mhurhangee/patent-ind-claim-en huggingface dataset:
A fuel cell module comprising: a hydrodesulfurizer configured to desulfurize fuel gas with a hydrodesulfurization catalyst; a reformer configured to generate hydrogen-containing gas using the desulfurized fuel gas; a cell stack constituted by stacking a plurality of fuel cells, the cell stack being configured to generate electric power using the hydrogen-containing gas and an oxygen-containing gas; an exhaust gas channel portion configured to discharge the hydrogen-containing gas that is not consumed by the cell stack , and discharge exhaust gas that is generated by the combustion of the oxygen-containing gas; an air-preheating channel portion that is disposed so as to be adjacent to the exhaust gas channel portion and that is configured to preheat the oxygen-containing gas through heat exchange with the exhaust gas channel portion , the air-preheating channel portion being disposed between the hydrodesulfurizer and the cell stack ; wherein the air-preheating channel portion includes a first air-preheating channel portion extending from a lower portion of the fuel cell module to an upper portion of the fuel cell module ; and characterized in that an insulator is configured to be arranged so as to be in contact with the hydrodesulfurizer between the hydrodesulfurizer and the air-preheating channel portion , wherein the hydrodesulfurizer is disposed on one side of the air-preheating channel portion , and the exhaust gas channel portion is disposed on the other side of the air-preheating channel portion . a hydrodesulfurizer configured to desulfurize fuel gas with a hydrodesulfurization catalyst; a reformer configured to generate hydrogen-containing gas using the desulfurized fuel gas; a cell stack constituted by stacking a plurality of fuel cells, the cell stack being configured to generate electric power using the hydrogen-containing gas and an oxygen-containing gas; an exhaust gas channel portion configured to discharge the hydrogen-containing gas that is not consumed by the cell stack , and discharge exhaust gas that is generated by the combustion of the oxygen-containing gas; an air-preheating channel portion that is disposed so as to be adjacent to the exhaust gas channel portion and that is configured to preheat the oxygen-containing gas through heat exchange with the exhaust gas channel portion , the air-preheating channel portion being disposed between the hydrodesulfurizer and the cell stack ; wherein the air-preheating channel portion includes a first air-preheating channel portion extending from a lower portion of the fuel cell module to an upper portion of the fuel cell module ; and characterized in that an insulator is configured to be arranged so as to be in contact with the hydrodesulfurizer between the hydrodesulfurizer and the air-preheating channel portion , wherein the hydrodesulfurizer is disposed on one side of the air-preheating channel portion , and the exhaust gas channel portion is disposed on the other side of the air-preheating channel portion .
A method for producing a variant α-amylase polypeptide, comprising: introducing into the amino sequence of a parent Family 13 α-amylase polypeptide a mutation at an amino acid residue in the starch-binding groove; wherein the starch-binding groove corresponds to amino acid residues 1-6, 36, 38, 91-97, 224-226, 249-257, 278-282, 309-320, 354-359, 391, and 395-402, referring to SEQ ID NO: 2 for numbering; wherein the parent has at least 65% amino acid sequence identity to SEQ ID NO: 2; and wherein the mutation alters the binding of starch to the variant α-amylase polypeptide compared to the parental α-amylase polypeptide and increases the thermal stability, increases the pH stability, and/or increases the detergent stability of the variant α-amylase polypeptide compared to the parental α-amylase polypeptide. introducing into the amino sequence of a parent Family 13 α-amylase polypeptide a mutation at an amino acid residue in the starch-binding groove; wherein the starch-binding groove corresponds to amino acid residues 1-6, 36, 38, 91-97, 224-226, 249-257, 278-282, 309-320, 354-359, 391, and 395-402, referring to SEQ ID NO: 2 for numbering; wherein the parent has at least 65% amino acid sequence identity to SEQ ID NO: 2; and wherein the mutation alters the binding of starch to the variant α-amylase polypeptide compared to the parental α-amylase polypeptide and increases the thermal stability, increases the pH stability, and/or increases the detergent stability of the variant α-amylase polypeptide compared to the parental α-amylase polypeptide.
An isolated, immunogenic polypeptide fragment of a human Arginase protein of SEQ ID NO: 1 (Arginase 1) or SEQ ID NO: 60 (Arginase 2), which fragment is up to 55 amino acids in length and which comprises or consists of a sequence of at least 8, 9, 10, 20, 30, 40 or 50 consecutive amino acids of either of SEQ ID NO: 52 or SEQ ID NO: 58.
A herbal pharmaceutical composition wherein said composition comprises flavonoid rich herbal component in combination with predetermined quantities activated charcoal, probiotic, or a combination of activated charcoal and probiotic, optionally a therapeutic agent; and optionally a pharmaceutically acceptable carrier or base, wherein the herbal component comprises by weight 60-80% Commiphora molmol, Gardenia spp, Tagetes erecta, Mesua ferrea providing 10% to 18% catechins & epicatechins by weight of the total composition; wherein the predetermined quantity of activated charcoal is 2-8% by weight; and wherein the predetermined quantity of probiotic is 10-25% by weight corresponding to 10-50 billion CFU/g. optionally a therapeutic agent; and optionally a pharmaceutically acceptable carrier or base, wherein the herbal component comprises by weight 60-80% Commiphora molmol, Gardenia spp, Tagetes erecta, Mesua ferrea providing 10% to 18% catechins & epicatechins by weight of the total composition; wherein the predetermined quantity of activated charcoal is 2-8% by weight; and wherein the predetermined quantity of probiotic is 10-25% by weight corresponding to 10-50 billion CFU/g.
A method for controlling user equipment using a wireless communications device , comprising: receiving user input to create at least one media guidance application command on the wireless communications device; determining if a user equipment device to receive the at least one command is accessible ; in response to determining that the user equipment device is not accessible: saving the at least one command on the wireless communications device ; and transmitting the at least one command to the user equipment device after the user equipment device becomes accessible ; and in response to determining that the user equipment device is accessible, transmitting the at least one command to the user equipment device. receiving user input to create at least one media guidance application command on the wireless communications device; determining if a user equipment device to receive the at least one command is accessible ; in response to determining that the user equipment device is not accessible: saving the at least one command on the wireless communications device ; and transmitting the at least one command to the user equipment device after the user equipment device becomes accessible ; and saving the at least one command on the wireless communications device ; and transmitting the at least one command to the user equipment device after the user equipment device becomes accessible ; and in response to determining that the user equipment device is accessible, transmitting the at least one command to the user equipment device.
A waistband , comprising: a first waistband portion comprising at least: a first end and a second end ; at least a first tunnel structure on the first waistband portion ; at least a first cord extending at least partially through the first tunnel structure , the first tunnel structure slidably coupling the first cord to the first waistband portion ; and at least a first pair of apertures through which a looped portion of the first cord extends from the first tunnel structure , characterized in that the first tunnel structure forms a plurality of parallel courses and the first cord follows a continuous serpentine-like course through the first tunnel structure and the at least first pair of apertures . a first end and a second end ; at least a first tunnel structure on the first waistband portion ; at least a first cord extending at least partially through the first tunnel structure , the first tunnel structure slidably coupling the first cord to the first waistband portion ; and at least a first pair of apertures through which a looped portion of the first cord extends from the first tunnel structure , characterized in that the first tunnel structure forms a plurality of parallel courses and the first cord follows a continuous serpentine-like course through the first tunnel structure and the at least first pair of apertures .
Surgical implant, comprising an areal, flexible, mesh-like basic structure including a knitted fabric made in gallon crotcheting technique, in which mesh pores are formed from chains made in closed pillar stitch, wherein adjacent chains are connected to each other, by at least one inlaying weft thread , in sections forming a respective common side of two adjacent mesh pores , characterized in that the inlaying weft thread , in the region of said common side , runs in at least three loop courses (17, 17', 17", 19, 19', 19") such that the inlaying weft thread passes through both of the adjacent chains of the adjacent mesh pores at least four times in the respective common side.
Fastening system for fastening plate-shaped facade elements , with at least two mounting profiles which are horizontally fastened to a building and spaced apart from one another, each with a vertical mounting section on the building side and a horizontally projecting cantilever profile which is connected at a first end to the mounting section and comprises a second end positioned contrary to the first end and designed as a free end, so that between the first and the second end an intermediate section is located which extends in a distancing direction (D) away from the building , wherein the free end of the cantilever profile is shaped as a holding section , wherein holding elements are disposed on the facade element on at least two opposite edges, wherein each holding element comprises, at least in sections, a groove which is arranged essentially parallel to the facade element and opens towards the edge of the facade element , wherein the holding section of a first mounting profile can be at least partially inserted into the groove of a first holding element , characterized in that a second holding element which is disposed on the opposite edge in the installed end position and with its rear side which faces away from the facade element at least partially abuts at least one locating surface of the cantilever profile of the second mounting profile , and the facade element is held and locked with at least one bolt at least partially inserted into the groove of the second holding element on the holding section of the second mounting profile , wherein the bolt comprises an L-shaped cross section with a long leg and a short leg, wherein the short leg of the inserted bolt faces away from the facade element in the direction to the building and with its end face rests against the inner side of the groove on the side of the facade, wherein the long leg of the inserted bolt at least partially extends from the groove of the first holding element into the groove of a second holding element which abuts against the cantilever profile for holding a second facade element , which vertically is located adjacent to the first facade element .
Method for manufacturing a surgical needle produced from a wire made of a hyperelastic or superelastic alloy including a nickel (Ni) and titanium (Ti) base, comprising a first step which consists in : carrying out a cold shaping or a shaping at ambient temperature of a curved profile of the needle in an appropriate support; characterized in that it comprises - a second step which consists in subjecting the needle in its support to a thermal treatment by means of an annealing at a heating temperature of 470 °C for 15 minutes followed by cooling with ice water, the temperature of which is between 3 and 5 °C, in order to memorize the imposed curved- profile geometry; - and a third second step which consists in cleaning the needle by means of a chemical stripping of the electrochemical or electrolytic polishing type or by means of a chemical solution in order to remove the layer of oxide deposited on the needle during its thermal treatment. carrying out a cold shaping or a shaping at ambient temperature of a curved profile of the needle in an appropriate support; characterized in that it comprises - a second step which consists in subjecting the needle in its support to a thermal treatment by means of an annealing at a heating temperature of 470 °C for 15 minutes followed by cooling with ice water, the temperature of which is between 3 and 5 °C, in order to memorize the imposed curved- profile geometry; - and a third second step which consists in cleaning the needle by means of a chemical stripping of the electrochemical or electrolytic polishing type or by means of a chemical solution in order to remove the layer of oxide deposited on the needle during its thermal treatment. - a second step which consists in subjecting the needle in its support to a thermal treatment by means of an annealing at a heating temperature of 470 °C for 15 minutes followed by cooling with ice water, the temperature of which is between 3 and 5 °C, in order to memorize the imposed curved- profile geometry; - and a third second step which consists in cleaning the needle by means of a chemical stripping of the electrochemical or electrolytic polishing type or by means of a chemical solution in order to remove the layer of oxide deposited on the needle during its thermal treatment.
A frame rate adjustment method, comprising: obtaining , by a terminal, a current computing-access ratio relationship as a first ratio relationship, wherein the computing-access ratio relationship is used to reflect a ratio between computing tasks and access tasks that are executed by the terminal; obtaining , by the terminal, a first working frequency table corresponding to the first ratio relationship, wherein the first working frequency table comprises central processing unit, CPU, performance parameters generated when a double data rate synchronous dynamic random access memory, DDR SDRAM, and a CPU work on different working frequency combinations and the computing-access ratio relationship is the first ratio relationship, and the CPU performance parameter is used to reflect frame processing duration required by the CPU to process one frame of display image; selecting , by the terminal from the first working frequency table based on the CPU performance parameter, a target CPU-DDR SDRAM working frequency combination that meets preset target frame processing duration, wherein the target CPU-DDR SDRAM working frequency combination comprises a group of a target CPU working frequency and a target DDR SDRAM working frequency; and instructing , by the terminal, the DDR SDRAM to work on the target DDR SDRAM working frequency, and instructing the CPU to work on the target CPU working frequency. obtaining , by a terminal, a current computing-access ratio relationship as a first ratio relationship, wherein the computing-access ratio relationship is used to reflect a ratio between computing tasks and access tasks that are executed by the terminal; obtaining , by the terminal, a first working frequency table corresponding to the first ratio relationship, wherein the first working frequency table comprises central processing unit, CPU, performance parameters generated when a double data rate synchronous dynamic random access memory, DDR SDRAM, and a CPU work on different working frequency combinations and the computing-access ratio relationship is the first ratio relationship, and the CPU performance parameter is used to reflect frame processing duration required by the CPU to process one frame of display image; selecting , by the terminal from the first working frequency table based on the CPU performance parameter, a target CPU-DDR SDRAM working frequency combination that meets preset target frame processing duration, wherein the target CPU-DDR SDRAM working frequency combination comprises a group of a target CPU working frequency and a target DDR SDRAM working frequency; and instructing , by the terminal, the DDR SDRAM to work on the target DDR SDRAM working frequency, and instructing the CPU to work on the target CPU working frequency.
A method of plasma etching one or more dicing lanes in a silicon substrate having a backside metal layer attached thereto, the method comprising the steps of: performing a main etch using a cyclical plasma etch process in which a deposition step and an etch step are alternately repeated to produce dicing lanes having scalloped sidewalls; and switching to performing a secondary etch using a cyclical plasma etch process in which a deposition step and an etch step are alternately repeated until the dicing lanes are fully formed down to the backside metal layer; wherein the amount of silicon removed in one etch step during the secondary etch is half or less than half of the amount of silicon removed in one etch step during the main etch. performing a main etch using a cyclical plasma etch process in which a deposition step and an etch step are alternately repeated to produce dicing lanes having scalloped sidewalls; and switching to performing a secondary etch using a cyclical plasma etch process in which a deposition step and an etch step are alternately repeated until the dicing lanes are fully formed down to the backside metal layer; wherein the amount of silicon removed in one etch step during the secondary etch is half or less than half of the amount of silicon removed in one etch step during the main etch.
Motor vehicle headlamp with at least one light module that can pivot around a rotational axis in the motor vehicle headlamp , whereby the motor vehicle headlamp comprises a first linear pulse motor , a second linear pulse motor , and a coupling rod comprising a first end (34.1) and a second end (34.2), whereby the first linear pulse motor comprises a first positioning rod comprising a first end (24.1) on the linear pulse motor side and a first end (24.2) on the light module side, whereby the second linear pulse motor comprises a second positioning rod comprising a second end (38.1) on the linear pulse motor side and a second end (38.2) on the light module side, and whereby the motor vehicle headlamp comprises a cumulative positioning rod , whereby the first end (24.1) of the first positioning rod on the light module side is connected to the first end (34.1) of the coupling rod such that it can rotate around an axis perpendicular to the rotational axis of the light module , and whereby the second end (38.1) of the second positioning rod on the light module side is connected to the second end (34.2) of the coupling rod such that it can rotate around an axis perpendicular to the rotational axis of the light module , characterised in that the coupling rod comprises a rotational bearing positioned between the first end (34.1) and the second end (34.2), whereby an end of the cumulative positioning rod on the coupling rod side is connected with the rotational bearing of the coupling rod around an axis perpendicular to the rotational axis of the light module , and whereby an end (36.2) of the cumulative positioning rod on the light module side is connected to the light module .
A method comprising: communicating, by a user network device to a remote network device , a request for hotspot data corresponding to hotspots within a proximity of the user network device, the request comprising first location data for the user network device; receiving, by the user network device , the hotspot data from the remote network device , the hotspot data comprising identifications and locations of a plurality of hotspots proximate to the user network device based on the first location data; storing, by the user network device , the hotspot data in a data storage unit of the user network device ; receiving, by the user network device from the remote network device , an identification of a priority rank for each of the plurality of hotspots; selecting, by the user network device , a first hotspot of the plurality of hotspots responsive to the priority rank of the first hotspot exceeding a specified limit; determining, by the user network device , that second location data of the user network device indicates that the user network device is within a configured range of the selected first hotspot; and providing, by the user network device , an alert regarding the selected first hotspot responsive to the determination that the second location data of the user network device indicates that the user network device is within the configured range of the selected first hotspot. communicating, by a user network device to a remote network device , a request for hotspot data corresponding to hotspots within a proximity of the user network device, the request comprising first location data for the user network device; receiving, by the user network device , the hotspot data from the remote network device , the hotspot data comprising identifications and locations of a plurality of hotspots proximate to the user network device based on the first location data; storing, by the user network device , the hotspot data in a data storage unit of the user network device ; receiving, by the user network device from the remote network device , an identification of a priority rank for each of the plurality of hotspots; selecting, by the user network device , a first hotspot of the plurality of hotspots responsive to the priority rank of the first hotspot exceeding a specified limit; determining, by the user network device , that second location data of the user network device indicates that the user network device is within a configured range of the selected first hotspot; and providing, by the user network device , an alert regarding the selected first hotspot responsive to the determination that the second location data of the user network device indicates that the user network device is within the configured range of the selected first hotspot.