mhurhangee/patent-ind-claim-en huggingface dataset:
Adjustment fitting for a vehicle seat (S), in particular for adjusting an inclination of a backrest (R) of the vehicle seat (S), comprising a first fitting part (1.1), in particular connectable to a seat substructure (SU) of the vehicle seat (S), and a second fitting part (1.2) which is pivotable about an axis (A) relative to the first fitting part (1.1) and is in particular connectable to a backrest (R) of the vehicle seat (S), wherein the first fitting part (1.1) and the second fitting part (1.2) are constituent parts both of a gearing unit of the adjustment fitting and of a locking unit of the adjustment fitting , characterized in that the first fitting part (1.1) has at least one first internal toothing (1.1.1) and the second fitting part (1.2) has at least one second internal toothing (1.2.1), wherein both the gearing unit and the locking unit are configured to mesh both with the first internal toothing (1.1.1) and with the second internal toothing (1.2.1). the first fitting part (1.1) and the second fitting part (1.2) are constituent parts both of a gearing unit of the adjustment fitting and of a locking unit of the adjustment fitting , characterized in that the first fitting part (1.1) has at least one first internal toothing (1.1.1) and the second fitting part (1.2) has at least one second internal toothing (1.2.1), wherein both the gearing unit and the locking unit are configured to mesh both with the first internal toothing (1.1.1) and with the second internal toothing (1.2.1).
A copper/ceramic bonded body formed by bonding a copper member, which is formed of copper or a copper alloy, and a ceramic member, wherein a ratio D1/D0 is 0.60 or less, D0 being an average crystal grain size of the entire copper member, D1 being an average crystal grain size of the copper member at a position 50 μm from a bonding surface with the ceramic member, D0 and D1 being obtained by observing a cross-section of the copper member along a laminating direction.
A sensor mounting structure for a sensor having a detection surface configured to detect information around a vehicle , the sensor mounting structure comprising: an exterior member of the vehicle provided with an opening (41; 64; 202a; 501) that is provided to be wider than an outer shape of the detection surface the opening (41; 64; 202a; 501) being provided such that an opening edge of the opening (41; 64; 202a; 501) is disposed around the detection surface with a space between the opening edge and the detection surface; and a cover (63; 201; 301) disposed around the detection surface to close the space between an outer peripheral edge of the detection surface and the opening edge of the opening (41; 64; 202a; 501), a case which comprises the detection surface characterized in that the cover (63; 201; 301) is attached to the case and disposed so as to be flush with the detection surface , the cover (63; 201; 301) and the detection surface are formed so that tangential directions of adjacent ends of the cover and the detection surface are coincident with each other, the color of the cover (63; 201; 301) and the color of the detection surface are the same, the opening (41; 64; 202a; 501) is disposed in a fender panel so as to expose the detection surface , the opening (41; 64; 202a; 501) is formed in the fender panel , and a flange portion is formed on the peripheral edge of the opening (41; 64; 202a; 501) a garnish is attached to the flange portion , and the opening (41; 64; 202a; 501) is formed in the garnish . an exterior member of the vehicle provided with an opening (41; 64; 202a; 501) that is provided to be wider than an outer shape of the detection surface the opening (41; 64; 202a; 501) being provided such that an opening edge of the opening (41; 64; 202a; 501) is disposed around the detection surface with a space between the opening edge and the detection surface; and a cover (63; 201; 301) disposed around the detection surface to close the space between an outer peripheral edge of the detection surface and the opening edge of the opening (41; 64; 202a; 501), a case which comprises the detection surface characterized in that the cover (63; 201; 301) is attached to the case and disposed so as to be flush with the detection surface , the cover (63; 201; 301) and the detection surface are formed so that tangential directions of adjacent ends of the cover and the detection surface are coincident with each other, the color of the cover (63; 201; 301) and the color of the detection surface are the same, the opening (41; 64; 202a; 501) is disposed in a fender panel so as to expose the detection surface , the opening (41; 64; 202a; 501) is formed in the fender panel , and a flange portion is formed on the peripheral edge of the opening (41; 64; 202a; 501) a garnish is attached to the flange portion , and the opening (41; 64; 202a; 501) is formed in the garnish .
Process for the manufacture of an insulating product based on mineral fibres bonded by an organic binder, comprising the following stages: a. the application of a sizing composition to the said mineral fibres, b. the formation of an assembly of the said mineral fibres, c. the heating of the said assembly of mineral fibres until the said sizing composition has cured, characterized in that : - the said sizing composition comprises the following constituents within the limits defined below, expressed as fractions by weight with respect to the total weight of the composition: o from 80% to 98% of water, o from 2% to 20% of water-soluble poly(furfuryl alcohol) and o less than 0.5% of furfuryl alcohol, and - the sum of the fractions by weight of the poly(furfuryl alcohol) and of the water is advantageously at least 95%, and - the said mineral fibres are fibres of aluminosilicate glass comprising aluminium oxide, Al 2 O 3 , in a fraction by weight of between 14% and 28%. a. the application of a sizing composition to the said mineral fibres, b. the formation of an assembly of the said mineral fibres, c. the heating of the said assembly of mineral fibres until the said sizing composition has cured, characterized in that : - the said sizing composition comprises the following constituents within the limits defined below, expressed as fractions by weight with respect to the total weight of the composition: o from 80% to 98% of water, o from 2% to 20% of water-soluble poly(furfuryl alcohol) and o less than 0.5% of furfuryl alcohol, and - the sum of the fractions by weight of the poly(furfuryl alcohol) and of the water is advantageously at least 95%, and - the said mineral fibres are fibres of aluminosilicate glass comprising aluminium oxide, Al 2 O 3 , in a fraction by weight of between 14% and 28%. - the said sizing composition comprises the following constituents within the limits defined below, expressed as fractions by weight with respect to the total weight of the composition: o from 80% to 98% of water, o from 2% to 20% of water-soluble poly(furfuryl alcohol) and o less than 0.5% of furfuryl alcohol, and o from 80% to 98% of water, o from 2% to 20% of water-soluble poly(furfuryl alcohol) and o less than 0.5% of furfuryl alcohol, and - the sum of the fractions by weight of the poly(furfuryl alcohol) and of the water is advantageously at least 95%, and - the said mineral fibres are fibres of aluminosilicate glass comprising aluminium oxide, Al 2 O 3 , in a fraction by weight of between 14% and 28%. - the said mineral fibres are fibres of aluminosilicate glass comprising aluminium oxide, Al 2 O 3 , in a fraction by weight of between 14% and 28%.
A multi-filtenna system comprising: a plurality of filtennas disposed in parallel proximate one another, wherein the system comprises: a base defining a plurality of ports; one or more resonator sections ; a plurality of coplanar resonators configured to radiate and/or receive electromagnetic signals; a ground wall element defining an opening aligned with a resonator of at least one of the resonator sections and configured to be grounded, wherein the opening encloses the plurality of coplanar resonators , wherein the ground wall element is disposed opposite the base relative to the resonator of the at least one resonator section ; wherein the one or more resonator sections are disposed between the ports and the plurality of coplanar resonators configured to radiate and/or receive electromagnetic signals, wherein the plurality of filtennas are configured to communicate via the respective ports and to operate at a same frequency, wherein the base is disposed proximate one end of the one or more resonator sections , opposite the plurality of coplanar resonators configured to radiate and/or receive electromagnetic signals, and wherein the plurality of resonators are coplanar in a plane parallel to the base and/or the ground wall element . a plurality of filtennas disposed in parallel proximate one another, wherein the system comprises: a base defining a plurality of ports; one or more resonator sections ; a plurality of coplanar resonators configured to radiate and/or receive electromagnetic signals; a ground wall element defining an opening aligned with a resonator of at least one of the resonator sections and configured to be grounded, wherein the opening encloses the plurality of coplanar resonators , a base defining a plurality of ports; one or more resonator sections ; a plurality of coplanar resonators configured to radiate and/or receive electromagnetic signals; a ground wall element defining an opening aligned with a resonator of at least one of the resonator sections and configured to be grounded, wherein the opening encloses the plurality of coplanar resonators , wherein the ground wall element is disposed opposite the base relative to the resonator of the at least one resonator section ; wherein the one or more resonator sections are disposed between the ports and the plurality of coplanar resonators configured to radiate and/or receive electromagnetic signals, wherein the plurality of filtennas are configured to communicate via the respective ports and to operate at a same frequency, wherein the base is disposed proximate one end of the one or more resonator sections , opposite the plurality of coplanar resonators configured to radiate and/or receive electromagnetic signals, and wherein the plurality of resonators are coplanar in a plane parallel to the base and/or the ground wall element .
An evacuated blood collection tube, comprising a liquid formulation that comprises a mixture of protease inhibitors, trisodium citrate, citric acid, and dextrose; wherein the mixture of protease inhibitors consists of benzamidine, soybean trypsin inhibitor, leupeptin, 4-(2-Aminoethyl) benzenesulfonyl fluoride hydrochloride (AEBSF), polybrene, and EDTA.
A disk brake for a utility vehicle, having a brake calliper that straddles a brake disc and is held such that it can be moved axially in relation to the brake disc on two guide bars that are connected to the brake carrier on a fixed brake carrier , the guide bars each being mounted in a sliding bearing that is held such that it cannot be moved in a bore in the brake calliper , characterised in that at least one of the sliding bearings consists of at least two metal sleeves , which are arranged a certain distance from one another in the axial direction and abut the guide bar , and at least one spacer sleeve , which is positioned between the two metal sleeves , the front faces of these metal sleeves abutting the spacer sleeve .
A gas hob comprising a top plate ; a first grate supported by the top plate such that surrounding vertically aligned a first burner and a wok burner having a first distance (a) between the centers, respectively and a second grate provided on the top plate side-by-side to the first grate surrounding a second burner horizontally aligned with the first burner and a third burner having a second distance (b) between the centers which is smaller than the first distance (a) aligned vertically therewith characterized by a lower support arm extending from the second grate to the radial center of the third burner and intermediate arm distance (x) between a first support arm extending from first grate to the wok burner on the same horizontal axis with the lower support arm and a second support arm disposed below and parallel to the first support arm at a predetermined intermediate arm distance (x) which is given by the formula: x = 2 a − b
A housing assembly for facilitating electrical connectivity to a heater core of a heating device, the heater core being configured to be placed in a Heating Ventilation and Air conditioning (HVAC) system, the housing assembly comprising: a housing configured with a protruded portion formed on a wall of the housing ; a first terminal configured on the protruded portion of the housing and electrically connected with a first bus bar ; a second terminal provided on the portion other than the protruded portion and configured on a first end of the housing and electrically connected with a second bus bar , wherein the first bus bar and the second bus bar are configured to be connected to the heater core to provide an electrical connectivity to the heater core , whereby the first terminal and the second terminal are laterally offset to each other, and are at least partially on opposite sides of a reference line coinciding with an edge of a printed circuit board received in the housing ; and a top portion adapted to couple with the housing for encapsulating the first terminal , the second terminal , and the printed circuit board . a housing configured with a protruded portion formed on a wall of the housing ; a first terminal configured on the protruded portion of the housing and electrically connected with a first bus bar ; a second terminal provided on the portion other than the protruded portion and configured on a first end of the housing and electrically connected with a second bus bar , wherein the first bus bar and the second bus bar are configured to be connected to the heater core to provide an electrical connectivity to the heater core , whereby the first terminal and the second terminal are laterally offset to each other, and are at least partially on opposite sides of a reference line coinciding with an edge of a printed circuit board received in the housing ; and a top portion adapted to couple with the housing for encapsulating the first terminal , the second terminal , and the printed circuit board .
A method of correcting a signal associated with sensor data in a process control environment, the method comprising: measuring, via a sensor of a remote sensing unit disposed within a process control device that is disposed within the process environment , a parameter of the process environment; in response to a request from a local control unit remotely situated relative to the process environment, comparing, at a level detector of the remote sensing unit, the parameter to a threshold value to determine an operating condition of the process environment; when the parameter satisfies the threshold value, providing power, via the level detector, to turn on a remote processing unit disposed within the remote sensing unit ; when the remote processing unit is turned on, retrieving, with the remote processing unit calibration data stored in a first memory proximate to the remote processor , the calibration data associated with the sensor proximate to the remote processor ; sending, with the remote processor , the calibration data to a local processor ; storing, in a second memory proximate to the local processor , the calibration data sent to the local processor ; receiving, at the local processor , a signal indicative of the parameter measured by the sensor, the remote processor not receiving the signal; correcting, with the local processor , the signal based on the calibration data; and controlling, with the local processor , the process control device based on the corrected signal. measuring, via a sensor of a remote sensing unit disposed within a process control device that is disposed within the process environment , a parameter of the process environment; in response to a request from a local control unit remotely situated relative to the process environment, comparing, at a level detector of the remote sensing unit, the parameter to a threshold value to determine an operating condition of the process environment; when the parameter satisfies the threshold value, providing power, via the level detector, to turn on a remote processing unit disposed within the remote sensing unit ; when the remote processing unit is turned on, retrieving, with the remote processing unit calibration data stored in a first memory proximate to the remote processor , the calibration data associated with the sensor proximate to the remote processor ; sending, with the remote processor , the calibration data to a local processor ; storing, in a second memory proximate to the local processor , the calibration data sent to the local processor ; receiving, at the local processor , a signal indicative of the parameter measured by the sensor, the remote processor not receiving the signal; correcting, with the local processor , the signal based on the calibration data; and controlling, with the local processor , the process control device based on the corrected signal.
A method for adjusting one or more target hardware settings of a target computing device relative to a reference computing device set to a reference hardware setting, the method comprising: mapping , at the target computing device, a set of target hardware performance parameter values to a set of reference hardware performance parameter values to create a hardware adjustment map, the hardware adjustment map defining a relationship between a reference hardware performance parameter value corresponding to a hardware setting of the reference computing device and a target hardware performance parameter value corresponding to a hardware setting of the target computing device; determining , at the target computing device, the target hardware setting corresponding to the reference hardware setting based on mapped hardware performance parameter values of the hardware adjustment map; and adjusting the target computing device in accordance with the determined target hardware setting. mapping , at the target computing device, a set of target hardware performance parameter values to a set of reference hardware performance parameter values to create a hardware adjustment map, the hardware adjustment map defining a relationship between a reference hardware performance parameter value corresponding to a hardware setting of the reference computing device and a target hardware performance parameter value corresponding to a hardware setting of the target computing device; determining , at the target computing device, the target hardware setting corresponding to the reference hardware setting based on mapped hardware performance parameter values of the hardware adjustment map; and adjusting the target computing device in accordance with the determined target hardware setting.
A structural reinforcement system , comprising: a rigid carrier ; an insert fixedly secured to said rigid carrier ; and a bonding material disposed over at least a portion of said rigid carrier or said insert , such that said rigid carrier and said insert will be secured in place after said bonding material expands, wherein said insert is a substantially rectangular plate, a substantially 'L' shaped configuration, a substantially 'U' shaped configuration, a substantially 'S' shaped configuration, or a substantially 'W' shaped configuration, wherein at least a portion of said insert is configured to span a distance between two cavity walls , characterised in that said insert includes a local elongated wavy deformation. a rigid carrier ; an insert fixedly secured to said rigid carrier ; and a bonding material disposed over at least a portion of said rigid carrier or said insert , such that said rigid carrier and said insert will be secured in place after said bonding material expands, wherein said insert is a substantially rectangular plate, a substantially 'L' shaped configuration, a substantially 'U' shaped configuration, a substantially 'S' shaped configuration, or a substantially 'W' shaped configuration, wherein at least a portion of said insert is configured to span a distance between two cavity walls , characterised in that said insert includes a local elongated wavy deformation.
A method for regulating a state of charge of an energy storage device coupled to an electric motor of a supercharger assembly including a supercharger operably connected to the motor and an engine of a vehicle via a planetary gear set including a sun gear coupled with the supercharger , a ring gear coupled with the motor , and a plurality of planet gears coupled with the engine , the method comprising: monitoring driving characteristics of the vehicle, the driving characteristics including one or more of a driving style, one or more driving conditions, and traffic information; using the driving characteristics to determine a reference state of charge; comparing the reference state of charge to an actual state of charge of the energy storage device ; and when a difference between the reference state of charge and the actual state of charge indicates a deficit in the charge of the energy storage device , selecting an operating mode to regenerate the energy storage device, wherein the energy storage device is regenerated via power transmission through the planetary gear set from the supercharger by driving the ring gear with power generated by the supercharger via the sun gear or from the engine by braking the sun gear such that the ring gear is driven with power generated by the engine via the planet gears. monitoring driving characteristics of the vehicle, the driving characteristics including one or more of a driving style, one or more driving conditions, and traffic information; using the driving characteristics to determine a reference state of charge; comparing the reference state of charge to an actual state of charge of the energy storage device ; and when a difference between the reference state of charge and the actual state of charge indicates a deficit in the charge of the energy storage device , selecting an operating mode to regenerate the energy storage device, wherein the energy storage device is regenerated via power transmission through the planetary gear set from the supercharger by driving the ring gear with power generated by the supercharger via the sun gear or from the engine by braking the sun gear such that the ring gear is driven with power generated by the engine via the planet gears.