mhurhangee/ep-ind-claims huggingface dataset:
An air conditioner (5, 500) comprising: a signal receiving unit to receive an operation instruction signal transmitted from a remote controller; a compressor including a motor including coils constituted by three-phase windings (3U, 3V, 3W); an inverter connected to the coils; a connection switching unit connected to the coils and to switch a connection state of the coils between Y connection and delta connection; and a controller to control the inverter and the connection switching unit, wherein when the signal receiving unit receives an operation stop signal, the connection switching unit switches the connection state of the coils from the Y connection to the delta connection, and operation of the air conditioner (5, 500) stops after the connection state of the coils is switched from the Y connection to the delta connection characterized in that the air conditioner (5,500) further comprises a converter to boost the voltage to be applied to the motor in which the connection state of the coils is the delta connection at start-up of the air conditioner (5, 500),. a signal receiving unit to receive an operation instruction signal transmitted from a remote controller; a compressor including a motor including coils constituted by three-phase windings (3U, 3V, 3W); an inverter connected to the coils; a connection switching unit connected to the coils and to switch a connection state of the coils between Y connection and delta connection; and a controller to control the inverter and the connection switching unit, wherein when the signal receiving unit receives an operation stop signal, the connection switching unit switches the connection state of the coils from the Y connection to the delta connection, and operation of the air conditioner (5, 500) stops after the connection state of the coils is switched from the Y connection to the delta connection characterized in that the air conditioner (5,500) further comprises a converter to boost the voltage to be applied to the motor in which the connection state of the coils is the delta connection at start-up of the air conditioner (5, 500),.
An additive manufacturing process comprising: pressurizing and heating a slurry; flowing the pressurized heated slurry through a nozzle; and depositing multiple layers of the slurry in a predetermined pattern, wherein the heating is performed in the nozzle; characterised in that: the slurry includes a plastisol and a solid energetic material, wherein the plastisol is a mixture or suspension of polymeric particles in a liquid plasticizer; and by the heating commencing solvation of the polymeric particles by the liquid plasticizer. pressurizing and heating a slurry; flowing the pressurized heated slurry through a nozzle; and depositing multiple layers of the slurry in a predetermined pattern, wherein the heating is performed in the nozzle; characterised in that: the slurry includes a plastisol and a solid energetic material, wherein the plastisol is a mixture or suspension of polymeric particles in a liquid plasticizer; and by the heating commencing solvation of the polymeric particles by the liquid plasticizer. the slurry includes a plastisol and a solid energetic material, wherein the plastisol is a mixture or suspension of polymeric particles in a liquid plasticizer; and by the heating commencing solvation of the polymeric particles by the liquid plasticizer.
A random number generation method implemented by means of a digital processor, comprising: a) searching an internal register of the processor, wherein the content of the register is an evolutive content which changes over time; b) extracting at a given time n bits from the register, n ≥ 1; c) using the n bits extracted at step b) as bit(s) for forming a random number of N bits to be generated; d) reiterating steps a) to c) until obtaining the N bits of the random number; and e) providing the random number to an application circuit or software, characterized in that the method further comprises, before step b), a step of selecting, by a random of pseudo-random process, the n bits of the register which will be extracted at step b), and/or of selecting, by a random of pseudo-random process, one register among a plurality of internal registers of the processor that may be potentially searched and selecting the n bits from the selected register, in particular selecting, by a random or pseudo-random process, at least one of the bits of the selected register. a) searching an internal register of the processor, wherein the content of the register is an evolutive content which changes over time; b) extracting at a given time n bits from the register, n ≥ 1; c) using the n bits extracted at step b) as bit(s) for forming a random number of N bits to be generated; d) reiterating steps a) to c) until obtaining the N bits of the random number; and e) providing the random number to an application circuit or software,
A conjugated diene polymer obtained by polymerizing a conjugated diene monomer and a vinyl aromatic monomer using an initiator via anionic polymerization, the conjugated diene polymer comprising a plurality of blocks having more than six consecutive vinyl aromatic units, wherein a vinyl aromatic monomer content of the plurality of blocks having more than six consecutive vinyl aromatic units is less than 5 wt% based on a total vinyl aromatic monomer content of the conjugated diene polymer.
A detection device (1; 1a; 1a', 1b; 1c; 1d; 1e; 1f; 1g) for detecting and manipulating a blood vessel under the skin of a body part of a patient, comprising a treatment room for receiving the body part, a data processing control device, a vessel structure measuring device for detecting the position and/or dimensions by measuring vessel structure data of the blood vessel in the treatment room, a vessel manipulation device (4; 4'; 14; 24; 34; 34'; 44; 54) for changing the position and/or dimensions of the blood vessel, wherein the control device is configured to control the vessel manipulation device in dependence of the vessel structure data, characterized in that the control device is configured to determine from the vessel structure data whether the blood vessel has a predetermined thickness, and to control the vessel manipulation device (4; 4'; 14; 24; 34; 34'; 44; 54) such that the blood vessel reaches the predetermined thickness and maintains it at least for a predetermined period of time.
Optical measuring apparatus, comprising a reference support on which a workpiece to be measured is mountable, and optical carriage movable in relation to said workpiece to be measured along a linear axis (x) only, so that the optical carriage has only one freedom of movement, said optical carriage carrying a light source for directing a beam of light across said x axis to be interrupted by the said workpiece under measurement, said carriage further carrying an optical detector aligned with said light source and arranged to receive the residual light of the said beam of light that has not been interrupted by said workpiece under measurement, characterized by a processing unit programmed to implement an auto-measure function, whereby: the measuring apparatus is driven to automatically perform a pre-scan profile of said workpiece to be measured from end to end, the processing unit determines regions of interest in the workpiece and optimal scanning speeds for said region of interest; the measuring apparatus is driven to automatically perform a second scan of the workpiece to be measured from end to end, the scanning speed of the second scan being adapted to the values determined in the pre-scan, and the transverse dimensions and the longitudinal dimensions of all said workpiece are automatically computed. the measuring apparatus is driven to automatically perform a pre-scan profile of said workpiece to be measured from end to end, the processing unit determines regions of interest in the workpiece and optimal scanning speeds for said region of interest; the measuring apparatus is driven to automatically perform a second scan of the workpiece to be measured from end to end, the scanning speed of the second scan being adapted to the values determined in the pre-scan, and the transverse dimensions and the longitudinal dimensions of all said workpiece are automatically computed.
A stator comprising: a stator core in which an annular back yoke is integrated with a plurality of teeth circumferentially arranged on the inner periphery of the back yoke on a circumferential direction at intervals; an insulator (530, 1530) that sandwiches the stator core from both axial sides of the stator core; and a coil, wherein the insulator (530, 1530) is molded integrally with the stator core through resin molding in such a way that the insulator covers at least an inner surface of a slot portion of the stator core, the insulator includes two annular base parts sandwiching the annular back yoke from both axial sides, tube parts protruding radially inward from the annular base parts to cover the respective teeth of the stator core, characterized in that: each annular base part has an annular end part on its outer peripheral side, and in that coupling portions are disposed on an outer periphery of the back yoke of the stator core at circumferential intervals and axially extending to couple the annular end parts of the two annular base parts with each other. a stator core in which an annular back yoke is integrated with a plurality of teeth circumferentially arranged on the inner periphery of the back yoke on a circumferential direction at intervals; an insulator (530, 1530) that sandwiches the stator core from both axial sides of the stator core; and a coil, wherein the insulator (530, 1530) is molded integrally with the stator core through resin molding in such a way that the insulator covers at least an inner surface of a slot portion of the stator core, the insulator includes two annular base parts sandwiching the annular back yoke from both axial sides, tube parts protruding radially inward from the annular base parts to cover the respective teeth of the stator core, characterized in that: each annular base part has an annular end part on its outer peripheral side, and in that coupling portions are disposed on an outer periphery of the back yoke of the stator core at circumferential intervals and axially extending to couple the annular end parts of the two annular base parts with each other.
A method of generating a recombinant nucleic acid for immunotherapy, comprising: comparing omics data from diseased tissue and healthy tissue of a patient to identify a disease-related patient-specific neoepitope of the patient; identifying at least one MHC Class I sub-type molecule and at least one MHC Class II sub-type molecule of an HLA-type of the patient, wherein the HLA-type of the patient is determined in silico using a de Bruijn graph; determining binding affinity of the neoepitope to the at least one MHC Class I sub-type molecule and the at least one MHC Class II sub-type molecule; selecting the neoepitope when the binding affinity is below a predetermined threshold value, wherein the binding affinity of the neoepitope to the at least one MHC Class I sub-type molecule and the at least one MHC Class II sub-type molecule is determined in silico, and wherein the predetermined threshold value is less than 150 nM; generating a recombinant nucleic acid to include a first nucleic acid sequence encoding a co-stimulatory molecule and a second nucleic acid sequence encoding the selected neoepitope, wherein the nucleic acid sequence encoding the selected neoepitope is under control of a promoter that drives expression of the selected neoepitope; and wherein the second nucleic acid sequence further comprises a sequence element that directs the expressed selected neoepitope toward presentation by the at least one MHC Class I sub-type molecule or by the at least one MHC Class II sub-type molecule. comparing omics data from diseased tissue and healthy tissue of a patient to identify a disease-related patient-specific neoepitope of the patient; identifying at least one MHC Class I sub-type molecule and at least one MHC Class II sub-type molecule of an HLA-type of the patient, wherein the HLA-type of the patient is determined in silico using a de Bruijn graph; determining binding affinity of the neoepitope to the at least one MHC Class I sub-type molecule and the at least one MHC Class II sub-type molecule; selecting the neoepitope when the binding affinity is below a predetermined threshold value, wherein the binding affinity of the neoepitope to the at least one MHC Class I sub-type molecule and the at least one MHC Class II sub-type molecule is determined in silico, and wherein the predetermined threshold value is less than 150 nM; generating a recombinant nucleic acid to include a first nucleic acid sequence encoding a co-stimulatory molecule and a second nucleic acid sequence encoding the selected neoepitope, wherein the nucleic acid sequence encoding the selected neoepitope is under control of a promoter that drives expression of the selected neoepitope; and wherein the second nucleic acid sequence further comprises a sequence element that directs the expressed selected neoepitope toward presentation by the at least one MHC Class I sub-type molecule or by the at least one MHC Class II sub-type molecule.
A control system for a NOx removal device comprising a plurality of nozzles for introducing a reagent into exhaust gas flowing in a duct, the control system comprising: a temperature measuring device (21,22) for measuring a temperature distribution of the exhaust gas into which the reagent has been introduced by the nozzles, wherein the temperature measuring device (21,22) comprises optical fibers provided at adjacent wall surfaces (12a,12b) forming the duct; an analyzing portion configured to obtain a function of the signal intensity with respect to a predetermined wavelength from an emission spectrum that is actually measured by the temperature measuring device (21,22), wherein the analyzing portion is configured to obtain the function of the signal intensity with respect to a predetermined wavelength for a theoretical absorption spectrum of vapor contained in the exhaust gas flowing in the duct; a reagent-concentration-distribution calculating device configured to calculate the concentration distribution of the reagent introduced into the exhaust gas on the basis of the exhaust gas temperature distribution calculated at the temperature measuring device (21,22); a reagent-spraying-level setting device configured to determine a flow rate of the reagent that the nozzles are to introduce in accordance with the concentration distribution calculated at the reagent-concentration-distribution calculating device; and a valve control device for controlling a degree of opening of flow-rate control valves such that the nozzles introduce the reagent into the exhaust gas at the flow rate determined at the reagent-spraying-level setting device. a temperature measuring device (21,22) for measuring a temperature distribution of the exhaust gas into which the reagent has been introduced by the nozzles, wherein the temperature measuring device (21,22) comprises optical fibers provided at adjacent wall surfaces (12a,12b) forming the duct; an analyzing portion configured to obtain a function of the signal intensity with respect to a predetermined wavelength from an emission spectrum that is actually measured by the temperature measuring device (21,22), wherein the analyzing portion is configured to obtain the function of the signal intensity with respect to a predetermined wavelength for a theoretical absorption spectrum of vapor contained in the exhaust gas flowing in the duct; a reagent-concentration-distribution calculating device configured to calculate the concentration distribution of the reagent introduced into the exhaust gas on the basis of the exhaust gas temperature distribution calculated at the temperature measuring device (21,22); a reagent-spraying-level setting device configured to determine a flow rate of the reagent that the nozzles are to introduce in accordance with the concentration distribution calculated at the reagent-concentration-distribution calculating device; and a valve control device for controlling a degree of opening of flow-rate control valves such that the nozzles introduce the reagent into the exhaust gas at the flow rate determined at the reagent-spraying-level setting device.
A personal care device for personal needs, specifically a tooth cleaning device, with a manually guidable care tool, specifically a toothbrush, as well as a display device for displaying interactive representations, and a control device that is designed to control the representation interactively from the care tool, wherein a detection device for detecting at least one operating parameter regarding the personal care and/or the care tool is provided and the control device is designed to control the representations depending on the operating parameter, wherein the detection device comprises position detection means for detecting the relative position of the care tool relative to the body part of the device user to be cared for, and the control device is designed to control the representations depending on the detected relative position, is characterized in that the detection device comprises object identification means for identifying a body part and thus for identifying the relative position of the care tool relative to the body part to be cared for and the control device controls the representations of the display device using the detected object identification data and at least one operating parameter regarding the personal care and/or the care tool and the object identification means comprise an optical detection unit for optically detecting at least one anatomical feature of the body part, based on which the body part can be identified, wherein the optical detection unit is provided in the form of a separately placed camera, which captures the care tool on the one hand and the body part to be cared for on the other hand.
Method for producing an aperture, whose average diameter is less than one micrometer, in a semiconductor material, comprising the following steps: 1.1 providing a semiconductor wafer having a surface and a bottom surface, 1.2 producing a depression in the surface of the semiconductor wafer with a side wall by partial, anisotropic etching of the surface, characterized in that 1.3 the depression has a closed bottom region facing the bottom surface and having at least one convex or concave corner or edge, 1.4 applying an oxide layer on the semiconductor material at least in the region of the depression by oxidation of the semiconductor material, wherein the oxide layer, at least in the bottom region, has an inhomogeneity in the region of the convex or concave corner or edge, 1.5 selectively etching back the semiconductor material on the bottom surface of the semiconductor wafer until exposing at least the oxide layer located in the bottom region, 1.6 etching the exposed oxide layer until at least its separation in the region of inhomogeneity of the oxide layer, so that an aperture is formed in the oxide layer, wherein the size of the aperture is determined by stress in the oxide layer, wherein a locally higher etching rate is realized in the region of the greatest curvature at the tip. 1.1 providing a semiconductor wafer having a surface and a bottom surface, 1.2 producing a depression in the surface of the semiconductor wafer with a side wall by partial, anisotropic etching of the surface, 1.3 the depression has a closed bottom region facing the bottom surface and having at least one convex or concave corner or edge, 1.4 applying an oxide layer on the semiconductor material at least in the region of the depression by oxidation of the semiconductor material, wherein the oxide layer, at least in the bottom region, has an inhomogeneity in the region of the convex or concave corner or edge, 1.5 selectively etching back the semiconductor material on the bottom surface of the semiconductor wafer until exposing at least the oxide layer located in the bottom region, 1.6 etching the exposed oxide layer until at least its separation in the region of inhomogeneity of the oxide layer, so that an aperture is formed in the oxide layer, wherein the size of the aperture is determined by stress in the oxide layer, wherein a locally higher etching rate is realized in the region of the greatest curvature at the tip.
A system, comprising: (a) an ultrasonic instrument (20; 120) comprising: (i) an ultrasonic transducer, wherein the ultrasonic transducer is operable to convert electrical power into ultrasonic vibrations, and (ii) an ultrasonic blade (24; 160; 260; 560) in acoustic communication with the ultrasonic transducer such that the ultrasonic transducer is operable to drive the ultrasonic blade to vibrate ultrasonically, wherein the ultrasonic blade is operable to form an opening within bone; (b) a bone insertion element, wherein the bone insertion element is configured to be inserted within the opening formed by the ultrasonic blade; (c) an irrigation fluid source associated with the ultrasonic blade; wherein the irrigation fluid source is operable to deliver fluid within an interior region of the blade within a gap defined between the blade and the bone insertion element; and wherein the bone insertion element is coaxially disposed within the ultrasonic blade and wherein the inner diameter of the blade is greater than the outer diameter of the bone insertion element. (a) an ultrasonic instrument (20; 120) comprising: (i) an ultrasonic transducer, wherein the ultrasonic transducer is operable to convert electrical power into ultrasonic vibrations, and (ii) an ultrasonic blade (24; 160; 260; 560) in acoustic communication with the ultrasonic transducer such that the ultrasonic transducer is operable to drive the ultrasonic blade to vibrate ultrasonically, wherein the ultrasonic blade is operable to form an opening within bone; (i) an ultrasonic transducer, wherein the ultrasonic transducer is operable to convert electrical power into ultrasonic vibrations, and (ii) an ultrasonic blade (24; 160; 260; 560) in acoustic communication with the ultrasonic transducer such that the ultrasonic transducer is operable to drive the ultrasonic blade to vibrate ultrasonically, wherein the ultrasonic blade is operable to form an opening within bone; (b) a bone insertion element, wherein the bone insertion element is configured to be inserted within the opening formed by the ultrasonic blade; (c) an irrigation fluid source associated with the ultrasonic blade;