mhurhangee/patent-ind-claim-en huggingface dataset:
Shoe , in particular sports shoe, having a shoe upper and a sole part connected to the shoe upper , wherein the sole part comprises a sole body having a bottom region and a side wall region , wherein the bottom region and the wall region form a receiving chamber which is open at the top, wherein the receiving chamber is filled with a bulk material , wherein the bulk material consists at least partially, preferably completely, of a thermoplastic elastomer (TPE), wherein the filled receiving chamber is sealed by a closure body , and wherein the closure body is a knitted fabric that forms a lattice structure, characterized in that the lattice structure of the closure body has a mesh width (w 1 , w 2 ) of at least 0.75 mm and at most 2.0 mm, wherein bodies of spherical or ellipsoidal shape are used as bulk material , wherein the dimensions of the bodies of the bulk material in the three spatial directions are between 3 mm and 6 mm, wherein the closure body is provided with a reinforcing layer in its edge region, wherein the reinforcing layer runs around the entire circumferential area of the closure body , and wherein a reinforcing plate with spring-elastic properties is arranged in the bottom region of the sole body to support the running movement.
A poly olefin polymer processing system comprising: at least one polymer processor selected from at least one of a pelletizer, a blow molding device, a roto molding device, an injection molding device, a cast film device, a blown film device, and a coextrusion device, and one or more devices each comprising a head member , an elongated body comprising a hollow section and having a longitudinal axis; a plurality of holes extending through at least one wall of the elongated body; and a secondary member in fluid communication with the elongated body, the secondary member comprising a conical depression taping away from the hollow section of the elongated body; characterized in that : the poly olefin polymer processing system further comprises at least one extruder or mixer; and at least one screen changer or at least one plate member; the one or more devices being placed in a fixed position in the at least one screen changer or the at least one plate member; and further characterized in that the plurality of holes comprises, respectively to each hole, an inner aperture and outer aperture and the diameter of the outer aperture is greater than the diameter of the inner aperture. at least one polymer processor selected from at least one of a pelletizer, a blow molding device, a roto molding device, an injection molding device, a cast film device, a blown film device, and a coextrusion device, and one or more devices each comprising a head member , an elongated body comprising a hollow section and having a longitudinal axis; a plurality of holes extending through at least one wall of the elongated body; and a secondary member in fluid communication with the elongated body, the secondary member comprising a conical depression taping away from the hollow section of the elongated body; the poly olefin polymer processing system further comprises at least one extruder or mixer; and at least one screen changer or at least one plate member; the one or more devices being placed in a fixed position in the at least one screen changer or the at least one plate member; and further characterized in that the plurality of holes comprises, respectively to each hole, an inner aperture and outer aperture and the diameter of the outer aperture is greater than the diameter of the inner aperture. the one or more devices being placed in a fixed position in the at least one screen changer or the at least one plate member; and further characterized in that the plurality of holes comprises, respectively to each hole, an inner aperture and outer aperture and the diameter of the outer aperture is greater than the diameter of the inner aperture.
An MMP-9 or a functionally equivalent fragment thereof for use in a method for treating a condition in a patient selected from neurodegenerative disease, amyotrophic lateral sclerosis, multiple sclerosis, stroke, traumatic brain injury, brain cancer, lysosomal storage disorders, a mental disorder, epilepsy and neuroAIDS, the method comprising the steps of: (a) treating the patient intranasally with the MMP-9 or a functionally equivalent fragment thereof, and (b) treating the patient intranasally with an active compound, wherein the MMP-9 or a functionally equivalent fragment thereof enhances intranasal delivery of the active compound into the brain. (a) treating the patient intranasally with the MMP-9 or a functionally equivalent fragment thereof, and (b) treating the patient intranasally with an active compound, wherein the MMP-9 or a functionally equivalent fragment thereof enhances intranasal delivery of the active compound into the brain.
An imprint method for transferring a pattern to an imprint material (R) by contacting the imprint material on a substrate (W) with the pattern formed on a mold (M), the imprint method comprising: contacting (S107) the pattern formed on the mold with the imprint material supplied to a shot on the substrate; and detecting (S110) a plurality of alignment marks (AMW) while changing (S109) a position of a detector for detecting the plurality of alignment marks formed on the shot on the substrate in accordance with a progress of filling of the imprint material into the pattern formed on the mold, wherein the detecting detects an alignment mark formed in a region (19e-19q) where the filling of the imprint material is completed. contacting (S107) the pattern formed on the mold with the imprint material supplied to a shot on the substrate; and detecting (S110) a plurality of alignment marks (AMW) while changing (S109) a position of a detector for detecting the plurality of alignment marks formed on the shot on the substrate in accordance with a progress of filling of the imprint material into the pattern formed on the mold, wherein the detecting detects an alignment mark formed in a region (19e-19q) where the filling of the imprint material is completed.
Dispensing device for receiving and dispensing a foodstuff to a dispenser device with a receiving container which has a circumferential container wall for delimitation of a receiving space , an outlet opening connected to the receiving space for connection to a suction connection of the dispenser device , a floating lid which can be displaced over the receiving space , which has a venting apparatus , which in turn has an adjusting element which can be adjusted relative to a lid base body between a closed position, in which it closes a venting opening , and a venting position, in which it at least partially opens the venting opening , characterized in that the adjusting element is held on the lid base body via a screw connection and can be rotated between the closed position and the venting position via a handle formed by a grab handle of the floating lid . an outlet opening connected to the receiving space for connection to a suction connection of the dispenser device , a floating lid which can be displaced over the receiving space , which has a venting apparatus , which in turn has an adjusting element which can be adjusted relative to a lid base body between a closed position, in which it closes a venting opening , and a venting position, in which it at least partially opens the venting opening , characterized in that the adjusting element is held on the lid base body via a screw connection and can be rotated between the closed position and the venting position via a handle formed by a grab handle of the floating lid .
A surgical instrument comprising: a first jaw ; a second jaw ; and a first actuator having a cam mechanism configured to engage the first jaw to effectuate movement of the first jaw between an open position, a clamping position, and a closed position; wherein the cam mechanism has a first cam surface , a second cam surface , and a third cam surface ; wherein the first jaw comprises a first jaw surface , a second jaw surface , and a third jaw surface , the second jaw surface positioned distal of the first and third jaw surfaces , and the first jaw surface positioned proximal of the second and third jaw surfaces ; and wherein the surgical instrument further comprises a pin at one of the first jaw or the second jaw , and an elongated slot at the other one of the first jaw or the second jaw , wherein the pin and elongated slot are configured to allow a pivot axis of the first jaw to translate; wherein the first cam surface is configured to engage the first jaw surface as the first actuator is moved distally from a first position to a second position to effectuate rotation of the first jaw from the open position to the clamping position; and the second cam surface is configured to engage the second jaw surface as the first actuator is moved distally from the second position to a third position to effectuate translation of the first jaw from the clamping position to the closed position; the third cam surface is configured to engage the third jaw surface as the first actuator is moved proximally to effectuate translation of the first jaw from the closed position to the clamping position. a first jaw ; a second jaw ; and a first actuator having a cam mechanism configured to engage the first jaw to effectuate movement of the first jaw between an open position, a clamping position, and a closed position; wherein the cam mechanism has a first cam surface , a second cam surface , and a third cam surface ; wherein the first jaw comprises a first jaw surface , a second jaw surface , and a third jaw surface , the second jaw surface positioned distal of the first and third jaw surfaces , and the first jaw surface positioned proximal of the second and third jaw surfaces ; and wherein the surgical instrument further comprises a pin at one of the first jaw or the second jaw , and an elongated slot at the other one of the first jaw or the second jaw , wherein the pin and elongated slot are configured to allow a pivot axis of the first jaw to translate; wherein the first cam surface is configured to engage the first jaw surface as the first actuator is moved distally from a first position to a second position to effectuate rotation of the first jaw from the open position to the clamping position; and the second cam surface is configured to engage the second jaw surface as the first actuator is moved distally from the second position to a third position to effectuate translation of the first jaw from the clamping position to the closed position; the third cam surface is configured to engage the third jaw surface as the first actuator is moved proximally to effectuate translation of the first jaw from the closed position to the clamping position.
Irradiating method for the powder-bed-based, additive manufacturing of a component in order to heal structural defects in an additively constructed structure for the component , comprising the following steps: - providing a laser or electron beam , - selectively irradiating a defect region (DB) of an additively structured layer of the structure with the laser or electron beam in accordance with a predetermined, in particular closed, trajectory (T), which defines the defect region (DB), wherein the trajectory is a looplike trajectory, wherein the defect region (DB) contains a structural defect and wherein the defect region (DB) comprises a plurality of partial loops (TS, TS1, TS2, TS3) and each partial loop (TS, TS1, TS2, TS3) has, in particular two opposite, arcs (BO, BO1, BO2, BO3). - providing a laser or electron beam , - selectively irradiating a defect region (DB) of an additively structured layer of the structure with the laser or electron beam in accordance with a predetermined, in particular closed, trajectory (T), which defines the defect region (DB), wherein the trajectory is a looplike trajectory, wherein the defect region (DB) contains a structural defect and wherein the defect region (DB) comprises a plurality of partial loops (TS, TS1, TS2, TS3) and each partial loop (TS, TS1, TS2, TS3) has, in particular two opposite, arcs (BO, BO1, BO2, BO3).
A method for improving usage of lubrication in a drive of a vehicle, wherein the drive comprises an electric traction motor and at least one region with lubricant, wherein the method comprises the steps of: - determining the value of at least one operating variable of the vehicle; - determining the lubricant temperature (T) on the basis of the value of the operating variable; and - estimating the remaining service life of the lubricant and/or the spent portion of the admissible service life of the lubricant on the basis of the lubricant temperature (T); wherein the operating variable is at least one thermal dissipation of the drive . - determining the value of at least one operating variable of the vehicle; - determining the lubricant temperature (T) on the basis of the value of the operating variable; and - estimating the remaining service life of the lubricant and/or the spent portion of the admissible service life of the lubricant on the basis of the lubricant temperature (T); wherein the operating variable is at least one thermal dissipation of the drive .
An integrated chip , comprising: an application processor , configured to write first data into an off-chip memory in a normal secure mode by using a storage controller , wherein an address of the first data in the off-chip memory is a first address, and wherein the normal secure mode is a security mode of the application processor ; a security processor , configured to send a first read instruction to the storage controller in an enhanced secure mode, wherein the first read instruction is used to request to read the first data at the first address, and wherein the enhanced secure mode is a security mode of the security processor ; and the storage controller , configured to: determine that the first read instruction is authenticated; read the first data from the off-chip memory; and send the first data to the security processor ; wherein when determining that the first read instruction is authenticated, the storage controller is configured to: determine that the first address belongs to a first storage area of the off-chip memory, wherein the first storage area is configured to allow the application processor in the normal secure mode to perform a write/read operation and allow the security processor in the enhanced secure mode to perform a read operation; and determine that the security processor is in the enhanced secure mode and the first read instruction is a read instruction. an application processor , configured to write first data into an off-chip memory in a normal secure mode by using a storage controller , wherein an address of the first data in the off-chip memory is a first address, and wherein the normal secure mode is a security mode of the application processor ; a security processor , configured to send a first read instruction to the storage controller in an enhanced secure mode, wherein the first read instruction is used to request to read the first data at the first address, and wherein the enhanced secure mode is a security mode of the security processor ; and the storage controller , configured to: determine that the first read instruction is authenticated; read the first data from the off-chip memory; and send the first data to the security processor ; wherein when determining that the first read instruction is authenticated, the storage controller is configured to: determine that the first read instruction is authenticated; read the first data from the off-chip memory; and send the first data to the security processor ; wherein when determining that the first read instruction is authenticated, the storage controller is configured to: determine that the first address belongs to a first storage area of the off-chip memory, wherein the first storage area is configured to allow the application processor in the normal secure mode to perform a write/read operation and allow the security processor in the enhanced secure mode to perform a read operation; and determine that the security processor is in the enhanced secure mode and the first read instruction is a read instruction.
A method for automated reconstruction of a 3D computed tomography (CT) volume from one or more X-ray images, comprising: generating a sparse 3D volume from two or more X-ray images of a patient; and generating a final reconstructed 3D CT volume which is a non-sparse CT volume that will appear as if it was reconstructed from a full set of X-ray projection images from the sparse 3D volume using a trained deep neural network, wherein the two or more X-ray images of the patient comprise a first x-ray image and a second x-ray image, and generating the sparse 3D volume from the one or more X-ray images of the patient comprises: generating the sparse 3D volume from the first X-ray image and the second X-ray image using a tomographic reconstruction algorithm, wherein the trained deep neural network is a deep image-to-image network that is trained in a conditional-generative adversarial network together with a discriminator network for distinguishing between synthesized reconstructed 3D CT volumes generated by the deep image-to-image network from input sparse 3D volume training samples and real reconstructed 3D CT volume training samples, conditioned on the input sparse 3D volume training samples, in particular, wherein the conditional-generative adversarial network is integrated with a voxel-wise cost function that computes a voxel-wise error between the synthesized reconstructed 3D CT volumes generated by the deep image-to-image network from input sparse 3D volume training samples and corresponding ground-truth reconstructed 3D CT volume training samples, and the deep image-to-image network and the discriminator network are trained together to optimize, over a plurality of training samples, a minimax objective function that includes a first term that calculates an error using the voxel-wise cost function, a second term that calculates an error of the discriminator network classifying the real reconstructed 3D CT training samples, and a third term that calculates an error of the discriminator network classifying the synthesized reconstructed 3D CT volumes generated by the deep image-to-image network. generating a sparse 3D volume from two or more X-ray images of a patient; and generating a final reconstructed 3D CT volume which is a non-sparse CT volume that will appear as if it was reconstructed from a full set of X-ray projection images from the sparse 3D volume using a trained deep neural network,
A sustained-release pharmaceutical composition, comprising: a drug; a collagen; and at least one kind of sugar selected from disaccharides and trisaccharides, wherein the sugar has such a concentration in the composition before administration to a body that the sugar inhibits gelation of the collagen, wherein the concentration of the sugar is 0.1 M to 0.5 M. a drug; a collagen; and at least one kind of sugar selected from disaccharides and trisaccharides,
Handle device for operating doors, windows and the like, comprising a first element , which is rotatable about an axis of rotation, a second element , and a coupling device which is arranged to selectively allow and prevent relative rotation about the axis of rotation between the first and the second element, the coupling device comprising; - a first coupling member being connected to or forming an integral part of the first element - a second coupling member being connected to or forming an integral part of the second element , - at least two engaging members which are movable between an engagement position in which they simultaneously engage the first and the second coupling members to thereby prevent relative rotation between the first and second element and a release position in which they are disengaged from at least one of the first and second coupling members to thereby allow relative rotation between the first and second element, - an actuator which is arranged to move the engaging members between the engagement position and the release position; wherein the engaging members are pivotally mounted to the first coupling member and arranged to pivotally move between the engagement position and the release position and in that the engaging members are mutually interconnected for synchronized movement between the engagement position and the release position. - a first coupling member being connected to or forming an integral part of the first element - a second coupling member being connected to or forming an integral part of the second element , - at least two engaging members which are movable between an engagement position in which they simultaneously engage the first and the second coupling members to thereby prevent relative rotation between the first and second element and a release position in which they are disengaged from at least one of the first and second coupling members to thereby allow relative rotation between the first and second element, - an actuator which is arranged to move the engaging members between the engagement position and the release position; wherein the engaging members are pivotally mounted to the first coupling member and arranged to pivotally move between the engagement position and the release position and in that the engaging members are mutually interconnected for synchronized movement between the engagement position and the release position.
A laundry cleaning composition comprising: (i) from 0.2 to 20 wt.%, preferably 0.5 to 12 wt.%, more preferably 1 to 10 wt.% of an alkoxylated dispersant of the following structure: wherein: X is selected from: ethoxy; and mixtures of ethoxy and propoxy groups, wherein the number of ethoxy groups is greater than the number of propoxy groups, and wherein n is from 6 to 70; m is 2; R 1 is selected from: branched and linear C8 to C20 alkyl chains, uncharged aryl groups; and, uncharged alkyl-aryl groups, wherein the alkyl group of the alkyl-aryl is a saturated linear or branched C1 to C3; T is CH 3 ; Y is selected from O; (ii) from 0 to 50 wt.% surfactant, other than the alkoxylated dispersant; and (iii) an active ingredient selected from one or more of the following: from 0.001 to 3 wt.% perfume; from 0.0001 to 0.5 wt.% of fluorescent agent; and, from 0.0001 wt.% to 0.1 wt.% of an enzyme. (i) from 0.2 to 20 wt.%, preferably 0.5 to 12 wt.%, more preferably 1 to 10 wt.% of an alkoxylated dispersant of the following structure: wherein: X is selected from: ethoxy; and mixtures of ethoxy and propoxy groups, wherein the number of ethoxy groups is greater than the number of propoxy groups, and wherein n is from 6 to 70; m is 2; R 1 is selected from: branched and linear C8 to C20 alkyl chains, uncharged aryl groups; and, uncharged alkyl-aryl groups, wherein the alkyl group of the alkyl-aryl is a saturated linear or branched C1 to C3; T is CH 3 ; Y is selected from O; X is selected from: ethoxy; and mixtures of ethoxy and propoxy groups, wherein the number of ethoxy groups is greater than the number of propoxy groups, and wherein n is from 6 to 70; m is 2; R 1 is selected from: branched and linear C8 to C20 alkyl chains, uncharged aryl groups; and, uncharged alkyl-aryl groups, wherein the alkyl group of the alkyl-aryl is a saturated linear or branched C1 to C3; T is CH 3 ; Y is selected from O; (ii) from 0 to 50 wt.% surfactant, other than the alkoxylated dispersant; and (iii) an active ingredient selected from one or more of the following: from 0.001 to 3 wt.% perfume; from 0.0001 to 0.5 wt.% of fluorescent agent; and, from 0.0001 wt.% to 0.1 wt.% of an enzyme.