mhurhangee/patent-ind-claim-en huggingface dataset:
A plastic container with a first base with an underside and an upper side and four side walls projecting perpendicularly from the first base , wherein a circumferential edge runs along the upper edge of the side walls and a circumferential rib runs along the lower end of the side walls , wherein the plastic container comprises a second base , which is arranged at the underside of the first base and encloses the same, wherein the second base comprises a planar base surface which extends parallel to the first base beyond the extent of the first base to the extent of the outer ends of the circumferential rib at the side walls , characterised in that the second base comprises a planar middle part and a frame which surrounds the middle part , wherein the middle part extends over the entire surface area of the underside of the first base and the frame extends outwards from the circumference of the middle part in the plane of the middle part and at its outer edge comprises a circumferential wall which extends perpendicularly to the plane of the middle part of the second base in the direction of the circumferential rib at the side walls . a circumferential edge runs along the upper edge of the side walls and a circumferential rib runs along the lower end of the side walls , wherein the plastic container comprises a second base , which is arranged at the underside of the first base and encloses the same, wherein the second base comprises a planar base surface which extends parallel to the first base beyond the extent of the first base to the extent of the outer ends of the circumferential rib at the side walls , characterised in that the second base comprises a planar middle part and a frame which surrounds the middle part , wherein the middle part extends over the entire surface area of the underside of the first base and the frame extends outwards from the circumference of the middle part in the plane of the middle part and at its outer edge comprises a circumferential wall which extends perpendicularly to the plane of the middle part of the second base in the direction of the circumferential rib at the side walls .
A method for recovering filtered fluid retained in a filter system including a filter device comprising a housing having an inlet and an outlet defining a filtration flow path between the inlet and the outlet , and a porous filter medium across the filtration flow path , the porous filter medium having an upstream side and a downstream side ; the system also including a filtered fluid receiving container arranged downstream of the outlet , and a fluid flow path between the outlet and the filtered fluid receiving container , the method comprising: (a) passing sterile air and/or sterile gas through the outlet of the filter device and along the fluid flow path into the filtered fluid receiving container , including arranging the filtered fluid receiving container at an angle in the range of about 10° to about 30° above a horizontal plane such that the sterile air and/or sterile gas is present at a highpoint of the fluid receiving container ; (b) passing fluid to be filtered along the filtration flow path through the filter device and passing filtered fluid along the fluid flow path into the filtered fluid receiving container , wherein a volume of filtered fluid is retained in the housing between the downstream side of the porous filter medium and the outlet ; and, (c) allowing the sterile air and/or the sterile gas to pass from the filtered fluid receiving container along the fluid flow path and through the outlet into the housing of the filter device , and displacing retained filtered fluid into the filtered fluid receiving container , including arranging the filtered fluid receiving container such that the sterile air and/or sterile gas is allowed to pass from the filtered fluid receiving container along the fluid flow path and through the outlet into the housing of the filter device . (a) passing sterile air and/or sterile gas through the outlet of the filter device and along the fluid flow path into the filtered fluid receiving container , including arranging the filtered fluid receiving container at an angle in the range of about 10° to about 30° above a horizontal plane such that the sterile air and/or sterile gas is present at a highpoint of the fluid receiving container ; (b) passing fluid to be filtered along the filtration flow path through the filter device and passing filtered fluid along the fluid flow path into the filtered fluid receiving container , wherein a volume of filtered fluid is retained in the housing between the downstream side of the porous filter medium and the outlet ; and, (c) allowing the sterile air and/or the sterile gas to pass from the filtered fluid receiving container along the fluid flow path and through the outlet into the housing of the filter device , and displacing retained filtered fluid into the filtered fluid receiving container , including arranging the filtered fluid receiving container such that the sterile air and/or sterile gas is allowed to pass from the filtered fluid receiving container along the fluid flow path and through the outlet into the housing of the filter device .
A composition comprising pridopidine or its pharmaceutically acceptable salt for use in treating a subject afflicted with Rett syndrome (RTT), wherein the composition treats the subject by delaying the onset, preventing worsening, delaying worsening or improving at least one RTT symptom in the subject, wherein the RTT symptom is: • a partial or complete loss of acquired mobility skills; • muscle weakness; and/or • abnormal muscle tone. • a partial or complete loss of acquired mobility skills; • muscle weakness; and/or • abnormal muscle tone.
A method for controlling a phase modulator to display a target light pattern (i(u)) defined by image data onto an image plane by controlling the phase modulator according to a phase function p(x) and illuminating the phase modulator with light incident at the lens plane of the phase modulator, the lens plane being parallel to and at a focal distance f to the image plane, the method comprising: - initializing based on the image data, a representation (i p 0 (x)) of a warped image (i p (x)) where the target light pattern (i(u)) in the image plane has been warped backwards onto the lens plane using a distortion u(x) produced by said phase function p(x); - refining the phase function and the warped image by performing a plurality of iterations (k) characterized in that each of the plurality of iterations includes: -- a step of updating the phase function by performing an optimization which yields an updated phase function (p k (x)), wherein the updated phase function reduces an intensity difference between a representation (i p k-1 (x)) of the warped image and the inverse of a magnification-based intensity (1+f·∇ 2 p(x)), the magnification being provided by the phase function at points in the warped image; and -- a step of warping the target light pattern onto the lens plane using a distortion u(x) produced by the updated phase function (p k (x)) to yield an updated representation (i p (k) (x)) of the warped image. - initializing based on the image data, a representation (i p 0 (x)) of a warped image (i p (x)) where the target light pattern (i(u)) in the image plane has been warped backwards onto the lens plane using a distortion u(x) produced by said phase function p(x); - refining the phase function and the warped image by performing a plurality of iterations (k) -- a step of updating the phase function by performing an optimization which yields an updated phase function (p k (x)), wherein the updated phase function reduces an intensity difference between a representation (i p k-1 (x)) of the warped image and the inverse of a magnification-based intensity (1+f·∇ 2 p(x)), the magnification being provided by the phase function at points in the warped image; and -- a step of warping the target light pattern onto the lens plane using a distortion u(x) produced by the updated phase function (p k (x)) to yield an updated representation (i p (k) (x)) of the warped image.
A tablet comprising [(4-hydroxy-1-methyl-7-phenoxy-isoquinoline-3-carbonyl)-amino]-acetic acid, a pharmaceutically acceptable excipient, and an effective amount of a photostabilizing agent, wherein the photostabilizing agent comprises titanium dioxide and at least one additional dye selected from the group consisting of a blue dye, a red dye, an orange dye, a yellow dye, and combinations thereof, and wherein (i) the photostabilizing agent is blended into the tablet; or (ii) the tablet comprises a tablet core and a coating and the photostabilizing agent is blended into the tablet core; or (iii) the tablet comprises a tablet core and a coating and the tablet core comprises [(4-hydroxy-1-methyl-7-phenoxy-isoquinoline-3-carbonyl)-amino]-acetic acid and the pharmaceutically acceptable excipient, and the coating comprises the photostabilizing agent. (i) the photostabilizing agent is blended into the tablet; or (ii) the tablet comprises a tablet core and a coating and the photostabilizing agent is blended into the tablet core; or (iii) the tablet comprises a tablet core and a coating and the tablet core comprises [(4-hydroxy-1-methyl-7-phenoxy-isoquinoline-3-carbonyl)-amino]-acetic acid and the pharmaceutically acceptable excipient, and the coating comprises the photostabilizing agent.
A genetically modified pig comprising: a) an exogenous polynucleotide sequence encoding a human leukocyte antigen G (HLA-G); and b) an endonuclease-mediated genomic disruption in a gene encoding an endogenous glycoprotein galactosyltransferase alpha 1,3 (GGTA1), wherein the endonuclease-mediated genomic disruption results in a reduced protein expression of the endogenous GGTA1, wherein the reduced protein expression of the endogenous GGTA1 is in comparison to GGTA1 protein expression in a non-genetically modified counterpart pig, wherein the endonuclease-mediated genomic disruption is within 20 base pairs of a protospacer-adjacent motif (PAM), wherein said exogenous polynucleotide sequence encoding the HLA-G is: (i) controlled by a Rosa26 promoter and is inserted within_50 base pairs of the endogenous Rosa26 promoter; (ii) controlled by a GGTA1 promoter and is inserted within 50 base pairs of an endogenous GGTA1 promoter; or; (iii) controlled by a GGTA1 promoter and is inserted within the endogenous GGTA1 gene sequence. a) an exogenous polynucleotide sequence encoding a human leukocyte antigen G (HLA-G); and b) an endonuclease-mediated genomic disruption in a gene encoding an endogenous glycoprotein galactosyltransferase alpha 1,3 (GGTA1), wherein the endonuclease-mediated genomic disruption results in a reduced protein expression of the endogenous GGTA1, wherein the reduced protein expression of the endogenous GGTA1 is in comparison to GGTA1 protein expression in a non-genetically modified counterpart pig, wherein the endonuclease-mediated genomic disruption is within 20 base pairs of a protospacer-adjacent motif (PAM), wherein said exogenous polynucleotide sequence encoding the HLA-G is: (i) controlled by a Rosa26 promoter and is inserted within_50 base pairs of the endogenous Rosa26 promoter; (ii) controlled by a GGTA1 promoter and is inserted within 50 base pairs of an endogenous GGTA1 promoter; or; (iii) controlled by a GGTA1 promoter and is inserted within the endogenous GGTA1 gene sequence. (i) controlled by a Rosa26 promoter and is inserted within_50 base pairs of the endogenous Rosa26 promoter; (ii) controlled by a GGTA1 promoter and is inserted within 50 base pairs of an endogenous GGTA1 promoter; or; (iii) controlled by a GGTA1 promoter and is inserted within the endogenous GGTA1 gene sequence.
A non-therapeutical method for the repellency of bed bugs, the method comprising bringing the bed bugs into contact with an inhibitory effective amount of at least one of the compounds of the structure (I) wherein X is O, and R is =O; each Z is independently selected from the group consisting of (CH) and (CH 2 ); y is a numeral selected from 1 and 2; R 1 is selected from the group consisting of H and a branched or straight chain, saturated or unsaturated hydrocarbyl group with zero to two double bonds and from 1 to 15 carbon atoms; R 2 is selected from the group consisting of H and a branched or straight chain, saturated or unsaturated hydrocarbyl group with zero to three double bonds and from 1 to 15 carbon atoms; R 3 is selected from H, a branched or straight chain, saturated or unsaturated hydrocarbyl group with zero to three double bonds and from 1 to 15 carbon atoms; and the bond between the 2 and 3 positions in the ring structure is a single bond, and wherein the compounds of structure (I) contain from 11 to 20 total carbon atoms. X is O, and R is =O; each Z is independently selected from the group consisting of (CH) and (CH 2 ); y is a numeral selected from 1 and 2; R 1 is selected from the group consisting of H and a branched or straight chain, saturated or unsaturated hydrocarbyl group with zero to two double bonds and from 1 to 15 carbon atoms; R 2 is selected from the group consisting of H and a branched or straight chain, saturated or unsaturated hydrocarbyl group with zero to three double bonds and from 1 to 15 carbon atoms; R 3 is selected from H, a branched or straight chain, saturated or unsaturated hydrocarbyl group with zero to three double bonds and from 1 to 15 carbon atoms; and the bond between the 2 and 3 positions in the ring structure is a single bond, and wherein the compounds of structure (I) contain from 11 to 20 total carbon atoms.
Computer-implemented method for evaluating a camera image, comprising the following steps: Providing the camera image, Determining at least one image feature of the camera image of a group of reference images based on the image feature, Using at least one reference image feature for the group of reference images, Comparing the image feature and the reference image feature, and Calculating an evaluation parameter for the camera image on the basis of the comparison between the image feature and the reference image feature, characterized in that a trained machine learning model compares the image feature and the reference image feature with each other, a training machine learning model calculates the evaluation parameters. Providing the camera image, Determining at least one image feature of the camera image of a group of reference images based on the image feature, Using at least one reference image feature for the group of reference images, Comparing the image feature and the reference image feature, and Calculating an evaluation parameter for the camera image on the basis of the comparison between the image feature and the reference image feature, characterized in that a trained machine learning model compares the image feature and the reference image feature with each other, a training machine learning model calculates the evaluation parameters.
A charger for an electronic smoking device comprising: a first connection , wherein the first connection further comprises a plurality of connecting pins for electrically connecting to the electronic smoking device , characterized by : a second connection , wherein the second connection is configured for electrically connecting to a computing device , charger control electronics , wherein the charger control electronics comprises a memory , wherein the memory further comprises a set of computer-readable instructions to place the charger in an idle mode , a communication mode , a diagnostic mode, an update mode, and a charge mode . a first connection , wherein the first connection further comprises a plurality of connecting pins for electrically connecting to the electronic smoking device , characterized by : a second connection , wherein the second connection is configured for electrically connecting to a computing device , charger control electronics , wherein the charger control electronics comprises a memory , wherein the memory further comprises a set of computer-readable instructions to place the charger in an idle mode , a communication mode , a diagnostic mode, an update mode, and a charge mode . a second connection , wherein the second connection is configured for electrically connecting to a computing device , charger control electronics , wherein the charger control electronics comprises a memory , wherein the memory further comprises a set of computer-readable instructions to place the charger in an idle mode , a communication mode , a diagnostic mode, an update mode, and a charge mode .
A shaped sheet manufacturing method using a shaped sheet manufacturing device comprising: a first roll having a plurality of recessed parts on an outer peripheral surface thereof; and a second roll having a plurality of projection parts on an outer peripheral surface thereof, and in which the first and second rolls are disposed adjacent to each other and rotate in synchronism and the recessed parts and the projection parts engage with each other with space therebetween, the method comprising: a first step of conveying a first sheet which is a continuous body along the outer peripheral surface of the first roll which is rotating; a second step of overlapping a second sheet which is a continuous body with the first sheet and conveying the second sheet together with the first sheet so that the first sheet and the second sheet pass between the first roll and the second roll and are held between the recessed parts and the projection parts; and a third step of bonding to each other the first and second sheets having passed between the first roll and the second roll, wherein in the second step, a tension (T1) of the first sheet is made smaller than a tension (T2) of the second sheet. a first step of conveying a first sheet which is a continuous body along the outer peripheral surface of the first roll which is rotating; a second step of overlapping a second sheet which is a continuous body with the first sheet and conveying the second sheet together with the first sheet so that the first sheet and the second sheet pass between the first roll and the second roll and are held between the recessed parts and the projection parts; and a third step of bonding to each other the first and second sheets having passed between the first roll and the second roll, wherein in the second step, a tension (T1) of the first sheet is made smaller than a tension (T2) of the second sheet.
A method of preparing malto-oligosaccharides, said method comprising: providing a corn fraction, said corn fraction having been prepared from a dry-milled corn flour from which germ and fiber have been removed; subjecting said corn flour to catalyzed hydrolysis in a jet cooker under conditions suitable to result in a mixture of malto-oligosaccharides, wherein the hydrolysis is catalyzed with an acid or one or more enzymes; and recovering said mixture of malto-oligosaccharides, the recovering including separating the mixture of malto-oligosaccharides from insoluble materials by centrifugation and filtration, the mixture recovered having a dextrose equivalent value (DE) of at most 70 and a protein content of less than 1%. providing a corn fraction, said corn fraction having been prepared from a dry-milled corn flour from which germ and fiber have been removed; subjecting said corn flour to catalyzed hydrolysis in a jet cooker under conditions suitable to result in a mixture of malto-oligosaccharides, wherein the hydrolysis is catalyzed with an acid or one or more enzymes; and recovering said mixture of malto-oligosaccharides, the recovering including separating the mixture of malto-oligosaccharides from insoluble materials by centrifugation and filtration, the mixture recovered having a dextrose equivalent value (DE) of at most 70 and a protein content of less than 1%.
Method of identifying substances comprising the steps - guiding the substances to be identified in a gas phase through a gas cell , - radiating light into the gas cell , and - analyzing a spectral composition of light scattered out of the gas cell laterally with respect to the radiated light , characterized in - that the substances to be identified are guided into the gas cell through a gas chromatograph , - that a partial pressure of the substances to be identified in the gas cell is held below 5 × 10 4 Pa, and - that the gas cell is arranged in a resonator which is tuned to at least one wavelength of the radiated light or the scattered light . - guiding the substances to be identified in a gas phase through a gas cell , - radiating light into the gas cell , and - analyzing a spectral composition of light scattered out of the gas cell laterally with respect to the radiated light , - that the substances to be identified are guided into the gas cell through a gas chromatograph , - that a partial pressure of the substances to be identified in the gas cell is held below 5 × 10 4 Pa, and - that the gas cell is arranged in a resonator which is tuned to at least one wavelength of the radiated light or the scattered light .
A brushless direct current motor , comprising: a stator assembly including a stator core having stator laminations with an annular portion and inwardly extending stator teeth , a rotor assembly including: a rotor core having rotor laminations and defining a central aperture that receives an output shaft ; and a rear rotor end cap on a first side of the rotor core having a rear bearing holder and defining an annular channel , wherein the annular channel is open on a side of the rear rotor end cap facing the rotor core , a rear bearing provided in the rear bearing holder that couples the rear rotor end cap to the output shaft , a front rotor end cap provided on a second side of the rotor core , and a position sensor board assembly provided in the annular channel of the rear rotor end cap and configured to provide position information of the rotor core to a motor controller , characterised by further comprising legs that extend axially from the front rotor end cap , between the stator teeth , to the rear rotor end cap to seal air gaps at an inner radial end of the stator core between the stator teeth to prevent contaminates from entering a cavity in which the rotor core rotates. a stator assembly including a stator core having stator laminations with an annular portion and inwardly extending stator teeth , a rotor assembly including: a rotor core having rotor laminations and defining a central aperture that receives an output shaft ; and a rear rotor end cap on a first side of the rotor core having a rear bearing holder and defining an annular channel , wherein the annular channel is open on a side of the rear rotor end cap facing the rotor core , a rear bearing provided in the rear bearing holder that couples the rear rotor end cap to the output shaft , a front rotor end cap provided on a second side of the rotor core , and a position sensor board assembly provided in the annular channel of the rear rotor end cap and configured to provide position information of the rotor core to a motor controller , characterised by further comprising legs that extend axially from the front rotor end cap , between the stator teeth , to the rear rotor end cap to seal air gaps at an inner radial end of the stator core between the stator teeth to prevent contaminates from entering a cavity in which the rotor core rotates.