mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for providing resources in a distributed computing environment, comprising: receiving a work item from a user, the work item being a static representation of a job to be run; creating the job from the work item, wherein the job represents a running instance of the work item and the job is comprised of a plurality of tasks; automatically, with a processor and memory, allocating at least one first virtual machine to a first pool of virtual machines owned by a first scheduler; assigning the job to the first pool; scheduling, with the first scheduler, the tasks of the job on the first pool; instantiating the tasks of the job on the first pool including leasing the tasks of the job from a job queue, wherein the leased tasks are invisible to resources that are not included in the first pool of virtual machines; reassigning a portion of the tasks of the job to a second pool of virtual machines owned by a second scheduler, the reassigning including releasing the leased tasks of the portion of the tasks, wherein the released tasks become visible again in the job queue for resources that are not included in the first pool of virtual machines, the second pool being operatively independent from the first pool; scheduling, with the second scheduler, the portion of the released tasks on the second pool; and instantiating the portion of the released tasks on the second pool including leasing the released tasks. receiving a work item from a user, the work item being a static representation of a job to be run; creating the job from the work item, wherein the job represents a running instance of the work item and the job is comprised of a plurality of tasks; automatically, with a processor and memory, allocating at least one first virtual machine to a first pool of virtual machines owned by a first scheduler; assigning the job to the first pool; scheduling, with the first scheduler, the tasks of the job on the first pool; instantiating the tasks of the job on the first pool including leasing the tasks of the job from a job queue, wherein the leased tasks are invisible to resources that are not included in the first pool of virtual machines; reassigning a portion of the tasks of the job to a second pool of virtual machines owned by a second scheduler, the reassigning including releasing the leased tasks of the portion of the tasks, wherein the released tasks become visible again in the job queue for resources that are not included in the first pool of virtual machines, the second pool being operatively independent from the first pool; scheduling, with the second scheduler, the portion of the released tasks on the second pool; and instantiating the portion of the released tasks on the second pool including leasing the released tasks.
A chimeric molecule comprising (i) a targeting moiety that binds to heparin or heparan sulfate proteoglycans; and (ii) a lysosomal peptide or protein, wherein the lysosomal peptide or protein is tripeptidyl-peptidase 1, wherein the targeting moiety is Basic Fibroblast Growth Factor (bFGF) comprising the amino acid sequence according to SEQ ID NO. 4 (GHFKDPKRLYCKNGGF). (i) a targeting moiety that binds to heparin or heparan sulfate proteoglycans; and (ii) a lysosomal peptide or protein, wherein the lysosomal peptide or protein is tripeptidyl-peptidase 1, wherein the targeting moiety is Basic Fibroblast Growth Factor (bFGF) comprising the amino acid sequence according to SEQ ID NO. 4 (GHFKDPKRLYCKNGGF).
Retensioning device for catenaries of electrical trains with a supporting cable and a contact wire, that are each connected with spring elements (26, 29) for the retensioning, wherein the spring elements are mounted at a vertical pillar, which is itself mounted at a horizontal bracing beam of a portal frame, and wherein at one end of the vertical pillar at least one redirection pulley is arranged, at which the contact wire that is to be retensioned directly or indirectly is redirected upwardly to the allocated spring element, characterized in that, the vertical pillar is a pipe and in that the spring elements (28, 29) are mounted at the vertical pillar via cantilever arms (44, 45) by using pipe clamps (42, 43) and in that the vertical pillar is mounted at the horizontal bracing beam by using pipe clamps (40, 41).
A packaging apparatus comprising: an outer sleeve, the outer sleeving including: an open compartment; a closed compartment; and an interior wall located between the open compartment and the closed compartment, the interior wall including a first aperture; and an inner sleeve, characterised in that the inner sleeve includes: a first locking mechanism comprising a first tab, the first tab configured to move from a position substantially parallel to a side panel of the inner sleeve when sliding the inner sleeve in the open compartment of the outer sleeve and protrude through the first aperture in the interior wall of the outer sleeve in a position extending perpendicular to the side panel of the inner sleeve into the closed compartment of the outer sleeve to lock the inner sleeve in the outer sleeve. an open compartment; a closed compartment; and an interior wall located between the open compartment and the closed compartment, the interior wall including a first aperture; and an inner sleeve, characterised in that the inner sleeve includes: a first locking mechanism comprising a first tab, the first tab configured to move from a position substantially parallel to a side panel of the inner sleeve when sliding the inner sleeve in the open compartment of the outer sleeve and protrude through the first aperture in the interior wall of the outer sleeve in a position extending perpendicular to the side panel of the inner sleeve into the closed compartment of the outer sleeve to lock the inner sleeve in the outer sleeve.
A data path for transmitting beamlet modulation data to a maskless lithography system, for modulating a plurality of charged particle beamlets (132, 133) generated by the lithography system for exposing a field of a target, the data path comprising: - a plurality of transmission channels, for transmitting the beamlet modulation data to the lithography system; - first and second channel selectors (220, 320) connecting a subset of selected transmission channels among the transmission channels for transmitting pattern data; wherein the first channel selector is connected between a processing system and the transmission channels, and the second channel selector is connected between the transmission channels and the lithography system; characterized in that the transmission channels include spare channels, and in that the first and second channel selectors (220, 320) are adapted to operate in conjunction with each other to connect a subset of selected transmission channels excluding failed channels, among the transmission channels including spare channels, for transmitting the pattern data. - a plurality of transmission channels, for transmitting the beamlet modulation data to the lithography system; - first and second channel selectors (220, 320) connecting a subset of selected transmission channels among the transmission channels for transmitting pattern data;
A medical device comprising (a) a stent component having structural elements extending around a circumference of the stent component, wherein a plurality of structural elements are connected to at least one adjacent structural element by a strut, (b) a covering material fully or partially covering the stent component, and (c) a bonding material associated with the covering material; wherein the medical device is configured to bond to tissue when the bonding material is exposed to an energy source.
An actuation mechanism for actuating an electrosurgical end effector, comprising: a housing; and a shaft assembly extending distally from the housing, the shaft assembly including: an elongate collar having an internal threadform extending along a length thereof; a shaft extending through the elongate collar and having a proximal end and a distal end configured to effectuate movement of a jaw member of an electrosurgical end effector upon axial movement of the shaft relative to the housing; and a longitudinal bar axially movable relative to the shaft and including: a proximal end having an extension engaged to the internal threadform of the elongate collar; and a distal end configured to be coupled to a knife blade of the electrosurgical end effector; wherein rotation of the elongate collar axially moves the longitudinal bar relative to the elongate collar to move the knife blade. a housing; and a shaft assembly extending distally from the housing, the shaft assembly including: an elongate collar having an internal threadform extending along a length thereof; a shaft extending through the elongate collar and having a proximal end and a distal end configured to effectuate movement of a jaw member of an electrosurgical end effector upon axial movement of the shaft relative to the housing; and a longitudinal bar axially movable relative to the shaft and including: a proximal end having an extension engaged to the internal threadform of the elongate collar; and a distal end configured to be coupled to a knife blade of the electrosurgical end effector; wherein rotation of the elongate collar axially moves the longitudinal bar relative to the elongate collar to move the knife blade. an elongate collar having an internal threadform extending along a length thereof; a shaft extending through the elongate collar and having a proximal end and a distal end configured to effectuate movement of a jaw member of an electrosurgical end effector upon axial movement of the shaft relative to the housing; and a longitudinal bar axially movable relative to the shaft and including: a proximal end having an extension engaged to the internal threadform of the elongate collar; and a distal end configured to be coupled to a knife blade of the electrosurgical end effector; wherein rotation of the elongate collar axially moves the longitudinal bar relative to the elongate collar to move the knife blade. a proximal end having an extension engaged to the internal threadform of the elongate collar; and a distal end configured to be coupled to a knife blade of the electrosurgical end effector; wherein rotation of the elongate collar axially moves the longitudinal bar relative to the elongate collar to move the knife blade.
A display device for use in a vehicle and configured to perform communication with at least one processor provided in the vehicle, the display device comprising: a first display configured to output first light forming first visual information; a second display configured to output second light forming second visual information; and at least one light synthesizing unit configured to transmit either one of the first light output from the first display and second light output from the second display and to reflect another light of the first light output from the first display and the second light output from the second display; characterized in that: the second display is further configured to be detachably coupled to a supporting unit for supporting the second display, the display device further comprises the supporting unit, wherein at least a portion of the supporting unit is transparent so that the second light is directable towards the at least one light synthesizing unit, and the light synthesizing unit is formed to be tiltable. a first display configured to output first light forming first visual information; a second display configured to output second light forming second visual information; and at least one light synthesizing unit configured to transmit either one of the first light output from the first display and second light output from the second display and to reflect another light of the first light output from the first display and the second light output from the second display; characterized in that: the second display is further configured to be detachably coupled to a supporting unit for supporting the second display, the display device further comprises the supporting unit, wherein at least a portion of the supporting unit is transparent so that the second light is directable towards the at least one light synthesizing unit, and the light synthesizing unit is formed to be tiltable. the second display is further configured to be detachably coupled to a supporting unit for supporting the second display, the display device further comprises the supporting unit, wherein at least a portion of the supporting unit is transparent so that the second light is directable towards the at least one light synthesizing unit, and the light synthesizing unit is formed to be tiltable.
A solid or semi-solid oral delivery dosage form comprising: a first component that comprises a thickening agent; a second component that comprises an active ingredient in the form of a powder, granule, bead, minitablet, pellet, nanoparticle, or a combination thereof; and wherein the first component and the second component are contained in a sealed container. a first component that comprises a thickening agent; a second component that comprises an active ingredient in the form of a powder, granule, bead, minitablet, pellet, nanoparticle, or a combination thereof; and wherein the first component and the second component are contained in a sealed container.
A heat exchanger apparatus comprising: a surface cooler having disposed therein one or more fluid flow channels configured for the passage therethrough of a heat transfer fluid to be cooled, the heat transfer fluid disposed in a heat transfer relation on an interior side of said one or more fluid flow channels, the surface cooler including a plurality of fins projecting from an outer surface or an inner surface thereof; and a passive automatic retraction and extension system (100, 150, 200, 250) coupled to the surface cooler, the passive automatic retraction and extension system (100, 150, 200, 250) comprising: a thermal actuation component (104, 154, 204, 254) responsive to a change in temperature of at least one of the heat transfer fluid and a cooling fluid flow so as to actuate a change in a geometry of the surface cooler; characterized in that. the passive automatic retraction and extension system (100, 150, 200, 250) comprises a plate including a plurality of openings formed therein, the plate configured to overlay the surface cooler and provide for extension and retraction of the plurality of fins therethrough the plurality of openings in response to a thermal condition. a surface cooler having disposed therein one or more fluid flow channels configured for the passage therethrough of a heat transfer fluid to be cooled, the heat transfer fluid disposed in a heat transfer relation on an interior side of said one or more fluid flow channels, the surface cooler including a plurality of fins projecting from an outer surface or an inner surface thereof; and a passive automatic retraction and extension system (100, 150, 200, 250) coupled to the surface cooler, the passive automatic retraction and extension system (100, 150, 200, 250) comprising: a thermal actuation component (104, 154, 204, 254) responsive to a change in temperature of at least one of the heat transfer fluid and a cooling fluid flow so as to actuate a change in a geometry of the surface cooler; characterized in that. the passive automatic retraction and extension system (100, 150, 200, 250) comprises a plate including a plurality of openings formed therein, the plate configured to overlay the surface cooler and provide for extension and retraction of the plurality of fins therethrough the plurality of openings in response to a thermal condition.
A primary packaging for medical preparations, having - a base body comprising plastic material, wherein - the base body has at least one wall including an outer surface and at least one inner surface, wherein the outer surface is provided with a gas tight coating, wherein the inner surface is provided with a gas tight inner coating, and wherein an inner functional layer is arranged in sections on the gas tight inner coating, characterized in that the inner functional layer is omitted in at least one free region. - a base body comprising plastic material, wherein - the base body has at least one wall including an outer surface and at least one inner surface, wherein
A light transmissive structure comprising: a light transmissive substrate including a plurality of optical microstructures, wherein the plurality of optical microstructures comprise a plurality of cones and/or pyramids; the plurality of optical microstructures having a geometric feature that is configured to reduce glare in light transmitted through the light transmissive structure; the plurality of cones and/or pyramids also have a base angle that varies randomly or pseudorandomly across the light transmissive substrate so as to diffuse light transmitted through the light transmissive structure, wherein the base angle varies randomly or pseudorandomly across the light transmissive substrate between about 10° and about 60° from a direction orthogonal to the light transmissive substrate. a light transmissive substrate including a plurality of optical microstructures, wherein the plurality of optical microstructures comprise a plurality of cones and/or pyramids; the plurality of optical microstructures having a geometric feature that is configured to reduce glare in light transmitted through the light transmissive structure; the plurality of cones and/or pyramids also have a base angle that varies randomly or pseudorandomly across the light transmissive substrate so as to diffuse light transmitted through the light transmissive structure, wherein the base angle varies randomly or pseudorandomly across the light transmissive substrate between about 10° and about 60° from a direction orthogonal to the light transmissive substrate.
A computer-implemented method comprising: generating, within a web-accessible document (104; 502), a parent container document (114; 514) associated with a first Internet domain and a plurality of child container documents (116; 516) within the parent container document (114; 514) and associated with a second Internet domain; receiving, by the parent container document (114; 514), information (108; 512) requested from a server associated with the first Internet domain; and communicating the information (108; 512) from the first Internet domain to the second Internet domain using the parent container document (114; 514) associated with the first Internet domain to transmit the information (108; 512) to the plurality of child container documents (116; 516) associated with the second Internet domain, characterized in that the transmission of the information (108; 512) from the parent container document (114; 514) to the plurality of child container documents (116; 516) comprises accessing a library (206; 515) having executable code that fragments the information (108; 512) and distributes the fragmented information to the plurality of child container documents (116; 512), wherein the method further comprises determining how many child container documents (116; 516) are generated by the parent container document (114; 514) based on a size of the received information (108; 512). generating, within a web-accessible document (104; 502), a parent container document (114; 514) associated with a first Internet domain and a plurality of child container documents (116; 516) within the parent container document (114; 514) and associated with a second Internet domain; receiving, by the parent container document (114; 514), information (108; 512) requested from a server associated with the first Internet domain; and communicating the information (108; 512) from the first Internet domain to the second Internet domain using the parent container document (114; 514) associated with the first Internet domain to transmit the information (108; 512) to the plurality of child container documents (116; 516) associated with the second Internet domain, characterized in that the transmission of the information (108; 512) from the parent container document (114; 514) to the plurality of child container documents (116; 516) comprises accessing a library (206; 515) having executable code that fragments the information (108; 512) and distributes the fragmented information to the plurality of child container documents (116; 512), wherein the method further comprises determining how many child container documents (116; 516) are generated by the parent container document (114; 514) based on a size of the received information (108; 512).
An epoxy composition comprising: (a) at least one epoxy resin; (b) from 0.1 to 20 weight percent, based on the epoxy resin of a compound having the formula: R-OX n -W wherein R is selected from the group consisting of distyrylphenol, tristyrylphenol, polystyrenated phenol, cumylphenol and mixtures thereof, OX represents units derived from ethylene oxide or propylene oxide or a combination of both; n= 0- 200, and W is selected from the group consisting of H, sulfate (-SO 3 -), phosphate (-PO 3 H or -PO 2 -OXnR); and (c) optionally water. (a) at least one epoxy resin; (b) from 0.1 to 20 weight percent, based on the epoxy resin of a compound having the formula: R-OX n -W wherein R is selected from the group consisting of distyrylphenol, tristyrylphenol, polystyrenated phenol, cumylphenol and mixtures thereof, OX represents units derived from ethylene oxide or propylene oxide or a combination of both; n= 0- 200, and W is selected from the group consisting of H, sulfate (-SO 3 -), phosphate (-PO 3 H or -PO 2 -OXnR); and (c) optionally water.
A method of preparing polymeric microparticles comprising the steps of: subjecting a mixture containing a biocompatible polymer and a metal ion to a crosslinking reaction to form crosslinked polymer particles, wherein the biocompatible polymer comprises a mixture of hyaluronic acid and gelatin; and further crosslinking the crosslinked polymer particles in a polar solvent including an organic crosslinking agent containing at least one reactive functional group. subjecting a mixture containing a biocompatible polymer and a metal ion to a crosslinking reaction to form crosslinked polymer particles, wherein the biocompatible polymer comprises a mixture of hyaluronic acid and gelatin; and further crosslinking the crosslinked polymer particles in a polar solvent including an organic crosslinking agent containing at least one reactive functional group.