mhurhangee/patent-ind-claim-en huggingface dataset:
Building material compressed-air conveyor , comprising: - a building material unit for providing building material, - a compressed-air unit comprising: - an air compressor unit for generating compressed air, - an air pressure store for storing compressed air, - a store inlet line for a flow of compressed air from the air compressor unit into the air pressure store , - a store outlet line for a flow of compressed air out of the air pressure store into the building material unit for conveying a flow of building material out of the building material unit by means of compressed air, - a bypass line for a flow of compressed air from the air compressor unit around the air pressure store into the building material unit for conveying a flow of building material out of the building material unit by means of compressed air, and - a control unit , which is designed to control the building material compressed-air conveyor in such a way - that before a flow of building material is conveyed out of the building material unit by means of compressed air, the air compressor unit fills the air pressure store with compressed air, characterized in that the building material unit is designed to provide thick material, and in that the control unit is designed to control the building material compressed-air conveyor in such a way that, for conveying a flow of building material out of the building material unit by means of compressed air, at least at the start compressed air flows out of the air pressure store and compressed air flows from the air compressor unit through the bypass line into the building material unit . - a building material unit for providing building material, - a compressed-air unit comprising: - an air compressor unit for generating compressed air, - an air pressure store for storing compressed air, - a store inlet line for a flow of compressed air from the air compressor unit into the air pressure store , - a store outlet line for a flow of compressed air out of the air pressure store into the building material unit for conveying a flow of building material out of the building material unit by means of compressed air, - a bypass line for a flow of compressed air from the air compressor unit around the air pressure store into the building material unit for conveying a flow of building material out of the building material unit by means of compressed air, and - a control unit , which is designed to control the building material compressed-air conveyor in such a way - that before a flow of building material is conveyed out of the building material unit by means of compressed air, the air compressor unit fills the air pressure store with compressed air, characterized in that the building material unit is designed to provide thick material, and in that the control unit is designed to control the building material compressed-air conveyor in such a way
A sensing system for imaging a subsurface structure in a sample, comprising: exactly one laser source (101;201;301;401;501;601;701;1101;1201;1301;1401) configured to generate a pulsed or intensity-modulated excitation beam (E) configured to generate ultrasonic pressure signals in the sample at an excitation location; wherein the exactly one laser source (101;201;301;401;501;601;701;1101;1201;1301; 1401) is also configured to generate an interrogation beam (I) incident on the sample at the excitation location, a portion of the interrogation beam (I) returning from the sample that is indicative of the generated ultrasonic pressure signals; an optical system configured to focus the excitation beam (E) or the interrogation beam (I) below a surface of the sample; a detector (107;209;309;409;507;607;708;1109;1206;1307;1407) configured to detect the returning portion of the interrogation beam (I); and a processor configured to calculate an image of the sample based on a detected intensity modulation of the returning portion of the interrogation beam (I) from below the surface of the sample. exactly one laser source (101;201;301;401;501;601;701;1101;1201;1301;1401) configured to generate a pulsed or intensity-modulated excitation beam (E) configured to generate ultrasonic pressure signals in the sample at an excitation location; wherein the exactly one laser source (101;201;301;401;501;601;701;1101;1201;1301; 1401) is also configured to generate an interrogation beam (I) incident on the sample at the excitation location, a portion of the interrogation beam (I) returning from the sample that is indicative of the generated ultrasonic pressure signals; an optical system configured to focus the excitation beam (E) or the interrogation beam (I) below a surface of the sample; a detector (107;209;309;409;507;607;708;1109;1206;1307;1407) configured to detect the returning portion of the interrogation beam (I); and a processor configured to calculate an image of the sample based on a detected intensity modulation of the returning portion of the interrogation beam (I) from below the surface of the sample.
An apparatus for producing 3D point-cloud model of physical object, comprising: a rotatable platform , arranged to carry an object to be scanned; multiple patterns, arranged asymmetrically on the rotatable platform ; a background curtain , arranged at one side of the rotatable platform ; an image capturing unit , arranged at other side of the rotatable platform against the background curtain and aiming at the background curtain ; and a microprocessor , electrically connected with the rotatable platform and the image capturing unit , configured to set a capturing amount of the image capturing unit during one-time rotation operation of the rotatable platform ; wherein, the microprocessor is configured to receive a trigger action for controlling the rotatable platform to perform the rotation operation and controlling the image capturing unit to capture multiple images of the object according to the capturing amount during the rotation operation, wherein each of the images respectively records the entire object and the multiple patterns, and respectively records a set of global coordinates corresponding to different angle of view; wherein, the microprocessor is configured to perform a matching action on multiple feature points of the object and the multiple patterns of each of the images, and re-builds a 3D point-cloud model of the object according to a matching result of the matching action and the sets of global coordinates of each of the images. a rotatable platform , arranged to carry an object to be scanned; multiple patterns, arranged asymmetrically on the rotatable platform ; a background curtain , arranged at one side of the rotatable platform ; an image capturing unit , arranged at other side of the rotatable platform against the background curtain and aiming at the background curtain ; and a microprocessor , electrically connected with the rotatable platform and the image capturing unit , configured to set a capturing amount of the image capturing unit during one-time rotation operation of the rotatable platform ; wherein, the microprocessor is configured to receive a trigger action for controlling the rotatable platform to perform the rotation operation and controlling the image capturing unit to capture multiple images of the object according to the capturing amount during the rotation operation, wherein each of the images respectively records the entire object and the multiple patterns, and respectively records a set of global coordinates corresponding to different angle of view; wherein, the microprocessor is configured to perform a matching action on multiple feature points of the object and the multiple patterns of each of the images, and re-builds a 3D point-cloud model of the object according to a matching result of the matching action and the sets of global coordinates of each of the images.
A method for determining a status of a battery comprising determining an open-circuit first voltage ( V oc1 ) of the battery ; performing a discharge pulse for the battery after determining the first voltage ( V oc1 ); determining a current ( I DP ) through the battery during the discharge pulse; determining an open-circuit second voltage ( V oc2 ) of the battery after termination of the discharge pulse; and determining a status of the battery from the determined first and second voltages (V oc1 , V oc2 ) and the determined current ( I DP ). determining an open-circuit first voltage ( V oc1 ) of the battery ; performing a discharge pulse for the battery after determining the first voltage ( V oc1 ); determining a current ( I DP ) through the battery during the discharge pulse; determining an open-circuit second voltage ( V oc2 ) of the battery after termination of the discharge pulse; and determining a status of the battery from the determined first and second voltages (V oc1 , V oc2 ) and the determined current ( I DP ).
Safety device for a lifting apparatus, the safety device comprising a support element and at least one safety element integral with the support element , the at least one safety element comprising a sustaining element , a traction element mechanically connected to the sustaining element in such a way as to allow a movement of the traction element , and a command element configured to open an electrical safety contact when the traction element moves with respect to a predetermined position, the safety device comprises a driver element connected at one end thereof with the traction element and configured to exert a traction force on the traction element directed toward the sustaining element , characterized in that it comprises a first locking element which protrudes from an upper end of the sustaining element and which is configured to intercept an overturned module of a substantially vertical bearing column in order to contain the rotation thereof, and/or a second locking element in correspondence with a lower end of the sustaining element and configured to be disposed behind at least one pillar of said substantially vertical bearing column , said at least one pillar being proximal with respect to the position of said safety device .
A pharmaceutical composition in a solid tablet unit dosage form wherein said unit dosage form comprises a naloxol-polyethylene glycol conjugate oxalate salt, in which the naloxol-polyethylene glycol conjugate has the formula: wherein the salt is in a substantially pure crystalline form and the crystalline form exhibits Form B X-ray powder diffraction peak d values (Å) comprising 13.2; 7.9; 7.0; 6.6; 6.0; 5.7; 5.2; 5.1; 4.44; 4.39; 3.95; 3.88; 3.63; and 3.43, and an opioid agonist, wherein said naloxol-polyethylene glycol conjugate oxalate salt is present in an amount such that significant inhibition of the central analgesic effect of said opioid agonist does not occur when the composition is administered to a subject.
A nonwoven sheet structure, suitable for use in sterile packaging, the sheet structure being gas permeable and having a first surface and a second surface; the first surface being bonded with an embossed impression pattern and the second surface being capable of accepting printing, wherein the second surface has a smooth surface free of any embossing; wherein the sheet structure comprises fibrous material, wherein the sheet structure has a particle barrier penetration of below 10%, a Gurley Hill Porosity of 40 seconds or less, and a moisture vapor transport rate of 3500 g/m 2 /day or greater, measured according to the methods defined in the description, and wherein the fibrous material in the nonwoven sheet structure is free of added binder. the sheet structure being gas permeable and having a first surface and a second surface; the first surface being bonded with an embossed impression pattern and the second surface being capable of accepting printing, wherein the second surface has a smooth surface free of any embossing; wherein the sheet structure comprises fibrous material, wherein the sheet structure has a particle barrier penetration of below 10%, a Gurley Hill Porosity of 40 seconds or less, and a moisture vapor transport rate of 3500 g/m 2 /day or greater, measured according to the methods defined in the description, and wherein the fibrous material in the nonwoven sheet structure is free of added binder.
An ultrasonic sealing device comprising a sonotrode for sealing a packaging material comprising a piezoelectric transducer to generate ultrasonic acoustic vibrations for said sealing, a housing , a power circuit connected to the piezoelectric transducer , wherein the power circuit is enclosed in the housing , and characterized by comprising an absorbent arranged in the housing to absorb moisture in an atmosphere therein to lower humidity a frame , wherein the sonotrode and the housing are attached to the frame , and a track guide configured to engage with a track so that the frame is movable along the track . a sonotrode for sealing a packaging material comprising a piezoelectric transducer to generate ultrasonic acoustic vibrations for said sealing, a housing , a power circuit connected to the piezoelectric transducer , wherein the power circuit is enclosed in the housing , and characterized by comprising an absorbent arranged in the housing to absorb moisture in an atmosphere therein to lower humidity a frame , wherein the sonotrode and the housing are attached to the frame , and a track guide configured to engage with a track so that the frame is movable along the track .
Composition comprising a recycled polymer composition (RPC) and a heterophasic propylene copolymer (HECO), said composition is obtained by blending, wherein (a) the recycled polymer composition (RPC) comprises at least 80 wt.-%, based on the weight of the recycled polymer composition (RPC), of a recycled polypropylene, and (b) the heterophasic propylene copolymer (HECO) has (b1) a xylene cold soluble (XCS) fraction determined at 25 °C according to ISO 16152 in the range of 5.0 to 18 wt.-%, and (b2) a melt flow rate MFR 2 (230 °C / 2.16 kg) measured according to ISO 1133 in the range of 0.05 to 1.5 g/10min, wherein further (c) the weight ratio between the heterophasic propylene copolymer (HECO) and the recycled polymer composition (RPC) [(HECO)/(RPC)] is in the range of 1.1 to 7.0, and (d) the precentage by weight of the heterophasic propylene copolymer (HECO) together with the recycled polymer composition (RPC) [(HECO)+(RPC)], based on the weight of the composition, is at least 85 wt.-%. (a) the recycled polymer composition (RPC) comprises at least 80 wt.-%, based on the weight of the recycled polymer composition (RPC), of a recycled polypropylene, and (b) the heterophasic propylene copolymer (HECO) has (b1) a xylene cold soluble (XCS) fraction determined at 25 °C according to ISO 16152 in the range of 5.0 to 18 wt.-%, and (b2) a melt flow rate MFR 2 (230 °C / 2.16 kg) measured according to ISO 1133 in the range of 0.05 to 1.5 g/10min, wherein further (b1) a xylene cold soluble (XCS) fraction determined at 25 °C according to ISO 16152 in the range of 5.0 to 18 wt.-%, and (b2) a melt flow rate MFR 2 (230 °C / 2.16 kg) measured according to ISO 1133 in the range of 0.05 to 1.5 g/10min, (c) the weight ratio between the heterophasic propylene copolymer (HECO) and the recycled polymer composition (RPC) [(HECO)/(RPC)] is in the range of 1.1 to 7.0, and (d) the precentage by weight of the heterophasic propylene copolymer (HECO) together with the recycled polymer composition (RPC) [(HECO)+(RPC)], based on the weight of the composition, is at least 85 wt.-%.
Method to control a hybrid powertrain to optimise fuel consumption, wherein such hybrid powertrain comprises a combustion engine ; a gearbox with an input shaft and an output shaft ; a first planetary gear , connected to the input shaft and a first main shaft ; a second planetary gear , connected to the first planetary gear and a second main shaft ; a first electrical machine , connected to the first planetary gear ; a second electrical machine , connected to the second planetary gear ; at least one gear pair (G1, 60, 72) connected with the first main shaft , and therefore the first planetary gear and the output shaft ; and at least one gear pair (G2, 66, 78) connected with the second main shaft , and therefore with the second planetary gear and the output shaft , wherein the combustion engine is connected with a first planetary wheel carrier , arranged in the first planetary gear via the input shaft of the gearbox , and wherein the second main shaft is connected with a planetary wheel carrier , arranged in the second planetary gear , the method comprising the steps of: a) ensuring that moveable parts of the first planetary gear are disconnected from each other, and that moveable parts of the second planetary gear are disconnected from each other; b) bringing the combustion engine to a predetermined engine speed (nice); and c) controlling the first and the second electrical machine (14; 16) in such a way that a desired torque (T Drv ) is achieved in the output shaft , characterised in that in step a) the first and/or the second electrical machine (14; 16) is controlled in such a way that torque balance is achieved in the first planetary gear , following which a first coupling device is shifted, so that the first planetary wheel carrier and a first sun wheel are disconnected from each other, or the first and/or the second electrical machine (14; 16) is controlled in such a way that torque balance is achieved in the second planetary gear , following which a second coupling device is shifted, so that the second planetary wheel carrier and a second sun wheel are disconnected from each other wherein the predetermined engine speed (nice) in step b) substantially corresponds to the combustion engine's 4 idling engine speed. a) ensuring that moveable parts of the first planetary gear are disconnected from each other, and that moveable parts of the second planetary gear are disconnected from each other; b) bringing the combustion engine to a predetermined engine speed (nice); and c) controlling the first and the second electrical machine (14; 16) in such a way that a desired torque (T Drv ) is achieved in the output shaft ,
A display apparatus comprising: a substrate including a display area (DA), a non-display area (NDA) outside the display area (DA), a pad area (PDA) in the non-display area (NDA), and a bending area (BA) between the display area (DA) and the pad area (PDA); a first voltage line including; a first main voltage line disposed between the display area (DA) and the bending area (BA) and extending from one side of the display area (DA) in a first direction (D1); and a first connection portion protruding from the first main voltage line in a second direction (D2), extending toward the pad area (PDA), and crossing the bending area (BA); the second direction (D2) being different from the first direction (D1); a fan-out portion disposed between the display area (DA) and the pad area (PDA) on the substrate and comprising conductive lines (CL) that connect the display area (DA) to the pad area (PDA); and a strain gauge disposed in the bending area (BA) characterized in that the strain gauge overlaps the first connection portion of the first voltage line in a direction perpendicular to the substrate in the bending area (BA). a substrate including a display area (DA), a non-display area (NDA) outside the display area (DA), a pad area (PDA) in the non-display area (NDA), and a bending area (BA) between the display area (DA) and the pad area (PDA); a first voltage line including; a first main voltage line disposed between the display area (DA) and the bending area (BA) and extending from one side of the display area (DA) in a first direction (D1); and a first connection portion protruding from the first main voltage line in a second direction (D2), extending toward the pad area (PDA), and crossing the bending area (BA); a first main voltage line disposed between the display area (DA) and the bending area (BA) and extending from one side of the display area (DA) in a first direction (D1); and a first connection portion protruding from the first main voltage line in a second direction (D2), extending toward the pad area (PDA), and crossing the bending area (BA); the second direction (D2) being different from the first direction (D1); a fan-out portion disposed between the display area (DA) and the pad area (PDA) on the substrate and comprising conductive lines (CL) that connect the display area (DA) to the pad area (PDA); and a strain gauge disposed in the bending area (BA) characterized in that the strain gauge overlaps the first connection portion of the first voltage line in a direction perpendicular to the substrate in the bending area (BA).
Pump, having a pump chamber , a pump housing with at least one chamber wall section delimiting the pump chamber , a rotationally-driven pump wheel arranged within the pump chamber , and a heating device coupled thermally to the chamber wall section and embodied as a heating band coupled thermally to the chamber wall section , said heating band having at least one heating film (25.1), characterised in that the at least one heating film (25.1) is wound, so as to transmit heat, onto an outer surface of the chamber wall section which faces away from the pump chamber , wherein the heating film (25.1) has overlapping film ends and is pressed shut or bandaged, in particular additionally bandaged, on the outer surface of the chamber wall section by means of film tension.
A switched capacitor power converter comprising: an input terminal ; an output terminal ; a plurality of capacitors ; a plurality of switches for selectively connecting the plurality of capacitors to each other, and / or to the input terminal, and / or to the output terminal, and / or a reference terminal ; and a controller configured to operate the plurality of switches based on the output voltage (Vo), such that one or more of the plurality capacitors (C1,C2,C3,C4,C5,C6) are connected between the input terminal and the output terminal as either: a first-topology, to provide a first conversion ratio; or a second-topology, to provide a second conversion ratio, wherein the second conversion ratio is different to the first conversion ratio; characterised in that the plurality of capacitors (C1,C2,C3,C4,C5,C6) comprises one or more variable-capacitors, and the controller is configured to set one or more respective capacitance values of the one or more variable-capacitors based on the output voltage (Vo). an input terminal ; an output terminal ; a plurality of capacitors ; a plurality of switches for selectively connecting the plurality of capacitors to each other, and / or to the input terminal, and / or to the output terminal, and / or a reference terminal ; and a controller configured to operate the plurality of switches based on the output voltage (Vo), such that one or more of the plurality capacitors (C1,C2,C3,C4,C5,C6) are connected between the input terminal and the output terminal as either: a first-topology, to provide a first conversion ratio; or a second-topology, to provide a second conversion ratio, wherein the second conversion ratio is different to the first conversion ratio; a first-topology, to provide a first conversion ratio; or a second-topology, to provide a second conversion ratio, wherein the second conversion ratio is different to the first conversion ratio; characterised in that the plurality of capacitors (C1,C2,C3,C4,C5,C6) comprises one or more variable-capacitors, and the controller is configured to set one or more respective capacitance values of the one or more variable-capacitors based on the output voltage (Vo).