mhurhangee/patent-ind-claim-en huggingface dataset:
Waste collection bag , having a tubular structure , comprising a first closed end and a second open end , said tubular structure comprising at least one chock closure device arranged along the longitudinal direction of said tubular structure , in an intermediate region between said first closed end and said second open end so as to divide said tubular structure in at least two longitudinal sections , at least one first longitudinal section of said tubular structure being closable by means of said at least one chock closure device said waste collection bag being characterized in that it comprises a plurality of chock closure devices , arranged mutually spaced along said longitudinal direction of said tubular structure between said first closed end and said second open end so as to divide said tubular structure into a plurality of longitudinal sections .
An anti-CD40 antagonistic antibody or antigen-binding fragment thereof for use in a method of treating cancer and inhibiting cytokine release syndrome in a subject, the method comprising conjointly administering to the subject: (a) a bispecific antigen binding molecule comprising a first antigen-binding domain that specifically binds to CD3 and a second antigen-binding domain that specifically binds to a tumor antigen, optionally wherein the bispecific antigen binding molecule comprises a bispecific antibody or antigen-binding fragment thereof; and (b) the anti-CD40 antagonistic antibody or antigen-binding fragment thereof. (a) a bispecific antigen binding molecule comprising a first antigen-binding domain that specifically binds to CD3 and a second antigen-binding domain that specifically binds to a tumor antigen, optionally wherein the bispecific antigen binding molecule comprises a bispecific antibody or antigen-binding fragment thereof; and (b) the anti-CD40 antagonistic antibody or antigen-binding fragment thereof.
A clamping system for connecting a first and a second tube whose facing ends have bearing surfaces (1'A, 2'A) protruding relative to the cylindrical external surface of said tubes, the system comprising a clampable collar and a seal , the collar including a belt able to cooperate with said bearing surfaces by its internal periphery delimiting a recess into which the bearing surfaces can be inserted, the seal being supported by the collar in the unclamped state of the latter and comprising an annular sealing portion , which comprises a first washer and a second washer fixed to the first washer, the first washer carrying retaining lugs which cooperate with the second washer to retain said second washer relative to the first washer.
A method of detecting logos in a video content comprising: generating a heatmap of logos detected in a first set of frames in a video sequence of said video content, wherein the heatmap is an image that has the same size as a frame of the video sequence, wherein each pixel of the heatmap is an accumulator which is increased by a constant value when a logo is detected at the pixel position in a frame of said first set of frames; identifying a first logo type where accumulators in the heatmap exceed a threshold value; determining a first bounding box in the heatmap surrounding said logo of the first logo type; detecting a logo in a current frame in the video sequence, wherein the current frame is not in the first set of frames; determining a second bounding box surrounding the logo of the current frame; determining whether the logo for the current frame matches the position of the logo of the first logo type by comparing the first bounding box to the second bounding box to determine whether the first bounding box overlaps the second bounding box by at least an overlap threshold; and providing to an encoding system the determination of whether the logo for the current frame matches the position of the logo of the first logo type. generating a heatmap of logos detected in a first set of frames in a video sequence of said video content, wherein the heatmap is an image that has the same size as a frame of the video sequence, wherein each pixel of the heatmap is an accumulator which is increased by a constant value when a logo is detected at the pixel position in a frame of said first set of frames; identifying a first logo type where accumulators in the heatmap exceed a threshold value; determining a first bounding box in the heatmap surrounding said logo of the first logo type; detecting a logo in a current frame in the video sequence, wherein the current frame is not in the first set of frames; determining a second bounding box surrounding the logo of the current frame; determining whether the logo for the current frame matches the position of the logo of the first logo type by comparing the first bounding box to the second bounding box to determine whether the first bounding box overlaps the second bounding box by at least an overlap threshold; and providing to an encoding system the determination of whether the logo for the current frame matches the position of the logo of the first logo type.
Process for the treatment of a raw material containing thermally inhibited starch and/or thermally inhibited flour as its largest constituent, whereby the moisture content of the raw material is at most 8 wt.%, comprising a remoistening step wherein between 0.1 and 30 wt.% of an aqueous phase is added to the raw material to form a product containing remoistened starch and/or remoistened flour, and wherein the amount of aqueous phase added is selected such that the product containing remoistened starch and/or remoistened flour remains in powder form.
Cable catching device for catching at least one optical fibre cable , wherein the cable catching device has a cable receptor for receiving at least one cable , wherein the cable has at least one strand with optical fibres and at least one strain relief element extending along a longitudinal elongation of the cable , wherein the cable receptor extends along a longitudinal axis (L) of the cable catching device , wherein the cable catching device has a strain relief grip for the high-tensile fixing of the at least one strain relief element in relation to the longitudinal axis (L) of the cable catching device , wherein the cable catching device has an attachment section with at least one attachment form-fitting contour for the form-fitting support of the cable catching device transversely to its longitudinal axis (L) on a support base , in particular a distribution device , wherein it has a support section separate from the attachment section for supporting a second cable catching device , which has a cable receptor extending along its longitudinal axis (L) for an optical fibre cable , wherein at least one support form-fitting contour is arranged on the support section for the form-fitting support of the second cable catching device transversely to its longitudinal axis (L), and wherein the at least one attachment form-fitting contour and the at least one support form-fitting contour comprise mutually complementary attachment form-fitting contours and support form-fitting contours , so that the cable catching device can form a first cable catching device for form-fitting connection to a structurally identical second cable catching device and the attachment form-fitting contours of the one cable catching device can engage in a form-fitting manner in the support form-fitting contours of the other cable catching device , characterised in that the attachment form-fitting contours and the support form-fitting contours are at a distance from each other parallel and/or transversely to the longitudinal axis (L) of the cable catching device , so that the cable catching device and the structurally identical second cable catching device can be engaged in a form-fitting manner to form a step arrangement.
A fungicidal composition having a synergistic effect, comprising active ingredients A and B, wherein the active ingredient A is polyhexamethylene biguanide or an agriculturally acceptable salt thereof, the active ingredient B is one selected from azoxystrobin, trifloxystrobin, picoxystrobin, and pyraclostrobin, and the weight ratio of the two ingredients is from 1:50 to 50:1.
A polymeric coupling agent comprising: a polymer comprising at least one of the following repeating units: wherein: R' is vinyl, -C(O)H, or -CN; and one or more reactive coupling groups covalently bonded to one or more repeating units of the polymer as pendent groups, optionally via one or more linking moieties, wherein the reactive coupling group is an azide functional group selected from the group consisting of sulfonyl azide, aryl azide, phosphoryl azide, acyl azide, formyl azides, and combinations thereof; and, wherein the polymer further comprises one or more reactive coupling groups covalently bonded to one or more terminal ends of the polymer chain. a polymer comprising at least one of the following repeating units: wherein: R' is vinyl, -C(O)H, or -CN; and one or more reactive coupling groups covalently bonded to one or more repeating units of the polymer as pendent groups, optionally via one or more linking moieties, wherein the reactive coupling group is an azide functional group selected from the group consisting of sulfonyl azide, aryl azide, phosphoryl azide, acyl azide, formyl azides, and combinations thereof; and, wherein the polymer further comprises one or more reactive coupling groups covalently bonded to one or more terminal ends of the polymer chain. R' is vinyl, -C(O)H, or -CN; and one or more reactive coupling groups covalently bonded to one or more repeating units of the polymer as pendent groups, optionally via one or more linking moieties, wherein the reactive coupling group is an azide functional group selected from the group consisting of sulfonyl azide, aryl azide, phosphoryl azide, acyl azide, formyl azides, and combinations thereof; and, wherein the polymer further comprises one or more reactive coupling groups covalently bonded to one or more terminal ends of the polymer chain.
A linear motor conveyor system comprising: a plurality of track sections comprising a track and the plurality of track sections defining an interior area ; a track cover covering the track of the plurality of track sections; characterized in that the linear motor conveyor system further comprising: a top plate covering at least a portion of the interior area of the plurality of track sections; at least one top cover covering at least a portion of the top plate and any uncovered portions of the interior area; and a plurality of gaskets providing a seal between the track cover and track and between the top cover and top plate such that the interior area of the plurality of track sections is sealed. a plurality of track sections comprising a track and the plurality of track sections defining an interior area ; a track cover covering the track of the plurality of track sections; characterized in that the linear motor conveyor system further comprising: a top plate covering at least a portion of the interior area of the plurality of track sections; at least one top cover covering at least a portion of the top plate and any uncovered portions of the interior area; and a plurality of gaskets providing a seal between the track cover and track and between the top cover and top plate such that the interior area of the plurality of track sections is sealed. a top plate covering at least a portion of the interior area of the plurality of track sections; at least one top cover covering at least a portion of the top plate and any uncovered portions of the interior area; and a plurality of gaskets providing a seal between the track cover and track and between the top cover and top plate such that the interior area of the plurality of track sections is sealed.
Method for determining a position of a divergent radiation source , comprising: Irradiating a pixel detector with a predetermined intensity distribution of incident radiation with wavelength λ originated from the divergent radiation source , wherein the incident radiation is electron, neutron, or X-ray radiation, and wherein the pixel detector comprises a plurality of pixels with pixel coordinates (x i , y i , z i ), each pixel having an internal periodic structure, which is spatially repeating with a repeat unit in the order of the wavelength λ; Detecting a detector channeling pattern, DCP, comprising for each of the plurality of pixels , a detected intensity of the incident radiation ; Determining, for each of the plurality of pixels , an incidence direction of the incident radiation using information on an orientation of the internal periodic structure within the pixel , on the predetermined intensity distribution, on the wavelength λ and on the detected intensity of the incident radiation ; and Determining the position (x p , y p , z p ) of the divergent radiation source using the pixel coordinates (x i , y i , z i ) and the incidence direction for each of the plurality of pixels . Irradiating a pixel detector with a predetermined intensity distribution of incident radiation with wavelength λ originated from the divergent radiation source , wherein the incident radiation is electron, neutron, or X-ray radiation, and wherein the pixel detector comprises a plurality of pixels with pixel coordinates (x i , y i , z i ), each pixel having an internal periodic structure, which is spatially repeating with a repeat unit in the order of the wavelength λ; Detecting a detector channeling pattern, DCP, comprising for each of the plurality of pixels , a detected intensity of the incident radiation ; Determining, for each of the plurality of pixels , an incidence direction of the incident radiation using information on an orientation of the internal periodic structure within the pixel , on the predetermined intensity distribution, on the wavelength λ and on the detected intensity of the incident radiation ; and Determining the position (x p , y p , z p ) of the divergent radiation source using the pixel coordinates (x i , y i , z i ) and the incidence direction for each of the plurality of pixels .
A process for producing a substitute natural gas, the process comprising the steps of: providing a synthesis gas comprising hydrogen and carbon monoxide; forming a hydrogen-enriched synthesis gas; subjecting the hydrogen-enriched synthesis gas to a methanation reaction to convert at least a portion of the gas into methane thereby forming a methane-enriched gas; and recovering from the methane-enriched gas a methane-containing gas, wherein step comprises providing a hydrogen gas and combining the hydrogen gas with the synthesis gas, wherein: (i) at least some of the hydrogen gas is produced by the decomposition of ammonia and/or (ii) at least some of the hydrogen gas is produced by steam reforming of a hydrocarbon feedstock. providing a synthesis gas comprising hydrogen and carbon monoxide; forming a hydrogen-enriched synthesis gas; subjecting the hydrogen-enriched synthesis gas to a methanation reaction to convert at least a portion of the gas into methane thereby forming a methane-enriched gas; and recovering from the methane-enriched gas a methane-containing gas, (i) at least some of the hydrogen gas is produced by the decomposition of ammonia and/or (ii) at least some of the hydrogen gas is produced by steam reforming of a hydrocarbon feedstock.
A composition, comprising: a porous biocompatible polymer matrix having a plurality of macropores having an average size of 100 μm to 500 μm; a calcium ceramic granule contacting the porous biocompatible matrix, the calcium ceramic granule having an average diameter of 425 μm to 800 μm and having an interconnected internal network of micropores, wherein the calcium ceramic granule has a pH of 5.5 to 6.0, the composition further comprising an osteoinductive protein associated with the internal network of micropores, wherein a concentration of the osteoinductive protein near the centroid of the calcium ceramic granule is not less than 33% of a concentration of the osteoinductive protein on the external surface of the calcium ceramic granules. a porous biocompatible polymer matrix having a plurality of macropores having an average size of 100 μm to 500 μm; a calcium ceramic granule contacting the porous biocompatible matrix, the calcium ceramic granule having an average diameter of 425 μm to 800 μm and having an interconnected internal network of micropores, wherein the calcium ceramic granule has a pH of 5.5 to 6.0, the composition further comprising an osteoinductive protein associated with the internal network of micropores, wherein a concentration of the osteoinductive protein near the centroid of the calcium ceramic granule is not less than 33% of a concentration of the osteoinductive protein on the external surface of the calcium ceramic granules.
A method, performed by a terminal (1d-01, 1e-01), for a random access in a wireless communication system, the method comprising: receiving, from a base station (ld-01, 1e-01), a message including bandwidth part, BWP, configuration information for at least one downlink, DL, BWP and at least one uplink, UL, BWP for each of at least one serving cell, wherein an identity (ID) of each of the at least one DL BWP and the at least one UL BWP is identified based on the BWP configuration information; identifying (1g-09) a random access occasion configured for an active UL BWP of a serving cell; in case that the serving cell is a special cell and an ID of an active DL BWP of the serving cell is not same as an ID of the active UL BWP of the serving cell, switching the active DL BWP of the serving cell (1g-11) to a DL BWP of the serving cell with an ID same as the ID of the active UL BWP of the serving cell, and performing a random access procedure on the switched DL BWP (1g-13) of the serving cell and the active UL BWP of the serving cell; and in case that the serving cell is a secondary cell, SCell, performing a random access procedure on an active DL BWP (1g-15) of the special cell and the active UL BWP of the serving cell, wherein the special cell is a primary cell, PCell, or a primary secondary cell group cell. receiving, from a base station (ld-01, 1e-01), a message including bandwidth part, BWP, configuration information for at least one downlink, DL, BWP and at least one uplink, UL, BWP for each of at least one serving cell, wherein an identity (ID) of each of the at least one DL BWP and the at least one UL BWP is identified based on the BWP configuration information; identifying (1g-09) a random access occasion configured for an active UL BWP of a serving cell; in case that the serving cell is a special cell and an ID of an active DL BWP of the serving cell is not same as an ID of the active UL BWP of the serving cell, switching the active DL BWP of the serving cell (1g-11) to a DL BWP of the serving cell with an ID same as the ID of the active UL BWP of the serving cell, and performing a random access procedure on the switched DL BWP (1g-13) of the serving cell and the active UL BWP of the serving cell; and switching the active DL BWP of the serving cell (1g-11) to a DL BWP of the serving cell with an ID same as the ID of the active UL BWP of the serving cell, and performing a random access procedure on the switched DL BWP (1g-13) of the serving cell and the active UL BWP of the serving cell; and in case that the serving cell is a secondary cell, SCell, performing a random access procedure on an active DL BWP (1g-15) of the special cell and the active UL BWP of the serving cell, wherein the special cell is a primary cell, PCell, or a primary secondary cell group cell.
Transmission with a transmission base , with a drive shaft that can be connected to a motor , with an output shaft that can be connected to a machine or a component to be driven, with a first gear train that is operatively connected with the drive shaft , with a second gear train that is also operatively connected with the drive shaft and is thereby synchronised with the first gear train , with a first transmission part contained in the gear train , with a second transmission part contained in the second gear train , which second transmission part is synchronized with the first transmission part if the first gear train is free of damage, with a locking element arranged on the first transmission part or on the second transmission part , characterised in that only the first gear train is operatively connected to the output shaft and that in the event of asynchrony of the first gear train relative to the second gear train caused by damage to the first gear train the locking element is supported at the transmission base and at the first transmission part outside the surface of engagement with other gear parts and locks the first transmission part relative to the transmission base . with a transmission base , with a drive shaft that can be connected to a motor , with an output shaft that can be connected to a machine or a component to be driven, with a first gear train that is operatively connected with the drive shaft , with a second gear train that is also operatively connected with the drive shaft and is thereby synchronised with the first gear train , with a first transmission part contained in the gear train , with a second transmission part contained in the second gear train , which second transmission part is synchronized with the first transmission part if the first gear train is free of damage, with a locking element arranged on the first transmission part or on the second transmission part , characterised in that only the first gear train is operatively connected to the output shaft and that in the event of asynchrony of the first gear train relative to the second gear train caused by damage to the first gear train the locking element is supported at the transmission base and at the first transmission part outside the surface of engagement with other gear parts and locks the first transmission part relative to the transmission base .
A three-dimensional laminating and shaping apparatus (100; 700; 900) comprising: a plurality of shaping chambers ; a plurality of material suppliers (102a, 102b; 702a, 702b) that supply a material of a three-dimensional laminated and shaped object onto a shaping table in each of said plurality of shaping chambers ; and at least one light beam irradiator (103; 703a, 703b; 903, 906, 907, 908) that irradiates the material with a light beam; characterized by a controller configured to control said material suppliers (102a, 102b; 702a, 702b) and said at least one light beam irradiator (103; 703a, 703b; 903, 906, 907, 908), wherein said controller , at a timing when shaping of the three dimensional laminated and shaped object is completed in one of said shaping chambers , moves said at least one light beam irradiator (103; 703a, 703b; 903, 906, 907, 908) to another of said shaping chambers and starts shaping of the three-dimensional laminated and shaped object in the another of said shaping chambers . a plurality of shaping chambers ; a plurality of material suppliers (102a, 102b; 702a, 702b) that supply a material of a three-dimensional laminated and shaped object onto a shaping table in each of said plurality of shaping chambers ; and at least one light beam irradiator (103; 703a, 703b; 903, 906, 907, 908) that irradiates the material with a light beam; characterized by a controller configured to control said material suppliers (102a, 102b; 702a, 702b) and said at least one light beam irradiator (103; 703a, 703b; 903, 906, 907, 908), wherein said controller , at a timing when shaping of the three dimensional laminated and shaped object is completed in one of said shaping chambers , moves said at least one light beam irradiator (103; 703a, 703b; 903, 906, 907, 908) to another of said shaping chambers and starts shaping of the three-dimensional laminated and shaped object in the another of said shaping chambers .