mhurhangee/patent-ind-claim-en huggingface dataset:
A galvannealed layer formed on a surface of a base steel sheet, wherein the average amount of Fe in the galvannealed layer is in a range of 8.0 to 12.0%; and the absolute value of a difference ΔFe between the amount of Fe at a position of 1/8 of the thickness of the galvannealed layer and the amount of Fe at a position of 7/8 of the thickness of the galvannealed layer in the galvannealed layer, the thickness being from an interface between the galvannealed layer and the base steel sheet to the external surface of the galvannealed layer, is in a range of 0.3 to 3.0%, wherein the base steel sheet consists of, in mass%, C: 0.050 to 0.300%, Si: 0.10 to 2.50%, Mn: 0.50 to 3.50%, P: 0.001 to 0.030%, S: 0.0001 to 0.0100%, Al: 0.005 to 1.500%, O: 0.0001 to 0.0100%, N: 0.0001 to 0.0100%, and the balance of Fe and unavoidable impurities, wherein the base steel sheet optionally further consists of, in mass%, one or two or more selected from Cr: 0.01 to 2.00%, Ni: 0.01 to 2.00%, Cu: 0.01 to 2.00%, Ti: 0.005 to 0.150%, Nb: 0.005 to 0.150%, V: 0.005 to 0.150%, Mo: 0.01 to 1.00%, and B: 0.0001 to 0.0100%, and wherein the base steel sheet optionally further consists of 0.0001 to 0.5000% in total of one or two or more selected from Ca, Ce, Mg, Zr, Hf, and REM.
Electromechanical actuator for vehicle brake, comprising: an electric motor , a transmission device configured to be driven by the electric motor when applying and releasing the brake, characterised in that the actuator comprises a case including a first region and a second region that is mechanically stronger than the first region , wherein the first region is configured to break, providing access to the electric motor and/or to the transmission device , to release the brake. an electric motor , a transmission device configured to be driven by the electric motor when applying and releasing the brake, characterised in that the actuator comprises a case including a first region and a second region that is mechanically stronger than the first region , wherein the first region is configured to break, providing access to the electric motor and/or to the transmission device , to release the brake. characterised in that the actuator comprises a case including a first region and a second region that is mechanically stronger than the first region , wherein the first region is configured to break, providing access to the electric motor and/or to the transmission device , to release the brake.
A proximity sensor , comprising: a housing , wherein the housing has a tubular shape; a coil portion that is accommodated in one end of the housing ; a clamp that is connected to the other end of the housing , wherein the clamp has a tubular shape; a substrate which is accommodated inside the housing and the clamp , and on which a circuit electrically connected to the coil portion is mounted; a shield that is disposed inside the housing and covers a part of the substrate located on a side of the housing ; and a resin portion (R) which is arranged inside the housing and the clamp , and covers at least a part of the substrate ; wherein the shield has an extension portion which extends to an inside of the clamp and covers at least a part of the circuit located inside the clamp ; wherein the proximity sensor is characterized in that , the shield comprises a shield main body portion which covers a part of the substrate located on the side of the housing , and the extension portion ; the shield main body portion has a cross-section in a substantially elliptical shape having a minor diameter (D5) smaller than an inner diameter (D2) of the clamp , and comprises a pair of side surface portions extending along a surface direction of the substrate , and a connection portion which connects the pair of side surface portions ; the side surface portion is arranged on a side of a minor axis (AX2) of the substantially elliptical shape; and the extension portion is a portion that extends from an end of the side surface portion to the inside of the clamp along the surface direction of the substrate . a housing , wherein the housing has a tubular shape; a coil portion that is accommodated in one end of the housing ; a clamp that is connected to the other end of the housing , wherein the clamp has a tubular shape; a substrate which is accommodated inside the housing and the clamp , and on which a circuit electrically connected to the coil portion is mounted; a shield that is disposed inside the housing and covers a part of the substrate located on a side of the housing ; and a resin portion (R) which is arranged inside the housing and the clamp , and covers at least a part of the substrate ; wherein the shield has an extension portion which extends to an inside of the clamp and covers at least a part of the circuit located inside the clamp ; wherein the proximity sensor is characterized in that , the shield comprises a shield main body portion which covers a part of the substrate located on the side of the housing , and the extension portion ; the shield main body portion has a cross-section in a substantially elliptical shape having a minor diameter (D5) smaller than an inner diameter (D2) of the clamp , and comprises a pair of side surface portions extending along a surface direction of the substrate , and a connection portion which connects the pair of side surface portions ; the side surface portion is arranged on a side of a minor axis (AX2) of the substantially elliptical shape; and the extension portion is a portion that extends from an end of the side surface portion to the inside of the clamp along the surface direction of the substrate .
A method for authenticating a user by using a predetermined electronically stored passcode that comprises a predetermined number of passcode symbols selected from a pre-selected set of symbols, wherein each of the passcode symbols is characterized by a predetermined pin position, the method comprising: presenting a token set to the user via a user interface of an electronic device , wherein the token set comprises at least two tokens, and wherein each token in the token set comprises at least two symbols that belong to the set of symbols; requiring the user to select a token from the token set for each pin position in the passcode via the user interface; and authenticating the user based on the tokens that the user selected, wherein the user is authenticated if: the number of tokens selected by the user is equal to the number of symbols in the passcode, at least one of the tokens selected contains a respective one of the passcode symbols, and for each pin position the passcode symbol at said pin position is either comprised in the token selected for this pin position or not comprised at all in any of the tokens in the token set presented to the user. presenting a token set to the user via a user interface of an electronic device , wherein the token set comprises at least two tokens, and wherein each token in the token set comprises at least two symbols that belong to the set of symbols; requiring the user to select a token from the token set for each pin position in the passcode via the user interface; and authenticating the user based on the tokens that the user selected, wherein the user is authenticated if: the number of tokens selected by the user is equal to the number of symbols in the passcode, at least one of the tokens selected contains a respective one of the passcode symbols, and for each pin position the passcode symbol at said pin position is either comprised in the token selected for this pin position or not comprised at all in any of the tokens in the token set presented to the user. the number of tokens selected by the user is equal to the number of symbols in the passcode, at least one of the tokens selected contains a respective one of the passcode symbols, and for each pin position the passcode symbol at said pin position is either comprised in the token selected for this pin position or not comprised at all in any of the tokens in the token set presented to the user.
Use of at least one filler selected from oxides of silicon and aluminium, or mixed oxides in the presence of further cations in a multi-component synthetic mortar fixing system for fixing anchoring elements in building substrates, which system comprises in one component reactive synthetic resins (i) based on urethane (meth)acrylate, (ii) based on epoxy resin or (iii) based on free-radical-hardening (and/or -hardenable) unsaturated reactive resins and, in a further component, hardener and the at least one filler selected from oxides of silicon and aluminium, or mixed oxides in the presence of further cations, characterised in that the d50 average particle size of the at least one filler is 40 μm or less, for increasing the bonding strength compared to fillers of larger particle size, wherein the d50 average particle size is determined by means of particle size distribution curve analyses using sieves or by laser granulometry.
An additive manufacturing system comprising: a build table for supporting a structure ; an energy gun for successively melting a plurality of slices of the structure over one-another, with the build table and the energy gun constructed and arranged to move away from one-another as each slice (42A-42C) of the plurality of slices is manufactured; and an electric controller constructed and arranged to pre-model the structure into the plurality of slices and having a layer-by-layer thermo-mechanical analysis system ; characterized in that the layer-by-layer thermo-mechanical analysis system is configured to model a second slice immediately below a first slice of the plurality of slices as a rigid substrate and run a response force analysis for the first slice , then to model a third slice of the plurality of slices immediately below the second slice as a rigid substrate and run a response force analysis for the second slice , and to determine optimized material properties of at least a portion of the structure based on the response force analysis. a build table for supporting a structure ; an energy gun for successively melting a plurality of slices of the structure over one-another, with the build table and the energy gun constructed and arranged to move away from one-another as each slice (42A-42C) of the plurality of slices is manufactured; and an electric controller constructed and arranged to pre-model the structure into the plurality of slices and having a layer-by-layer thermo-mechanical analysis system ; characterized in that the layer-by-layer thermo-mechanical analysis system is configured to model a second slice immediately below a first slice of the plurality of slices as a rigid substrate and run a response force analysis for the first slice , then to model a third slice of the plurality of slices immediately below the second slice as a rigid substrate and run a response force analysis for the second slice , and to determine optimized material properties of at least a portion of the structure based on the response force analysis.
A load wheel assembly for a pallet truck , comprising: a first load arm that is rotatable about an axis of rotation; a load wheel (540; 942, 944) rotationally coupled to an end of the first load arm opposite from the axis of rotation, wherein the load wheel (540; 942, 944) supports a fork at an elevation above the load wheel (540; 942, 944), characterized in that the load wheel assembly further comprises: a second load arm pivotally coupled to the first load arm at the axis of rotation and forming a load arm angle ; and an adjustment mechanism further coupling the second load arm to the first load arm , wherein the adjustment mechanism varies the load arm angle formed between the first load arm and the second load arm to adjust the elevation of the fork above the load wheel (540; 942, 944). a first load arm that is rotatable about an axis of rotation; a load wheel (540; 942, 944) rotationally coupled to an end of the first load arm opposite from the axis of rotation, wherein the load wheel (540; 942, 944) supports a fork at an elevation above the load wheel (540; 942, 944), characterized in that the load wheel assembly further comprises: a second load arm pivotally coupled to the first load arm at the axis of rotation and forming a load arm angle ; and an adjustment mechanism further coupling the second load arm to the first load arm , wherein the adjustment mechanism varies the load arm angle formed between the first load arm and the second load arm to adjust the elevation of the fork above the load wheel (540; 942, 944). a second load arm pivotally coupled to the first load arm at the axis of rotation and forming a load arm angle ; and an adjustment mechanism further coupling the second load arm to the first load arm , wherein the adjustment mechanism varies the load arm angle formed between the first load arm and the second load arm to adjust the elevation of the fork above the load wheel (540; 942, 944).
A method performed by a user equipment , UE, for maintaining uplink, UL, synchronization in a non-terrestrial network, NTN , the method comprising: receiving, from a base station , BS, a system information block, SIB, indicating a duration of a validity timer for the UL synchronization in the NTN ; determining whether an epoch time is provided in the SIB; starting or restarting the validity timer with the duration at a time determined according to whether the epoch time is provided in the SIB, wherein the validity timer is started or restarted at an end of areference subframe indicated by the epoch time in a case that the epoch time is provided in the SIB, and the validity timer is started or restarted at an end of a system information, SI, window during which the SIB is received in a case that the epoch time is not provided in the SIB; and determining that the UE has lost the UL synchronization upon an expiration of the validity timer. receiving, from a base station , BS, a system information block, SIB, indicating a duration of a validity timer for the UL synchronization in the NTN ; determining whether an epoch time is provided in the SIB; starting or restarting the validity timer with the duration at a time determined according to whether the epoch time is provided in the SIB, wherein the validity timer is started or restarted at an end of areference subframe indicated by the epoch time in a case that the epoch time is provided in the SIB, and the validity timer is started or restarted at an end of a system information, SI, window during which the SIB is received in a case that the epoch time is not provided in the SIB; and determining that the UE has lost the UL synchronization upon an expiration of the validity timer.
A multilayered card comprising: an amorphous laser-reactive copolymer layer having top and bottom surfaces, said amorphous laser-reactive copolymer layer having a glass transition temperature (Tg) and a melting temperature (Tm), wherein said amorphous copolymer layer enters a crystalline state and is then settable to a set form when its temperature is above Tg and below Tm; a selected pattern embossed on, and within, said copolymer layer at a predetermined temperature above Tg and below Tm for setting the selected pattern within said copolymer layer; and a plurality of additional layers attached to the bottom surface of said amorphous laser reactive copolymer layer, said amorphous laser-reactive copolymer layer comprising an outer layer of the card attached to one side of a thermoplastic layer whose other side is attached to a metal core layer which in turn is attached to a laser reactive layer. an amorphous laser-reactive copolymer layer having top and bottom surfaces, said amorphous laser-reactive copolymer layer having a glass transition temperature (Tg) and a melting temperature (Tm), wherein said amorphous copolymer layer enters a crystalline state and is then settable to a set form when its temperature is above Tg and below Tm; a selected pattern embossed on, and within, said copolymer layer at a predetermined temperature above Tg and below Tm for setting the selected pattern within said copolymer layer; and a plurality of additional layers attached to the bottom surface of said amorphous laser reactive copolymer layer, said amorphous laser-reactive copolymer layer comprising an outer layer of the card attached to one side of a thermoplastic layer whose other side is attached to a metal core layer which in turn is attached to a laser reactive layer.
An aerosol delivery device , comprising: an outer body extending between a first outer body end and a second outer body end , the outer body being at least partially hollow and defining an inner circumference; an illumination source configured to output an electromagnetic radiation, the illumination source being positioned proximate the first outer body end ; a wave guide received within the outer body , the wave guide defining a longitudinal length extending between a first longitudinal end positioned proximate the illumination source and a second longitudinal end , and a width extending transversely to the longitudinal length between a first lateral end and a second lateral end , the wave guide extending around substantially an entirety of the inner circumference of the outer body such that the first lateral end abuts or overlaps the second lateral end along at least a portion of the longitudinal length of the wave guide , the wave guide being configured to receive the electromagnetic radiation from the illumination source and output light at one or more illumination sections . an outer body extending between a first outer body end and a second outer body end , the outer body being at least partially hollow and defining an inner circumference; an illumination source configured to output an electromagnetic radiation, the illumination source being positioned proximate the first outer body end ; a wave guide received within the outer body , the wave guide defining a longitudinal length extending between a first longitudinal end positioned proximate the illumination source and a second longitudinal end , and a width extending transversely to the longitudinal length between a first lateral end and a second lateral end , the wave guide extending around substantially an entirety of the inner circumference of the outer body such that the first lateral end abuts or overlaps the second lateral end along at least a portion of the longitudinal length of the wave guide , the wave guide being configured to receive the electromagnetic radiation from the illumination source and output light at one or more illumination sections .
Roll-up shutter (100; 101) configured to be rolled-up around a support roller from an extended configuration of maximum obstruction, to a rolled-up configuration of minimum obstruction, comprising: - a plurality of tiltable slats ; - lateral supporting means , configured to support said plurality of slats ; - rotatable connecting means , positioned or positionable at one end of a slat of said plurality of slats to rotatably connect said slat to said lateral supporting means ; - constraining means , configured to constrain each other adjacent slats of said plurality of slats such as to allow a simultaneous orientation of said plurality of slats at an extended configuration of said shutter, said orientation taking place between closing and opening configurations of said slats, and comprising a rotation of a slat around a main rotation axis (A-A), wherein said main rotation axis (A-A) is decentralized with respect to the barycentric longitudinal extension axis (B-B) of the slat , characterized in that said constraining means comprises a rod element rotatably connected, at each end, to an upper edge of slats adjacent between each other, said main rotation axis (A-A) of said slat being positioned in a portion comprised between said barycentric longitudinal extension axis (B-B) and a lower edge of the slat . - a plurality of tiltable slats ; - lateral supporting means , configured to support said plurality of slats ; - rotatable connecting means , positioned or positionable at one end of a slat of said plurality of slats to rotatably connect said slat to said lateral supporting means ; - constraining means , configured to constrain each other adjacent slats of said plurality of slats such as to allow a simultaneous orientation of said plurality of slats at an extended configuration of said shutter, said orientation taking place between closing and opening configurations of said slats, and comprising a rotation of a slat around a main rotation axis (A-A), wherein said main rotation axis (A-A) is decentralized with respect to the barycentric longitudinal extension axis (B-B) of the slat ,
A speed calculation device configured to calculate the speed of an object to be driven from output pulses obtained from an encoder connected to the object to be driven, wherein the speed calculation device is configured: - to measure the duty cycle of the output pulses, - to calculate the speed using the half cycles of the output pulses if the duty cycle is within a prescribed range of 50 ± 0.5%, and - to calculate the speed using the full cycles of the output pulses if the duty cycle is outside of the prescribed range. - to measure the duty cycle of the output pulses, - to calculate the speed using the half cycles of the output pulses if the duty cycle is within a prescribed range of 50 ± 0.5%, and - to calculate the speed using the full cycles of the output pulses if the duty cycle is outside of the prescribed range.
A method of tuning a resonance frequency of an electric-based antenna formed by a radiator element coupled to an antenna ground plane , comprising: providing a plurality of parasitic capacitive elements extending in an electric field direction of the electric-based antenna so as to lower the resonance frequency of the electric-based antenna below a desired resonance frequency; integrating the electric-based antenna within a deployment environment; obtaining an indication of an actual resonance frequency of the electric-based antenna within the deployment environment; and removing , after integration into the deployment environment, one or more of the parasitic capacitive elements so as to adjust the actual resonance frequency towards the desired resonance frequency. providing a plurality of parasitic capacitive elements extending in an electric field direction of the electric-based antenna so as to lower the resonance frequency of the electric-based antenna below a desired resonance frequency; integrating the electric-based antenna within a deployment environment; obtaining an indication of an actual resonance frequency of the electric-based antenna within the deployment environment; and removing , after integration into the deployment environment, one or more of the parasitic capacitive elements so as to adjust the actual resonance frequency towards the desired resonance frequency.