mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: obtaining a quantified MR image of first contrast agent uptake in non tissue of interest of a patient, wherein the quantified MR image is generated based on first data from an MR imaging modality; obtaining a quantified PET image of second contrast agent uptake in tissue of interest and the non tissue of interest of the patient, wherein the quantified PET image is generated based on second data from a PET imaging modality; generating a first image mask of the non tissue of interest based on the quantified MR image;generating a first feature image based on the quantified PET image and the first image mask, which mask masks out the portions of the quantified PET image corresponding to contrast agent uptake in the non tissue of interest; and displaying at least the first feature image. obtaining a quantified MR image of first contrast agent uptake in non tissue of interest of a patient, wherein the quantified MR image is generated based on first data from an MR imaging modality; obtaining a quantified PET image of second contrast agent uptake in tissue of interest and the non tissue of interest of the patient, wherein the quantified PET image is generated based on second data from a PET imaging modality; generating a first image mask of the non tissue of interest based on the quantified MR image;generating a first feature image based on the quantified PET image and the first image mask, which mask masks out the portions of the quantified PET image corresponding to contrast agent uptake in the non tissue of interest; and displaying at least the first feature image.
A method of filling a silo with crop material to be stored, in particular a flat silo with chopped corn, including the following method steps: a) the crop material to be stored is distributed in the silo, b) the crop material in the silo is continuously driven over by means of at least one compacting machine (3, 5) at least for the duration of a compacting period, wherein at least a force due to the weight of the compacting machine (3, 5) acts on the crop material, and c) the crop material is compacted by means of the action of the force due to the weight of the compacting machine (3, 5), characterised by the following method step: d) the compacting machine (3, 5) is operated autonomously at least within the compacting period, wherein the compacting machine (3, 5) is controlled by means of at least one control device, wherein the compacting machine acts independently entirely without the intervention of human mental activity. a) the crop material to be stored is distributed in the silo, b) the crop material in the silo is continuously driven over by means of at least one compacting machine (3, 5) at least for the duration of a compacting period, wherein at least a force due to the weight of the compacting machine (3, 5) acts on the crop material, and c) the crop material is compacted by means of the action of the force due to the weight of the compacting machine (3, 5),
An Uplink Control Information, UCI, transmission method performed by a mobile station, MS, which is configured with a plurality of serving cells, the method comprising: generating UCI; and transmitting the UCI in a subframe of a serving cell among the plurality of serving cells, wherein: when the MS is not configured for simultaneous transmission of a physical uplink shared channel, PUSCH, that is a data channel and a Physical Uplink Control Channel, PUCCH, that is a control channel, the MS transmits the UCI through a PUSCH of a primary cell if there is PUSCH transmission on the primary cell in the subframe, and the MS transmits the UCI through a PUSCH of a secondary cell among a plurality of secondary cells if there is not PUSCH transmission on the primary cell in the subframe and if there is PUSCH transmission on the secondary cell in the subframe, and wherein the PUSCH of the secondary cell is a PUSCH that is semi-persistently scheduled. generating UCI; and transmitting the UCI in a subframe of a serving cell among the plurality of serving cells, wherein: when the MS is not configured for simultaneous transmission of a physical uplink shared channel, PUSCH, that is a data channel and a Physical Uplink Control Channel, PUCCH, that is a control channel, the MS transmits the UCI through a PUSCH of a primary cell if there is PUSCH transmission on the primary cell in the subframe, and the MS transmits the UCI through a PUSCH of a secondary cell among a plurality of secondary cells if there is not PUSCH transmission on the primary cell in the subframe and if there is PUSCH transmission on the secondary cell in the subframe, and wherein the PUSCH of the secondary cell is a PUSCH that is semi-persistently scheduled. when the MS is not configured for simultaneous transmission of a physical uplink shared channel, PUSCH, that is a data channel and a Physical Uplink Control Channel, PUCCH, that is a control channel, the MS transmits the UCI through a PUSCH of a primary cell if there is PUSCH transmission on the primary cell in the subframe, and the MS transmits the UCI through a PUSCH of a secondary cell among a plurality of secondary cells if there is not PUSCH transmission on the primary cell in the subframe and if there is PUSCH transmission on the secondary cell in the subframe, and wherein the PUSCH of the secondary cell is a PUSCH that is semi-persistently scheduled.
An agricultural harvester comprising at least one working assembly (3, 4, 5) for processing and conveying crop material, and a sensor arrangement which is operable to analyse the crop material spectroscopically in the near infrared range, characterised In that the sensor arrangement detects hazardous substances (17, 18) contained in the processed crop material.
A network access method, performed by a user equipment, UE, connected to a 3 rd Generation Partnership Project, 3GPP, access network, for acquiring multi-network joint transmission, comprising: said UE receiving (S102, S202, S302, S406) wireless local access network, WLAN, access auxiliary information transmitted by said 3GPP access network; said UE performing (S104, S204, S206, S408, S410) a measurement and an access judgment based on said WLAN access auxiliary information and obtaining a judgment result; said UE accessing to (S106, S208, S308, S412) said WLAN according to said judgment result; wherein, said UE performing said measurement and access judgment based on said WLAN access auxiliary information comprises: said UE measuring (S204, S408) said WLAN's signal quality according to said WLAN access auxiliary information; said UE performing (S206, S410) an access judgment according to said WLAN's signal quality and acquired WLAN access condition to obtain said judgment result; said WLAN access auxiliary information comprising at least one of the following: a WLAN's Basic Service Set Identifier and a WLAN's service set identifier; wherein, said UE receives said WLAN access condition from said 3GPP access network via a dedicated signaling or a system message. said UE receiving (S102, S202, S302, S406) wireless local access network, WLAN, access auxiliary information transmitted by said 3GPP access network; said UE performing (S104, S204, S206, S408, S410) a measurement and an access judgment based on said WLAN access auxiliary information and obtaining a judgment result; said UE accessing to (S106, S208, S308, S412) said WLAN according to said judgment result; wherein, said UE performing said measurement and access judgment based on said WLAN access auxiliary information comprises: said UE measuring (S204, S408) said WLAN's signal quality according to said WLAN access auxiliary information; said UE performing (S206, S410) an access judgment according to said WLAN's signal quality and acquired WLAN access condition to obtain said judgment result; said WLAN access auxiliary information comprising at least one of the following: a WLAN's Basic Service Set Identifier and a WLAN's service set identifier; wherein, said UE receives said WLAN access condition from said 3GPP access network via a dedicated signaling or a system message. said UE measuring (S204, S408) said WLAN's signal quality according to said WLAN access auxiliary information; said UE performing (S206, S410) an access judgment according to said WLAN's signal quality and acquired WLAN access condition to obtain said judgment result; said WLAN access auxiliary information comprising at least one of the following: a WLAN's Basic Service Set Identifier and a WLAN's service set identifier; wherein, said UE receives said WLAN access condition from said 3GPP access network via a dedicated signaling or a system message. a WLAN's Basic Service Set Identifier and a WLAN's service set identifier; wherein, said UE receives said WLAN access condition from said 3GPP access network via a dedicated signaling or a system message.
A camera system arranged for mounting on a vehicle's front side location, equipped to provide at least an image of the area in front of the vehicle, the camera system comprising; - a wing assembly arranged for mounting on the vehicles front side location; and - a forward looking camera mounted in the wing assembly, characterized in that the wing assembly has a front portion shaped around and extending in front of a transparent camera portion that forms the front side of the forward looking camera, so that the transparent camera portion forms a smooth and continuous surface with the front portion; wherein the front portion extends forward beyond the transparent camera portion surface, so that a curved guidance surface is formed by the front portion that redirects impacting travel wind from the front portion to a downward direction along the transparent camera portion to keep it free from contamination. - a wing assembly arranged for mounting on the vehicles front side location; and - a forward looking camera mounted in the wing assembly, characterized in that the wing assembly has a front portion shaped around and extending in front of a transparent camera portion that forms the front side of the forward looking camera, so that the transparent camera portion forms a smooth and continuous surface with the front portion; wherein the front portion extends forward beyond the transparent camera portion surface, so that a curved guidance surface is formed by the front portion that redirects impacting travel wind from the front portion to a downward direction along the transparent camera portion to keep it free from contamination.
An information processing apparatus (110, 120) that is configured to display a fisheye image relating to image data captured by image capturing means, the apparatus comprising: first display control means configured to superimpose a first object on the fisheye image, the first object being a segmentation center indicating a center position of a partial image which is a segmented and dewarped part of the fisheye image captured by the image capturing means; and second display control means configured to superimpose a second object and a third object on the fisheye image, the second object being a tilt additional line, which indicates a tilt direction of movement of the partial image in relation to the fisheye image and is rendered as a line segment passing through the center of the fisheye image and the segmentation center, and the third object being a pan additional line, which indicates a pan direction of movement of the partial image in relation to the fisheye image and is rendered as a circle with its center at the center of the fisheye image and its radius being a distance from the center of the fisheye image to the segmentation center; and when a pan and/or tilt operation is performed, the segmentation center is moved along the pan additional line and/or along the tilt additional line, respectively. first display control means configured to superimpose a first object on the fisheye image, the first object being a segmentation center indicating a center position of a partial image which is a segmented and dewarped part of the fisheye image captured by the image capturing means; and second display control means configured to superimpose a second object and a third object on the fisheye image, the second object being a tilt additional line, which indicates a tilt direction of movement of the partial image in relation to the fisheye image and is rendered as a line segment passing through the center of the fisheye image and the segmentation center, and the third object being a pan additional line, which indicates a pan direction of movement of the partial image in relation to the fisheye image and is rendered as a circle with its center at the center of the fisheye image and its radius being a distance from the center of the fisheye image to the segmentation center; and when a pan and/or tilt operation is performed, the segmentation center is moved along the pan additional line and/or along the tilt additional line, respectively.
A valve timing control device for an internal combustion engine, said valve timing control device comprising: a rotor connected to a camshaft, said rotor comprising a plurality of vanes; a stator engaged with the rotor, said stator comprising a plurality of webs, wherein at least one of said rotor and said stator comprises a centering slot (34, 54), and wherein chambers (60, 62) are provided between each of the webs and vanes; a pressure medium control valve disposed in one of said vanes (14, 24) of said rotor, wherein said pressure medium control valve and is configured to selectively lock and unlock a position of said rotor relative to said stator, characterized in that the valve timing control device is configured such that said chambers (60, 62) are ventable through said centering slot (34, 54) and thereafter through said pressure medium control valve, depending on the position of the rotor. a rotor connected to a camshaft, said rotor comprising a plurality of vanes; a stator engaged with the rotor, said stator comprising a plurality of webs, wherein at least one of said rotor and said stator comprises a centering slot (34, 54), and wherein chambers (60, 62) are provided between each of the webs and vanes; a pressure medium control valve disposed in one of said vanes (14, 24) of said rotor, wherein said pressure medium control valve and is configured to selectively lock and unlock a position of said rotor relative to said stator, characterized in that the valve timing control device is configured such that said chambers (60, 62) are ventable through said centering slot (34, 54) and thereafter through said pressure medium control valve, depending on the position of the rotor.
An antioxidant composition which comprises: (a) methylenebis(di-n-butyldithiocarbamate); and (b) an alkylated diphenylamine derivative of 1,2,4-triazole wherein the alkyl group on at least one of the phenyl groups is C 8 or higher and, wherein the (a):(b) mass percent ratio ranges from above 1:2 to 50:1. (a) methylenebis(di-n-butyldithiocarbamate); and (b) an alkylated diphenylamine derivative of 1,2,4-triazole wherein the alkyl group on at least one of the phenyl groups is C 8 or higher and,
Roller shutter slat roll-formed from a coated aluminum strip to a hollow body profile having a male upper end and a female lower end for engagement with one or more other slats, characterized in that the male upper end is provided in longitudinal direction with at least two spacing elements projecting from the outline of the male upper end, the spacing elements preventing the male upper end from contacting the female lower end of an adjacent slat over its entire longitudinal extension, whereby each spacing element comprises at least one nose projecting from the outline of the male upper end next to an opening of the hollow body profile.
A connector assembly for electrically coupling at least two electrical conductors, the assembly comprising, a support structure wall separating the assembly into a first and a second portion; a conductive wall for providing electrical connectivity between the first and second portions; a first biasing member disposed in the first portion, the first biasing member being adapted to deflect upon a first electrical conductor being inserted into the first portion; a second biasing member disposed in the second portion, the second biasing member being adapted to deflect upon a second electrical conductor being inserted into the second portion, and a first connector element and a second connector element, the first and second connector elements (300, 400) being separate from each other, and wherein the first connector element comprises the first biasing member and the second connector element comprises the second biasing member, wherein the first connector element comprises a first side wall and the second connector element comprises a second side wall, the first biasing member is further adapted to bias the first electrical conductor against the conductive wall and the second biasing member being further adapted to bias the second electrical conductor against the conductive wall to electrical couple the first and the second electrical conductors, characterized in that the support structure wall is comprised of the first and second side walls (301, 401) being adjacent each other, the first connector element comprises a first opening provided within the first side wall and the second connector element comprises a second opening provided within the second side wall, and the first and second connector elements (300, 400) are capable of being coupled together via the first and second openings (350, 450).
A method for operating a system having a first fluid catalytic cracking unit and a second FCC unit for producing products from a hydrocarbon feed stream, the method comprising: introducing the hydrocarbon feed stream to a feed separator; separating the hydrocarbon feed stream into a lesser boiling point fraction and a greater boiling point fraction in the feed separator; passing the greater boiling point fraction to the first FCC unit; passing the lesser boiling point fraction to the second FCC unit, where the first FCC unit and the second FCC unit are downflow FCC units; cracking at least a portion of the greater boiling point fraction in the first FCC unit in the presence of a first catalyst at a first cracking temperature of from 500 °C to 700 °C to produce a first cracking reaction product and a spent first catalyst; cracking at least a portion of the lesser boiling point fraction in the second FCC unit in the presence of a second catalyst and at a second cracking temperature of from 500 °C to 700 °C to produce a second cracking reaction product and a spent second catalyst; passing at least a portion of the spent first catalyst to the first FCC unit, the second FCC unit, or the first FCC unit and the second FCC unit; or passing at least a portion of the spent second catalyst to the second FCC unit; and regenerating a non-recycled portion of the spent first catalyst and a non-recycled portion of the spent second catalyst in a regeneration zone to produce a regenerated catalyst. introducing the hydrocarbon feed stream to a feed separator; separating the hydrocarbon feed stream into a lesser boiling point fraction and a greater boiling point fraction in the feed separator; passing the greater boiling point fraction to the first FCC unit; passing the lesser boiling point fraction to the second FCC unit, where the first FCC unit and the second FCC unit are downflow FCC units; cracking at least a portion of the greater boiling point fraction in the first FCC unit in the presence of a first catalyst at a first cracking temperature of from 500 °C to 700 °C to produce a first cracking reaction product and a spent first catalyst; cracking at least a portion of the lesser boiling point fraction in the second FCC unit in the presence of a second catalyst and at a second cracking temperature of from 500 °C to 700 °C to produce a second cracking reaction product and a spent second catalyst; passing at least a portion of the spent first catalyst to the first FCC unit, the second FCC unit, or the first FCC unit and the second FCC unit; or passing at least a portion of the spent second catalyst to the second FCC unit; and regenerating a non-recycled portion of the spent first catalyst and a non-recycled portion of the spent second catalyst in a regeneration zone to produce a regenerated catalyst.
A mounting for an inflatable airbag module intended to be mounted on a lower face of a dashboard of a motor vehicle and to extend under this lower face, the inflatable airbag module comprising a housing enclosing the airbag and its inflating means, this mounting constituting a firing channel forming a closed contour in which the airbag is guided to deploy towards the cab through the dashboard, the mounting comprising an upper portion comprising an upper wall for fixing to the dashboard and a circumferential upper wall extending perpendicular to the upper wall, the circumferential upper wall delimiting an upper part of the firing channel, and a lower portion constituting a circumferential wall delimiting the lower part of the firing channel and prolonging the circumferential upper wall, the lower portion receiving the module, characterized in that the upper portion and the lower portion are two separate parts rigidly connected together while being made of two different materials, the material of the upper portion being more flexible than the material of the lower portion in that the lower portion is rigidly connected to the upper portion by over molding, and in that said lower portion present a thickness that is very greater than the thickness of the upper circumferential wall so as to be able to receive some fixation means of the inflatable airbag module.
Gripping device with at least two grippers (70, 170) mounted pivotably in a housing, each consisting of a gripping element carrier (71, 72; 171, 172) and/or at least one gripping element (6, 106), - wherein each gripper (70, 170) is mounted pivotably in the housing (10, 110), - wherein the housing-side end of the respective gripper (70, 170) has a slotted guide, - wherein each slotted guide at least partially encloses a journal or a region of a journal in each case, - wherein the one or more journal (s) is/are mounted in a slide which is supported in the housing (10, 110) transversely to the pivot axes (95, 96) of the grippers (70, 170) and is in operative connection with an actuator, - wherein at least a region of the slide has a cylindrical outer wall, with which it is guided in a guide bore of the housing (10, 110), - wherein the guide bore has a diameter whose size is equal to at least 60% of the width of the housing, - wherein the slide clasps the housing-side end of the respective gripper (70, 170), - wherein the actuator is a cylinder-piston unit, of which the piston (61, 161) or the cylinder is fixedly connected to the slide, and - wherein the piston (61, 161) of the cylinder-piston unit has an unround cross-section. - wherein each gripper (70, 170) is mounted pivotably in the housing (10, 110), - wherein the housing-side end of the respective gripper (70, 170) has a slotted guide, - wherein each slotted guide at least partially encloses a journal or a region of a journal in each case, - wherein the one or more journal (s) is/are mounted in a slide which is supported in the housing (10, 110) transversely to the pivot axes (95, 96) of the grippers (70, 170) and is in operative connection with an actuator, - wherein at least a region of the slide has a cylindrical outer wall, with which it is guided in a guide bore of the housing (10, 110), - wherein the guide bore has a diameter whose size is equal to at least 60% of the width of the housing, - wherein the slide clasps the housing-side end of the respective gripper (70, 170), - wherein the actuator is a cylinder-piston unit, of which the piston (61, 161) or the cylinder is fixedly connected to the slide, and - wherein the piston (61, 161) of the cylinder-piston unit has an unround cross-section.