydraulic machine, - a plurality of controllers connected to said control valves , the controllers being user-manipulated controllers to command the control valve , - a terminal comprising a display screen displaying graphics associated with said valves , the work vehicle being characterized in that it further comprises a setting button configured to selectively modify the connection between the control valves and the controllers so as to connect two or more of the control valves to the same controller , and modifying graphics based on changes of the connection.
A propulsor adapted to produce thrust for use in an aircraft , the propulsor comprising an electric motor configured to convert electrical power to mechanical rotation, a fan unit including a nacelle structure and a fan rotor coupled to the electric motor to be rotationally driven by the electric motor about a central axis relative to the nacelle structure , the nacelle structure including a hub arranged along the central axis , a fan case arranged around the fan rotor and the central axis , and a plurality of guide vanes that extend from the hub to the fan case aft of the fan rotor so that all accelerated air discharged from the fan rotor interacts with the guide vanes as all the accelerated air moves through the nacelle structure , and a thrust control system coupled to the nacelle structure and located immediately aft of guide vanes so that the thrust control system is the next structure movable relative to the nacelle structure that interacts with all the accelerated air as it leaves the nacelle structure , the thrust control system being configured to provide a variable area nozzle and thrust reverser , wherein the thrust control system includes a first flap mounted to rotate about a first-flap axis and a rotation actuator coupled to the first flap to drive movement of the first flap about the first-flap axis , and the thrust control system includes a second flap mounted to rotate about a second-flap axis and the rotation actuator is configured to drive movement of the second flap about the second flap axis , and wherein the rotation actuator is housed in the hub of the nacelle structure , the rotation actuator is configured to extend and retract along the central axis , and the rotation actuator is coupled to the first flap and the second flap by links extending out from the hub , or the first flap and the second flap are each mounted to slide along the central axis relative to the nacelle structure from a first position abutting an aft end of the fan case to a second position spaced apart from the aft end of the fan case . the rotation actuator is housed in the hub of the nacelle structure , the rotation actuator is configured to extend and retract along the central axis , and the rotation actuator is coupled to the first flap and the second flap by links extending out from the hub , or the first flap and the second flap are each mounted to slide along the central axis relative to the nacelle structure from a first position abutting an aft end of the fan case to a second position spaced apart from the aft end of the fan case .
A pivot actuator , comprising: a housing ; a piston that is supported in the housing and displaceable along a longitudinal axis of the housing; a drive shaft that protrudes from the housing wherein the piston engages the drive shaft by form locking so that the drive shaft is pivoted about a drive axis by a pivot angle between two end positions through a displacement of the piston; and a switching cam that is fixed torque proof at the drive shaft and configured to contact a stop element at the housing with a respective contact surface of the switch cam in the two end positions, characterized in that the switching cam includes two discs that are arranged on top of each other along the drive axis , wherein one respective contact surface of the two contact surfaces is arranged at each of the two discs respectively, and wherein the pivot angle can be adjusted by pivoting the two discs relative to each other along the drive axis in different angular orientations. a housing ; a piston that is supported in the housing and displaceable along a longitudinal axis of the housing; a drive shaft that protrudes from the housing wherein the piston engages the drive shaft by form locking so that the drive shaft is pivoted about a drive axis by a pivot angle between two end positions through a displacement of the piston; and a switching cam that is fixed torque proof at the drive shaft and configured to contact a stop element at the housing with a respective contact surface of the switch cam in the two end positions, characterized in that the switching cam includes two discs that are arranged on top of each other along the drive axis , wherein one respective contact surface of the two contact surfaces is arranged at each of the two discs respectively, and wherein the pivot angle can be adjusted by pivoting the two discs relative to each other along the drive axis in different angular orientations.
Process for preparing an organic electronic device, comprising the steps of aa) depositing an insulator layer comprising a cross-linkable dielectric material onto a substrate, bb-1) exposing one or more, but not all, areas of the insulator layer to a first, lower, photoradiation dosage that causes partial but not complete cross-linking of the dielectric material, bb-2) exposing other areas of the insulator layer to a second, higher, photoradiation dosage that causes a higher degree of cross-linking of the dielectric material than the exposure to the first radiation dosage, wherein the sequence of the two exposure steps bb-1) and bb-2) can also be reversed, cc) source and drain electrodes are formed, with the channel region between the source and drain lying on top of the patterned area of the insulator layer, dd) depositing an organic semiconductor (OSC) layer onto at least a part of the insulator layer and the source and drain electrodes, ee) an organic gate insulator (OGI) layer is deposited onto the OSC layer, ff) a gate electrode is formed on the OGI layer, so that the OSC layer is in direct contact with at least a part of the areas of the insulator layer having a higher degree of cross-linking of the dielectric material. aa) depositing an insulator layer comprising a cross-linkable dielectric material onto a substrate, bb-1) exposing one or more, but not all, areas of the insulator layer to a first, lower, photoradiation dosage that causes partial but not complete cross-linking of the dielectric material, bb-2) exposing other areas of the insulator layer to a second, higher, photoradiation dosage that causes a higher degree of cross-linking of the dielectric material than the exposure to the first radiation dosage, wherein the sequence of the two exposure steps bb-1) and bb-2) can also be reversed, cc) source and drain electrodes are formed, with the channel region between the source and drain lying on top of the patterned area of the insulator layer, dd) depositing an organic semiconductor (OSC) layer onto at least a part of the insulator layer and the source and drain electrodes, ee) an organic gate insulator (OGI) layer is deposited onto the OSC layer, ff) a gate electrode is formed on the OGI layer,
A method of operating a hybrid electric vehicle , the method comprising: driving an engine to generate mechanical energy; converting the mechanical energy into a first AC voltage; estimating a total DC link load current associated with a respective plurality of loads (120 to 123) on the hybrid electric vehicle; converting, with a first converter , the first AC voltage into a DC bus voltage by regulating the DC bus voltage based on the total DC link load current; and inverting, with a respective plurality of inverters (111 to 114), the DC bus voltage into a respective plurality of other AC voltages to drive the respective plurality of loads (120 to 123) on the hybrid electric vehicle, characterised in that the method further comprises the steps of: estimating a change in the DC bus voltage with respect to time; controlling, with a current command, the total DC link load current based on an estimated change in the DC bus voltage with respect to time; and reducing the change in the DC bus voltage with respect to time based on the current command. driving an engine to generate mechanical energy; converting the mechanical energy into a first AC voltage; estimating a total DC link load current associated with a respective plurality of loads (120 to 123) on the hybrid electric vehicle; converting, with a first converter , the first AC voltage into a DC bus voltage by regulating the DC bus voltage based on the total DC link load current; and inverting, with a respective plurality of inverters (111 to 114), the DC bus voltage into a respective plurality of other AC voltages to drive the respective plurality of loads (120 to 123) on the hybrid electric vehicle, characterised in that the method further comprises the steps of: estimating a change in the DC bus voltage with respect to time; controlling, with a current command, the total DC link load current based on an estimated change in the DC bus voltage with respect to time; and reducing the change in the DC bus voltage with respect to time based on the current command. estimating a change in the DC bus voltage with respect to time; controlling, with a current command, the total DC link load current based on an estimated change in the DC bus voltage with respect to time; and reducing the change in the DC bus voltage with respect to time based on the current command.
A backlight unit comprising: a light source module 150, 760, 860, 960, 1320) comprising a first connection pin (P1) and a second connection pin (P2) electrically connected (L1) to the first connection pin; a power converter arranged to apply a driving voltage (VLED) to the light source module; an input connector arranged to receive a first enable signal from an external device and to apply said first enable signal (EN1) to a first signal line (SL1); a light source module connector adapted to be electrically connectible to the light source module , said light source module connector being arranged to output the first enable signal from the first signal line (SL1) to the light source module, to receive a second enable signal (EN2) from said light source module, and to apply said second enable signal to a second signal line (SL2); and a driving circuit arranged to control (CTRLV) a generation of the driving voltage from the power converter in response to the second enable signal, wherein, when the light source module connector is electrically connected to the first connection pin (PI) and the second connection pin (P2) of said light source module, said light source module connector is arranged to transmit the first enable signal (EN1) to the first connection pin of the light source module from said first signal line and to receive the resulting second enable signal from the second connection pin of the light source module, said second enable signal being transmitted to the driving circuit via said second signal line. a light source module 150, 760, 860, 960, 1320) comprising a first connection pin (P1) and a second connection pin (P2) electrically connected (L1) to the first connection pin; a power converter arranged to apply a driving voltage (VLED) to the light source module; an input connector arranged to receive a first enable signal from an external device and to apply said first enable signal (EN1) to a first signal line (SL1); a light source module connector adapted to be electrically connectible to the light source module , said light source module connector being arranged to output the first enable signal from the first signal line (SL1) to the light source module, to receive a second enable signal (EN2) from said light source module, and to apply said second enable signal to a second signal line (SL2); and a driving circuit arranged to control (CTRLV) a generation of the driving voltage from the power converter in response to the second enable signal, wherein, when the light source module connector is electrically connected to the first connection pin (PI) and the second connection pin (P2) of said light source module, said light source module connector is arranged to transmit the first enable signal (EN1) to the first connection pin of the light source module from said first signal line and to receive the resulting second enable signal from the second connection pin of the light source module, said second enable signal being transmitted to the driving circuit via said second signal line.