mhurhangee/patent-ind-claim-en huggingface dataset:
A power supply unit for a printing apparatus that has a plurality of functions including a printing function of forming an image on a medium and is capable of executing printing with resolution of 300 dpi or more, comprising: a substrate ; an input terminal (Tnl) adapted to receive an alternating voltage (Vac) from a power cable electrically connected to an alternating power supply ; a smoothing capacitor (HC) adapted to smooth the alternating voltage input from the input terminal; and a thermistor (TM) adapted to detect a temperature, wherein the input terminal, the smoothing capacitor, and the thermistor are mounted on the substrate, and wherein a gap (W2) between the input terminal and the thermistor is longer than a gap (W1) between the input terminal and the smoothing capacitor, characterised in that the power supply unit further comprising: a rectifying circuit (BD) that rectifies alternating voltage input from the input terminal (Tnl) before inputting the rectified voltage to the smoothing capacitor (HC), and an output terminal (Tn2) that outputs voltage smoothed by the smoothing capacitor, wherein the rectifying circuit and the output terminal are mounted on the substrate, and wherein the rectifying circuit (BD) is located between the thermistor (TM) and the output terminal (Tn2). a substrate ; an input terminal (Tnl) adapted to receive an alternating voltage (Vac) from a power cable electrically connected to an alternating power supply ; a smoothing capacitor (HC) adapted to smooth the alternating voltage input from the input terminal; and a thermistor (TM) adapted to detect a temperature, wherein the input terminal, the smoothing capacitor, and the thermistor are mounted on the substrate, and wherein a gap (W2) between the input terminal and the thermistor is longer than a gap (W1) between the input terminal and the smoothing capacitor, characterised in that the power supply unit further comprising: a rectifying circuit (BD) that rectifies alternating voltage input from the input terminal (Tnl) before inputting the rectified voltage to the smoothing capacitor (HC), and an output terminal (Tn2) that outputs voltage smoothed by the smoothing capacitor, a rectifying circuit (BD) that rectifies alternating voltage input from the input terminal (Tnl) before inputting the rectified voltage to the smoothing capacitor (HC), and an output terminal (Tn2) that outputs voltage smoothed by the smoothing capacitor, wherein the rectifying circuit and the output terminal are mounted on the substrate, and wherein the rectifying circuit (BD) is located between the thermistor (TM) and the output terminal (Tn2).
A multi-track cycle comprising: - a pedal generator for generating electric energy to propel the multi-track cycle; and - a base frame , wherein the pedal generator comprises: - a set of pedals ; - a generator mechanically connected to the pedals ; - a further frame for fixing a position of the pedals and the generator relative to each other, wherein the further frame is connectable to the base frame by a first connection point and a second connection point , characterized in that the first connection point is connectable to the base frame in alternative positions being discrete or continuously variable, and that a pivotal arm connects the second connection point to the base frame . - a pedal generator for generating electric energy to propel the multi-track cycle; and - a base frame , wherein the pedal generator comprises: - a set of pedals ; - a generator mechanically connected to the pedals ; - a further frame for fixing a position of the pedals and the generator relative to each other, wherein the further frame is connectable to the base frame by a first connection point and a second connection point , characterized in that the first connection point is connectable to the base frame in alternative positions being discrete or continuously variable, and that a pivotal arm connects the second connection point to the base frame .
A fastening fitting for fastening a panel to a drawer, the fastening fitting comprising panel fitting parts for mounting on side walls of the drawer and panel mounting parts (2, 2', 2") for mounting on a rear side of the panel, the panel fitting parts receiving the panel mounting parts (2, 2', 2"), these being connectable by means of locking means (7, 7', 7") of the panel fitting parts and locking pins (3, 3', 3") of the panel mounting parts (2, 2', 2"), each of the panel mounting parts (2, 2', 2") comprising means (4, 4', 4") for adjusting the inclination of the panel, which means are operatively connected in each case to an adjusting body , designed as an eccentric pin, of the panel fitting parts and pivot the panel about an axis running parallel to the bottom or top side of the drawer, and wherein the locking means (7', 7") are each displaceably arranged in a guide section and are movable along the guide section between an open position of the locking means (7', 7") and a closed position of the locking means (7', 7"), characterised in that in that either the means for adjusting the inclination comprise a fork of the panel mounting part , which fork is directed towards the panel fitting part and receives the eccentric bolt , or in that the means for adjusting the inclination comprise an elongated guide plate arranged vertically on the panel fitting part , the eccentric bolt or one end of the guide plate being alternately one end of the guide plate can be placed alternately against end contact surfaces (4', 4") of the cover mounting part and an additional cover mounting part (2") arranged above the latter, and a second end of the guide plate being connected to the eccentric bolt . in that either the means for adjusting the inclination comprise a fork of the panel mounting part , which fork is directed towards the panel fitting part and receives the eccentric bolt , or in that the means for adjusting the inclination comprise an elongated guide plate arranged vertically on the panel fitting part , the eccentric bolt or one end of the guide plate being alternately one end of the guide plate can be placed alternately against end contact surfaces (4', 4") of the cover mounting part and an additional cover mounting part (2") arranged above the latter, and a second end of the guide plate being connected to the eccentric bolt .
A copper electroplating bath comprising: a plating solution comprising a source of copper ions in the form of a copper salt which is present in the plating solution in an amount sufficient to provide an amount of copper metal of 10 to 180 g/L of plating solution, an electrolyte, and from 0.25 to 5000 ppm, based on the total weight of the electroplating bath, of a leveling agent, wherein the leveling agent is a reaction product of one or more cyclodiaza-compounds with one or more epoxide-containing compounds; wherein at least one cyclodiaza-compound has the formula (IIa) or (IIb) wherein R 1 and R 2 are independently chosen from H, (C 1 -C 6 )alkyl and (C 6 -C 10 )aryl; R 4 and R 7 to R 10 are independently chosen from H, (C 1 -C 6 )alkyl, (C 6 -C 10 )aryl and hydroxyl; R 7 and R 9 may be taken together to form a chemical bond; and any of R 1 , R 4 and R 7 to R 10 on adjacent ring atoms may be taken together along with the atoms to which they are attached to form a 5- or 6-membered saturated or unsaturated ring; wherein the epoxide-containing compound is where Y 1 and Y 2 are independently chosen from H and (C 1 -C 4 )alkyl; A = OR 11 or R 12 ; R 11 = ((CR 13 R 14 ) m O) n , (aryl-O) p , CR 13 R 14 -Z-CR 13 R 14 O or OZ 1 t O; R 12 = (CH 2 ) y ; Z = a 5- or 6-membered ring; Z 1 is R 15 OArOR 15 , (R 16 O) a Ar(OR 16 ) a , or (R 16 O) a Cy(OR 16 ) a ; Cy = (C 5 -C 12 )cycloalkyl; each R 13 and R 14 are independently chosen from H, CH 3 and OH; each R 15 represents (C 1 -C 8 )alkyl; each R 16 represents a (C 2 -C 6 )alkyleneoxy; each a = 1-10; m = 1-6; n = 1-20; p = 1-6; t = 1-4; and y = 0-6; wherein Y 1 and Y 2 may be taken together to form a (C 8 -C 12 )cyclic compound. wherein R 1 and R 2 are independently chosen from H, (C 1 -C 6 )alkyl and (C 6 -C 10 )aryl; R 4 and R 7 to R 10 are independently chosen from H, (C 1 -C 6 )alkyl, (C 6 -C 10 )aryl and hydroxyl; R 7 and R 9 may be taken together to form a chemical bond; and any of R 1 , R 4 and R 7 to R 10 on adjacent ring atoms may be taken together along with the atoms to which they are attached to form a 5- or 6-membered saturated or unsaturated ring; wherein the epoxide-containing compound is
Method of analysing flight data recorded during N flights of at least one aircraft, by means of a flight data recorder of an aircraft, the data being grouped together (E2) by flight i in a signature vector of the flight X i of size d , the components of which correspond to data recorded during said flight i of the aircraft, a flight i being thus defined by the signature vector X i , the method comprising the following steps: - Gaussian kernel entropy component analysis (E4) of the flight signatures X i to obtain a zone of normal flights (E) and classifying the flight signatures X i with respect to their distance to said zone; - determining (E5), for each flight i , an abnormality score z i defined by the distance of a flight signature X i with respect to the zone of normal flights (E); - detecting (E6), as a function of the abnormality score z i , at least one abnormal flight; characterised in that the method further comprises the step of - determining for each abnormal flight, a phantom flight the nearest to the abnormal flight while being in the zone of normal flights, wherein the parameters of the abnormal flight detected are compared with those of the phantom flight determined in order to detect at least one parameter of the abnormal flight which has rendered abnormal said abnormal flight detected. - Gaussian kernel entropy component analysis (E4) of the flight signatures X i to obtain a zone of normal flights (E) and classifying the flight signatures X i with respect to their distance to said zone; - determining (E5), for each flight i , an abnormality score z i defined by the distance of a flight signature X i with respect to the zone of normal flights (E); - detecting (E6), as a function of the abnormality score z i , at least one abnormal flight; - determining for each abnormal flight, a phantom flight the nearest to the abnormal flight while being in the zone of normal flights, wherein the parameters of the abnormal flight detected are compared with those of the phantom flight determined in order to detect at least one parameter of the abnormal flight which has rendered abnormal said abnormal flight detected.
A laser device, comprising: a transmitter that emits a light; an oscillating shaft orthogonal to the central axis (y) of the transmitter , a first reflector fixed to the oscillating shaft and oscillating therewith, that pivotally reflects the light, a light receiver provided apart from the transmitter in a first direction parallel to the shaft , a guide part (151-155) that receives the light from the first reflector , changes the direction of the light to the first direction and changes again the direction of the light from the first direction to a direction perpendicular to the first direction, thereby shifting the optical axis of the light closer to the light receiver , and a second reflector that reflects a returning light from an object to the light receiver and oscillates in sync with the first reflector , and a housing comprising a window whereby the light and the returning light pass through, the guide part (151-155) being disposed on the window, wherein the guide part (151-155) comprises a first reflection part and a second reflection part , the first reflection part being disposed in a first position, and the second reflection part being disposed in a second position closer to the light receiver in the first direction. a transmitter that emits a light; an oscillating shaft orthogonal to the central axis (y) of the transmitter , a first reflector fixed to the oscillating shaft and oscillating therewith, that pivotally reflects the light, a light receiver provided apart from the transmitter in a first direction parallel to the shaft , a guide part (151-155) that receives the light from the first reflector , changes the direction of the light to the first direction and changes again the direction of the light from the first direction to a direction perpendicular to the first direction, thereby shifting the optical axis of the light closer to the light receiver , and a second reflector that reflects a returning light from an object to the light receiver and oscillates in sync with the first reflector , and a housing comprising a window whereby the light and the returning light pass through, the guide part (151-155) being disposed on the window, wherein the guide part (151-155) comprises a first reflection part and a second reflection part , the first reflection part being disposed in a first position, and the second reflection part being disposed in a second position closer to the light receiver in the first direction.
A compound composition comprised of a surface-treated carbon black and a functionalized elastomer with functionalization along the elastomer chain, wherein the elastomer is a solution SBR and wherein the elastomer functionalization is composed of polar, carboxylic acid groups, and wherein the surface-treated carbon black is a carbon black that has been treated with peroxide or ozone, resulting in oxidation of the surface with polar, oxygen-containing functionalities; or wherein the surface-treated carbon black has been treated with an oxidizing agent followed by treatment with an amine-based compound, resulting in amine functionalization; or wherein the surface-treated carbon black has been treated with an oxidizing agent followed by treatment with an hydroxy-based compound; or wherein the surface-treated carbon black has been treated with a chlorinating agent followed by treatment with ammonia, resulting in amine functionalization.
Cup holder arrangement for a vehicle, comprising - a cup holder , - an instrument panel with a multifunction display, - a lighting unit , wherein the lighting unit is arranged separately from the cup holder and is integrated in the multifunction display of the instrument panel, and - a control unit , which is figured to control the lighting unit depending on a relative temperature setting (T) of the cup holder , wherein - the relative temperature setting (T) corresponds to a temperature difference of an adjustable target temperature of the cup holder and an actual temperature in or at the cup holder - the lighting unit is designed with a plurality of light sources for an RGB illumination with the colour values red, green and blue, - the individual light sources of the lighting unit are designed to be of different sizes, - the control unit is configured to control a colour progression of the lighting unit which corresponds to the individual adjustable temperature values of the relative temperature setting (T), and - the cup holder is an actively temperable cup holder for warming and/or cooling vessels in the cup holder . - a cup holder , - an instrument panel with a multifunction display, - a lighting unit , wherein the lighting unit is arranged separately from the cup holder and is integrated in the multifunction display of the instrument panel, and - a control unit , which is figured to control the lighting unit depending on a relative temperature setting (T) of the cup holder , wherein - the relative temperature setting (T) corresponds to a temperature difference of an adjustable target temperature of the cup holder and an actual temperature in or at the cup holder - the lighting unit is designed with a plurality of light sources for an RGB illumination with the colour values red, green and blue, - the individual light sources of the lighting unit are designed to be of different sizes, - the control unit is configured to control a colour progression of the lighting unit which corresponds to the individual adjustable temperature values of the relative temperature setting (T), and - the cup holder is an actively temperable cup holder for warming and/or cooling vessels in the cup holder .
A method of manufacturing a torque transmission shaft comprising: an internal shaft having an external spline provided on an outer circumference thereof; a tubular external shaft having on an inner circumference thereof an internal spline which is configured to slidably mesh with the external spline ; and a resin coating provided on at least one of the external spline and the internal spline , the method comprising: an adaptation step of adapting a surface of the resin coating by causing a shaft manufacturing intermediate product of the internal shaft and a shaft manufacturing intermediate product of the external shaft to slide relatively in an axial direction (X1) in such a state that a central axis line (L2) of the shaft manufacturing intermediate product of the internal shaft and a central axis line (L1) of the shaft manufacturing intermediate product of the external shaft are aligned with each other, characterized in that in the adaptation step, a lubricant is interposed between the shaft manufacturing intermediate products . an adaptation step of adapting a surface of the resin coating by causing a shaft manufacturing intermediate product of the internal shaft and a shaft manufacturing intermediate product of the external shaft to slide relatively in an axial direction (X1) in such a state that a central axis line (L2) of the shaft manufacturing intermediate product of the internal shaft and a central axis line (L1) of the shaft manufacturing intermediate product of the external shaft are aligned with each other, characterized in that in the adaptation step, a lubricant is interposed between the shaft manufacturing intermediate products .
An ESD protection integrated circuit on semiconductor substrate comprising : a first layer , formed on the substrate in first and third areas, of which are defined the anode regions of first and third diodes; in an upper part of said first and third areas of the first layer, regions defining the cathodes of the first and third diodes; in an upper part of second and fourth areas of the first layer, regions defining the anodes of the second and fourth diodes; a first terminal connected to the cathode of the first diode and to the anode of the second diode , the cathode of the second diode not being made of epitaxial silicon; a second terminal connected to the cathode of a third diode and to the anode of a fourth diode , and wherein : the anode of the first diode is connected to the anode of a first avalanche diode and the anode of the third diode is connected to the anode of a second avalanche diode , the cathodes of the second and fourth diodes and of the first and second avalanche diodes being connected to a same node and the avalanche diodes being made of regions in the substrate . a first layer , formed on the substrate in first and third areas, of which are defined the anode regions of first and third diodes; in an upper part of said first and third areas of the first layer, regions defining the cathodes of the first and third diodes; in an upper part of second and fourth areas of the first layer, regions defining the anodes of the second and fourth diodes; a first terminal connected to the cathode of the first diode and to the anode of the second diode , the cathode of the second diode not being made of epitaxial silicon; a second terminal connected to the cathode of a third diode and to the anode of a fourth diode , and wherein : the anode of the first diode is connected to the anode of a first avalanche diode and the anode of the third diode is connected to the anode of a second avalanche diode , the cathodes of the second and fourth diodes and of the first and second avalanche diodes being connected to a same node and the avalanche diodes being made of regions in the substrate .
A testing instrument for checking the degree of saturation of a pressure sensor unit (G) of a piezocone (P), comprising: - an annular structure which extends around a passage (F) adapted to receive the piezocone (P) by insertion into the passage (F); - a chamber , at least partly inside the annular structure , for containing a measuring liquid, and being characterized by - a membrane which delimits the chamber , defining an annular surface facing the passage (F), to be operatively in contact with a porous annular element (E) of the sensor unit (G) of the piezocone (P); - a pressurizer in fluid communication with the chamber and configured to transmit a pressure pulse of predetermined intensity to the membrane through the measuring liquid contained in the chamber . - an annular structure which extends around a passage (F) adapted to receive the piezocone (P) by insertion into the passage (F); - a chamber , at least partly inside the annular structure , for containing a measuring liquid, and being characterized by - a membrane which delimits the chamber , defining an annular surface facing the passage (F), to be operatively in contact with a porous annular element (E) of the sensor unit (G) of the piezocone (P); - a pressurizer in fluid communication with the chamber and configured to transmit a pressure pulse of predetermined intensity to the membrane through the measuring liquid contained in the chamber .
Method for producing a shell catalyst, comprising the following steps: (a) introducing a support body comprising an Si-Al mixed oxide into a coating device; (b) applying a Pd precursor compound and an Au precursor compound, in each case in dissolved form, to the support body by spray coating in the coating device; (c) drying the support body coated with the precursor compounds in the coating device; (d) reducing the metal components of the precursor compounds to the elemental metals in the coating device; and (e) removing the support body from the coating device, wherein the support body remains in the coating device between steps (a) and (e) and wherein an alkali acetate is applied to the support body before the application of the Pd precursor compound and Au precursor compound in step (b). (a) introducing a support body comprising an Si-Al mixed oxide into a coating device; (b) applying a Pd precursor compound and an Au precursor compound, in each case in dissolved form, to the support body by spray coating in the coating device; (c) drying the support body coated with the precursor compounds in the coating device; (d) reducing the metal components of the precursor compounds to the elemental metals in the coating device; and (e) removing the support body from the coating device,