mhurhangee/ep-ind-claims huggingface dataset:
A computing system for providing textual output of an input method editor to an application editing a body of text, the input method editor executing in a first process and being configured to transform a user input event into textual output for consumption by the application run by the user, the computing system comprising: a first memory region contained in an address space of the first process, configured to store a version of the body of text to which textual output of the input method editor is applied; a second memory region contained in an address space of a second process associated with the application, the second memory region configured to store a version of the body of text to which text modifications performed by the application are applied; wherein the computing system is configured to execute a text input server (213, 700) in the first process and a text input client (221, 750) in the second process, the text input server (213, 700) and the text input client (221, 750) configured to communicate to keep the first memory region synchronized with the second memory region through which the application receives the textual output; wherein the computing system further comprises a reconciliation subsystem configured to reconcile the contents of the first and second memory regions in case of collisions between simultaneous changes of the regions by respectively the input method editor and the application in a manner that favors the contents of the second memory region. a first memory region contained in an address space of the first process, configured to store a version of the body of text to which textual output of the input method editor is applied; a second memory region contained in an address space of a second process associated with the application, the second memory region configured to store a version of the body of text to which text modifications performed by the application are applied; wherein the computing system is configured to execute a text input server (213, 700) in the first process and a text input client (221, 750) in the second process, the text input server (213, 700) and the text input client (221, 750) configured to communicate to keep the first memory region synchronized with the second memory region through which the application receives the textual output; wherein the computing system further comprises a reconciliation subsystem configured to reconcile the contents of the first and second memory regions in case of collisions between simultaneous changes of the regions by respectively the input method editor and the application in a manner that favors the contents of the second memory region.
A combustor for a gas turbine engine, the combustor comprising: a combustor shell (205;302) enclosing a first area of free space (220;307); an igniter (210;304) for the combustor shell (205;302), the igniter including a distal end 211;306) at a radially inward end of the igniter (210;304); and one or more elements (215;303) configured to retain the igniter (210;304) and to interface with the combustor shell (205;302), wherein the one or more elements define a second area of free space (221;308), and wherein the igniter (210;304) is retained within the second area of free space (221;308) such that the distal end 211;306) of the igniter (210;304) is recessed from the first area of free space (220;307) characterized in that; the distal end (211;306) of the igniter (210;304) is angularly offset from a boundary of the first area of free space (220;307) at a non-zero angle up to 45 degrees, wherein said boundary is defined between the shell and the elements. a combustor shell (205;302) enclosing a first area of free space (220;307); an igniter (210;304) for the combustor shell (205;302), the igniter including a distal end 211;306) at a radially inward end of the igniter (210;304); and one or more elements (215;303) configured to retain the igniter (210;304) and to interface with the combustor shell (205;302), wherein the one or more elements define a second area of free space (221;308), and wherein the igniter (210;304) is retained within the second area of free space (221;308) such that the distal end 211;306) of the igniter (210;304) is recessed from the first area of free space (220;307) characterized in that; the distal end (211;306) of the igniter (210;304) is angularly offset from a boundary of the first area of free space (220;307) at a non-zero angle up to 45 degrees, wherein said boundary is defined between the shell and the elements.
Sewer inspection and/or maintenance device, having - a housing, - a sensor device which is arranged in the housing and has at least one sensor element, and - a cleaning device for cleaning at least part of the sensor device, wherein the cleaning device has: - a pressure chamber for receiving a pressurized gas, wherein the pressure chamber is arranged outside the housing and comprises a pressure bottle, - at least one nozzle having an outlet opening which is or can be aligned toward the part of the sensor device to be cleaned, and - a valve which is operatively arranged between the pressure chamber and the nozzle in order to control the application of the gas to the part of the sensor device to be cleaned, wherein - the at least one nozzle is arranged outside the housing and is designed to be pivotable in order to change the angle of the gas outlet channel of the nozzle relative to the part of the sensor device to be cleaned, and/or - the sensor device is articulated pivotably on the sewer inspection and/or maintenance device in order to align the part of the sensor device to be cleaned with the outlet opening of the nozzle. - a housing, - a sensor device which is arranged in the housing and has at least one sensor element, and - a cleaning device for cleaning at least part of the sensor device, - a pressure chamber for receiving a pressurized gas, wherein the pressure chamber is arranged outside the housing and comprises a pressure bottle, - at least one nozzle having an outlet opening which is or can be aligned toward the part of the sensor device to be cleaned, and - a valve which is operatively arranged between the pressure chamber and the nozzle in order to control the application of the gas to the part of the sensor device to be cleaned, - the at least one nozzle is arranged outside the housing and is designed to be pivotable in order to change the angle of the gas outlet channel of the nozzle relative to the part of the sensor device to be cleaned, and/or - the sensor device is articulated pivotably on the sewer inspection and/or maintenance device in order to align the part of the sensor device to be cleaned with the outlet opening of the nozzle.
Fire protection gate with a folding wing made up of serially arranged and hingedly connected segments, which are equipped with travelling trolleys seated staggeredly in fixed guide rails, and at least one of the wing's segments is connected to a string-type driving device, characterised in that its wing (1, 1a) constitutes a flexible jacket (2,2a) in the form of a continuous band of fireproof material, connected to a set of supporting arms (4, 27) interconnected with articulated joints (5, 5a), wherein each supporting arm (4, 27) and adjacent jacket section (2, 2a) form a single segment (3, 3', 3a) of the wing (1, 1a), and travelling trolleys (6, 6', 6a) of the segments (3, 3', 3a) are bonded with every second articulated joint (5, 5a) of their supporting arms (4, 27).
A thiobenzopyran-based compound of Formula I or their pharmaceutically acceptable salts, wherein X was selected from an oxygen atom, a sulfur atom, -SO-, and -SO2-; Y is a sulfur atom; Z is H, Na, or K. wherein X was selected from an oxygen atom, a sulfur atom, -SO-, and -SO2-; Y is a sulfur atom; Z is H, Na, or K.
A first device comprising: means for receiving at least one transport block from a second device on a predetermined bandwidth part for a transmission to the first device, the at least one transport block is transmitted in a set of subbands of the predetermined bandwidth part; means for generating at least one feedback based on a set of reception states of the at least one transport block in the set of subbands; and means for transmitting the at least one feedback to the second device wherein the at least one feedback is configured to cause the second device to adjust a contention window size for a further transmission from the second device to the first device, wherein the at least one feedback is configured to reset the contention window size for a subband in the set of subbands for a successful reception of the at least one transport block in the subband of the set of subbands and to increase the contention window size for an unsuccessful reception of the at least one transport block in the subband of the set of subbands. means for receiving at least one transport block from a second device on a predetermined bandwidth part for a transmission to the first device, the at least one transport block is transmitted in a set of subbands of the predetermined bandwidth part; means for generating at least one feedback based on a set of reception states of the at least one transport block in the set of subbands; and means for transmitting the at least one feedback to the second device wherein the at least one feedback is configured to cause the second device to adjust a contention window size for a further transmission from the second device to the first device, wherein the at least one feedback is configured to reset the contention window size for a subband in the set of subbands for a successful reception of the at least one transport block in the subband of the set of subbands and to increase the contention window size for an unsuccessful reception of the at least one transport block in the subband of the set of subbands.
A seal ring element for providing a fluid seal and a permanent joint between a polymer layer and an end fitting of a flexible pipe, comprising: an annular body that has a cross section comprising a first arm portion and a further arm portion extending in a spaced apart relationship away from a body end portion; wherein first arm portion comprises a first abutment surface that faces a corresponding further abutment surface of the further arm portion, said first and further abutment surfaces being progressively spaced apart in a direction away from the body end portion, to provide a flat bottomed V-shaped groove in the annular body facing away from the body end portion; wherein an outer pipe body facing surface of the first arm portion is substantially flat and extends into a pipe body facing surface of the end portion via a cut out region, and wherein the first and further arm portions are substantially wedge shaped, wherein the first arm portion tapers to a narrow first arm end region distal to the body end portion, and the further arm portion tapers to a narrow further arm end region distal to the body end portion, characterised in that the cut out region is full of gap filler material. an annular body that has a cross section comprising a first arm portion and a further arm portion extending in a spaced apart relationship away from a body end portion; wherein first arm portion comprises a first abutment surface that faces a corresponding further abutment surface of the further arm portion, said first and further abutment surfaces being progressively spaced apart in a direction away from the body end portion, to provide a flat bottomed V-shaped groove in the annular body facing away from the body end portion; wherein an outer pipe body facing surface of the first arm portion is substantially flat and extends into a pipe body facing surface of the end portion via a cut out region, and wherein the first and further arm portions are substantially wedge shaped, wherein the first arm portion tapers to a narrow first arm end region distal to the body end portion, and the further arm portion tapers to a narrow further arm end region distal to the body end portion, characterised in that the cut out region is full of gap filler material.
A refueling portion structure of a fuel tank, comprising: a refueling pipe that has a refueling port into which a refueling nozzle is to be inserted, and that communicates with a fuel tank;and an opening/closing valve that is provided on a flow path within the refueling pipe and closes the flow path, and that, when pushed by the refueling nozzle, opens the flow path; characterized by comprising: a valve opening/closing device that, in a case in which a tank internal pressure of the fuel tank exceeds a set value that is set in advance, restricts or inhibits opening operation of the opening/closing valve, and, in a case in which the tank internal pressure is less than or equal to the set value, permits the opening operation of the opening/closing valve. a refueling pipe that has a refueling port into which a refueling nozzle is to be inserted, and that communicates with a fuel tank;and an opening/closing valve that is provided on a flow path within the refueling pipe and closes the flow path, and that, when pushed by the refueling nozzle, opens the flow path; characterized by comprising: a valve opening/closing device that, in a case in which a tank internal pressure of the fuel tank exceeds a set value that is set in advance, restricts or inhibits opening operation of the opening/closing valve, and, in a case in which the tank internal pressure is less than or equal to the set value, permits the opening operation of the opening/closing valve. a valve opening/closing device that, in a case in which a tank internal pressure of the fuel tank exceeds a set value that is set in advance, restricts or inhibits opening operation of the opening/closing valve, and, in a case in which the tank internal pressure is less than or equal to the set value, permits the opening operation of the opening/closing valve.
A method for manufacturing a membrane-electrode assembly comprising: (a) preparing a catalyst slurry composition comprising a platinum-coated carbon powder (Pt/C) catalyst, an ionomer and a solvent A; (b) stirring the catalyst slurry composition; (c) homogenizing the catalyst slurry composition gone through (b) by sonication treatment; (d) drying the catalyst slurry composition gone through (c) at a temperature of 30°C to 100°C; (e) adding a solvent B to the catalyst composition gone through (d); (f) rehomogenizing the catalyst slurry composition gone through (e) by sonication treatment; and (g) forming a catalyst layer by coating the catalyst slurry composition gone through (f) on a substrate, drying the result, and then transferring the substrate on one surface or both surfaces of an electrolyte membrane, wherein the catalyst layer of (g) has a thickness of 5 μm to 15 μm. (a) preparing a catalyst slurry composition comprising a platinum-coated carbon powder (Pt/C) catalyst, an ionomer and a solvent A; (b) stirring the catalyst slurry composition; (c) homogenizing the catalyst slurry composition gone through (b) by sonication treatment; (d) drying the catalyst slurry composition gone through (c) at a temperature of 30°C to 100°C; (e) adding a solvent B to the catalyst composition gone through (d); (f) rehomogenizing the catalyst slurry composition gone through (e) by sonication treatment; and (g) forming a catalyst layer by coating the catalyst slurry composition gone through (f) on a substrate, drying the result, and then transferring the substrate on one surface or both surfaces of an electrolyte membrane,
An electrode comprising a current collector, and an active material-including layer comprising a first layer which is provided on a surface of the current collector and comprises lithium titanium oxide having a spinel structure, and a second layer which is provided on the first layer and comprises a monoclinic β-type titanium composite oxide, characterized in that the electrode satisfies the following formula: 0 < F 1 / F 2 ≤ 1.5 wherein F 1 is a frequency of peaks in a frequency distribution of particle size for the lithium titanium oxide in the first layer, and F 2 is a frequency of peaks in a frequency distribution of particle size for the monoclinic β-type titanium composite oxide in the second layer.
A method, carried out by a processor, for predicting a specific respiratory pathogen in a group of farm animals, comprising the following steps: a) acquiring digital data obtained by converting an analogue recording of sounds generated in the group of the farm animals continuously over a recording period of at least two weeks; c) performing a filtering operation, which filters off background noises from sounds caused by respiratory distress; d) counting the number of sounds caused by respiratory distress during the recording period of at least two weeks; the method being characterised by: e) calculating a pattern of a respiratory distress index, said pattern being the number of sounds caused by respiratory distress within pre-defined periods of 5 to 48 hours; f) monitoring and storing the pattern of the RDI; g) comparing data of the RDI pattern with a stored table containing data of different RDI patterns generated by several different respiratory pathogens; and h) if the RDI pattern matches one of the different steored RDI patterns, reporting the respiratory pathogen, which corresponds to the matching RDI patterns. a) acquiring digital data obtained by converting an analogue recording of sounds generated in the group of the farm animals continuously over a recording period of at least two weeks; c) performing a filtering operation, which filters off background noises from sounds caused by respiratory distress; d) counting the number of sounds caused by respiratory distress during the recording period of at least two weeks; e) calculating a pattern of a respiratory distress index, said pattern being the number of sounds caused by respiratory distress within pre-defined periods of 5 to 48 hours; f) monitoring and storing the pattern of the RDI; g) comparing data of the RDI pattern with a stored table containing data of different RDI patterns generated by several different respiratory pathogens; and h) if the RDI pattern matches one of the different steored RDI patterns, reporting the respiratory pathogen, which corresponds to the matching RDI patterns.
Motor vehicle headlamp comprising a housing and at least one light module arranged therein, the light module comprising at least one semiconductor light source fixed and electrically contacted on a circuit board and a focusing optic and a heat sink, on which the board and the focusing optics are fixed, the heat sink comprising a sheet metal part bent into a three-dimensional shape about at least one bending axis, characterised in that the sheet metal part itself consists of a fixed portion which is fixed in relation to a housing of the headlamp, when the light module is mounted in the housing of the headlamp and a portion movable relative to the fixed portion, wherein the board with the at least one semiconductor light source and the focusing optics are fixed on the movable section of the sheet metal part and the movable section, for adjusting the light module installed in the housing of the headlamp, is movable together with the at least one semiconductor light source and the focusing optics relative to the fixed section and can be fixed in an adjusted position relative thereto.
A method for remote management of a target device coupled to a gateway apparatus, the method comprising at the gateway apparatus: - receiving a message from a management server over a network; - determining that said message pertains to device instruction data on the basis of an object identified in said message; - extracting said device instruction data from said message; - extracting target device information from said message; - obtaining at least one device instruction corresponding to said device instruction data; and - forwarding said at least one device instruction to a target device designated by said target device information; wherein said message is formatted in accordance with an object-directed remote device management protocol; and wherein said at least one device instruction is expressed in accordance with a management instruction set associated with said target device. - receiving a message from a management server over a network; - determining that said message pertains to device instruction data on the basis of an object identified in said message; - extracting said device instruction data from said message; - extracting target device information from said message; - obtaining at least one device instruction corresponding to said device instruction data; and - forwarding said at least one device instruction to a target device designated by said target device information; wherein said message is formatted in accordance with an object-directed remote device management protocol; and wherein said at least one device instruction is expressed in accordance with a management instruction set associated with said target device.
A thermostable β-glucosidase comprising a β-glucosidase catalytic domain, the β-glucosidase catalytic domain comprising: a polypeptide comprising an amino acid sequence represented by SEQ ID NO: 1 or 2; a polypeptide comprising an amino acid sequence in which 1 to 20 amino acids have been deleted, substituted, or added in the amino acid sequence represented by SEQ ID NO: 1 or 2, and having hydrolytic activity using p-nitrophenyl-β-D-glucopyranoside as a substrate at least under conditions of a temperature of 100°C and a pH of 5.5; or a polypeptide comprising an amino acid sequence having at least 90% sequence identity with the amino acid sequence represented by SEQ ID NO: 1 or 2, and having hydrolytic activity using p-nitrophenyl-β-D-glucopyranoside as a substrate at least under conditions of a temperature of ioo°C and a pH of 5.5. a polypeptide comprising an amino acid sequence represented by SEQ ID NO: 1 or 2; a polypeptide comprising an amino acid sequence in which 1 to 20 amino acids have been deleted, substituted, or added in the amino acid sequence represented by SEQ ID NO: 1 or 2, and having hydrolytic activity using p-nitrophenyl-β-D-glucopyranoside as a substrate at least under conditions of a temperature of 100°C and a pH of 5.5; or a polypeptide comprising an amino acid sequence having at least 90% sequence identity with the amino acid sequence represented by SEQ ID NO: 1 or 2, and having hydrolytic activity using p-nitrophenyl-β-D-glucopyranoside as a substrate at least under conditions of a temperature of ioo°C and a pH of 5.5.
A timed release pharmaceutical composition comprising donepezil or a pharmaceutically acceptable salt thereof, wherein the composition is a coated composition, which comprises: a) a core comprising donepezil in an amount from 3 mg to 50 mg, and one or more release controlling agent(s), and b) a functional coating comprising one or more release controlling agent(s); wherein the release controlling agent(s) is/are selected from hydrophilic release controlling agents, hydrophobic release controlling agents, natural release controlling agents and synthetic release controlling agents; the amount of release controlling agent in the composition is 10% w/w to 50% w/w by total weight of the composition; and the composition exhibits the following in vitro dissolution profile when tested in a Paddle dissolution apparatus at 50 rpm in 900 ml pH 6.8 buffer at 37°C less than 20% w/w of donepezil is released in 3-4 hrs, and more than 85% w/w of donepezil is released after 12 hrs. a) a core comprising donepezil in an amount from 3 mg to 50 mg, and one or more release controlling agent(s), and b) a functional coating comprising one or more release controlling agent(s);