mhurhangee/ep-ind-claims huggingface dataset:
Process for enzymatically synthesizing carboxylic esters with enzyme immobilizates produced using whole cells, resting cells, purified enzymes or cell extracts which comprise the enzymes in question, or mixtures thereof without using stirrers in the reaction chamber, characterized in that mixing of the reactants and discharge of the water of reaction are effected by introducing a gas while achieving low effectiveness ratios EV, where a conversion rate of 95% is achieved with an effectiveness ratio EV 95 of < 3.0, where the effectiveness ratio is calculated according to EV n = ER n /TR n where ER n is the effective reaction time and TR n = theoretical minimum reaction time to attain the conversion level n, with n = conversion level of 95%.
An intraocular lens, comprising a plurality of drug-containing microspheres attached to the intraocular lens, wherein the intraocular lens comprises one or more haptics, wherein drug-containing microspheres are configured to be and are attached to at least one of the one or more haptics, wherein an optic of the intraocular lens is free of drug-containing microspheres, and characterised in that the drug-containing microspheres are configured to be and are covalently bonded to the at least one haptic.
A method for secretory expression of lysostaphin in Escherichia coli, characterized by comprising the steps of: Constructing an expression vector, including linking a signal peptide-encoding DNA sequence to part or whole gene sequence of mature lysostaphin, and linking thus cloned sequence to a promoter; wherein the signal peptide is phoA, OmpA, Lysn or pelB, Transforming Escherichia coli with the vector constructed in step, culturing and fermenting; Isolating the lysostaphin from the fermentation supernatant. Constructing an expression vector, including linking a signal peptide-encoding DNA sequence to part or whole gene sequence of mature lysostaphin, and linking thus cloned sequence to a promoter; wherein the signal peptide is phoA, OmpA, Lysn or pelB, Transforming Escherichia coli with the vector constructed in step, culturing and fermenting; Isolating the lysostaphin from the fermentation supernatant.
A service sending method, wherein the method comprises: obtaining, by a network device, at least two data streams, wherein the at least two data streams comprise a first data stream and a second data stream; identifying at least two idle blocks in the second data stream, generating a first information block and a second information block at locations of the at least two idle blocks; inserting the first data stream into the second data stream, to generate a third data stream, wherein the third data stream comprises the first information block and the second information block, and wherein the first information block and the second information block are generated from the second data stream; and wherein the first information block is used to carry the first data stream, the second information block is used to carry a first data stream distribution indication map, the first data stream distribution indication map is used to indicate a location of the first information block, and the second information block is identified by using a preset map block type; and sending the third data stream. obtaining, by a network device, at least two data streams, wherein the at least two data streams comprise a first data stream and a second data stream; identifying at least two idle blocks in the second data stream, generating a first information block and a second information block at locations of the at least two idle blocks; inserting the first data stream into the second data stream, to generate a third data stream, wherein the third data stream comprises the first information block and the second information block, and wherein the first information block and the second information block are generated from the second data stream; and wherein the first information block is used to carry the first data stream, the second information block is used to carry a first data stream distribution indication map, the first data stream distribution indication map is used to indicate a location of the first information block, and the second information block is identified by using a preset map block type; and sending the third data stream.
Method for the manufacture of an abrasive bristle, wherein a plastic material is melted and a granular material made of abrasive particles is mixed into the melt, and wherein the melt with the abrasive particles is extruded into a filament, and the filament is subsequently treated and cut up, characterized in that the plastic material is a high-temperature-resistant polymer being selected from the group comprising polyetheretherketones (PEEK) and partially aromatic polyamides including mixtures or blends of partially aromatic polyamides, with a continued use temperature of ≥ 150°C, and in that the melt with the abrasive particles is extruded at a temperature of ≥ 280°C.
Composition comprising rosemarinic acid for use in slowing down cataract progression in a companion animal, wherein said rosemarinic acid is present from 3% to 10% by weight of the composition on a dry matter basis.
A plasmid coding for an IL-12 immunostimulatory cytokine for use in a method of treating a subject having a cancerous tumor, the method comprising: a) injecting the cancerous tumor with an effective dose of the plasmid; b) administering electroporation therapy to the tumor; and c) administering an effective dose of a PD-1 or PD-L1 antagonist to the subject. a) injecting the cancerous tumor with an effective dose of the plasmid; b) administering electroporation therapy to the tumor; and c) administering an effective dose of a PD-1 or PD-L1 antagonist to the subject.
Light sensor system with - light sensors to sense red light, green light, blue light and a full spectrum light in order to generate a red channel signal R, a green channel signal G, a blue channel signal B and a clear channel signal C; and - a processing circuit; characterized in that the processing unit is configured - to calculate an infrared component IR according to the formula IR = C 1 ⋅ R + C 2 ⋅ G + C 3 ⋅ B − C 4 ⋅ C, where C1, C2, C3 and C4 are positive weighting factors; - to generate a corrected red signal R', a corrected green signal G' and a corrected blue signal B' according to the formulas: R ′ = R − IR, G ′ = G − IR, B ′ = B − IR. and - to generate an equalized green signal G" according to the formula: G " = E ̲ ⋅ R ′ G ′ B ′, where E is a 1x3 coefficient matrix. - light sensors to sense red light, green light, blue light and a full spectrum light in order to generate a red channel signal R, a green channel signal G, a blue channel signal B and a clear channel signal C; and - a processing circuit; - to calculate an infrared component IR according to the formula IR = C 1 ⋅ R + C 2 ⋅ G + C 3 ⋅ B − C 4 ⋅ C, - to generate a corrected red signal R', a corrected green signal G' and a corrected blue signal B' according to the formulas: R ′ = R − IR, G ′ = G − IR, B ′ = B − IR. - to generate an equalized green signal G" according to the formula: G " = E ̲ ⋅ R ′ G ′ B ′,
A construction machine control method, comprising a step of projecting a laser beam in rotary irradiation at constant speed and forming a reference plane by a laser surveying instrument installed at a known point, a step of detecting said laser beam by at least three beam detectors which are installed at known positions of a construction machine operated within a photodetection range of said laser beam and each of which has a photodetector to receive said laser beam, a step of obtaining photodetection timing of each of said beam detectors based on results of detection of said laser beam by said at least three beam detectors, a step of calculating a direction of said construction machine with respect to said laser surveying instrument based on at least three photodetection timings as obtained, characterized in that the method further comprises a step of projecting a distance measuring light and a tracking light towards a target provided at a known point with respect to a device reference position of said construction machine, measuring a three-dimensional coordinate of said target based on a reflected distance measuring light from said target and an elevation angle and a horizontal angle of said target measured by an angle measuring unit and tracking said target based on a reflected tracking light from said target, a step of calculating a three-dimensional coordinate of said device reference position based on said three-dimensional coordinate of said target and said direction as calculated, and a step of controlling a working unit (12,15) based on said device reference position and said direction and controlling said direction of said construction machine and said device reference position to a condition as required.
A catheter (100,200,300,400) comprising: a tube (110,210,310) comprising a cylindrical wall, a first end, a second end, a first retention feature near the first end and a second retention feature near the second end; a detachable portion (130,230,330,430), wherein the detachable portion is in fluid communication with and is removably attachable to the tube at the second end; an inner tube (150,250,350,450) comprising at least one lumen (252,452), wherein the inner tube is removably insertable into both the tube and the detachable portion; and a wire (255, 355,455) extending through at least a portion of a lumen of the at least one lumen of the inner tube; wherein a portion of the wire is attached to the tube. a tube (110,210,310) comprising a cylindrical wall, a first end, a second end, a first retention feature near the first end and a second retention feature near the second end; a detachable portion (130,230,330,430), wherein the detachable portion is in fluid communication with and is removably attachable to the tube at the second end; an inner tube (150,250,350,450) comprising at least one lumen (252,452), wherein the inner tube is removably insertable into both the tube and the detachable portion; and a wire (255, 355,455) extending through at least a portion of a lumen of the at least one lumen of the inner tube; wherein a portion of the wire is attached to the tube.
Arrangement having an electrical appliance and a panel for the electrical appliance for installation in a kitchen, wherein - the electrical appliance has a front side, - the electrical appliance has, on the front side, a substantially full-surface-area door for opening purposes, - with a panel which is to be fitted flat to the door, - a display device is arranged on the door, - the display device has an illuminated display, - at least a portion of the display device projects beyond the front side of the door, - the panel is fastened to the door of the electrical appliance and largely covers the said door, characterized in that - a recess is provided in the panel in order to arrange the display device in the said panel, - the panel is covered, at least in the region of the display device, with a lamination, - the lamination is of transparent design in the region of the display device in such a way that the illuminated display shines through the lamination and is discernible in an activated state, and only the lamination with its visual appearance can be seen in a deactivated state of the illuminated display. - the electrical appliance has a front side, - the electrical appliance has, on the front side, a substantially full-surface-area door for opening purposes, - with a panel which is to be fitted flat to the door, - a display device is arranged on the door, - the display device has an illuminated display, - at least a portion of the display device projects beyond the front side of the door, - the panel is fastened to the door of the electrical appliance and largely covers the said door, characterized in that - a recess is provided in the panel in order to arrange the display device in the said panel, - the panel is covered, at least in the region of the display device, with a lamination, - the lamination is of transparent design in the region of the display device in such a way that the illuminated display shines through the lamination and is discernible in an activated state, and only the lamination with its visual appearance can be seen in a deactivated state of the illuminated display.
An uplink signal acknowledge method, comprising: receiving, by a base station or a transmission/reception point, TRP, an uplink signal that is sent by a terminal device and that is used to track the terminal device; and sending a downlink tracking acknowledge message to the terminal device, wherein the downlink tracking acknowledge message comprises at least one of the following: information about a status in which the base station or the TRP tracks the terminal device, timing advance information required by the terminal device to send an uplink tracking signal, power adjustment information required by the terminal device to send the uplink signal, and access control information of the terminal device; wherein the base station or the TRP is a high frequency base station or a high frequency TRP, and the downlink tracking acknowledge message further comprises beam information used by the high frequency base station or the high frequency TRP to track the terminal device. receiving, by a base station or a transmission/reception point, TRP, an uplink signal that is sent by a terminal device and that is used to track the terminal device; and sending a downlink tracking acknowledge message to the terminal device, wherein the downlink tracking acknowledge message comprises at least one of the following: information about a status in which the base station or the TRP tracks the terminal device, timing advance information required by the terminal device to send an uplink tracking signal, power adjustment information required by the terminal device to send the uplink signal, and access control information of the terminal device; wherein the base station or the TRP is a high frequency base station or a high frequency TRP, and the downlink tracking acknowledge message further comprises beam information used by the high frequency base station or the high frequency TRP to track the terminal device.
Use of a photodegradable hydrogel or organogel for manufacturing a patterned article by irradiating at least a part of the photodegradable hydrogel or organogel with UV light, the photodegradable hydrogel or organogel comprising a polymer including a three-dimensional network of cross-linked polymer chains, the polymer chains having repeating units of the general Formula wherein each R 1 is independently selected from the group consisting of a substituted or unsubstituted 2-hydroxyethyl group, a substituted or unsubstituted 2-(N-3-sulfopropyl-N,N-dimethyl ammonium)ethyl group, and a substituted or unsubstituted poly(ethylene glycol) alkyl ether group selected from a PEG106 to PEG20000 group; and each R 2 is independently a hydrogen atom or a substituted or unsubstituted alkyl group; and wherein the photodegradable hydrogel or organogel does not comprise external photosensitive groups, photoinitiators or thiols. wherein each R 1 is independently selected from the group consisting of a substituted or unsubstituted 2-hydroxyethyl group, a substituted or unsubstituted 2-(N-3-sulfopropyl-N,N-dimethyl ammonium)ethyl group, and a substituted or unsubstituted poly(ethylene glycol) alkyl ether group selected from a PEG106 to PEG20000 group; and each R 2 is independently a hydrogen atom or a substituted or unsubstituted alkyl group; and wherein the photodegradable hydrogel or organogel does not comprise external photosensitive groups, photoinitiators or thiols.
A light emission device (1, 1a, 1b, 1c), comprising: a light source (3, 3a) that emits an excitation light beam; a light deflector (140, 140a) that deflects the excitation light beam; a wavelength converter (160, 160a) that receives and converts the excitation light beam deflected by the light deflector (140, 140a) to wavelength-converted light of a different wavelength, and emits the wavelength-converted light; and a light concentration section (10, 10a, 10b, 10c) that focuses the excitation light beam on the wavelength converter (160, 160a), wherein the light concentration section (10, 10a, 10b, 10c) includes a first optical system (11, 11a, 11b, 11c) disposed between the light source (3, 3a) and the light deflector (140, 140a), and a second optical system (12, 12a, 12b) disposed between the light deflector (140, 140a) and the wavelength converter (160, 160a), characterized in that in the second optical system (12, 12a, 12b), a focal length of an Ay-axis is shorter than a focal length of an Ax-axis, where the Ax-axis is defined as an axis that has a lowest beam parameter product of the excitation light beam, and the Ay-axis is defined as an axis orthogonal to the Ax-axis in a cross section perpendicular to a propagation direction of the excitation light beam. a light source (3, 3a) that emits an excitation light beam; a light deflector (140, 140a) that deflects the excitation light beam; a wavelength converter (160, 160a) that receives and converts the excitation light beam deflected by the light deflector (140, 140a) to wavelength-converted light of a different wavelength, and emits the wavelength-converted light; and a light concentration section (10, 10a, 10b, 10c) that focuses the excitation light beam on the wavelength converter (160, 160a), wherein the light concentration section (10, 10a, 10b, 10c) includes a first optical system (11, 11a, 11b, 11c) disposed between the light source (3, 3a) and the light deflector (140, 140a), and a second optical system (12, 12a, 12b) disposed between the light deflector (140, 140a) and the wavelength converter (160, 160a), characterized in that in the second optical system (12, 12a, 12b), a focal length of an Ay-axis is shorter than a focal length of an Ax-axis, where the Ax-axis is defined as an axis that has a lowest beam parameter product of the excitation light beam, and the Ay-axis is defined as an axis orthogonal to the Ax-axis in a cross section perpendicular to a propagation direction of the excitation light beam.
A roof covering system with tiles made of plastic or another material, said tiles comprising: - linear modules of tiles, each comprising a linear panel with a protuberance located on the underside of said panel along the edge of said panel; - a ridge-and-hip profile comprising a longitudinal profile having an inverted "V"-shaped cross-section with a protuberance located on the lower side of the apex of said inverted "V"-shaped section; - a valley profile comprising a longitudinal profile having a "V"-shaped cross-section with a protuberance located on the lower side of the apex of said "V"-shaped section; and - a drip edge profile comprising a longitudinal profile having an inverted "L"-shaped cross-section with protuberance located on the underside of the horizontal leg of said "L"-shaped section; said roof covering system further comprising "C"-shaped sliding profiles, wherein each of the protuberance of said tiles is slippled in one of said "C"-shaped sliding profiles in order to fix said tiles to the roof sheets or roof rafters. - linear modules of tiles, each comprising a linear panel with a protuberance located on the underside of said panel along the edge of said panel; - a ridge-and-hip profile comprising a longitudinal profile having an inverted "V"-shaped cross-section with a protuberance located on the lower side of the apex of said inverted "V"-shaped section; - a valley profile comprising a longitudinal profile having a "V"-shaped cross-section with a protuberance located on the lower side of the apex of said "V"-shaped section; and - a drip edge profile comprising a longitudinal profile having an inverted "L"-shaped cross-section with protuberance located on the underside of the horizontal leg of said "L"-shaped section;
An image forming apparatus comprising: image forming means for forming an image onto a recording medium on the basis of image data sent from image control means; detecting means (31, 32) for detecting a status change of said image forming means; status change notifying means for notifying said image control means of the detected status change by changing a status change signal from a first level to a second level different from the first level; and status information forming means for forming status information of said image forming means in response to the detected status change and for transmitting said status information to said image control means after notification of the detected status change, characterized in that when the detecting means (31, 32) detects a first status change of said image forming means, said status change notifying means is adapted to change the status change signal from the first level to the second level for notifying the first status change, to change the status change signal from the second level to the first level before detection of a second status change of said image forming means following to the first status change, and to keep the status change signal at the first level for at least a predetermined time period, and when the detecting means (31, 32) detects a second status change of said image forming means following to the first status change, said status change notifying means is adapted to change the status change signal from the first level to the second level for notifying the second status change after the predetermined time period has elapsed. image forming means for forming an image onto a recording medium on the basis of image data sent from image control means; detecting means (31, 32) for detecting a status change of said image forming means; status change notifying means for notifying said image control means of the detected status change by changing a status change signal from a first level to a second level different from the first level; and status information forming means for forming status information of said image forming means in response to the detected status change and for transmitting said status information to said image control means after notification of the detected status change, characterized in that when the detecting means (31, 32) detects a first status change of said image forming means, said status change notifying means is adapted to change the status change signal from the first level to the second level for notifying the first status change, to change the status change signal from the second level to the first level before detection of a second status change of said image forming means following to the first status change, and to keep the status change signal at the first level for at least a predetermined time period, and when the detecting means (31, 32) detects a second status change of said image forming means following to the first status change, said status change notifying means is adapted to change the status change signal from the first level to the second level for notifying the second status change after the predetermined time period has elapsed.