mhurhangee/ep-ind-claims huggingface dataset:
Assembly of a tube head and a skirt, said tube head being capable of being associated with the skirt in such a way as to form an inner volume of the tube, said tube head comprising a body, said body comprising a neck and a shoulder connected to the neck, said tube head further comprising an insert of diameter D arranged in contact with said shoulder, so as to form a barrier between the body and the product contained in the inner volume, said insert closing the neck, said shoulder having a peripheral portion oriented along a longitudinal axis of the skirt, said insert comprising a peripheral extension oriented parallel to said longitudinal axis, and a peripheral region corresponding to a portion of the insert mounted in abutment against a complementary surface of the body, the assembly being characterised in that said peripheral region has a shape of revolution not extending beyond a cylindrical volume of diameter D and height h, the ratio h/D being less than 0.1 so that the insert is relatively flat.
A method of wireless communication, comprising: identifying, at a user equipment, UE, a configuration for reporting measurements for channel selection assistance to a base station, wherein the configuration comprises respective timing information for at least one frequency channel indicating a plurality of measurement periods with suppressed transmission from the base station to the UE on the at least one frequency channel; performing wide-band measurements of received power for the at least one frequency channel during the plurality of measurement periods with suppressed transmission from the base station to the UE; filtering the wide-band measurements to obtain respective filtered wide-band received power for the at least one frequency channel; and reporting the filtered wide-band received power to the base station. identifying, at a user equipment, UE, a configuration for reporting measurements for channel selection assistance to a base station, wherein the configuration comprises respective timing information for at least one frequency channel indicating a plurality of measurement periods with suppressed transmission from the base station to the UE on the at least one frequency channel; performing wide-band measurements of received power for the at least one frequency channel during the plurality of measurement periods with suppressed transmission from the base station to the UE; filtering the wide-band measurements to obtain respective filtered wide-band received power for the at least one frequency channel; and reporting the filtered wide-band received power to the base station.
A vehicle, especially a racing vehicle, comprising a drive unit having an internal combustion engine, and at least one heat-emitting component or one heat-emitting assembly, wherein the component or the assembly adjoins at least one chamber through which a working gas, especially air, flows, and is especially at least partly surrounded by the chamber through which the working gas flows, wherein the chamber has a flow inlet and a flow outlet, and the flow outlet is arranged in the region of an output-increasing device of the vehicle, characterised in that the chamber through which the working gas flows has at least one flow segment having a flow cross-section that expands in the manner of a diffuser between at least one flow inlet and at least one flow outlet.
Tyre of the type comprising a tread that has a running layer made of a cellular material having - a thickness E, and - a degree of expansion of greater than or equal to 50%, the running layer comprising hollow tread pattern elements (20, 22, 26), characterized in that at least 95% of the hollow tread pattern elements (20, 22, 26) each satisfy the following two conditions a) and b): a) the tread pattern element (20, 22, 26) is separated from at least one other hollow tread pattern element (20, 22, 26) by a distance less than or equal to DP = 7 mm, the separation distance between two hollow tread pattern elements (20, 22, 26) being the shortest distance between these two tread pattern elements (20, 22, 26) travelled in the cellular material, b) the tread pattern element (20, 22, 26) has a depth at least equal to 80% of the thickness E of the running layer, and in that the hollow tread pattern elements (20, 22, 26) satisfying the conditions a) and b) form elements chosen from: - water evacuation channels (20, 22) that delimit, in the running layer, blocks of cellular material, and - blind holes made in these blocks so as to open radially. - a thickness E, and - a degree of expansion of greater than or equal to 50%, a) the tread pattern element (20, 22, 26) is separated from at least one other hollow tread pattern element (20, 22, 26) by a distance less than or equal to DP = 7 mm, the separation distance between two hollow tread pattern elements (20, 22, 26) being the shortest distance between these two tread pattern elements (20, 22, 26) travelled in the cellular material, b) the tread pattern element (20, 22, 26) has a depth at least equal to 80% of the thickness E of the running layer, - water evacuation channels (20, 22) that delimit, in the running layer, blocks of cellular material, and - blind holes made in these blocks so as to open radially.
A mobile terminal, comprising: a display having a curved shape; a sensing device configured to detect a face-down mode of the mobile terminal, wherein the face-down mode is a state in that the mobile terminal is turned over with the display facing down; and characterized in that a controller configured to: in response to detecting a first input through the sensing device, set a user designated direction based on the first input, wherein the user designated direction is a right direction or a left direction of the mobile terminal, in response to at least one preset event while the mobile terminal is in the face-down mode, control a specific region related to the user designated direction of the display to emit light, in response to detecting a second input to a rear side of the mobile terminal through control the specific region to stop emitting light. a display having a curved shape; a sensing device configured to detect a face-down mode of the mobile terminal, wherein the face-down mode is a state in that the mobile terminal is turned over with the display facing down; and characterized in that a controller configured to: in response to detecting a first input through the sensing device, set a user designated direction based on the first input, wherein the user designated direction is a right direction or a left direction of the mobile terminal, in response to at least one preset event while the mobile terminal is in the face-down mode, control a specific region related to the user designated direction of the display to emit light, in response to detecting a second input to a rear side of the mobile terminal through control the specific region to stop emitting light.
A security document comprising a laminate data sheet attached to a flexible hinge which is attached to a binding of the security document and exhibits personalization data for authenticating the laminate data sheet, wherein: (a) the flexible hinge has a metalized surface, wherein a portion of the flexible hinge encased within the laminate data sheet extends from a side of the laminate data sheet and binds with one or more other sheets at the binding, the metalized surface of the flexible hinge having a visible portion proximate to the laminate data sheet of the security document; characterised in that the flexible hinge is encased within the laminate data sheet and in that the security document further comprises (b) personalization data etched on the visible portion of the metalized surface of the flexible hingewhich matches personalization data of the laminate data sheet. (a) the flexible hinge has a metalized surface, wherein a portion of the flexible hinge encased within the laminate data sheet extends from a side of the laminate data sheet and binds with one or more other sheets at the binding, the metalized surface of the flexible hinge having a visible portion proximate to the laminate data sheet of the security document; characterised in that the flexible hinge is encased within the laminate data sheet and in that the security document further comprises (b) personalization data etched on the visible portion of the metalized surface of the flexible hingewhich matches personalization data of the laminate data sheet.
An antenna assembly, for operation between 24 to 38 GHz, comprising: a metal frame including a resonant cavity, the resonant cavity defining a volume within the metal frame and having a center axis extending between a first surface of the metal frame and an opposite second surface of the metal frame; a metal plate positioned within the volume on the center axis of the resonant cavity; and a metal feed line positioned to capacitively drive the metal plate and the resonant cavity, at least a portion of the metal feed line being positioned within the volume on the center axis of the resonant cavity. a metal frame including a resonant cavity, the resonant cavity defining a volume within the metal frame and having a center axis extending between a first surface of the metal frame and an opposite second surface of the metal frame; a metal plate positioned within the volume on the center axis of the resonant cavity; and a metal feed line positioned to capacitively drive the metal plate and the resonant cavity, at least a portion of the metal feed line being positioned within the volume on the center axis of the resonant cavity.
A method for ultrasonic fatigue testing at high temperature of an hourglass-shaped test specimen, wherein Young's modulus corresponding to temperature is calculated from a measurement result of a resonance frequency by inverse calculation, and a fatigue load condition is controlled, characterized in that the Young's modulus inverse calculation comprises the following steps: (a) calculating a shoulder part length of the hourglass-shaped test specimen by expressions to as follows: U " x + P x U ′ x + k 2 U x = 0 P x = S ′ x S x k = 2 ⁢ π ⁢ f ρ E wherein U(x) denotes displacement amplitude, f denotes the resonance frequency, E denotes Young's modulus, ρ denotes density and S(x) denotes a cross-sectional area of the hourglass-shaped test specimen, as follows: S x = π 4 d 1 2 cosh 2 αx, α = 1 L 1 cosh − 1 d 2 d 1, 0 ≤ x ≤ L 1 S x = π 4 d 2 2, L 1 ≤ x ≤ L 1 + L 2 wherein d1 denotes a minimum part diameter of the hourglass-shaped test specimen, d3 denotes a shoulder part diameter of the hourglass-shaped test specimen, L1 denotes an R part half-length of the hourglass-shaped test specimen, and L2 denotes a shoulder part length of the hourglass-shaped test specimen; (b) measuring the shoulder part length using an ultrasonic fatigue testing device; and (c) searching Young's modulus when the shoulder part length calculated in step (a) and the shoulder part length L2 measured in step (b) are identical. (a) calculating a shoulder part length of the hourglass-shaped test specimen by expressions to as follows: U " x + P x U ′ x + k 2 U x = 0 P x = S ′ x S x k = 2 ⁢ π ⁢ f ρ E wherein U(x) denotes displacement amplitude, f denotes the resonance frequency, E denotes Young's modulus, ρ denotes density and S(x) denotes a cross-sectional area of the hourglass-shaped test specimen, as follows: S x = π 4 d 1 2 cosh 2 αx, α = 1 L 1 cosh − 1 d 2 d 1, 0 ≤ x ≤ L 1 S x = π 4 d 2 2, L 1 ≤ x ≤ L 1 + L 2 wherein d1 denotes a minimum part diameter of the hourglass-shaped test specimen, d3 denotes a shoulder part diameter of the hourglass-shaped test specimen, L1 denotes an R part half-length of the hourglass-shaped test specimen, and L2 denotes a shoulder part length of the hourglass-shaped test specimen; (b) measuring the shoulder part length using an ultrasonic fatigue testing device; and (c) searching Young's modulus when the shoulder part length calculated in step (a) and the shoulder part length L2 measured in step (b) are identical.
A charging roller (41; 302) comprising: a conductive support, and a surface layer (23; 201), characterized in that the surface layer comprises a binder, resin particles containing a carbon black dispersed in the binder, and graphitized particles dispersed in the binder; and the surface layer has, on its surface, convex portions derived from the resin particles, and convex portions derived from the graphitized particles, wherein the number of convex portions derived from the graphitized particles having a vertex positioned lower than a plane surface including each vertex of three convex portions derived from the resin particles adjacent to one convex portion derived from the graphitized particles, as determined according to the description, is 80% or more of the total number of the convex portions derived from the graphitized particles. a conductive support, and a surface layer (23; 201), characterized in that the surface layer comprises a binder, resin particles containing a carbon black dispersed in the binder, and graphitized particles dispersed in the binder; and the surface layer has, on its surface, convex portions derived from the resin particles, and convex portions derived from the graphitized particles, wherein the number of convex portions derived from the graphitized particles having a vertex positioned lower than a plane surface including each vertex of three convex portions derived from the resin particles adjacent to one convex portion derived from the graphitized particles, as determined according to the description, is 80% or more of the total number of the convex portions derived from the graphitized particles.
A motor including a housing, a front cover, a rotating shaft, and a cooling fan, wherein the housing defines therein an inner space with a front opening and has a rear closure wall opposite to the front opening, the rear closure wall defining a central hole and a plurality of outlet holes; the front cover, which is substantially disk-shaped, closes the front opening of the housing and has a central hub defining a central hole and has a peripheral portion formed around the central hub; the rotating shaft is mounted across the inner space of the housing, the rotating shaft having a first end which is inserted through the central hole of the rear closure wall and having a second end which is inserted through the central hole of the hub of the front cover; the cooling fan is fixed to the second end of the rotating shaft, so that the cooling fan is rotated together with the rotating shaft; whereby one portion of a whirling, ongoing air current generated by the cooling fan passes through the first inlet holes of the front cover and thus to enter the housing for dissipating heat therein; characterized in that: the front cover is pressed to form a plurality of air guiding fins, which are bent from the peripheral portion of the front cover such that said fins are defined next to the corresponding first inlet holes, such that air can be guided by the air guiding fins to pass through the first_ inlet holes of the front cover.
A gap expansion jig for heat transfer tubes, wherein said jig is configured to expand a gap between neighboring heat transfer tubes so as to allow insertion of a vibration suppression member which suppresses vibration of the heat transfer tubes in the gap, characterized in that: the gap expansion jig includes: a jig main body (281; 301; 311; 321; 331; 341; 481; 501; 511; 521; 531; 541) which includes a shape memory material and which is configured to be arranged in the gap between the neighboring heat transfer tubes and to expandably deform in the gap by being heated; and a temperature adjusting unit (282; 302; 332; 342) which can adjust a temperature of the jig main body (281; 301; 311; 321; 331; 341; 481; 501; 511; 521; 531; 541), wherein the jig main body (281; 301; 311; 321; 331; 341; 481; 501; 511; 521; 531; 541) is configured to be smaller than the gap before heating by the temperature adjusting unit (282; 302; 332; 342), and is configured to become larger than the gap after heating by the temperature adjusting unit (282; 302; 332; 342). the gap expansion jig includes: a jig main body (281; 301; 311; 321; 331; 341; 481; 501; 511; 521; 531; 541) which includes a shape memory material and which is configured to be arranged in the gap between the neighboring heat transfer tubes and to expandably deform in the gap by being heated; and a temperature adjusting unit (282; 302; 332; 342) which can adjust a temperature of the jig main body (281; 301; 311; 321; 331; 341; 481; 501; 511; 521; 531; 541), wherein the jig main body (281; 301; 311; 321; 331; 341; 481; 501; 511; 521; 531; 541) is configured to be smaller than the gap before heating by the temperature adjusting unit (282; 302; 332; 342), and is configured to become larger than the gap after heating by the temperature adjusting unit (282; 302; 332; 342). a jig main body (281; 301; 311; 321; 331; 341; 481; 501; 511; 521; 531; 541) which includes a shape memory material and which is configured to be arranged in the gap between the neighboring heat transfer tubes and to expandably deform in the gap by being heated; and a temperature adjusting unit (282; 302; 332; 342) which can adjust a temperature of the jig main body (281; 301; 311; 321; 331; 341; 481; 501; 511; 521; 531; 541), wherein the jig main body (281; 301; 311; 321; 331; 341; 481; 501; 511; 521; 531; 541) is configured to be smaller than the gap before heating by the temperature adjusting unit (282; 302; 332; 342), and is configured to become larger than the gap after heating by the temperature adjusting unit (282; 302; 332; 342).
An integrated circuit package (200, 300, 320, 340) comprising: an integrated circuit die; and an arrangement of electrically conductive pads coupled to the integrated circuit die, wherein in at least one first region (326, 328) of the arrangement, the conductive pads are disposed with a first pitch in a first dimension (301, 303) of the arrangement and with a second pitch in a second dimension (303, 301) of the arrangement, the second pitch being different from the first pitch, and wherein the first region (326, 328) is outside a shadow of the integrated circuit die. an integrated circuit die; and an arrangement of electrically conductive pads coupled to the integrated circuit die, wherein in at least one first region (326, 328) of the arrangement, the conductive pads are disposed with a first pitch in a first dimension (301, 303) of the arrangement and with a second pitch in a second dimension (303, 301) of the arrangement, the second pitch being different from the first pitch, and wherein the first region (326, 328) is outside a shadow of the integrated circuit die.
Method for the estimation of the heart-rate using photoplethysmography on a body organ, in particular on a wrist of a user, comprising acquiring optically (13a, 13b, 17) from said body organ a signal representative of the heart beat ( o), acquiring an acceleration signal ( ax, ay, az) representative of the acceleration of said body organ, selecting data blocks ( B o, B x, B y, B z) of said acquired heart beat signal (o) and acceleration signal ( ax, ay, az), compensating said heart beat signal (o) by the acceleration signal ( ax, ay, az), calculating (220; 410; 500) a heart-rate value ( d; r) on the basis of said compensated heart beat signal ( O '), characterized in that said method includes obtaining from said selected data blocks ( Bo, Bx, By, Bz) corresponding frequency domain data blocks for the heart beeat signal and for the acceleration signal ( AX, AY, AZ), said compensating operation includes performing a motion compensation in the frequency domain, compensating the frequency domain data blocks for the heart beat with the corresponding frequency domain data blocks for the acceleration signal (AX, AY, AZ), and in that said method includes computing a non-linear predictor value ( p) on the basis of said frequency domain data blocks ( AX, AY, AZ), performing a correction operation of the detected estimate of the heart rate ( d) including performing a decision between the detected estimate of the heart rate ( d) and a predicted estimate ( m) to select a decided heart rate value ( r), said predicted estimate ( m) being obtained as a linear function ( α, β) of said predictor ( p).
Electromagnetically driven locking device for a brake piston of a parking brake, comprising an electromagnetic drive (13, 14, 15) driving a spindle acting on the brake piston, wherein the electromagnetic drive is a brushless electric motor (13, 14, 15), wherein the spindle is arrangeable in the working chamber of the piston and the rotor is arranged in the hydraulic medium, characterised in that the rotor and the stator (14, 14a, 15, 15a) are separated by a sleeve-type or pot-type part consisting of non-magnetic material, especially a non-magnetic bell.
Shift arrangement for a drivetrain of a motor vehicle, having - a plurality of shifting clutch packs (32, 34, 36) which in each case have one or two shifting clutches, each shifting clutch being configured to engage or to disengage a gear stage (1-4; 1-6, R) of the drivetrain, - a manual shifting unit which is configured, by means of a manually actuable gearshift lever, to carry out a selecting movement for selecting at least one of the shifting clutch packs (32, 34, 36) and a shifting movement for engaging a gear stage of the selected shifting clutch pack, and - an automated shifting unit which has at least one actuator (88, 90) and is configured, by means of the at least one actuator (88, 90), to carry out a selecting movement for selecting at least one of the shifting clutch packs (32, 34, 36) and a shifting movement for engaging a gear stage of the selected shifting clutch pack (32, 34, 36), characterized in that - at least one shifting clutch pack (36; 32A, 32A'; 36B) which can be selected and shifted by means of the automated shifting unit cannot be selected or shifted by the manual shifting unit, and - the shifting clutch pack (32A, 32A') which can be selected or shifted by means of the automated shifting unit and not by the manual shifting unit has at least one shifting clutch which is assigned to a gear stage (1, 2; R) of a set of gear stages (1-6, R) which are to be used during normal driving operation of the motor vehicle. - a plurality of shifting clutch packs (32, 34, 36) which in each case have one or two shifting clutches, each shifting clutch being configured to engage or to disengage a gear stage (1-4; 1-6, R) of the drivetrain, - a manual shifting unit which is configured, by means of a manually actuable gearshift lever, to carry out a selecting movement for selecting at least one of the shifting clutch packs (32, 34, 36) and a shifting movement for engaging a gear stage of the selected shifting clutch pack, and - an automated shifting unit which has at least one actuator (88, 90) and is configured, by means of the at least one actuator (88, 90), to carry out a selecting movement for selecting at least one of the shifting clutch packs (32, 34, 36) and a shifting movement for engaging a gear stage of the selected shifting clutch pack (32, 34, 36), characterized in that - at least one shifting clutch pack (36; 32A, 32A'; 36B) which can be selected and shifted by means of the automated shifting unit cannot be selected or shifted by the manual shifting unit, and - the shifting clutch pack (32A, 32A') which can be selected or shifted by means of the automated shifting unit and not by the manual shifting unit has at least one shifting clutch which is assigned to a gear stage (1, 2; R) of a set of gear stages (1-6, R) which are to be used during normal driving operation of the motor vehicle.