mhurhangee/patent-ind-claim-en huggingface dataset:
Circuit arrangement , having - an X-ray tube , which has a cathode and an anode , and - a high-voltage transformer , which - has at least one primary winding (11.1), - at least one first secondary winding (12.1), which has a first oscillating circuit (12.1.S), wherein the first oscillating circuit (12.1.S) has a first leakage inductance (L σ1 ) and a first winding capacitance (C W1 ), which together adjust a first resonance frequency, and - at least one second secondary winding (12.2), which has a second oscillating circuit (12.2.S), wherein the second oscillating circuit (12.2.S) has a second leakage inductance (L σ2 ) and a second winding capacitance (C W2 ), which together adjust a second resonance frequency, - wherein the first resonance frequency and the second resonance frequency match, - wherein the first winding capacitance (C W1 ) and the second winding capacitance (C W2 ) differ in value and - wherein the first leakage inductance (L σ1 ) and the second leakage inductance (L σ2 ) differ in value, characterised in that - the at least one first secondary winding (12.1) is electrically connected to the cathode and - the at least one second secondary winding (12.2) is electrically connected to the anode . - an X-ray tube , which has a cathode and an anode , and - a high-voltage transformer , which - has at least one primary winding (11.1), - at least one first secondary winding (12.1), which has a first oscillating circuit (12.1.S), wherein the first oscillating circuit (12.1.S) has a first leakage inductance (L σ1 ) and a first winding capacitance (C W1 ), which together adjust a first resonance frequency, and - at least one second secondary winding (12.2), which has a second oscillating circuit (12.2.S), wherein the second oscillating circuit (12.2.S) has a second leakage inductance (L σ2 ) and a second winding capacitance (C W2 ), which together adjust a second resonance frequency, - wherein the first resonance frequency and the second resonance frequency match, - wherein the first winding capacitance (C W1 ) and the second winding capacitance (C W2 ) differ in value and - wherein the first leakage inductance (L σ1 ) and the second leakage inductance (L σ2 ) differ in value, - the at least one first secondary winding (12.1) is electrically connected to the cathode and - the at least one second secondary winding (12.2) is electrically connected to the anode .
A fastening device (1,1A-1D) used for fastening an ultrasonic sensor to a target device having a target surface , the fastening device (1,1A-1D) comprising: a holder part configured to hold the ultrasonic sensor ; characterized in that it further comprises: a fastening part having a mounting surface configured to be bonded to the target surface of the target device ; a contact part configured to contact the target device ; and a connecting part connecting the contact part with the fastening part , wherein the fastening part is provided between the holder part and the contact part , wherein the contact part is adapted to protrude from the mounting surface of the fastening part toward the target surface of the target device more than the mounting surface of the fastening part by a protruding length, wherein the connecting part connects the contact part with the fastening part to allow the protruding length of the contact part to be variable, and wherein the contact part is adapted to contact the target device before the fastening part contacts the target device when being fastened to the target device . a fastening part having a mounting surface configured to be bonded to the target surface of the target device ; a contact part configured to contact the target device ; and a connecting part connecting the contact part with the fastening part , wherein the fastening part is provided between the holder part and the contact part , wherein the contact part is adapted to protrude from the mounting surface of the fastening part toward the target surface of the target device more than the mounting surface of the fastening part by a protruding length, wherein the connecting part connects the contact part with the fastening part to allow the protruding length of the contact part to be variable, and wherein the contact part is adapted to contact the target device before the fastening part contacts the target device when being fastened to the target device .
A display device comprising: a backlight unit comprising: a light source unit ; and an optical processing unit comprising a plurality of films including a quantum dot film, coupled to the light source unit, wherein the optical processing unit is configured to process light from the light source; an image generating unit coupled to the backlight unit, wherein the optical processing unit is configured to transmit the processed light to the image generating unit; and a blocking structure configured to prevent transmission of partially processed light that has not been processed through all layers of the optical processing unit from the optical processing unit to the image generating unit, characterized in that a portion of the blocking structure is located between films of the plurality of films of the optical processing unit. a backlight unit comprising: a light source unit ; and an optical processing unit comprising a plurality of films including a quantum dot film, coupled to the light source unit, wherein the optical processing unit is configured to process light from the light source; a light source unit ; and an optical processing unit comprising a plurality of films including a quantum dot film, coupled to the light source unit, wherein the optical processing unit is configured to process light from the light source; an image generating unit coupled to the backlight unit, wherein the optical processing unit is configured to transmit the processed light to the image generating unit; and a blocking structure configured to prevent transmission of partially processed light that has not been processed through all layers of the optical processing unit from the optical processing unit to the image generating unit, characterized in that a portion of the blocking structure is located between films of the plurality of films of the optical processing unit.
A cutting tool , in particular for cutting flat and/or strand-shaped materials, with a housing , at least one interchangeable blade arranged at a holding portion of the housing , and a locking member movably arranged at the housing for locking the blade to the housing , which is arranged at a rotatable lever pivotally mounted to the housing and is movable back and forth between a first position in which the blade is locked and a second position in which the blade is released, wherein the housing comprises first form locking elements and the locking member comprises second form locking elements which collectively lock the blade in a determined position to the housing , wherein the blade comprises a blade head having a blade edge and a blade foot , wherein form locking elements are formed at the blade foot for cooperating with the form locking elements of the housing and the locking member and characterised in that the cutting edge is oriented substantially perpendicular to a longitudinal axis (A) of the cutting tool and the form locking elements of the blade cooperate with the form locking elements of the housing and of the locking member such that substantially no torque is introduced into the rotatable lever due to cutting reaction forces.
Method for operating a sensor arrangement in a motor vehicle on the basis of a DSI protocol, having the following features: a. the sensor arrangement comprises at least one processing unit and at least one active sensor unit (20A - 20F) having a transmitter for transmitting a signal and a receiver for receiving an echo signal , said transmitter and receiver being connected to one another via a bus of two lines, and b. the communication between the processing unit and the active sensor unit (20A - 20F) occurs repeatedly in a sequence having the following part phases: ∘ in a CRM phase "Command and Response Mode" , bidirectional communication takes place between the processing unit and the active sensor unit (20A - 20F), ∘ in a power phase , a transmission of energy from the processing unit to the active sensor unit (20A - 20F) takes place, and ∘ in a PDCM phase "Periodic Data Collection Mode" , after a synchronizing signal that is transmitted from the processing unit, a unidirectional transmission of data takes place from the active sensor unit (20A - 20F) to the processing unit . a. the sensor arrangement comprises at least one processing unit and at least one active sensor unit (20A - 20F) having a transmitter for transmitting a signal and a receiver for receiving an echo signal , said transmitter and receiver being connected to one another via a bus of two lines, and b. the communication between the processing unit and the active sensor unit (20A - 20F) occurs repeatedly in a sequence having the following part phases: ∘ in a CRM phase "Command and Response Mode" , bidirectional communication takes place between the processing unit and the active sensor unit (20A - 20F), ∘ in a power phase , a transmission of energy from the processing unit to the active sensor unit (20A - 20F) takes place, and ∘ in a PDCM phase "Periodic Data Collection Mode" , after a synchronizing signal that is transmitted from the processing unit, a unidirectional transmission of data takes place from the active sensor unit (20A - 20F) to the processing unit . ∘ in a CRM phase "Command and Response Mode" , bidirectional communication takes place between the processing unit and the active sensor unit (20A - 20F), ∘ in a power phase , a transmission of energy from the processing unit to the active sensor unit (20A - 20F) takes place, and ∘ in a PDCM phase "Periodic Data Collection Mode" , after a synchronizing signal that is transmitted from the processing unit, a unidirectional transmission of data takes place from the active sensor unit (20A - 20F) to the processing unit .
A method to release 2-acetyl-1-pyrroline from a precursor compound of formula in the form of any one of its stereoisomers, tautomers, salts or as a mixture thereof, and wherein R 1 represents a hydrogen atom or a C 1 to C 10 hydrocarbon group optionally comprising one to three heteroatoms; X represents an amino acid, a peptide, a carbohydrate moiety or a OR 2 wherein R 2 represents a hydrogen atom or a C 1 to C 20 hydrocarbon group optionally comprising one to three heteroatoms and n is 0 when the dotted line represents a single bond or n is 1 when the dotted line represents no bond; wherein the release of 2-acetyl-1 pyrroline occurs by exposing the precursor compound to a temperature above 30°C
Anti-Adrenomedullin (ADM) antibody or an anti-ADM antibody fragment binding to adrenomedullin or anti-ADM non-Ig scaffold binding to adrenomedullin a) for use in therapy of an acute disease or acute condition of a patient for stabilizing the systemic circulation of said patient wherein said patient is in need of stabilizing the systemic circulation and exhibits a heart rate of > 100 beats /min and/ or < 65 mm Hg mean arterial pressure and wherein stabilizing the systemic circulation means increasing the mean arterial pressure over 65 mmHg or b) for use in the prevention of a heart rate increase to > 100 beats/min and/or a mean arterial pressure decrease to < 65 mm Hg in patients having an acute disease or acute condition and wherein said antibody or antibody fragment or non-Ig scaffold binds to a region of at least 4 amino acids within the sequence of aa 1-21 of mature human ADM: YRQSMNNFQGLRSFGCRFGTC (SEQ ID NO: 23). a) for use in therapy of an acute disease or acute condition of a patient for stabilizing the systemic circulation of said patient wherein said patient is in need of stabilizing the systemic circulation and exhibits a heart rate of > 100 beats /min and/ or < 65 mm Hg mean arterial pressure and wherein stabilizing the systemic circulation means increasing the mean arterial pressure over 65 mmHg or b) for use in the prevention of a heart rate increase to > 100 beats/min and/or a mean arterial pressure decrease to < 65 mm Hg in patients having an acute disease or acute condition
A method of producing a quantum dot, having a core comprising: forming the core by: synthesizing copper chalcogenide as a precursor from an organic copper compound or an inorganic copper compound, and an organic selenium compound; adding an organic zinc compound or an inorganic zinc compound to a reaction solution, in which the precursor made of copper chalcogenide is synthesized; performing metal exchange between copper and zinc in the precursor made of copper chalcogenide; synthesizing the core, free of cadmium, by including zinc and selenium, or zinc and selenium and sulfur; and using a solution, as the organic selenium compound, in which selenium is dissolved in a mixture of oleylamine and dodecanethiol. synthesizing copper chalcogenide as a precursor from an organic copper compound or an inorganic copper compound, and an organic selenium compound; adding an organic zinc compound or an inorganic zinc compound to a reaction solution, in which the precursor made of copper chalcogenide is synthesized; performing metal exchange between copper and zinc in the precursor made of copper chalcogenide; synthesizing the core, free of cadmium, by including zinc and selenium, or zinc and selenium and sulfur; and using a solution, as the organic selenium compound, in which selenium is dissolved in a mixture of oleylamine and dodecanethiol.
An additive manufacturing system for printing a three-dimensional part , the additive manufacturing system comprising: one or more electrophotography engines configured to develop layers of the three-dimensional part ; a rotatable transfer belt configured to receive the developed layers from the one or more electrophotography engines ; a detector configured to measure at least one parameter related to a powder density of at least one of the developed layers on the rotatable transfer belt , and to transmit signals relating to the measured at least one parameter; a printing assembly configured to receive the developed layer from the rotatable transfer belt and to print the three-dimensional part from the developed layers ; and a controller assembly configured to receive the transmitted signals from the detector , compare the received signals to a set point, and adjust one or more process parameters while developing one or more subsequent layers based on a difference between the received signals and the set point. one or more electrophotography engines configured to develop layers of the three-dimensional part ; a rotatable transfer belt configured to receive the developed layers from the one or more electrophotography engines ; a detector configured to measure at least one parameter related to a powder density of at least one of the developed layers on the rotatable transfer belt , and to transmit signals relating to the measured at least one parameter; a printing assembly configured to receive the developed layer from the rotatable transfer belt and to print the three-dimensional part from the developed layers ; and a controller assembly configured to receive the transmitted signals from the detector , compare the received signals to a set point, and adjust one or more process parameters while developing one or more subsequent layers based on a difference between the received signals and the set point.
A sealing material composition which is a composition of a sealing material, characterized in that the composition comprises: a stacked body; and a long surrounding body which surrounds the stacked body, the stacked body has a plurality of sheet-like members each of which is formed into a tape-like shape by expanded graphite, characterised in that said plurality of sheet-like members are stacked in a direction which intersects with a longitudinal direction of the surrounding body, in the plurality of sheet-like members, sheet-like members which are adjacent to each other in the stacking direction are disposed, in use, to be displaced from each other in the longitudinal direction of the surrounding body, in a relatively movable manner, and the surrounding body allows the adjacent sheet-like members to be relatively moved in the longitudinal direction of the surrounding body, while maintaining the stacked state of the adjacent sheet-like members. a stacked body; and a long surrounding body which surrounds the stacked body, the stacked body has a plurality of sheet-like members each of which is formed into a tape-like shape by expanded graphite, characterised in that said plurality of sheet-like members are stacked in a direction which intersects with a longitudinal direction of the surrounding body, in the plurality of sheet-like members, sheet-like members which are adjacent to each other in the stacking direction are disposed, in use, to be displaced from each other in the longitudinal direction of the surrounding body, in a relatively movable manner, and the surrounding body allows the adjacent sheet-like members to be relatively moved in the longitudinal direction of the surrounding body, while maintaining the stacked state of the adjacent sheet-like members.
Use of a pool of unique adaptors for analyzing nucleic acids in a sample, each adaptor comprising: a double stranded portion at a proximal end and two single stranded portions at a distal end, wherein the double stranded portion comprises a double-stranded barcode of at least two base pairs specific to the adaptor, and wherein the single-stranded portion comprises: i) a pre-defined single-stranded barcode of at least two nucleotides specific to the sample; and ii) a random single-stranded barcode of at least two nucleotides specific to the adaptor on the same strand, wherein I) the double-stranded barcode comprises 2-20 base pairs; II) the pre-defined single-stranded barcode comprises 4-20 nucleotides; or III) the random single-stranded barcode comprises 4-20 nucleotides; and wherein the combination of the random single-stranded barcode and the endogenous barcode provides a unique identifier for each template nucleic acid, wherein the endogenous barcode is one or more sequence(s) of a genomic DNA fragment. a double stranded portion at a proximal end and two single stranded portions at a distal end, wherein the double stranded portion comprises a double-stranded barcode of at least two base pairs specific to the adaptor, and wherein the single-stranded portion comprises: i) a pre-defined single-stranded barcode of at least two nucleotides specific to the sample; and ii) a random single-stranded barcode of at least two nucleotides specific to the adaptor on the same strand, wherein I) the double-stranded barcode comprises 2-20 base pairs; II) the pre-defined single-stranded barcode comprises 4-20 nucleotides; or III) the random single-stranded barcode comprises 4-20 nucleotides; and i) a pre-defined single-stranded barcode of at least two nucleotides specific to the sample; and ii) a random single-stranded barcode of at least two nucleotides specific to the adaptor on the same strand, wherein I) the double-stranded barcode comprises 2-20 base pairs; II) the pre-defined single-stranded barcode comprises 4-20 nucleotides; or III) the random single-stranded barcode comprises 4-20 nucleotides; and I) the double-stranded barcode comprises 2-20 base pairs; II) the pre-defined single-stranded barcode comprises 4-20 nucleotides; or III) the random single-stranded barcode comprises 4-20 nucleotides; and wherein the combination of the random single-stranded barcode and the endogenous barcode provides a unique identifier for each template nucleic acid, wherein the endogenous barcode is one or more sequence(s) of a genomic DNA fragment.
A wheel assembly comprising: a wheel portion comprising a web having an inboard surface, wherein a torque bar retention slot is defined in the web and extends from the inboard surface of the web; and a bushing disposed in the torque bar retention slot; and a torque bar configured to be coupled to rotors of a brake assembly and to the wheel portion, wherein the bushing comprises an open end , and wherein a boss of the torque bar is configured to extend into the bushing through the open end of the bushing such that the boss of the torque bar is at least partially disposed within the torque bar retention slot of the wheel portion, characterized in that : the bushing comprises furthermore a closed end . a wheel portion comprising a web having an inboard surface, wherein a torque bar retention slot is defined in the web and extends from the inboard surface of the web; and a bushing disposed in the torque bar retention slot; and a torque bar configured to be coupled to rotors of a brake assembly and to the wheel portion, wherein the bushing comprises an open end , and wherein a boss of the torque bar is configured to extend into the bushing through the open end of the bushing such that the boss of the torque bar is at least partially disposed within the torque bar retention slot of the wheel portion, characterized in that : the bushing comprises furthermore a closed end .
A semiconductor structure for photon detection, the semiconductor structure being designed to be illuminated from the rear side, comprising: - a substrate made of a semiconductor material with a first-type doping, - a contact area which is attached to the front side of the substrate, - a bias layer made of a semiconductor material with a second doping, which is arranged on the rear side of the substrate at a distance from the contact area, the contact area being at least partially opposite the bias layer so that an overlap area in the lateral direction is provided, - a guard ring , which is arranged on the front side of the substrate and surrounds the contact area, it being possible to apply a blocking voltage between the contact area and the guard ring, wherein the overlap area has a lateral extent that is at least a quarter of the distance between the contact area and the bias layer, and the contact area is designed, through the potential applied to it, to influence the potential of the bias layer and thus to form a conduction channel between the contact area and the bias layer without there being any contact with the bias layer, characterised in that the bias layer has a doping of opposite sign to the substrate and the guard ring has a doping of the same sign as the substrate. - a substrate made of a semiconductor material with a first-type doping, - a contact area which is attached to the front side of the substrate, - a bias layer made of a semiconductor material with a second doping, which is arranged on the rear side of the substrate at a distance from the contact area, the contact area being at least partially opposite the bias layer so that an overlap area in the lateral direction is provided, - a guard ring , which is arranged on the front side of the substrate and surrounds the contact area, it being possible to apply a blocking voltage between the contact area and the guard ring,
An outer shell of a breast implant, wherein the outer shell comprises a fiber reinforced silicone comprising (A) a silicone matrix and (B) fibers embedded in the silicone matrix, wherein the fibers comprise a comb polymer having a base polymer and side chains, wherein the base polymer is an organic polymer and the side chains comprise polysiloxanes. (A) a silicone matrix and (B) fibers embedded in the silicone matrix,