mhurhangee/ep-ind-claims huggingface dataset:
An isolated peptide having phospholipase inhibitory activity, selected from: a) an isolated peptide comprising an amino acid sequence having at least 65%, at least 70%, at least 75%, at least 80%, at least 85%, at least 90%, at least 95%, at least 97%, or 100% identity to the residues 289-310 of SEQ ID NO: 1 or the residues 154-175 of SEQ ID. NO: 10; b) an isolated peptide encoded by a polynucleotide that hybridizes under medium stringency conditions or high stringency conditions with a peptide coding sequence of SEQ ID NO: 1 or the complementary strand of said peptide coding sequence of SEQ ID NO: 1; or c) an isolated peptide comprising a motif with the following amino acid sequence: M 1 T 2 D 3 X 4 X 5 L 6 E 7 X 8 K 9 L 10 N 11 X 12 Y 13 V 14 X 15 X 16 D 17 X 18 E 19 Y 20 X 21 K 22 where X 4, X 5, X 8, X 12, X 15, X 16, X 18, and X 21 independently may be any amino acid; and wherein the size of the peptide is less than 40 amino acids (aa). a) an isolated peptide comprising an amino acid sequence having at least 65%, at least 70%, at least 75%, at least 80%, at least 85%, at least 90%, at least 95%, at least 97%, or 100% identity to the residues 289-310 of SEQ ID NO: 1 or the residues 154-175 of SEQ ID. NO: 10; b) an isolated peptide encoded by a polynucleotide that hybridizes under medium stringency conditions or high stringency conditions with a peptide coding sequence of SEQ ID NO: 1 or the complementary strand of said peptide coding sequence of SEQ ID NO: 1; or c) an isolated peptide comprising a motif with the following amino acid sequence: M 1 T 2 D 3 X 4 X 5 L 6 E 7 X 8 K 9 L 10 N 11 X 12 Y 13 V 14 X 15 X 16 D 17 X 18 E 19 Y 20 X 21 K 22 where X 4, X 5, X 8, X 12, X 15, X 16, X 18, and X 21 independently may be any amino acid; and wherein the size of the peptide is less than 40 amino acids (aa).
Labeling device for applying labels onto containers comprising a gluing unit for applying glue to the labels, in particular with a glue roller (101, 201) and a storage container (380, 480, 580, 680) for storing glue, characterized by a device (170, 270, 370, 770) for removing glue from the storage container (380, 480, 580, 680) comprising a deformation unit which is designed such that glue is pressed out of the storage container (380, 480, 580, 680) by deforming the storage container (380, 480, 580, 680) by means of the deformation unit; wherein the deformation unit comprises a punch-shaped deformation element (390, 490, 690), which can be brought into contact with the storage container (380, 480, 580, 680), and is configured such that the storage container (380, 480, 580, 680) and the deformation element (390, 490, 690) are movable relative to one another, wherein by a relative movement of the deformation element (390, 490, 690) and the storage container (380, 480, 580, 680), the accommodation volume (381, 481, 581, 681) of the storage container (380, 480, 580, 680) for glue is reduced wherein the deformation element (390, 490, 690) pushes a part of the wall (480a, 585b) of the storage container (380, 480, 580, 680) into the interior of the storage container.
Capsule consisting of a preferably rotationally symmetrical capsule body having a side wall and having a base which is realized integrally with said side wall as well as having a lid which covers the capsule body for forming a closed chamber which contains a substance for the preparation of a beverage, wherein, for conducting a liquid through the chamber, at least the base is penetratable at a penetration region of the base by way of a device which is arranged outside of the capsule, wherein the base has a reinforcement region, and wherein a central region of the base is realized as a penetration region, wherein the reinforcement region is arranged in a rotationally symmetrical manner around the penetration region, wherein the capsule wall has at least two reinforcement ribs which are arranged on the outside substantially parallel to the longitudinal axis and are spaced apart from one another along the circumference, wherein the capsule body including the capsule wall and the reinforcement ribs is realized integrally, characterized in that the reinforcement region is realized in the base as at least two portion-wise recesses substantially in the circumferential direction, and in that the capsule body consists of at least two polymer layers and is produced using a deep-drawing method.
A liquefied-gas storage facility comprising: a plurality of liquefied-gas storage tanks; and a liquefied gas reliquefier for reliquefying boil-off gas ( "BOG") resulting from evaporation of liquefied gas in the liquefied-gas storage tanks to prevent a rise in the internal pressure of the liquefied-gas storage tanks, the liquefied gas reliquefier comprising: a secondary-refrigerant circulating channel through which a secondary refrigerant that is a liquid having a melting point lower than a condensation temperature of the BOG can circulate; a cooling unit disposed in the secondary-refrigerant circulating channel to liquefy the secondary refrigerant; a liquefied-secondary-refrigerant feeding unit for feeding the liquefied secondary refrigerant cooled by the cooling unit through the secondary-refrigerant circulating channel; and a heat exchange unit disposed in the secondary-refrigerant circulating channel to condense the BOG by heat exchange between the BOG and the liquefied secondary refrigerant fed by the liquefied-secondary-refrigerant feeding unit; characterized in that the liquefied-gas storage facility comprises a common header pipe disposed above the plurality of the liquefied-gas storage tanks to recover the BOG from the liquefied-gas storage tanks, the common header pipe having a header bypass pipe extending from the common header pipe in parallel therewith, wherein the heat exchange unit is disposed in a channel of the header bypass pipe. a plurality of liquefied-gas storage tanks; and a liquefied gas reliquefier for reliquefying boil-off gas ( "BOG") resulting from evaporation of liquefied gas in the liquefied-gas storage tanks to prevent a rise in the internal pressure of the liquefied-gas storage tanks, the liquefied gas reliquefier comprising: a secondary-refrigerant circulating channel through which a secondary refrigerant that is a liquid having a melting point lower than a condensation temperature of the BOG can circulate; a cooling unit disposed in the secondary-refrigerant circulating channel to liquefy the secondary refrigerant; a liquefied-secondary-refrigerant feeding unit for feeding the liquefied secondary refrigerant cooled by the cooling unit through the secondary-refrigerant circulating channel; and a heat exchange unit disposed in the secondary-refrigerant circulating channel to condense the BOG by heat exchange between the BOG and the liquefied secondary refrigerant fed by the liquefied-secondary-refrigerant feeding unit; characterized in that the liquefied-gas storage facility comprises a common header pipe disposed above the plurality of the liquefied-gas storage tanks to recover the BOG from the liquefied-gas storage tanks, the common header pipe having a header bypass pipe extending from the common header pipe in parallel therewith, wherein the heat exchange unit is disposed in a channel of the header bypass pipe.
Method for inserting a leak protection lining into a tank, comprising: providing a collapsible cover adapted to the inner shape of the tank, which cover is equipped with a supporting frame of pressurizeable tube segments (15 - 23), which supporting frame can span in a pressurized state the cover at least approximately to said inner shape; inserting the cover in a collapsed state together with its supporting frame in an unpressurized state into the tank via an opening of the tank; and pressurizing the supporting frame with at least one pressure fluid, characterised in that the supporting frame is pressurized with the at least one pressure fluid by means of a first separate pressure fluid source connected to the supporting frame until the cover spans to said inner shape; wherein after or already during pressurizing the supporting frame the cover is inflated with comparably lower pressure or more slowly or time-delayed by means of a second pressure fluid source connected to the cover. providing a collapsible cover adapted to the inner shape of the tank, which cover is equipped with a supporting frame of pressurizeable tube segments (15 - 23), which supporting frame can span in a pressurized state the cover at least approximately to said inner shape; inserting the cover in a collapsed state together with its supporting frame in an unpressurized state into the tank via an opening of the tank; and pressurizing the supporting frame with at least one pressure fluid, characterised in that the supporting frame is pressurized with the at least one pressure fluid by means of a first separate pressure fluid source connected to the supporting frame until the cover spans to said inner shape; wherein after or already during pressurizing the supporting frame the cover is inflated with comparably lower pressure or more slowly or time-delayed by means of a second pressure fluid source connected to the cover.
A method for automatically processing 3D images to identify 3D volumes within the 3D images that correspond to a target tissue region, the method comprising: (a) receiving, by a processor of a computing device, a 3D anatomical image of a subject obtained using an anatomical imaging modality, wherein the 3D anatomical image comprises a graphical representation of tissue within the subject; (b) determining, by the processor, using a first module, an initial volume of interest within the 3D anatomical image, the initial volume of interest corresponding to a particular anatomical region comprising the target region; (c) identifying, by the processor, using a second module, a target volume within the initial volume of interest corresponding to the target tissue region of the subject; and (d) storing and/or providing, by the processor, for display and/or further processing, a 3D segmentation mask corresponding to the identified target volume, wherein the first module is a convolutional neural network module that receives as input and operates on a down-sampled version of the 3D anatomical image having a first resolution and wherein the second module is a convolutional neural network module that receives as input and operates on a high-resolution version of the 3D anatomical image cropped to the initial volume of interest and having a second resolution, the second resolution higher than the first resolution. (a) receiving, by a processor of a computing device, a 3D anatomical image of a subject obtained using an anatomical imaging modality, wherein the 3D anatomical image comprises a graphical representation of tissue within the subject; (b) determining, by the processor, using a first module, an initial volume of interest within the 3D anatomical image, the initial volume of interest corresponding to a particular anatomical region comprising the target region; (c) identifying, by the processor, using a second module, a target volume within the initial volume of interest corresponding to the target tissue region of the subject; and (d) storing and/or providing, by the processor, for display and/or further processing, a 3D segmentation mask corresponding to the identified target volume, wherein the first module is a convolutional neural network module that receives as input and operates on a down-sampled version of the 3D anatomical image having a first resolution and wherein the second module is a convolutional neural network module that receives as input and operates on a high-resolution version of the 3D anatomical image cropped to the initial volume of interest and having a second resolution, the second resolution higher than the first resolution.
A formulation for use in the fabrication of a light emitting device said formulation comprising: a host light emitting diode encapsulation medium; and a plurality of discrete microbeads (4, 5) embedded in the host light emitting diode encapsulation medium, each microbead comprising: an optically transparent medium comprising a polymer matrix; and semiconductor nanoparticles dispersed throughout the polymer matrix of the optically transparent medium, each semiconductor nanoparticle comprising surface-bound ligands which provide compatibility with the polymer matrix of the optically transparent medium, wherein said optically transparent medium comprises: a material selected from the group consisting of poly(methyl (meth)acrylate), poly(ethylene glycol dimethacrylate), poly(vinyl acetate), poly(divinyl benzene), poly(thioether), silica, polyepoxide and combinations thereof; or a copolymer of poly(methyl (meth)acrylate), poly(ethylene glycol dimethacrylate) and poly(vinyl acetate); or polystyrene, polydivinyl benzene and a polythiol. a host light emitting diode encapsulation medium; and a plurality of discrete microbeads (4, 5) embedded in the host light emitting diode encapsulation medium, each microbead comprising: an optically transparent medium comprising a polymer matrix; and semiconductor nanoparticles dispersed throughout the polymer matrix of the optically transparent medium, each semiconductor nanoparticle comprising surface-bound ligands which provide compatibility with the polymer matrix of the optically transparent medium, an optically transparent medium comprising a polymer matrix; and semiconductor nanoparticles dispersed throughout the polymer matrix of the optically transparent medium, each semiconductor nanoparticle comprising surface-bound ligands which provide compatibility with the polymer matrix of the optically transparent medium, wherein said optically transparent medium comprises: a material selected from the group consisting of poly(methyl (meth)acrylate), poly(ethylene glycol dimethacrylate), poly(vinyl acetate), poly(divinyl benzene), poly(thioether), silica, polyepoxide and combinations thereof; or a copolymer of poly(methyl (meth)acrylate), poly(ethylene glycol dimethacrylate) and poly(vinyl acetate); or polystyrene, polydivinyl benzene and a polythiol. a material selected from the group consisting of poly(methyl (meth)acrylate), poly(ethylene glycol dimethacrylate), poly(vinyl acetate), poly(divinyl benzene), poly(thioether), silica, polyepoxide and combinations thereof; or a copolymer of poly(methyl (meth)acrylate), poly(ethylene glycol dimethacrylate) and poly(vinyl acetate); or polystyrene, polydivinyl benzene and a polythiol.
Riluzole for use in the treatment of a mental disorder in an individual in need thereof, wherein said mental disorder is at least one disorder selected from the group consisting of social anxiety disorder, trichotillomania, skin-picking disorder.
A method for replicating a pattern, said method comprising: (a) providing patterned template, wherein said patterned template comprises a patterned template surface having a plurality of recessed or protruded areas formed therein; (b) contacting a volume of a curable perfluoropolyether composition [composition] with said patterned template surface, said composition comprising: - at least one functional perfluoropolyether compound [compound], said compound comprising a (per)fluoropolyoxyalkylene chain [chain (R f)], wherein the molecular weight of said chain R f is more than 1000 and less than 3500; and at least two unsaturated moieties; and - at least one photoinitiator; (c) submitting to UV radiations said composition to yield a mould comprising a patterned mould surface, and separating said mould from said patterned template; (d) contacting said patterned mould surface with a (pre)polymer composition [composition]; (e) processing said composition to yield an article having a patterned surface, and separating said article from said mould, wherein said composition comprises an inorganic filler having an average particle size of less than 1 μm. (a) providing patterned template, wherein said patterned template comprises a patterned template surface having a plurality of recessed or protruded areas formed therein; (b) contacting a volume of a curable perfluoropolyether composition [composition] with said patterned template surface, said composition comprising: - at least one functional perfluoropolyether compound [compound], said compound comprising a (per)fluoropolyoxyalkylene chain [chain (R f)], wherein the molecular weight of said chain R f is more than 1000 and less than 3500; and at least two unsaturated moieties; and - at least one photoinitiator; - at least one functional perfluoropolyether compound [compound], said compound comprising a (per)fluoropolyoxyalkylene chain [chain (R f)], wherein the molecular weight of said chain R f is more than 1000 and less than 3500; and at least two unsaturated moieties; and - at least one photoinitiator; (c) submitting to UV radiations said composition to yield a mould comprising a patterned mould surface, and separating said mould from said patterned template; (d) contacting said patterned mould surface with a (pre)polymer composition [composition]; (e) processing said composition to yield an article having a patterned surface, and separating said article from said mould, wherein said composition comprises an inorganic filler having an average particle size of less than 1 μm.
A robot cleaner comprising: a body (110, 210) having a module location portion (119, 219); a traveling module configured to move the body (110, 210); and a sliding module (130, 230) having a body location portion (132, 232) detachably coupled to the module location portion (119, 219), and being configured to slide along a floor when the body (110, 210) is moved, wherein a mop fixing unit for fixing a replaceable mop is provided between the module location portion (119, 219) and the body location portion (132, 232), characterized in that the sliding module (130, 230) comprises a collection portion (133, 233) recessed in front of a lower side thereof so as to form a space spaced apart from the floor, further comprising an air channel for discharging air introduced from the sliding module (130, 230) to an outside through the body (110, 210) in a state in which the sliding module (130, 230) is coupled to the body (110, 210). a body (110, 210) having a module location portion (119, 219); a traveling module configured to move the body (110, 210); and a sliding module (130, 230) having a body location portion (132, 232) detachably coupled to the module location portion (119, 219), and being configured to slide along a floor when the body (110, 210) is moved, wherein a mop fixing unit for fixing a replaceable mop is provided between the module location portion (119, 219) and the body location portion (132, 232), characterized in that the sliding module (130, 230) comprises a collection portion (133, 233) recessed in front of a lower side thereof so as to form a space spaced apart from the floor, further comprising an air channel for discharging air introduced from the sliding module (130, 230) to an outside through the body (110, 210) in a state in which the sliding module (130, 230) is coupled to the body (110, 210).
An integrated light detection and ranging (LIDAR) device, comprising: an illumination source mounted to a substrate, the illumination source configured to generate a measurement pulse of illumination light; a detector mounted to the substrate, the detector configured to detect a return pulse of light and generate an output signal indicative of the detected return pulse, wherein the return pulse is an amount of the measurement pulse reflected from a location in a three dimensional environment illuminated by a corresponding measurement pulse, wherein the measurement pulse of illumination light and the return pulse share a common optical path over a distance within the integrated LIDAR device; an illumination driver mounted to the substrate, the illumination driver electrically coupled to the illumination source and configured to provide an amount of electrical power to the illumination source that causes the illumination source to emit the measurement pulse of illumination light; a beam splitter mounted to the substrate, the beam splitter configured to separate the return pulse of light and the illumination pulse from the common optical path; and a computing system configured to determine a time of flight of the measurement pulse from the LIDAR device to the measured location in the three dimensional environment and back to the LIDAR device based at least in part on output signal. an illumination source mounted to a substrate, the illumination source configured to generate a measurement pulse of illumination light; a detector mounted to the substrate, the detector configured to detect a return pulse of light and generate an output signal indicative of the detected return pulse, wherein the return pulse is an amount of the measurement pulse reflected from a location in a three dimensional environment illuminated by a corresponding measurement pulse, wherein the measurement pulse of illumination light and the return pulse share a common optical path over a distance within the integrated LIDAR device; an illumination driver mounted to the substrate, the illumination driver electrically coupled to the illumination source and configured to provide an amount of electrical power to the illumination source that causes the illumination source to emit the measurement pulse of illumination light; a beam splitter mounted to the substrate, the beam splitter configured to separate the return pulse of light and the illumination pulse from the common optical path; and a computing system configured to determine a time of flight of the measurement pulse from the LIDAR device to the measured location in the three dimensional environment and back to the LIDAR device based at least in part on output signal.