mhurhangee/patent-ind-claim-en huggingface dataset:
An extraoral x-ray system suitable for dental panoramic imaging of a patient, comprising: an x-ray emitter array having at least two individual x-ray emitters (3a;3b;3c) each for emitting x-rays, and offset at least along a predetermined direction; an x-ray detector for at least partially detecting the x-rays emitted from the individual x-ray emitters (3a;3b;3c) during one revolution, wherein the x-ray emitter array and the x-ray detector are arranged for movement relative to each other about an axis running parallel to said predetermined direction, wherein the areas of the x-ray detector respectively irradiated by the individual x-ray emitters (3a;3b;3c) at least partially overlap; an aperture means for collimating the x-ray radiation emitted by the individual x-ray emitters (3a;3b;3c) onto the respective areas to be irradiated; a control device for moving the x-ray emitter array and the x-ray detector about the parallel running axis, and for driving the individual x-ray emitters (3a;3b;3c) and for reading out the image series of the respective irradiated areas of the x-ray detector during the said revolution; a computing unit for generating one panoramic image of a layer to be sharply imaged by using the at least two said image series, wherein the computing unit is configured to apply a weighting of image pixels when generating the said one panoramic image , wherein the said image pixels belong to at least the two image series. an x-ray emitter array having at least two individual x-ray emitters (3a;3b;3c) each for emitting x-rays, and offset at least along a predetermined direction; an x-ray detector for at least partially detecting the x-rays emitted from the individual x-ray emitters (3a;3b;3c) during one revolution, wherein the x-ray emitter array and the x-ray detector are arranged for movement relative to each other about an axis running parallel to said predetermined direction, wherein the areas of the x-ray detector respectively irradiated by the individual x-ray emitters (3a;3b;3c) at least partially overlap; an aperture means for collimating the x-ray radiation emitted by the individual x-ray emitters (3a;3b;3c) onto the respective areas to be irradiated; a control device for moving the x-ray emitter array and the x-ray detector about the parallel running axis, and for driving the individual x-ray emitters (3a;3b;3c) and for reading out the image series of the respective irradiated areas of the x-ray detector during the said revolution; a computing unit for generating one panoramic image of a layer to be sharply imaged by using the at least two said image series, wherein the computing unit is configured to apply a weighting of image pixels when generating the said one panoramic image , wherein the said image pixels belong to at least the two image series.
Electric ship drive which has a drive engine and a drive shaft in a POD , wherein the drive shaft is mechanically coupled to an auxiliary engine , wherein the auxiliary engine is located on the POD with an open POD housing , characterized in that the auxiliary engine is fastened to a housing of the POD , in that the POD housing has a housing opening , and in that the auxiliary engine is mechanically coupled to the drive shaft through the housing opening .
Aggregate arrangement for a motor vehicle having a drive aggregate which is supported via at least one fixed bearing directly on a carrier element , wherein a support structure on the one side engages, via a second fixed bearing and a third fixed bearing spaced from the second fixed bearing , on the drive aggregate and on the other side is articulated via a fourth fixed bearing on the carrier element , wherein the support structure has a first bar-shaped strut and a second bar-shaped strut , wherein the first bar-shaped strut on the one side engages via the second fixed bearing on the drive aggregate and on the other side is articulated via the fourth fixed bearing on the carrier element , characterised in that the second bar-shaped strut engages on the one side via the third fixed bearing on the drive aggregate and on the other side is articulated via the fourth fixed bearing on the carrier element .
A half mirror for use in a windshield , the half mirror comprising: a reflection layer including a non-reflection region which does not reflect visible light, a reflection region which is formed of a cholesteric liquid crystal layer and selectively reflects visible light, and a mixed region between the non-reflection region and the reflection region , in which a non-reflection portion which does not reflect visible light and a reflection portion which is formed of a cholesteric liquid crystal layer and selectively reflects visible light are mixed, wherein in the mixed region , an area of the reflection portion is gradually increased from the non-reflection region toward the reflection region . a reflection layer including a non-reflection region which does not reflect visible light, a reflection region which is formed of a cholesteric liquid crystal layer and selectively reflects visible light, and a mixed region between the non-reflection region and the reflection region , in which a non-reflection portion which does not reflect visible light and a reflection portion which is formed of a cholesteric liquid crystal layer and selectively reflects visible light are mixed, wherein in the mixed region , an area of the reflection portion is gradually increased from the non-reflection region toward the reflection region .
A system for loading a surgical buttress with a radioactive material, comprising: a surgical buttress including a body portion , wherein the body portion includes a central portion and wings extending laterally from opposed sides of the central portion; characterized by a radioactive material delivery instrument including an elongate body extending from a handle assembly , the elongate body defining a lumen therethrough and having an open distal end , the lumen of the elongate body configured to have radioactive material disposed therein; wherein the body portion defines a first width when in a pre-loaded configuration and a second width when in a loaded configuration; wherein in the loaded configuration, each of the wings is folded to form a pouch for retaining radioactive material therein; wherein the surgical buttress is configured to be positioned on a surgical loading unit in the loaded configuration such that the central portion of the surgical buttress overlies a cartridge assembly or an anvil assembly of the surgical loading unit and the wings extend laterally beyond sides of the cartridge assembly or the anvil assembly. a surgical buttress including a body portion , wherein the body portion includes a central portion and wings extending laterally from opposed sides of the central portion; characterized by a radioactive material delivery instrument including an elongate body extending from a handle assembly , the elongate body defining a lumen therethrough and having an open distal end , the lumen of the elongate body configured to have radioactive material disposed therein; wherein the body portion defines a first width when in a pre-loaded configuration and a second width when in a loaded configuration; wherein in the loaded configuration, each of the wings is folded to form a pouch for retaining radioactive material therein; wherein the surgical buttress is configured to be positioned on a surgical loading unit in the loaded configuration such that the central portion of the surgical buttress overlies a cartridge assembly or an anvil assembly of the surgical loading unit and the wings extend laterally beyond sides of the cartridge assembly or the anvil assembly.
A glue distributor assembly for edgebanding machine, comprising a body provided with a melted glue collecting chamber , and a contacting roll , pivotally supported on the body , wherein the outer surface of the contacting roll is intended for rolling on a panel edge to be edgebanded or on a panel finishing profile, to distribute the melted glue collected from the collecting chamber , characterized in that the contacting roll is hollow, and delimits a volume connected to the collecting chamber and crossed, in use, by the melted glue, characterized in that the distributor assembly has a through hole extending between an inlet, accessible to the outside of the distributor assembly , and an outlet within the distributor assembly itself, for the injection of a dye within the distributor assembly such that said dye, in use, mixes with said melted glue.
A process for the production of a ready to freeze-dried live-attenuated M. tuberculosis vaccine composition comprising an isolated microorganism belonging to a M. tuberculosis MTBVAC strain having a i) PhoP- phenotype by the inactivation by a genetic deletion of the Rv0757 gene, wherein the open-reading frame (ORF) sequence of PhoP consists of SEQ ID NO 4, and ii) the deletion of a second gene, Rv2930 ( fadD26 ) that prevents PDIM production (PDIM-phenotype), wherein the open-reading frame (ORF) sequence of fadD26 consists of SEQ ID NO 2; and wherein the process comprises starting the culture of the MTBVAC strain in the seed medium as defined in the table below and expanding or amplifying said bacteria by using the SD medium as defined in the table below: Components Seed medium Medium SD L-Asparagine 2.00-4.00 g 2.00-4.00 g Monopotassium phosphate 0.30-0.60 g 0.30-0.60 g Magnesium sulfate H 2 O 0.5-0.70 g 0.50-0.70 g Ammonium ferric citrate 0.02-0.05 g 0.02-0.05 g Dextrose monohydrate 7.00-8.00 g 3.00-4.00 g Glycerol 10.0-20.0 mL 30-40 mL Citric acid 1.5-2.0 g 1.5-2 g Polysorbate 80 0.15-0.5 mL Purified water QS 1.00 L 1.00 L and wherein the process is characterized in that for the mass culture before lyophilization, a SDG medium comprising the quantitative and qualitative composition shown below, is used: Components Medium SDG L-Asparagine 2.00-4.00 g Monopotassium phosphate 0.30-0.60 g Magnesium sulfate H 2 O 0.50-0.70 g Ammonium ferric citrate 0.02-0.05 g Dextrose monohydrate 3.00-4.00 g Glycerol 3.0-10.0 mL Citric acid 1.5-2 g Polysorbate 80 0.15-0.5 mL Purified water QS 1.00 L wherein the process is conducted under aerobic conditions.
A galvanized steel sheet for use in hot pressing, comprising a galvanized layer and a base steel sheet, wherein internal oxide is present on a side of the base steel sheet from an interface between the galvanized layer and the base steel sheet, the base steel sheet comprising, in mass%, C: 0.15 to 0.5%; Si: 0.50 to 2.5%; Mn: 1.0 to 3%; Cr: 0 to 1.0%; Al: 0.01% to 0.5%; P: 0.020% or less; S: 0.010% or less; and N: 0.010% or less, and optionally one or more elements selected from the group consisting of B: 0.0003% to 0.0050%, Ti: 0.01% to 0.10%, and Mo: 0.01% to 1%; one or more elements selected from the group consisting of Nb, Zr, and V: 0.01% to 0.10% in total; and one or more elements selected from the group consisting of Cu and Ni: 0.01% to 1% in total, with the balance being iron and inevitable impurities, wherein the base steel sheet satisfies the following formula : 2 × Si / 28.1 + Mn / 54.9 + 1.5 × Cr / 52.0 ≥ 0.05 wherein, in the formula , [Si] represents a Si content in mass% of the base steel sheet, [Mn] represents a Mn content in mass% of the base steel sheet, and [Cr] represents a Cr content in mass% of the base steel sheet; wherein an internal oxidation depth on the side of the base steel sheet from the interface between the galvanized layer and the base steel sheet is 5 μm or more; wherein the galvanized steel sheet satisfies the following formula : a ≥ 0.30 × b where a (μm) is the internal oxidation depth on the side of the base steel sheet from the interface between the galvanized layer and the base steel sheet, and b (g/m 2 ) is a coating mass per unit area of the galvanized layer; wherein the coating mass per unit area of the galvanized layer is from 30 to 200 g/m 2 ; wherein a sheet thickness is 0.8 mm or more; and wherein the presence or absence of internal oxide is determined as described in the description.
A method of printing a graphic on a fibrous structure comprising apertures and filaments; wherein the filaments comprise: filament forming material, and an active agent releasable form the filaments when exposed to conditions of intended use; wherein the fibrous structure includes a first surface and a second surface opposite the first surface; wherein the method comprises: printing a graphic directly on the fibrous structure, wherein the graphic comprises a water-based ink positioned on the first surface, wherein a portion of the ink penetrates at a depth of 100 microns or less below the first surface; and wherein the fibrous structure has an average dissolution time of about 600 seconds or less as measured according to the Dissolution Test Method described herein. wherein the filaments comprise: filament forming material, and an active agent releasable form the filaments when exposed to conditions of intended use; filament forming material, and an active agent releasable form the filaments when exposed to conditions of intended use; wherein the fibrous structure includes a first surface and a second surface opposite the first surface; wherein the method comprises: printing a graphic directly on the fibrous structure, wherein the graphic comprises a water-based ink positioned on the first surface, wherein a portion of the ink penetrates at a depth of 100 microns or less below the first surface; and wherein the fibrous structure has an average dissolution time of about 600 seconds or less as measured according to the Dissolution Test Method described herein. printing a graphic directly on the fibrous structure, wherein the graphic comprises a water-based ink positioned on the first surface, wherein a portion of the ink penetrates at a depth of 100 microns or less below the first surface; and wherein the fibrous structure has an average dissolution time of about 600 seconds or less as measured according to the Dissolution Test Method described herein.
Self-propelling trolley assembly , comprising a battery ; at least one wheel which is driven by an electric motor (151,152;1), the electric motor (151,152;1) being powered by said battery ; a rotation position or velocity sensor arranged to sense a rotation position or rotation velocity of at least one trolley wheel ; a user interface ; and a control unit arranged to regulate the electric motor (151,152;1) based upon input from said user interface so as to affect a rotation of said wheel according to particular drive patterns, wherein the control unit is arranged to implement at least a feedback assisted propulsion drive pattern, based upon information read from said position or velocity sensor , a free-wheeling drive pattern and a rocking drive pattern, wherein all of said drive patterns are implemented using different drive voltage patterns to said electric motor (151,152:1), the motor (151,152;1) is arranged to be driven in a free-wheeling mode, the control unit is arranged to activate said free-wheeling mode during implementation of said free-wheeling drive pattern, the free-wheeling mode is implemented by switching off the voltage supplied to the motor (151,152;1),said rocking drive pattern is implemented by the control unit controlling the motor (151,152;1) to propel the trolley assembly backwards and forwards according to a predetermined rotation pattern as a function of time, and wherein the electric motor (151,152;1) is of a type in which the stator comprises a number of stator poles which is not an integer multiple of a corresponding number of rotor poles and in which the stator poles are subdivided into at least three magnetically and electrically identical subsets that are mounted one after the other around the angular direction of the electric motor (151,152;1), characterised in that the control unit is arranged to implement a user settable speed drive pattern, in which the control unit is arranged to continuously measure a speed of the trolley and compare it to a user-set speed by regulating a voltage supplied to the motor (151,152;1) from the battery according to a feedback loop so as to achieve said user-set velocity.
A photodetector comprising: a semiconductor substrate having an input surface for receiving illumination; control electrodes for control of photogenerated charge within the substrate; and a filter on the radiation input surface of the substrate, the filter comprising a dielectric-metal band pass filter having a metal layer and one or more dielectric layers with one dielectric layer between the substrate surface and the metal layer and characterised by further comprising a connector for applying a bias voltage to the metal layer with respect to the substrate. a semiconductor substrate having an input surface for receiving illumination; control electrodes for control of photogenerated charge within the substrate; and a filter on the radiation input surface of the substrate, the filter comprising a dielectric-metal band pass filter having a metal layer and one or more dielectric layers with one dielectric layer between the substrate surface and the metal layer and characterised by further comprising a connector for applying a bias voltage to the metal layer with respect to the substrate.
A device comprising: a therapy delivery circuit configured to generate an electrical stimulation therapy; a sensing circuit configured to receive a first cardiac electrical signal via a first sensing electrode vector and sense ventricular events from the first cardiac electrical signal; and a control circuit coupled to the sensing circuit and the therapy delivery circuit and configured to: determine that a first plurality of the sensed ventricular events meet a fast ventricular rate criteria; subsequent to determining the fast ventricular rate criteria is met, detect a pause in a rate of a second plurality of the sensed ventricular events; detect from the first cardiac electrical signal a threshold number of ventricular event intervals required to detect a ventricular tachyarrhythmia, each of the threshold number of ventricular event intervals being less than a tachyarrhythmia detection interval; and withhold the electrical stimulation therapy for treating the ventricular tachyarrhythmia in response to at least the pause being detected. a therapy delivery circuit configured to generate an electrical stimulation therapy; a sensing circuit configured to receive a first cardiac electrical signal via a first sensing electrode vector and sense ventricular events from the first cardiac electrical signal; and a control circuit coupled to the sensing circuit and the therapy delivery circuit and configured to: determine that a first plurality of the sensed ventricular events meet a fast ventricular rate criteria; subsequent to determining the fast ventricular rate criteria is met, detect a pause in a rate of a second plurality of the sensed ventricular events; detect from the first cardiac electrical signal a threshold number of ventricular event intervals required to detect a ventricular tachyarrhythmia, each of the threshold number of ventricular event intervals being less than a tachyarrhythmia detection interval; and withhold the electrical stimulation therapy for treating the ventricular tachyarrhythmia in response to at least the pause being detected. determine that a first plurality of the sensed ventricular events meet a fast ventricular rate criteria; subsequent to determining the fast ventricular rate criteria is met, detect a pause in a rate of a second plurality of the sensed ventricular events; detect from the first cardiac electrical signal a threshold number of ventricular event intervals required to detect a ventricular tachyarrhythmia, each of the threshold number of ventricular event intervals being less than a tachyarrhythmia detection interval; and withhold the electrical stimulation therapy for treating the ventricular tachyarrhythmia in response to at least the pause being detected.
A system , comprising: a processor configured to initiate operations including: generating an output from each of a plurality of context-specific models (402a-402k) in response to a received input, wherein the context-specific models (402a-402k) are machine learning models simultaneously trained using a corresponding local loss metric for each context-specific model (402a-402k) and a global loss metric for the plurality of context-specific models (402a-402k); and determining a presence or absence of a user objective corresponding to each context-specific model (402a-402k) by comparing the output of each context-specific model (402a-402k) with a threshold, wherein the received input comprises at least one of an utterance or an image including text, and wherein the output from each of the plurality of context-specific models reflects the probability that a user objective corresponding to the context is present in the received input. generating an output from each of a plurality of context-specific models (402a-402k) in response to a received input, wherein the context-specific models (402a-402k) are machine learning models simultaneously trained using a corresponding local loss metric for each context-specific model (402a-402k) and a global loss metric for the plurality of context-specific models (402a-402k); and determining a presence or absence of a user objective corresponding to each context-specific model (402a-402k) by comparing the output of each context-specific model (402a-402k) with a threshold, wherein the received input comprises at least one of an utterance or an image including text, and wherein the output from each of the plurality of context-specific models reflects the probability that a user objective corresponding to the context is present in the received input.