mhurhangee/patent-ind-claim-en huggingface dataset:
A mounting pin for an anchoring device for sealing the insertion opening thereof, which insertion opening serves for inserting a hook or a threaded rod, as well as for temporarily attaching the anchoring device with the mounting pin to a formwork panel, comprising a sealing plate with a tubular plug-in part on the sealing plate , wherein the sealing plate protrudes externally beyond the side walls of the plug-in part in a flange-like manner, characterized in that means for lifting and pulling out the mounting pin from the anchoring device are formed on the sealing plate , whereby an engagement region for inserting a tool is formed in the sealing plate , and in the central portion of the sealing plate extending over the tubular region of the plug-in part , a ridge is arranged which crosses the cross-section of the region beneath the upper side of the sealing plate , wherein the ridge is formed by an increase in the wall thickness of the sealing plate and may be engaged from below by the tool by inserting the tool into the engagement region such that the mounting pin is able to be lifted and pulled out from the anchoring device. means for lifting and pulling out the mounting pin from the anchoring device are formed on the sealing plate , whereby an engagement region for inserting a tool is formed in the sealing plate , and in the central portion of the sealing plate extending over the tubular region of the plug-in part , a ridge is arranged which crosses the cross-section of the region beneath the upper side of the sealing plate , wherein the ridge is formed by an increase in the wall thickness of the sealing plate and may be engaged from below by the tool by inserting the tool into the engagement region such that the mounting pin is able to be lifted and pulled out from the anchoring device.
A method comprising: at one or more authentication servers of an enterprise network , performing an authentication procedure with a user equipment , UE, associated with a mobile identity, for authenticating the UE in a mobile network based on an authentication vector retrieved from a subscription database of the mobile network based on the mobile identity; retrieving , from the subscription database of the mobile network, one or more additional authentication vectors based on the mobile identity and storing them in association with the mobile identity of the UE in a database , DB, of the enterprise network; performing, with use of an enterprise bootstrapping server function , BSF, of the enterprise network, a general bootstrapping architecture, GBA, bootstrapping procedure with the UE for authenticating the UE based on one of the one or more additional authentication vectors retrieved from the DB of the enterprise network, and generating a bootstrapping session key, Ks, associated with a bootstrapping transaction identifier, B-TID, for use in subsequently authenticating the UE for access to an application of an application server of the enterprise network. performing an authentication procedure with a user equipment , UE, associated with a mobile identity, for authenticating the UE in a mobile network based on an authentication vector retrieved from a subscription database of the mobile network based on the mobile identity; retrieving , from the subscription database of the mobile network, one or more additional authentication vectors based on the mobile identity and storing them in association with the mobile identity of the UE in a database , DB, of the enterprise network; performing, with use of an enterprise bootstrapping server function , BSF, of the enterprise network, a general bootstrapping architecture, GBA, bootstrapping procedure with the UE for authenticating the UE based on one of the one or more additional authentication vectors retrieved from the DB of the enterprise network, and generating a bootstrapping session key, Ks, associated with a bootstrapping transaction identifier, B-TID, for use in subsequently authenticating the UE for access to an application of an application server of the enterprise network.
A method for changing the shape of a flexible communication device, the method comprising: - recognizing (3:1) a request for rendering a haptic effect on the communication device; - initiating determination (3:2) of at least one property associated with the requested haptic effect; - initiating determination (3:3) of at least one property of the communication device, the at least one property of the communication device being considered to be of relevance when rendering the haptic effect on the communication device; - initiating, based on said properties, a determination (3:4) on whether conditions, specifying requirements for rendering the haptic effect on the communication device, are met or not, and - initiating, in case said conditions are not met, a determination (3:5) of a modification of the shape of the device, such that said conditions are met with respect to said properties. - recognizing (3:1) a request for rendering a haptic effect on the communication device; - initiating determination (3:2) of at least one property associated with the requested haptic effect; - initiating determination (3:3) of at least one property of the communication device, the at least one property of the communication device being considered to be of relevance when rendering the haptic effect on the communication device; - initiating, based on said properties, a determination (3:4) on whether conditions, specifying requirements for rendering the haptic effect on the communication device, are met or not, and - initiating, in case said conditions are not met, a determination (3:5) of a modification of the shape of the device, such that said conditions are met with respect to said properties.
A method for grading a food article , the method comprising: utilizing a grading device to remove at least one of a plurality of portions of a food article from the surface of a grading conveyor (118; 218), while transferring the remaining portions of the food article to a receiving conveyor , characterized in that the grading device comprises a spray-removal robot comprising a valve and a nozzle , such that the valve ejects fluid through the nozzle to impact a position in the path of the grading conveyor (118; 218) when the portion to be removed is located at the position, wherein the portion to be removed is propelled through a space between the grading conveyor (118; 218) and the receiving conveyor when the portion to be removed is impacted by fluid ejected through the nozzle . utilizing a grading device to remove at least one of a plurality of portions of a food article from the surface of a grading conveyor (118; 218), while transferring the remaining portions of the food article to a receiving conveyor , characterized in that the grading device comprises a spray-removal robot comprising a valve and a nozzle , such that the valve ejects fluid through the nozzle to impact a position in the path of the grading conveyor (118; 218) when the portion to be removed is located at the position, wherein the portion to be removed is propelled through a space between the grading conveyor (118; 218) and the receiving conveyor when the portion to be removed is impacted by fluid ejected through the nozzle .
A hydraulic rotating machine comprising: a case ; a cylinder block housed in the case and having a plurality of cylinders ; a piston reciprocatively inserted into each of the cylinders ; a swash plate configured to reciprocate the pistons as the cylinder block rotates; a tilt control piston configured to bias the swash plate and control a tilt angle of the swash plate ; and a stopper mounted to a mounting hole formed in the case , the stopper and the cylinder block being respectively located on opposite sides of the swash plate , the stopper being configured to define a minimum tilt angle of the swash plate , wherein the stopper has an abutting portion which abuts the swash plate , characterized in that the stopper has a through hole with a sliding surface provided at an inner circumference thereof for slidably supporting the tilt control piston . a case ; a cylinder block housed in the case and having a plurality of cylinders ; a piston reciprocatively inserted into each of the cylinders ; a swash plate configured to reciprocate the pistons as the cylinder block rotates; a tilt control piston configured to bias the swash plate and control a tilt angle of the swash plate ; and a stopper mounted to a mounting hole formed in the case , the stopper and the cylinder block being respectively located on opposite sides of the swash plate , the stopper being configured to define a minimum tilt angle of the swash plate , wherein the stopper has an abutting portion which abuts the swash plate , characterized in that the stopper has a through hole with a sliding surface provided at an inner circumference thereof for slidably supporting the tilt control piston .
Afoot and mouth disease (FMD) vaccine composition, comprising a) a synthetic immunogenic peptide comprising an FMDV VP1 looped B cell epitope sequence of SEQ ID NO: 1 and a Th epitope sequence of SEQ ID NO: 24; b) a separate FMDV T helper epitope peptide selected from the group consisting of SEQ ID NOs: 34 to 95 and combinations thereof; and c) a veterinarily acceptable delivery vehicle or adjuvant. a) a synthetic immunogenic peptide comprising an FMDV VP1 looped B cell epitope sequence of SEQ ID NO: 1 and a Th epitope sequence of SEQ ID NO: 24; b) a separate FMDV T helper epitope peptide selected from the group consisting of SEQ ID NOs: 34 to 95 and combinations thereof; and c) a veterinarily acceptable delivery vehicle or adjuvant.
A method for magnetic cellular manipulation, the method comprising: contacting a biological sample with a plurality of magnetic particles, the magnetic particles comprising a magnetic substance, the magnetic substance having a magnetic susceptibility greater than zero and a chargeable silicon-containing compound having a negative zeta potential charge coating at least a portion of the magnetic substrate, the magnetic particles binding to the biological sample comprising a positive zeta potential charge through an electrical charge interaction; and manipulating the bound magnetic particles with a magnetic field. contacting a biological sample with a plurality of magnetic particles, the magnetic particles comprising a magnetic substance, the magnetic substance having a magnetic susceptibility greater than zero and a chargeable silicon-containing compound having a negative zeta potential charge coating at least a portion of the magnetic substrate, the magnetic particles binding to the biological sample comprising a positive zeta potential charge through an electrical charge interaction; and manipulating the bound magnetic particles with a magnetic field.
A method of producing an expanded population of hematopoietic stem cells ex vivo, said method comprising contacting a population of hematopoietic stem cells with: (i) one or more agents that reduce the level of an ikaros family member transcription factor in a cell, wherein the one or more agents are selected from the group consisting of pomalidomide and lenalidomide, and (ii) one or more agents that inhibit TGFβ signaling, wherein the one or more agents that inhibit TGFβ signaling comprise a TGFβ receptor inhibitor, and wherein said TGFβ receptor inhibitor is selected from the group consisting of ALK5 inhibitor II, LY364947, DMH1, and A83-01, wherein the one or more agents are present in amounts that are sufficient to produce an expanded population of hematopoietic stem cells. (i) one or more agents that reduce the level of an ikaros family member transcription factor in a cell, wherein the one or more agents are selected from the group consisting of pomalidomide and lenalidomide, and (ii) one or more agents that inhibit TGFβ signaling, wherein the one or more agents that inhibit TGFβ signaling comprise a TGFβ receptor inhibitor, and wherein said TGFβ receptor inhibitor is selected from the group consisting of ALK5 inhibitor II, LY364947, DMH1, and A83-01,
Process for producing a powder composed of an aluminium alloy having an inactive or passivated surface, characterized in that a melt of the aluminium alloy is atomized in an atomization plant by means of an atomizing gas which consists of from 50% by volume to 100% by volume of molecular nitrogen and from 50% by volume to 0% by volume of one or more noble gases, to give a powder, characterized in that the alloy is an AlSc alloy, wherein the alloy is the following alloy: - Mg(0.5-10)Sc(0.2-2.0)Zr(0.2-2.0) (% by weight) and Al and unavoidable impurities as balance. - Mg(0.5-10)Sc(0.2-2.0)Zr(0.2-2.0) (% by weight) and Al and unavoidable impurities as balance.
A near-field magnetically coupled anti-counterfeiting tag comprising a sacrificial conductive track crossing a sacrificial zone (10-2, 10-3) of the tag; characterized in that each segment of the sacrificial track crossing the sacrificial zone is split longitudinally into a plurality of sub-segments , the sub-segments being in electrical contact with each other at the ends of the segment.
Cover device for a seat substructure of a vehicle seat , wherein the cover device laterally surrounds the seat substructure and comprises at least two inherently rigid frame-like element , characterised in that the at least two frame-like elements are telescopically displaceable along a height axis Z into each other, wherein at least one guiding device is provided, by means of which the frame-like elements are guided in a displacement along a height axis Z, wherein at least one elastic element is provided, by means of which the cover device can be reset to a predetermined initial state, wherein the at least one elastic element is arranged between two frame-like elements .
A method of operating a mobile lift crane , the lift crane comprising a carbody having moveable ground engaging members ; a rotating bed rotatably connected to the carbody such that the rotating bed can swing with respect to the moveable ground engaging members ; a boom pivotally mounted on a front portion of the rotating bed, with a hoist line extending therefrom; a mast mounted at its first end on the rotating bed; at least one hydraulic cylinder (38, 138, 436 and 536) including a first end and a second end, the second end of the hydraulic cylinder being connected directly or indirectly to the rotating bed; and a moveable counterweight unit ; the method comprising: a) performing a pick, move and set operation with a load characterized in that the moveable counterweight is moved toward and away from the front portion of the rotating bed by extending and retracting the hydraulic cylinder during the pick, move and set operation to help counterbalance the load, wherein at least one arm is pivotally connected at a first end to the rotating bed and pivotally connected at a second end to the first end of the hydraulic cylinder, the arm and hydraulic cylinder being connected between the rotating bed and the moveable counterweight unit such that extension and retraction of the hydraulic cylinder changes the position of the moveable counterweight unit compared to the rotating bed, but wherein the crane is configured such that the counterweight is never supported by the ground throughout pick, move and set operations other than indirectly by the moveable ground engaging members on the carbody. a) performing a pick, move and set operation with a load characterized in that the moveable counterweight is moved toward and away from the front portion of the rotating bed by extending and retracting the hydraulic cylinder during the pick, move and set operation to help counterbalance the load, wherein at least one arm is pivotally connected at a first end to the rotating bed and pivotally connected at a second end to the first end of the hydraulic cylinder, the arm and hydraulic cylinder being connected between the rotating bed and the moveable counterweight unit such that extension and retraction of the hydraulic cylinder changes the position of the moveable counterweight unit compared to the rotating bed, but wherein the crane is configured such that the counterweight is never supported by the ground throughout pick, move and set operations other than indirectly by the moveable ground engaging members on the carbody.
A method of manufacturing a microneedle assembly, the method comprising: generating a core microneedle assembly by filling a first silicone mold including a plurality of microneedle cavities with a copolymer, spinning the first silicone mold to remove a first scum layer of the copolymer on the first silicone mold, and generating a core in each of the copolymer-filled cavities; generating a therapeutic agent assembly by filling a plurality of cavities in a second silicone mold with a therapeutic agent, spinning the second silicone mold to remove a second scum layer of the therapeutic agent, and removing the molded therapeutic agent from the second mold and transferring the molded therapeutic agent to a substrate; and aligning the therapeutic agent assembly with the core microneedle assembly to thereby fill the cores in the core microneedle assembly with the therapeutic agent. generating a core microneedle assembly by filling a first silicone mold including a plurality of microneedle cavities with a copolymer, spinning the first silicone mold to remove a first scum layer of the copolymer on the first silicone mold, and generating a core in each of the copolymer-filled cavities; filling a first silicone mold including a plurality of microneedle cavities with a copolymer, spinning the first silicone mold to remove a first scum layer of the copolymer on the first silicone mold, and generating a core in each of the copolymer-filled cavities; generating a therapeutic agent assembly by filling a plurality of cavities in a second silicone mold with a therapeutic agent, spinning the second silicone mold to remove a second scum layer of the therapeutic agent, and removing the molded therapeutic agent from the second mold and transferring the molded therapeutic agent to a substrate; and filling a plurality of cavities in a second silicone mold with a therapeutic agent, spinning the second silicone mold to remove a second scum layer of the therapeutic agent, and removing the molded therapeutic agent from the second mold and transferring the molded therapeutic agent to a substrate; and aligning the therapeutic agent assembly with the core microneedle assembly to thereby fill the cores in the core microneedle assembly with the therapeutic agent.
Image processing apparatus for determining a focused output image (O AF ( x i )) in an autofocus system , in particular a passive autofocus system , wherein the image processing apparatus is configured - to retrieve a set of input images ( I ( x i )); - to compute at least one baseline estimate ( f ( x i )) for at least one input image of the set of input images, the at least one baseline estimate representing image structures in the at least one input image, the image structures having a length scale larger than a predetermined image feature length scale ( fl j ); characterized in that the image processing apparatus is further configured - to compute a set of output images ( O ( x i )) from the set of the input images ( I ( x i )) and the computed baseline estimate ( f ( x i )), wherein the computed baseline estimate ( f ( x i )) is subtracted from the input image ( I ( x i )) of the set of input images ( I ( x i )), for which the baseline estimate ( f(x i )) has been computed as a fit to said input image ( I ( x i )) and represents an out-of-focus component having low spatial frequency in said input image ( I ( x i )); - to determine one output image of the set of output images as the focused output image by using a focus function. - to retrieve a set of input images ( I ( x i )); - to compute at least one baseline estimate ( f ( x i )) for at least one input image of the set of input images, the at least one baseline estimate representing image structures in the at least one input image, the image structures having a length scale larger than a predetermined image feature length scale ( fl j ); characterized in that the image processing apparatus is further configured - to compute a set of output images ( O ( x i )) from the set of the input images ( I ( x i )) and the computed baseline estimate ( f ( x i )), wherein the computed baseline estimate ( f ( x i )) is subtracted from the input image ( I ( x i )) of the set of input images ( I ( x i )), for which the baseline estimate ( f(x i )) has been computed as a fit to said input image ( I ( x i )) and represents an out-of-focus component having low spatial frequency in said input image ( I ( x i )); - to determine one output image of the set of output images as the focused output image by using a focus function.
A train automatic stop control device configured to stop a train at a predetermined target stop position, comprising: speed and position calculation means for calculating a speed and current position of the train; relative distance calculation means for calculating a relative distance between an object installed outside a railroad track and the train; and control command calculation means for receiving information of the train's speed and current position calculated by the speed and position calculation means , wherein the speed and position calculation means calculates the current position of the train from information of the relative distance received from the relative distance calculation means and positional information of the object , characterised in that , the control command calculation means calculates a braking command from a speed deviation between the train's speed and a target speed set for the current position, and when input from the relative distance calculation means is discontinuous or is intermittent, the control command calculation means calculates a braking command to stop the train at a position located on a front side with respect to the target stop position. speed and position calculation means for calculating a speed and current position of the train; relative distance calculation means for calculating a relative distance between an object installed outside a railroad track and the train; and control command calculation means for receiving information of the train's speed and current position calculated by the speed and position calculation means , wherein the speed and position calculation means calculates the current position of the train from information of the relative distance received from the relative distance calculation means and positional information of the object , characterised in that , the control command calculation means calculates a braking command from a speed deviation between the train's speed and a target speed set for the current position, and when input from the relative distance calculation means is discontinuous or is intermittent, the control command calculation means calculates a braking command to stop the train at a position located on a front side with respect to the target stop position.