mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic component assembly comprising: a stack of electronic components wherein each electronic component of said electronic components comprises a face and external terminations wherein said face comprises an inert surface; a component stability structure attached to at least one said inert surface; a circuit board comprising circuit traces arranged for electrical engagement with said external terminations ; wherein said component stability structure mechanically engages with said circuit board and inhibits said electronic component from moving relative to said circuit board ; wherein said component stability structure does not contribute to electrical functionality; and wherein said stack of electronic components further comprises at least one solder joint in direct electrical contact with at least one said external termination of said external terminations and at least one circuit trace of said circuit traces . a stack of electronic components wherein each electronic component of said electronic components comprises a face and external terminations wherein said face comprises an inert surface; a component stability structure attached to at least one said inert surface; a circuit board comprising circuit traces arranged for electrical engagement with said external terminations ; wherein said component stability structure mechanically engages with said circuit board and inhibits said electronic component from moving relative to said circuit board ; wherein said component stability structure does not contribute to electrical functionality; and wherein said stack of electronic components further comprises at least one solder joint in direct electrical contact with at least one said external termination of said external terminations and at least one circuit trace of said circuit traces .
Optically variable surface pattern divided into at least one first partial region having a plurality of first pixel sections and one second partial region having a plurality of second pixel sections , wherein the two partial regions offer two different views of the same motif depending on the viewing angle so that a three-dimensional image impression is produced for a viewer, wherein the surface pattern is embodied as a reflective and/or refractive surface pattern and is divided into a plurality of overpixels in which in each case at least one of the pixel sections is contained, wherein in each case a screened halftone representation of the corresponding view is realized by means of the pixel sections of the two partial regions , wherein the pixel sections for the halftone representation represent only bright and dark pixels produced with a halftone screening method, and wherein in each case one reflective and/or refractive facet or a plurality of reflective and/or refractive facets that form a sawtooth grid and have dimensions of between 2 μm and 300 μm are present in the pixel sections .
A sensor (100;300;500) for photoacoustic spectroscopy comprising: - a support , - a mechanical resonator (104;302;502), fastened to said support , and comprising: • at least one sensor element intended to be vibrated by an acoustic wave, and • at least one first capacitive electrode (108 1 -108 4 ;504 1 -504 4 ), mechanically coupled to said sensor element , so as to be moved by said sensor element when it is vibrated; and - at least one second capacitive electrode forming, with said at least one first electrode (108 1 -108 4 ;504 1 -504 4 ), a capacitive sensor; characterized in that said support has, opposite said sensor element , a perforated part formed by one or more through holes. - a support , - a mechanical resonator (104;302;502), fastened to said support , and comprising: • at least one sensor element intended to be vibrated by an acoustic wave, and • at least one first capacitive electrode (108 1 -108 4 ;504 1 -504 4 ), mechanically coupled to said sensor element , so as to be moved by said sensor element when it is vibrated; and • at least one sensor element intended to be vibrated by an acoustic wave, and • at least one first capacitive electrode (108 1 -108 4 ;504 1 -504 4 ), mechanically coupled to said sensor element , so as to be moved by said sensor element when it is vibrated; and - at least one second capacitive electrode forming, with said at least one first electrode (108 1 -108 4 ;504 1 -504 4 ), a capacitive sensor;
A grip body (1a.. 1g), in particular of a body care article, such as toothbrush, comprising a grip part (4a..4g), a neck part (3a..3g) and a head part (2a..2g), wherein the grip body (1a..1g) comprises a first and a second material component of a thermoplastic plastic, wherein the first and the second material component have a common injection point , characterised in that the common injection point is arranged outside a mould partition line which is formed by the mould partition, and the grip body (1c..1g) comprises a through-opening , by way of which the grip body (1c..1g) is temporarily divided into two or more part-arms (6c..6g) in the longitudinal direction, said part-arms uniting again into a body and thus enclosing the through-opening, wherein each part-arm (6c..6g) comprises a jacket body of the first material component and a line(strand)-like core body of the second material component which is enveloped by the jacket body.
A method for clock and data recovery comprising: obtaining a sequence of data decisions (d_next+, d_next-, d_now+, d_now-, d_old+, d_old-) from a history buffer and an error signal (err_now-, err_now +), the sequence of data decisions and the error signal generated by one or more samplers operating on a received input signal according to a sampling clock (Ph000, Ph180) generated by a local oscillator , wherein the relationship between the error signal and the sequence of data decisions determines if the sampling clock is early or late; applying the sequence of data decisions (d_next+, d_next-, d_now+, d_now-, d_old+, d_old-) and the error signal (err_now-, err_now+) to each logic branch of a set of logic branches, and responsively selecting a logic branch from the set of logic branches , the logic branch selected responsive to (i) a detection of a transitional data pattern in the sequence of data decisions and (ii) the error signal, the selected logic branch generating an output current (Icp;) and providing the output current to a local oscillator controller to adjust an input voltage of a proportional control circuit providing an output signal based on said input voltage to control the local oscillator, the output current sourcing and sinking current to a capacitor through a resistive element to adjust the input voltage of the proportional control circuit relative to a voltage on the capacitor connected to the resistive element. obtaining a sequence of data decisions (d_next+, d_next-, d_now+, d_now-, d_old+, d_old-) from a history buffer and an error signal (err_now-, err_now +), the sequence of data decisions and the error signal generated by one or more samplers operating on a received input signal according to a sampling clock (Ph000, Ph180) generated by a local oscillator , wherein the relationship between the error signal and the sequence of data decisions determines if the sampling clock is early or late; applying the sequence of data decisions (d_next+, d_next-, d_now+, d_now-, d_old+, d_old-) and the error signal (err_now-, err_now+) to each logic branch of a set of logic branches, and responsively selecting a logic branch from the set of logic branches , the logic branch selected responsive to (i) a detection of a transitional data pattern in the sequence of data decisions and (ii) the error signal, the selected logic branch generating an output current (Icp;) and providing the output current to a local oscillator controller to adjust an input voltage of a proportional control circuit providing an output signal based on said input voltage to control the local oscillator, the output current sourcing and sinking current to a capacitor through a resistive element to adjust the input voltage of the proportional control circuit relative to a voltage on the capacitor connected to the resistive element.
Method for producing a screw or plug-in closure made of plastic for closing containers, wherein the closure body has an outer casing that is closed on its upper side, wherein first the closure body is produced by the plastics injection moulding process in the form of a cup-shaped cap with an outer casing as a preform (V1), wherein, in the plastics injection moulding, an internal thread or latching segments is/are moulded in on the inner side of a coaxial inner bushing , characterized in that after the moulding, the interior space of the outer casing of the preform (V1) is expanded by being inflated and/or by a negative pressure being applied on the outside of the outer casing .
A rollover predictor judgment device for a combination vehicle comprising a front vehicle body and a rear vehicle body swingably connected to the front vehicle body , the rollover predictor judgment device comprising: a lateral acceleration sensor that is configured to detect an acceleration of the rear vehicle body in a right-left direction; a yaw rate sensor that is configured to detect a yaw rate of the rear vehicle body ; an articulate angle sensor that is configured to detect an articulate angle of the front vehicle body with respect to the rear vehicle body ; and a judgment device that is configured to judge whether or not the combination vehicle is in a rollover predictor status based on detection data detected by the lateral acceleration sensor , the yaw rate sensor and the articulate angle sensor , wherein the judgment device is configured to judge that the combination vehicle is in the rollover predictor status when a first lateral acceleration calculated based on a detection value of the lateral acceleration sensor is a first threshold or more and to judge that the combination vehicle is in the rollover predictor status when a second lateral acceleration calculated based on a detection value of the yaw rate sensor and a detection value of the articulate angle sensor is a second threshold or more. a lateral acceleration sensor that is configured to detect an acceleration of the rear vehicle body in a right-left direction; a yaw rate sensor that is configured to detect a yaw rate of the rear vehicle body ; an articulate angle sensor that is configured to detect an articulate angle of the front vehicle body with respect to the rear vehicle body ; and a judgment device that is configured to judge whether or not the combination vehicle is in a rollover predictor status based on detection data detected by the lateral acceleration sensor , the yaw rate sensor and the articulate angle sensor , wherein the judgment device is configured to judge that the combination vehicle is in the rollover predictor status when a first lateral acceleration calculated based on a detection value of the lateral acceleration sensor is a first threshold or more and to judge that the combination vehicle is in the rollover predictor status when a second lateral acceleration calculated based on a detection value of the yaw rate sensor and a detection value of the articulate angle sensor is a second threshold or more.
An electronic scale comprising a display unit for digitally displaying the weight of a load on a weighing dish and a tare subtraction key , further having: a display control unit for controlling the display on the display unit ; and a memory for memorizing as a zero adjustment range a scope of weight for making the display on the display unit to zero when a key for instructing zero adjustment is pushed while no load is placed on the weighing dish ; characterized in that the display control unit displays on the display unit a tare subtraction prompt display for prompting to push the tare subtraction key when the measurement value of the load increases over the upper limit of the zero adjustment range by a predetermined value. a display control unit for controlling the display on the display unit ; and a memory for memorizing as a zero adjustment range a scope of weight for making the display on the display unit to zero when a key for instructing zero adjustment is pushed while no load is placed on the weighing dish ; characterized in that the display control unit displays on the display unit a tare subtraction prompt display for prompting to push the tare subtraction key when the measurement value of the load increases over the upper limit of the zero adjustment range by a predetermined value.
An affinity chromatography device comprising: a housing ; an inlet to permit fluid flow into said housing; first and second flow distributors , said first flow distributor and said second flow distributor being positioned at opposing ends of said housing; an outlet to permit fluid flow out of said housing, and a wound membrane assembly disposed within said housing, said wound membrane assembly comprising: at least one polytetrafluoroethylene membrane containing therein inorganic particles having at least one nominal particle size; and at least one impermeable layer , wherein at least one of said polytetrafluoroethylene membrane and said inorganic particles has covalently bonded thereto an affinity ligand that reversibly binds to a targeted protein or antibody. a housing ; an inlet to permit fluid flow into said housing; first and second flow distributors , said first flow distributor and said second flow distributor being positioned at opposing ends of said housing; an outlet to permit fluid flow out of said housing, and a wound membrane assembly disposed within said housing, said wound membrane assembly comprising: at least one polytetrafluoroethylene membrane containing therein inorganic particles having at least one nominal particle size; and at least one impermeable layer , at least one polytetrafluoroethylene membrane containing therein inorganic particles having at least one nominal particle size; and at least one impermeable layer , wherein at least one of said polytetrafluoroethylene membrane and said inorganic particles has covalently bonded thereto an affinity ligand that reversibly binds to a targeted protein or antibody.
Method for obtaining a database usable to estimate a sloshing response of at least one sealed thermally insulating tank for the transport of liquefied gas, the method comprising the steps consisting in: - training a statistical model by a supervised machine learning method on a set of test data, the statistical model being able to estimate a sloshing response of the tank as a function of a level of filling of the tank and of a current sea state and optionally at least one of the following: a draft of the ship, a speed of the ship and a heading of the ship, and the set of test data being obtained from results of a plurality of tests each consisting in subjecting a test tank having a given level of filling to movements and measuring a pressure at at least one point on a wall of the test tank and/or a number of impacts on at least one wall of the test tank ; - generating a plurality of input data vectors each comprising a level of filling of the tank and a current sea state; and - for each input data vector generated in this way: obtaining an estimated sloshing response of the tank with the aid of the statistical model; and storing in a database the estimated sloshing response of the tank in association with the input data vector. - training a statistical model by a supervised machine learning method on a set of test data, the statistical model being able to estimate a sloshing response of the tank as a function of a level of filling of the tank and of a current sea state and optionally at least one of the following: a draft of the ship, a speed of the ship and a heading of the ship, and the set of test data being obtained from results of a plurality of tests each consisting in subjecting a test tank having a given level of filling to movements and measuring a pressure at at least one point on a wall of the test tank and/or a number of impacts on at least one wall of the test tank ; - generating a plurality of input data vectors each comprising a level of filling of the tank and a current sea state; and - for each input data vector generated in this way: obtaining an estimated sloshing response of the tank with the aid of the statistical model; and storing in a database the estimated sloshing response of the tank in association with the input data vector.
Suspension spring for a motor vehicle suspension device that is produced by helically winding a wire around a helix axis (A), the suspension spring comprising: - a first end portion, termed stiff portion , which has a first predetermined stiffness (K1), and which comprises a plurality of active turns produced with a first section, termed thick section , of the wire that has a first predetermined diameter (D1); and - a second end portion, termed flexible portion , which has a second predetermined stiffness (K2) which is less than the first stiffness (K1), and which comprises a plurality of active turns produced with a second section, termed thin section , of the wire that has a second predetermined diameter (D2) which is less than the first predetermined diameter (D1), the flexible portion terminating in a bearing turn intended to bear on a support ; characterized in that the bearing turn of the flexible portion is formed in part by a free end tail of the wire that has a frustoconical shape whose diameter in cross section decreases progressively up to a free end having a terminal diameter (D3) which is less than the second diameter (D2). - a first end portion, termed stiff portion , which has a first predetermined stiffness (K1), and which comprises a plurality of active turns produced with a first section, termed thick section , of the wire that has a first predetermined diameter (D1); and - a second end portion, termed flexible portion , which has a second predetermined stiffness (K2) which is less than the first stiffness (K1), and which comprises a plurality of active turns produced with a second section, termed thin section , of the wire that has a second predetermined diameter (D2) which is less than the first predetermined diameter (D1), the flexible portion terminating in a bearing turn intended to bear on a support ;
A packaged RF transistor device , comprising: an RF transistor die including a plurality of RF transistor cells (15A-D), each of the plurality of RF transistor cells (15A-D) including a control terminal and an output terminal; an RF input lead ; and an input matching network coupled between the RF input lead and the RF transistor die, the input matching network comprises at least one of: (a) a plurality of capacitors (36A-D) having respective input terminals, wherein the input terminals of the capacitors (36A-D) are coupled to the control terminals of respective ones of the RF transistor cells (15A-D), and wherein the input matching network further comprises a plurality of resistors (35A-C) coupled respectively between adjacent input terminals of the capacitors (36A-D); and (b) a split capacitor comprising a plurality of input terminals, wherein the input terminals of the split capacitor are coupled to the control terminals of respective ones of the RF transistor cells (15A-D), and wherein the input matching network further comprises a plurality of resistors (35A-C) coupled respectively between adjacent input terminals of the split capacitor. an RF transistor die including a plurality of RF transistor cells (15A-D), each of the plurality of RF transistor cells (15A-D) including a control terminal and an output terminal; an RF input lead ; and an input matching network coupled between the RF input lead and the RF transistor die, the input matching network comprises at least one of: (a) a plurality of capacitors (36A-D) having respective input terminals, wherein the input terminals of the capacitors (36A-D) are coupled to the control terminals of respective ones of the RF transistor cells (15A-D), and wherein the input matching network further comprises a plurality of resistors (35A-C) coupled respectively between adjacent input terminals of the capacitors (36A-D); and (b) a split capacitor comprising a plurality of input terminals, wherein the input terminals of the split capacitor are coupled to the control terminals of respective ones of the RF transistor cells (15A-D), and wherein the input matching network further comprises a plurality of resistors (35A-C) coupled respectively between adjacent input terminals of the split capacitor.
A haptic device, comprising: a substantially transparent piezoelectric sensor layer comprising an array of sensor cells; a substantially transparent piezoelectric actuator layer distinct from the sensor layer , comprising an array of independently actuatable actuator cells, wherein the array of sensor cells includes more cells than the array of actuator cells; and a display configured to display an image viewable through the substantially transparent piezoelectric sensor layer and the substantially transparent piezoelectric actuator layer. a substantially transparent piezoelectric sensor layer comprising an array of sensor cells; a substantially transparent piezoelectric actuator layer distinct from the sensor layer , comprising an array of independently actuatable actuator cells, wherein the array of sensor cells includes more cells than the array of actuator cells; and a display configured to display an image viewable through the substantially transparent piezoelectric sensor layer and the substantially transparent piezoelectric actuator layer.