mhurhangee/ep-ind-claims huggingface dataset:
A compound of formula A, selected from the group consisting of: (3,4-dimethylphenyl)(fluoromethyl)(phenyl) sulfonium tetrafluoroborate; (2,5-dimethylphenyl)(fluoromethyl)(phenyl) sulfonium tetrafluoroborate; (3,4-dimethylphenyl)(fluoromethyl)(p-tolyl) sulfonium tetrafluoroborate; (2,5-dimethylphenyl)(fluoromethyl)(p-tolyl) sulfonium tetrafluoroborate; (fluoromethyl)(isopropylphenyl)(p-tolyl) sulfonium tetrafluoroborate; ( tert -butyl) phenyl)(fluoromethyl)(p-tolyl) sulfonium triflate; ( tert -butyl) phenyl)(fluoromethyl)(p-tolyl) sulfonium tetrafluoroborate; (fluoromethyl)(2,3,4,5-tetramethylphenyl)(p-tolyl)sulfonium triflate; (fluoromethyl)(2,3,4,5-tetramethylphenyl)(p-tolyl)sulfonium tetrafluoroborate; (chloromethyl)(phenyl)(2,3,4,5-tetramethylphenyl) sulfonium triflate; (chloromethyl)(phenyl)(2,3,4,5-tetramethylphenyl) sulfonium tetrafloroborate; (chloromethyl)(3,4-dimethylphenyl)(phenyl) sulfonium triflate; (chloromethyl)(2,5-dimethylphenyl)(phenyl) sulfonium triflate; (chloromethyl)(isopropylphenyl)(phenyl) sulfonium triflate; (4-(tert-butyl)phenyl)(chloromethyl)(phenyl) sulfonium triflate; (chloromethyl)(2,3,4,5-tetramethylphenyl)(p-tolyl)sulfonium triflate; (chloromethyl)(2,3,4,5-tetramethylphenyl)(p-tolyl)sulfonium tetrafluoroborate; (bromomethyl)(phenyl)(2,3,4,5-tetramethylphenyl) sulfonium triflate; (bromomethyl)(phenyl)(2,3,4,5-tetramethylphenyl) sulfonium tetrafluoroborate; (bromomethyl)(2,3,4,5-tetramethylphenyl)(p-tolyl)sulfonium tetrafluoroborate; and (bromomethyl)(2,3,4,5-tetramethylphenyl)(p-tolyl)sulfonium triflate. (3,4-dimethylphenyl)(fluoromethyl)(phenyl) sulfonium tetrafluoroborate; (2,5-dimethylphenyl)(fluoromethyl)(phenyl) sulfonium tetrafluoroborate; (3,4-dimethylphenyl)(fluoromethyl)(p-tolyl) sulfonium tetrafluoroborate; (2,5-dimethylphenyl)(fluoromethyl)(p-tolyl) sulfonium tetrafluoroborate; (fluoromethyl)(isopropylphenyl)(p-tolyl) sulfonium tetrafluoroborate; ( tert -butyl) phenyl)(fluoromethyl)(p-tolyl) sulfonium triflate; ( tert -butyl) phenyl)(fluoromethyl)(p-tolyl) sulfonium tetrafluoroborate; (fluoromethyl)(2,3,4,5-tetramethylphenyl)(p-tolyl)sulfonium triflate; (fluoromethyl)(2,3,4,5-tetramethylphenyl)(p-tolyl)sulfonium tetrafluoroborate; (chloromethyl)(phenyl)(2,3,4,5-tetramethylphenyl) sulfonium triflate; (chloromethyl)(phenyl)(2,3,4,5-tetramethylphenyl) sulfonium tetrafloroborate; (chloromethyl)(3,4-dimethylphenyl)(phenyl) sulfonium triflate; (chloromethyl)(2,5-dimethylphenyl)(phenyl) sulfonium triflate; (chloromethyl)(isopropylphenyl)(phenyl) sulfonium triflate; (4-(tert-butyl)phenyl)(chloromethyl)(phenyl) sulfonium triflate; (chloromethyl)(2,3,4,5-tetramethylphenyl)(p-tolyl)sulfonium triflate; (chloromethyl)(2,3,4,5-tetramethylphenyl)(p-tolyl)sulfonium tetrafluoroborate; (bromomethyl)(phenyl)(2,3,4,5-tetramethylphenyl) sulfonium triflate; (bromomethyl)(phenyl)(2,3,4,5-tetramethylphenyl) sulfonium tetrafluoroborate; (bromomethyl)(2,3,4,5-tetramethylphenyl)(p-tolyl)sulfonium tetrafluoroborate; and (bromomethyl)(2,3,4,5-tetramethylphenyl)(p-tolyl)sulfonium triflate.
Light pole foundation stone having a receptacle for receiving a light pole in sections, wherein the receptacle has an opening for introducing the light pole into the receptacle, wherein the opening is arranged in the region of a head end of the light pole foundation stone, characterized in that a cable lead-through opening is arranged at one end of the receptacle opposite the opening, in that a foot end of the light pole foundation stone opposite the head end of the light pole foundation stone has a groove, and in that the cable lead-through opening opens into this groove.
Apparatus for automatically stacking packages on a support in a predetermined spatial arrangement to form a stack including - at least one supply conveyor, which provides the individual packages in a predetermined sequence; - a raising and lowering unit for raising and lowering a support (R, 8), arranged in a stacking location in the Y direction; - shifting means adjoining a delivery end of the supply conveyor, which take over the packages from the supply conveyor and transport them to the predetermined position in the stack; wherein the shifting means include: - a positioning conveyor adjoining the delivery end of the supply conveyor, which is arranged horizontally and along one side of the stacking location in order to position the packages in the X direction, - at least one sliding plate and a pusher in order to transport the packages from the positioning conveyor in the Z direction to the predetermined position in the stack, wherein the at least one sliding plate is constructed in the form of a flat, lamellar plate formed horizontally and along the side of the stacking location and movable transversely thereto in order to take over the packages, when the packages are slid off the positioning conveyor by the pusher to the X direction position and to deposit them in the Z direction on the support (R, 8, 45) or in the stack, characterised in that the apparatus includes a spreading device, which spreads the side walls of a roller container for stacking at least vertically or bent slightly obliquely outwardly, wherein the spreading device includes two movable pegs, which are arranged at the same height in the region of the expected side walls of the trolley and project into the stacking location, wherein the pegs are movable between a spreading position and a non-spreading position. - at least one supply conveyor, which provides the individual packages in a predetermined sequence; - a raising and lowering unit for raising and lowering a support (R, 8), arranged in a stacking location in the Y direction; - shifting means adjoining a delivery end of the supply conveyor, which take over the packages from the supply conveyor and transport them to the predetermined position in the stack; - a positioning conveyor adjoining the delivery end of the supply conveyor, which is arranged horizontally and along one side of the stacking location in order to position the packages in the X direction, - at least one sliding plate and a pusher in order to transport the packages from the positioning conveyor in the Z direction to the predetermined position in the stack,
A composition for use in a method for treating a subject suffering from a pulmonary disease or disorder, wherein the composition comprises a poly (acetyl, arginyl) glucosamine (PAAG) comprising the following formula: wherein: n is an integer between 20 and 6000; and each R 1 is independently selected for each occurrence from hydrogen, acetyl, wherein at least 25% of R 1 substituents are H, at least 1% of R 1 substituents are acetyl, and at least 2% of R 1 substituents are wherein the osmolality of the composition is between 150-550 mOsmol/kg; and wherein the method increases mucociliary transport or clearance, thereby treating the disease or disorder; wherein the disease or disorder is Acute Respiratory Distress Syndrome (ARDS). n is an integer between 20 and 6000; and each R 1 is independently selected for each occurrence from hydrogen, acetyl, wherein at least 25% of R 1 substituents are H, at least 1% of R 1 substituents are acetyl, and at least 2% of R 1 substituents are wherein the osmolality of the composition is between 150-550 mOsmol/kg; and wherein the method increases mucociliary transport or clearance, thereby treating the disease or disorder; wherein the disease or disorder is Acute Respiratory Distress Syndrome (ARDS).
A computer-implemented method of processing image data, the method comprising: receiving the image data, wherein the image data is scanning transmission charged-particle microscope, STCPM, image data representing a STCPM scan obtained at a first focus depth; and processing a system of equations expressing the image data as a sum of contributions from a plurality of slices of the sample at a plurality of focus depths, wherein each equation of the system of equations relates at least a portion of the image data to: at least one of a plurality of contrast transfer functions of the STCPM, each contrast transfer function of the STCPM being determined at a different respective focus depth; and at least one set of unknown objects of the STCPM, each unknown object in a set being at a different respective focus depth; wherein the step of processing comprises solving the system of equations to obtain at least one of the plurality of unknown objects of the STCPM. receiving the image data, wherein the image data is scanning transmission charged-particle microscope, STCPM, image data representing a STCPM scan obtained at a first focus depth; and processing a system of equations expressing the image data as a sum of contributions from a plurality of slices of the sample at a plurality of focus depths, wherein each equation of the system of equations relates at least a portion of the image data to: at least one of a plurality of contrast transfer functions of the STCPM, each contrast transfer function of the STCPM being determined at a different respective focus depth; and at least one set of unknown objects of the STCPM, each unknown object in a set being at a different respective focus depth; wherein the step of processing comprises solving the system of equations to obtain at least one of the plurality of unknown objects of the STCPM.
A membrane-based bio-reactor water treatment system comprising: a water in-take for receiving source water into the system; a solids removal module configured to receive the source water from the water in-take; a pretreatment module configured to receive the source water from the solids removal module, suitable for initial separation of particles from source water; an aeration zone configured to receive the source water from the pretreatment module; a membrane module configured to receive the source water from the aeration zone; a hydrodynamic separator configured within the system to receive the source water prior to the source water being received by the membrane module, the hydrodynamic separator configured to remove total suspended solids from the source water prior to the source water being received by the membrane module; and a line configured to receive the particles from the pretreatment module in the form of sludge and receive the TSS from the hydrodynamic separator in the form of sludge, and remove the particles and the TSS from the system in the form of sludge; said hydrodynamic separator being comprised of a plurality of curved hydrodynamic devices stacked in a parallel manner; wherein said plurality of curved hydrodynamic devices comprises an inlet coupler and/or at least one outlet coupler (1404/1406). a water in-take for receiving source water into the system; a solids removal module configured to receive the source water from the water in-take; a pretreatment module configured to receive the source water from the solids removal module, suitable for initial separation of particles from source water; an aeration zone configured to receive the source water from the pretreatment module; a membrane module configured to receive the source water from the aeration zone; a hydrodynamic separator configured within the system to receive the source water prior to the source water being received by the membrane module, the hydrodynamic separator configured to remove total suspended solids from the source water prior to the source water being received by the membrane module; and a line configured to receive the particles from the pretreatment module in the form of sludge and receive the TSS from the hydrodynamic separator in the form of sludge, and remove the particles and the TSS from the system in the form of sludge; said hydrodynamic separator being comprised of a plurality of curved hydrodynamic devices stacked in a parallel manner; wherein said plurality of curved hydrodynamic devices comprises an inlet coupler and/or at least one outlet coupler (1404/1406).
Method for bonding at least two substrates, each substrate comprising glass, silicon, ceramic, or a combination thereof using an intermediate thin film metal layer for providing the bonding, said method comprising the following steps of: a) providing said two substrates; b) depositing said thin film metal layer (33, 43, 53) on at least a part of a surface (32, 42, 52) of a first substrate (31, 41, 51) of the two substrates; c) bringing a surface of the second substrate into contact with said thin film metal layer (33, 43, 53) on said surface of the first substrate (31, 41, 51) such that an initial bonding between the second substrate and the thin film metal layer (33, 43, 53) on the first substrate (31, 41, 51) is provided; and d) at least locally strengthening the bonding between the second substrate and the thin film metal layer (33, 43, 53) on the first substrate (31, 41, 51), wherein step (d) is performed by at least locally heating said thin film metal layer (33, 43, 53) by means of a laser, wherein at least one of the substrates is transparent for the radiation of said laser, characterized in that said heating is performed by irradiating a predetermined first pattern in the thin film metal layer (33, 43, 53) by means of said laser, forming a laser weld (50A, 50B, 150), said laser having a laser power selected such that irradiated parts of the thin film metal layer diffuse into parts of the substrates that surround said first pattern such that said laser weld becomes electrically non-conductive, wherein said first pattern defines an unirradiated second pattern that remains electrically conductive. a) providing said two substrates; b) depositing said thin film metal layer (33, 43, 53) on at least a part of a surface (32, 42, 52) of a first substrate (31, 41, 51) of the two substrates; c) bringing a surface of the second substrate into contact with said thin film metal layer (33, 43, 53) on said surface of the first substrate (31, 41, 51) such that an initial bonding between the second substrate and the thin film metal layer (33, 43, 53) on the first substrate (31, 41, 51) is provided; and d) at least locally strengthening the bonding between the second substrate and the thin film metal layer (33, 43, 53) on the first substrate (31, 41, 51), wherein step (d) is performed by at least locally heating said thin film metal layer (33, 43, 53) by means of a laser, wherein at least one of the substrates is transparent for the radiation of said laser, characterized in that said heating is performed by irradiating a predetermined first pattern in the thin film metal layer (33, 43, 53) by means of said laser, forming a laser weld (50A, 50B, 150), said laser having a laser power selected such that irradiated parts of the thin film metal layer diffuse into parts of the substrates that surround said first pattern such that said laser weld becomes electrically non-conductive, wherein said first pattern defines an unirradiated second pattern that remains electrically conductive.
An audio recognition apparatus comprising: a speech feature detection unit that acquires audio information obtained by a speech of a user and detects a feature of the speech from the audio information; a specific silent period detection unit that detects a specific silent period that is a specific short silent period not determined as a silent period in processing of detecting a speech section in which the audio information includes audio; a selection unit that selects audio recognition processing to be performed on the audio information on the basis of the feature of the speech that has been detected from the audio information by the speech feature detection unit, and the specific silent period that has been detected from the audio information by the specific silent period detection unit; and an output processing unit that outputs, along with an audio recognition result obtained by recognition in the audio recognition processing that has been selected by the selection unit, an audio recognition result information indicating the audio recognition processing in which the audio recognition result has been obtained. a speech feature detection unit that acquires audio information obtained by a speech of a user and detects a feature of the speech from the audio information; a specific silent period detection unit that detects a specific silent period that is a specific short silent period not determined as a silent period in processing of detecting a speech section in which the audio information includes audio; a selection unit that selects audio recognition processing to be performed on the audio information on the basis of the feature of the speech that has been detected from the audio information by the speech feature detection unit, and the specific silent period that has been detected from the audio information by the specific silent period detection unit; and an output processing unit that outputs, along with an audio recognition result obtained by recognition in the audio recognition processing that has been selected by the selection unit, an audio recognition result information indicating the audio recognition processing in which the audio recognition result has been obtained.
Compact head-up display, notably for an automobile vehicle, comprising: - an image generator configured for displaying an image on a display surface, - a semi-reflecting optical element arranged at a distance from the image generator and configured for forming, on a first side of the optical element, a virtual image of the image of the image generator, the virtual image being visible from a viewing window situated on a second side of the optical element, characterized in that the display comprises an optical component configured for lengthening the optical path of the image passing through it going from the image generator to the optical element, the optical component comprising at least one entry face and one exit face for the image, together with a first reflecting face and a second reflecting face, the first reflecting face being configured for reflecting the image from the entry face toward the second reflecting face, and the second reflecting face being configured for reflecting the image from the first reflecting face toward the exit face, the entry face being furthermore substantially in contact with the display surface of the image generator. - an image generator configured for displaying an image on a display surface, - a semi-reflecting optical element arranged at a distance from the image generator and configured for forming, on a first side of the optical element, a virtual image of the image of the image generator, the virtual image being visible from a viewing window situated on a second side of the optical element,
- A system allowing the acquisition of biometric and biographical data of an individual, characterized in that it comprises in combination at least the following elements: • a station into which at least one of the following elements are integrated: a sensor of biometric prints, a camera for taking a picture of said individual, a feedback screen, the station comprising a framework receiving the camera, • a gantry on which the station is disposed, the gantry comprising lighting means adapted for ensuring lighting complying with given conditions of acquisition of the biometric data, • the lighting means being composed of a curved metallic reflector fixed to the rear and to the apex of the gantry with respect to the individual, of a first upper light tube placed substantially horizontally, furnished with a protection, which is lowered and oriented toward said reflector, a second light tube disposed substantially horizontally in the lower part of the framework, the power P 2 of the second light tube being lower than that P 1 of the first light tube, • said station being linked by a connection setup to a microcomputer. • a station into which at least one of the following elements are integrated: a sensor of biometric prints, a camera for taking a picture of said individual, a feedback screen, the station comprising a framework receiving the camera, • a gantry on which the station is disposed, the gantry comprising lighting means adapted for ensuring lighting complying with given conditions of acquisition of the biometric data, • the lighting means being composed of a curved metallic reflector fixed to the rear and to the apex of the gantry with respect to the individual, of a first upper light tube placed substantially horizontally, furnished with a protection, which is lowered and oriented toward said reflector, a second light tube disposed substantially horizontally in the lower part of the framework, the power P 2 of the second light tube being lower than that P 1 of the first light tube, • said station being linked by a connection setup to a microcomputer.
A humidity management device comprising: a chamber having a first end and a second end; an air inlet disposed adjacent the first end, wherein the air inlet is configured to receive input air having a first humidity level; and an air outlet disposed adjacent the second end; characterized by further comprising a rotatable brush disposed between the first and second ends (4a, 4c), the brush having a sorbent-carrying surface; and sorbent distribution means configured to distribute a sorbent over the sorbent-carrying surface, wherein the air outlet is configured to draw said input air to contact the sorbent-carrying surface to thereby change a moisture content of said input air such that output air exiting the air outlet has a second humidity level different from the first humidity level. a chamber having a first end and a second end; an air inlet disposed adjacent the first end, wherein the air inlet is configured to receive input air having a first humidity level; and an air outlet disposed adjacent the second end; characterized by further comprising a rotatable brush disposed between the first and second ends (4a, 4c), the brush having a sorbent-carrying surface; and sorbent distribution means configured to distribute a sorbent over the sorbent-carrying surface, wherein the air outlet is configured to draw said input air to contact the sorbent-carrying surface to thereby change a moisture content of said input air such that output air exiting the air outlet has a second humidity level different from the first humidity level.
Long-acting human, recombinant soluble tumor necrosis factor α receptor (LHusTNFR) for use in a method of treating early-stage severe liver injury on chronic liver disease or early-stage hepatic necrosis on the basis of chronic liver diseases to significantly reduce the mortality rate of people with early-stage severe liver injury on chronic liver disease, wherein the chronic liver disease includes liver fibrosis, liver cirrhosis and non-alcoholic fatty liver disease.
A transgenic glyphosate tolerant cotton plant, or cells, parts, seed or progeny thereof, each comprising an elite event in its genome, said elite event comprising a foreign DNA comprising a chimeric gene which comprises the coding sequence of a modified epsps gene from Zea mays encoding a glyphosate tolerant EPSPS enzyme, under the control of a plant-expressible promoter of a histone gene, and wherein said elite event comprises - SEQ ID NO 1, nucleotides 1-732 of SEQ ID No 1 being immediately upstream of and contiguous with said foreign DNA and nucleotides 733-1214 of SEQ ID NO 1 being foreign DNA and - SEQ ID No2, nucleotides 431-654 of SEQ ID No 2 being immediately downstream of and contiguous with said foreign DNA, and nucleotides 1 to 430 of SEQ ID No2 being foreign DNA wherein said elite event is comprised in reference seed deposited at the ATCC under deposit number PTA-6878, the genomic DNA of said cotton plant, or cells, parts, seed or progeny thereof when analyzed in a PCR identification protocol with two primers comprising the nucleotide sequence of SEQ ID No 3 and SEQ ID No 11 respectively, yields a DNA fragment of 334 bp. - SEQ ID NO 1, nucleotides 1-732 of SEQ ID No 1 being immediately upstream of and contiguous with said foreign DNA and nucleotides 733-1214 of SEQ ID NO 1 being foreign DNA and - SEQ ID No2, nucleotides 431-654 of SEQ ID No 2 being immediately downstream of and contiguous with said foreign DNA, and nucleotides 1 to 430 of SEQ ID No2 being foreign DNA