mhurhangee/patent-ind-claim-en huggingface dataset:
Method for controlling a haptic accelerator pedal in a motor vehicle , wherein a pedal lever of the accelerator pedal can be moved in an activation direction within a movement range between a position of rest and a position of maximum activation, and wherein the pedal lever can be excited by means of an actuator by applying an opposing force counter to the activation direction in order to generate a haptically perceptible signal if the actuator is activated when an activation condition occurs, wherein the method has the following steps: determining a current rate of change of the pedal, at which the pedal lever changes its position, comparing the determined current rate of change of the pedal with a predefined limiting value for the rate of change of the pedal, and activating the actuator only if the determined current rate of change of the pedal is lower than the limiting value for the rate of change of the pedal, characterized in that the limiting value for the rate of change of the pedal is dependent on the current position of the pedal lever , or in that the limiting value for the rate of change of the pedal is dependent on the current position of the actuator . determining a current rate of change of the pedal, at which the pedal lever changes its position, comparing the determined current rate of change of the pedal with a predefined limiting value for the rate of change of the pedal, and activating the actuator only if the determined current rate of change of the pedal is lower than the limiting value for the rate of change of the pedal, characterized in that the limiting value for the rate of change of the pedal is dependent on the current position of the pedal lever , or in that the limiting value for the rate of change of the pedal is dependent on the current position of the actuator .
A light module for installation in a headlamp of a vehicle, comprising at least one light guide each having a first and a second end, and a support system comprising a holder , said support system comprising: - a first fixing means comprising a first insertion section arranged on the holder and a clipping means , the clipping means comprising at least one clip configured to hold a first end of the at least one light guide inserted in the first insertion section ; - a second fixing means comprising a second insertion section provided on the holder and at least one hooking tooth , the at least one hooking tooth being formed at the second end and being configured to hold a second end of the at least one light guide inserted into the second insertion section - a guide positioning means defined on the holder , the guide positioning means comprising at least one trough whose recess has a shape complementary to that of the at least one light guide , the at least one trough comprising a reflector formed on an inner wall of the recess characterized in that the second insertion section comprises at least one shank having a shoulder formed on an inner surface of the at least one shank , the shape of the inner surface of the at least one shank is complementary to that of the at least one catch tooth . - a first fixing means comprising a first insertion section arranged on the holder and a clipping means , the clipping means comprising at least one clip configured to hold a first end of the at least one light guide inserted in the first insertion section ; - a second fixing means comprising a second insertion section provided on the holder and at least one hooking tooth , the at least one hooking tooth being formed at the second end and being configured to hold a second end of the at least one light guide inserted into the second insertion section - a guide positioning means defined on the holder , the guide positioning means comprising at least one trough whose recess has a shape complementary to that of the at least one light guide , the at least one trough comprising a reflector formed on an inner wall of the recess characterized in that the second insertion section comprises at least one shank having a shoulder formed on an inner surface of the at least one shank , the shape of the inner surface of the at least one shank is complementary to that of the at least one catch tooth .
A computer-implemented method for providing implant parameter data, the computer-implemented method comprising the steps of: - deriving patient biomechanical data relating to an orthopaedic implant or orthopaedic implant region of a patient, based on patient specific information data taken by imaging the orthopaedic implant or orthopaedic implant region of the patient which is indicative of one or more dynamic characteristics; - determining a set of possible implant parameter data according to the patient biomechanical data and patient acquired data ; and - selecting the implant parameter data from the set of possible implant parameter data; characterised by the patient acquired data being indicative of one or more desired post-implant activities, the patient acquired data being determined from post-implant activities preference data, each of the set of possible implant parameter data relating to at least manufacturing implant parameter data for the orthopaedic implant and alignment information data of the orthopaedic implant, wherein the implant parameter data is selected from the set of possible implant parameter data according to the post implant activities preference data which would allow the patient to perform the one or more desired post-implant activities. - deriving patient biomechanical data relating to an orthopaedic implant or orthopaedic implant region of a patient, based on patient specific information data taken by imaging the orthopaedic implant or orthopaedic implant region of the patient which is indicative of one or more dynamic characteristics; - determining a set of possible implant parameter data according to the patient biomechanical data and patient acquired data ; and - selecting the implant parameter data from the set of possible implant parameter data;
A mouthpiece (135; 335) for a vaporizer device , comprising: a vapor inlet and an aerosol outlet ; a first plurality of air inlets disposed between the vapor inlet and the aerosol outlet and configured to provide a first plurality of air streams, the first plurality of air streams forming a first vortex, the first vortex having a first axis of rotation and a first direction of rotation about the first axis of rotation; and a second plurality of air inlets disposed between the vapor inlet and the aerosol outlet and configured to provide a second plurality of air streams, the second plurality of air streams forming a second vortex, the second vortex having a second axis of rotation and a second direction of rotation about the second axis of rotation, wherein the first plurality of air streams and the second plurality of air streams are configured to mix with a vapor entering from the vapor inlet and to form an aerosol exiting through the aerosol outlet . a vapor inlet and an aerosol outlet ; a first plurality of air inlets disposed between the vapor inlet and the aerosol outlet and configured to provide a first plurality of air streams, the first plurality of air streams forming a first vortex, the first vortex having a first axis of rotation and a first direction of rotation about the first axis of rotation; and a second plurality of air inlets disposed between the vapor inlet and the aerosol outlet and configured to provide a second plurality of air streams, the second plurality of air streams forming a second vortex, the second vortex having a second axis of rotation and a second direction of rotation about the second axis of rotation, wherein the first plurality of air streams and the second plurality of air streams are configured to mix with a vapor entering from the vapor inlet and to form an aerosol exiting through the aerosol outlet .
A method for wireless communication, comprising: determining (S210), by a network device, System Information Block 1, SIB1, association indication information of a first Synchronization Signal Block, SSB, the SIB1 association indication information being configured to indicate whether the first SSB is associated with SIB 1; characterized by , determining (S220), by the network device, whether the first SSB bears indication information of a Quasi-Co-Located, QCL, parameter based on whether the first SSB is associated with SIB 1; and sending (S230), by the network device, the first SSB. determining (S210), by a network device, System Information Block 1, SIB1, association indication information of a first Synchronization Signal Block, SSB, the SIB1 association indication information being configured to indicate whether the first SSB is associated with SIB 1; characterized by , determining (S220), by the network device, whether the first SSB bears indication information of a Quasi-Co-Located, QCL, parameter based on whether the first SSB is associated with SIB 1; and sending (S230), by the network device, the first SSB.
A method for wireless communications using incremental redundancy for grant-free, GF, uplink, UL, transmissions, comprising: determining , by a user equipment, UE, based on a time of a GF UL transmission, a particular one of a plurality of redundancy versions, RVs, of data to be transmitted in the GF UL transmission, wherein the particular RV is determined based on a value corresponding a particular RV index from a RV pattern including a value for each of a plurality of RV indexes, wherein each of the plurality of RV indexes is associated with a time index corresponding to a time for the respective GF UL transmission, the time index corresponding to at least one of: an orthogonal frequency division multiplexing, OFDM, symbol index, a mini-slot index, or a slot index; and transmitting , by the UE, the determined RV of the data via a wireless medium at the time. determining , by a user equipment, UE, based on a time of a GF UL transmission, a particular one of a plurality of redundancy versions, RVs, of data to be transmitted in the GF UL transmission, wherein the particular RV is determined based on a value corresponding a particular RV index from a RV pattern including a value for each of a plurality of RV indexes, wherein each of the plurality of RV indexes is associated with a time index corresponding to a time for the respective GF UL transmission, the time index corresponding to at least one of: an orthogonal frequency division multiplexing, OFDM, symbol index, a mini-slot index, or a slot index; and transmitting , by the UE, the determined RV of the data via a wireless medium at the time.
Apparatus for treating plastic preforms, having a reservoir which is suitable and intended for receiving a plurality of plastic preforms , having at least one first transport device which transports the plastic preforms out of the reservoir, and having a sorting device which is arranged downstream of the first transport device in a transport direction of the plastic preforms , and having at least one further transport device which is arranged upstream of the sorting device in the transport direction (T) wherein the apparatus having an inspection device for inspecting the transported plastic preforms, characterized in that the inspection device is arranged between the reservoir and the sorting device .
A method for monitoring the torsion of a rotary shaft on an aircraft turbomachine based on the measurements from sensors (71 to 76) distributed along the rotary shaft to divide the shaft into shaft segments, the method comprising: - a step of measuring, for each sensor, a parameter dependent on the rotation of the shaft, - a step of calculating, for each achievable pair of sensors, a parameter related to the torsion of the shaft, - a step of comparing the different calculated parameters related to the torsion of the shaft with references, - a step of detecting damage on a shaft segment at the end of the comparison step, and characterized in that the method uses measures from at least three sensors (71 to 76) distributed along the rotary shaft to divide the shaft into at least two shaft segments, and in that the method further comprises a step of indicating the localization of the damage on the shaft from the shaft segment for which damage has been detected. - a step of measuring, for each sensor, a parameter dependent on the rotation of the shaft, - a step of calculating, for each achievable pair of sensors, a parameter related to the torsion of the shaft, - a step of comparing the different calculated parameters related to the torsion of the shaft with references, - a step of detecting damage on a shaft segment at the end of the comparison step, and
A self-supporting gallium nitride substrate composed of a plate composed of a plurality of gallium nitride-based single crystal grains, wherein the plate has a single crystal structure in an approximately normal direction, wherein the gallium nitride-based single crystal grains exposed at a top surface of the self-supporting gallium nitride substrate connect to a bottom surface of the self-supporting gallium nitride substrate without intervention of a grain boundary, and wherein a cross-sectional average diameter of the gallium nitride-based single crystal grains at an outermost surface of the substrate is from 20 μm to 1000 μm, the cross-sectional average diameter being determined by: obtaining an image of the outermost surface of the substrate with a scanning electron microscope, the visual field range being determined such that straight lines diagonally drawn on the obtained image cross 10 to 30 gallium nitride-based single crystal grains, and diagonally drawing two straight lines on the obtained image, taking the average of the line segment lengths inside all grains crossed by the straight lines, and multiplying the average by 1.5. obtaining an image of the outermost surface of the substrate with a scanning electron microscope, the visual field range being determined such that straight lines diagonally drawn on the obtained image cross 10 to 30 gallium nitride-based single crystal grains, and diagonally drawing two straight lines on the obtained image, taking the average of the line segment lengths inside all grains crossed by the straight lines, and multiplying the average by 1.5.
A pneumatic tire comprising: a carcass comprising at least one carcass ply extending between bead portions via sidewall portions and a tread portion ; the at least one carcass ply comprising a plurality of ply pieces arranged in a tire circumferential direction wherein each of the ply pieces is longer in a tire radial direction than in the tire circumferential direction; at least a part of the ply pieces adjacent to each other in the tire circumferential direction are overlapped with each other; each of the ply pieces comprising a plurality of carcass cords arranged along the tire radial direction and in parallel with each other; each of the ply pieces comprising side edge portions disposed on both sides in the tire circumferential direction and a center portion disposed between the side edge portions ; and a plurality of the carcass cords arranged in the side edge portions having a diameter (Ce) smaller than diameters (Cc) of the carcass cords arranged in the center portion , characterized in that the diameters of the carcass cords arranged in the side edge portions gradually increase from the side edge to the center portion . a carcass comprising at least one carcass ply extending between bead portions via sidewall portions and a tread portion ; the at least one carcass ply comprising a plurality of ply pieces arranged in a tire circumferential direction wherein each of the ply pieces is longer in a tire radial direction than in the tire circumferential direction; at least a part of the ply pieces adjacent to each other in the tire circumferential direction are overlapped with each other; each of the ply pieces comprising a plurality of carcass cords arranged along the tire radial direction and in parallel with each other; each of the ply pieces comprising side edge portions disposed on both sides in the tire circumferential direction and a center portion disposed between the side edge portions ; and a plurality of the carcass cords arranged in the side edge portions having a diameter (Ce) smaller than diameters (Cc) of the carcass cords arranged in the center portion , characterized in that the diameters of the carcass cords arranged in the side edge portions gradually increase from the side edge to the center portion .
A clot removal device comprising a proximal joint between a proximal strut and a shaft , wherein the proximal strut comprises a slot , and wherein the shaft comprises an enlarged end which defines a step with a main part of the shaft, wherein a part of the enlarged end of the shaft is configured to be received in the slot, and wherein the device further comprises a collar configured to be slidable over the enlarged end , and characterised in that the collar comprises distally facing slots configured to accommodate a body of the proximal strut .
A method for applying a material to a fiber composite component within an application area of the fiber composite component, wherein the fiber composite component is made of a fiber composite material comprising a fiber material and a matrix material , characterized in that the method comprises the following steps: - Providing at least one monofilament fabric , in which several or all threads each consist of a single filament, the monofilament fabric being provided in such a way that the sum of all open areas of the meshes of the monofilament fabric corresponds to at least 30% of the total base area of the monofilament fabric, - Arranging of the at least one monofilament fabric on a fiber preform formed from the fiber material of the fiber composite material in the application area , - Curing the matrix material of the fiber composite material embedding the fiber material of the fiber preform and a matrix material embedding the monofilament fabric in a common process step, and after the matrix material of the fiber preform and the matrix material of the monofilament fabric have at least partially hardened, - Tearing off the monofilament fabric bonded to the fiber preform , and - Applying of the material into the application area after tearing off the monofilament fabric . - Providing at least one monofilament fabric , in which several or all threads each consist of a single filament, the monofilament fabric being provided in such a way that the sum of all open areas of the meshes of the monofilament fabric corresponds to at least 30% of the total base area of the monofilament fabric, - Arranging of the at least one monofilament fabric on a fiber preform formed from the fiber material of the fiber composite material in the application area , - Curing the matrix material of the fiber composite material embedding the fiber material of the fiber preform and a matrix material embedding the monofilament fabric in a common process step, and - Tearing off the monofilament fabric bonded to the fiber preform , and - Applying of the material into the application area after tearing off the monofilament fabric .
An active molecule delivery system comprising: a plurality of microcells , wherein each microcell includes an opening and contains a mixture of an active molecule dispersed in a first charged phase, and a second phase that is oppositely charged or uncharged and immiscible with the first phase; a porous diffusion layer spanning the opening of each microcell ; and a source of an electric field, wherein the first charged phase comprises a biocompatible non-polar liquid or an aqueous liquid; wherein one of the first charged phase and second phase is hydrophilic and the other phase is hydrophobic; wherein the active molecule delivery system is configured to move the first charged phase adjacent or away from the porous diffusion layer by application of the electric field. a plurality of microcells , wherein each microcell includes an opening and contains a mixture of an active molecule dispersed in a first charged phase, and a second phase that is oppositely charged or uncharged and immiscible with the first phase; a porous diffusion layer spanning the opening of each microcell ; and a source of an electric field, wherein the first charged phase comprises a biocompatible non-polar liquid or an aqueous liquid; wherein one of the first charged phase and second phase is hydrophilic and the other phase is hydrophobic; a porous diffusion layer spanning the opening of each microcell ; and a source of an electric field, wherein the first charged phase comprises a biocompatible non-polar liquid or an aqueous liquid; wherein one of the first charged phase and second phase is hydrophilic and the other phase is hydrophobic; wherein the active molecule delivery system is configured to move the first charged phase adjacent or away from the porous diffusion layer by application of the electric field.
A method for producing a valve body of a hollow valve, comprising the following steps: providing a preform comprising a valve head and a tubular wall , which surrounds a cylindrical cavity ; flow forming the tubular wall above a flow forming mandrel , which is inserted into the cavity , in order to increase a length of the tubular wall , wherein several flow forming rollers are used during flow forming, wherein the several flow forming rollers are radially and axially offset to one another during the flow forming, characterized in that the flow forming mandrel rotates together with the preform and a tailstock , which supports the preform at the valve bottom. providing a preform comprising a valve head and a tubular wall , which surrounds a cylindrical cavity ; flow forming the tubular wall above a flow forming mandrel , which is inserted into the cavity , in order to increase a length of the tubular wall , wherein several flow forming rollers are used during flow forming, wherein the several flow forming rollers are radially and axially offset to one another during the flow forming, characterized in that the flow forming mandrel rotates together with the preform and a tailstock , which supports the preform at the valve bottom.