mhurhangee/patent-ind-claim-en huggingface dataset:
A rotorcraft comprising: a fuselage comprising an outer mold line; a compartment ; a maintenance platform on which a person can stand to access components in the compartment , the maintenance platform attached to the fuselage ; a fairing door assembly comprising: a core material ; an inner housing on a side of the core material; an outer housing on an opposite side of the core material such that the inner housing and the outer housing sandwich the core material; a raised portion extended from the outer housing , wherein the raised portion is configured to bear directly on a top surface of the maintenance platform and to transfer a foot traffic load to the fuselage ; and a hinge configured to move the fairing door assembly between an open position and a closed position; wherein the inner housing is configured to receive a foot traffic load in the open position and to stow in the compartment in the closed position; and wherein the outer housing is configured to transfer the foot traffic load to the fuselage via the maintenance platform in the open position and to provide a portion of an outer mold line of the rotorcraft in the closed position. a fuselage comprising an outer mold line; a compartment ; a maintenance platform on which a person can stand to access components in the compartment , the maintenance platform attached to the fuselage ; a fairing door assembly comprising: a core material ; an inner housing on a side of the core material; an outer housing on an opposite side of the core material such that the inner housing and the outer housing sandwich the core material; a raised portion extended from the outer housing , wherein the raised portion is configured to bear directly on a top surface of the maintenance platform and to transfer a foot traffic load to the fuselage ; and a core material ; an inner housing on a side of the core material; an outer housing on an opposite side of the core material such that the inner housing and the outer housing sandwich the core material; a raised portion extended from the outer housing , wherein the raised portion is configured to bear directly on a top surface of the maintenance platform and to transfer a foot traffic load to the fuselage ; and a hinge configured to move the fairing door assembly between an open position and a closed position; wherein the inner housing is configured to receive a foot traffic load in the open position and to stow in the compartment in the closed position; and wherein the outer housing is configured to transfer the foot traffic load to the fuselage via the maintenance platform in the open position and to provide a portion of an outer mold line of the rotorcraft in the closed position.
A virtual network protection method, comprising: receiving (S401) a virtual network topology establishment request message, wherein the virtual network topology establishment request message carries a virtual network resource parameter and a virtual network protection and recovery type; reserving (S402) a working physical resource and a protection physical resource in an idle physical resource of a physical network according to the virtual network resource parameter and the virtual network protection and recovery type; mapping (S403) each one virtual link on a virtual network to both the working physical resource and the protection physical resource; determining that a fault occurs on a first physical link in the working physical resource, wherein the faulty first physical link is corresponding to a first virtual link on the virtual network; and when there is a service on the faulty first physical link, switching, the service to a protection physical path, wherein the protection physical path uses the protection physical resource corresponding to the first virtual link affected by the fault. receiving (S401) a virtual network topology establishment request message, wherein the virtual network topology establishment request message carries a virtual network resource parameter and a virtual network protection and recovery type; reserving (S402) a working physical resource and a protection physical resource in an idle physical resource of a physical network according to the virtual network resource parameter and the virtual network protection and recovery type; mapping (S403) each one virtual link on a virtual network to both the working physical resource and the protection physical resource; determining that a fault occurs on a first physical link in the working physical resource, wherein the faulty first physical link is corresponding to a first virtual link on the virtual network; and when there is a service on the faulty first physical link, switching, the service to a protection physical path, wherein the protection physical path uses the protection physical resource corresponding to the first virtual link affected by the fault.
A system comprising: a logic device configured to receive one or more sensor signals and generate one or more control signals to provide directional control for a mobile structure along a specified contour associated with a seabed depth, wherein the logic device is configured to perform a method comprising: receiving a depth error and a cross slope associated with the specified contour; determining a cross track error (XTE) relative to the specified contour by dividing the depth error by the cross slope; and determining a steering demand for the mobile structure based, at least in part, on the cross track error (XTE). receiving a depth error and a cross slope associated with the specified contour; determining a cross track error (XTE) relative to the specified contour by dividing the depth error by the cross slope; and determining a steering demand for the mobile structure based, at least in part, on the cross track error (XTE).
A pharmaceutical composition for use in preventing or treating hair loss comprising a compound represented by Chemical Formula 1 or 2, or a pharmaceutically acceptable salt thereof as an active ingredient.
A first router configured for deployment as an ingress router or advertising border router in a first domain (201 or 203) of a network , the network comprising a second domain (202-204 or 202 and 203), internal egress routers (210-215 or 215-216 and 220-224) in the first domain (201 or 203) and external egress routers (216-226 or 217-219 and 225-226) in the second domain (202-204 or 202 and 204), the external egress routers (216-226 or 217-219 and 225-226) being connected to the first domain (201 or 203) by advertising border router(s) (215 or 216 and 224) in the first domain (201 or 203), characterized in that it comprises: a processor configured to: access addresses of egress routers for a multicast flow that are partitioned into local addresses of internal egress routers and external addresses of external egress routers, the external address of a given external egress router being associated with the advertising border router (215 or 216 and 224) in the first domain (201 or 203) connecting the given external egress router (216-226 or 217-219 and 225-226) to the first domain (201 or 203);prepend, for the external addresses associated with a same advertising border router, an explicit multicast route, EMR, header to the payload of a packet in the multicast flow to form an inter-domain EMR packet, wherein the EMR includes information representing the external addresses; and a transmitter configured to unicast the inter-domain EMR packet to said same advertising border router . access addresses of egress routers for a multicast flow that are partitioned into local addresses of internal egress routers and external addresses of external egress routers, the external address of a given external egress router being associated with the advertising border router (215 or 216 and 224) in the first domain (201 or 203) connecting the given external egress router (216-226 or 217-219 and 225-226) to the first domain (201 or 203);prepend, for the external addresses associated with a same advertising border router, an explicit multicast route, EMR, header to the payload of a packet in the multicast flow to form an inter-domain EMR packet, wherein the EMR includes information representing the external addresses; and a transmitter configured to unicast the inter-domain EMR packet to said same advertising border router .
A medical image visualization and interaction apparatus comprising: at least one processor and at least one memory including instructions, the instructions, when executed, to cause the at least one processor to at least: generate a virtual environment for display of image content via a virtual reality display device, the image content to include a two-dimensional image overlaid on a three-dimensional volume; enable interaction with the image content in the virtual environment via an avatar, comprising manipulation of an image slice within or outside of the threedimensional volume in the virtual environment, movement of the avatar to be correlated with an external input; wherein the two-dimensional image is the image slice; adjust the image content in the virtual environment based on the interaction; and generate an output of image content from the virtual environment. generate a virtual environment for display of image content via a virtual reality display device, the image content to include a two-dimensional image overlaid on a three-dimensional volume; enable interaction with the image content in the virtual environment via an avatar, comprising manipulation of an image slice within or outside of the threedimensional volume in the virtual environment, movement of the avatar to be correlated with an external input; wherein the two-dimensional image is the image slice; adjust the image content in the virtual environment based on the interaction; and generate an output of image content from the virtual environment.
A controller for use in an additive manufacturing system , the manufacturing system including a consolidation device , the consolidation device configured to consolidate material, said controller comprising a processing device and a memory device coupled to said processing device , said controller configured to: receive a build file for a component including a plurality of build layers , wherein each build layer of the plurality of build layers includes a component outer perimeter , at least one build layer generating function, at least one generating function variable, and at least one generating function constant; generate at least one control signal to control a power output throughout at least one scan path of the consolidation device across the material for each build layer of the plurality of build layers , the at least one scan path generated based at least partially on the component outer perimeter , the at least one generating function, the at least one generating function variable, and the at least one generating function constant for each build layer ; and transmit the control signal to the consolidation device to consolidate the material throughout the at least one scan path . receive a build file for a component including a plurality of build layers , wherein each build layer of the plurality of build layers includes a component outer perimeter , at least one build layer generating function, at least one generating function variable, and at least one generating function constant; generate at least one control signal to control a power output throughout at least one scan path of the consolidation device across the material for each build layer of the plurality of build layers , the at least one scan path generated based at least partially on the component outer perimeter , the at least one generating function, the at least one generating function variable, and the at least one generating function constant for each build layer ; and transmit the control signal to the consolidation device to consolidate the material throughout the at least one scan path .
A computer-implemented method, comprising: receiving a computed tomography (CT) image of a patient; segmenting a first set of anatomical elements from the CT image; receiving a plurality of fluoroscopy images of the patient; segmenting a second set of anatomical elements from the plurality of fluoroscopy images; determining that a first anatomical element overlaps a second anatomical element, wherein the first anatomical element and the second anatomical element are elements of the second set of anatomical elements, defining a boundary around an area of overlap of the first anatomical element and the second anatomical element, detecting one or more gradient lines within a boundary of the second anatomical element in at least one of the plurality of fluoroscopy images, wherein the boundary of the second anatomical element is the boundary around an area of overlap of the first anatomical element and the second anatomical element, removing the detected gradient lines from the second anatomical element in the at least one of the plurality of fluoroscopy images, creating a registration between the CT image and the plurality of fluoroscopy images based on the segmented first set of anatomical elements and the second set of anatomical elements, wherein the segmenting results in identification of anatomical elements in the first and second set of anatomical elements, and wherein the identification is used to align a given anatomical element in the first set with the same anatomical element in the second set when creating the registration. receiving a computed tomography (CT) image of a patient; segmenting a first set of anatomical elements from the CT image; receiving a plurality of fluoroscopy images of the patient; segmenting a second set of anatomical elements from the plurality of fluoroscopy images; determining that a first anatomical element overlaps a second anatomical element, wherein the first anatomical element and the second anatomical element are elements of the second set of anatomical elements, defining a boundary around an area of overlap of the first anatomical element and the second anatomical element, detecting one or more gradient lines within a boundary of the second anatomical element in at least one of the plurality of fluoroscopy images, wherein the boundary of the second anatomical element is the boundary around an area of overlap of the first anatomical element and the second anatomical element, removing the detected gradient lines from the second anatomical element in the at least one of the plurality of fluoroscopy images, creating a registration between the CT image and the plurality of fluoroscopy images based on the segmented first set of anatomical elements and the second set of anatomical elements, wherein the segmenting results in identification of anatomical elements in the first and second set of anatomical elements, and wherein the identification is used to align a given anatomical element in the first set with the same anatomical element in the second set when creating the registration.
A three-dimensional memory device , comprising: a substrate ; a peripheral circuit on the substrate ; a memory stack comprising interleaved conductive layers and dielectric layers above the peripheral circuit ; a first semiconductor layer above the memory stack ; a second semiconductor layer above and in contact with the first semiconductor layer ; a plurality of channel structures each extending vertically through the memory stack and the first semiconductor layer ; and a source contact above the memory stack and in contact with the second semiconductor layer . a substrate ; a peripheral circuit on the substrate ; a memory stack comprising interleaved conductive layers and dielectric layers above the peripheral circuit ; a first semiconductor layer above the memory stack ; a second semiconductor layer above and in contact with the first semiconductor layer ; a plurality of channel structures each extending vertically through the memory stack and the first semiconductor layer ; and a source contact above the memory stack and in contact with the second semiconductor layer .
A method for manufacturing an absorbent article comprising a top-surface sheet , a back-surface sheet , and an absorber interposed between the top-surface sheet and the back-surface sheet , wherein the top-surface sheet includes a non-heat fusible layer arranged on a skin side and made of a cellulose fiber, and a heat-fusible layer arranged on a non-skin side and made of a heat-fusible fiber, and wherein a second sheet made of a heat-fusible fiber is arranged on the non-skin side of the top-surface sheet , a skin side surface of the top-surface sheet is formed to be flat, and a large number of compressed parts are formed on a non-skin side surface of the second sheet by integrally recessing the second sheet and the top-surface sheet toward the skin side, the method comprising: allowing a laminate of the top-surface sheet and the second sheet to pass between a flat roll and a convex roll , the flat roll having a flat surface and not being heated, and the convex roll having a surface formed with a large number of protrusions corresponding to the compressed parts and being heated at least at a time of compression, thereby heat-fusing and joining the second sheet and the heat-fusible fiber of the heat-fusible layer while forming the compressed parts . wherein the top-surface sheet includes a non-heat fusible layer arranged on a skin side and made of a cellulose fiber, and a heat-fusible layer arranged on a non-skin side and made of a heat-fusible fiber, and wherein a second sheet made of a heat-fusible fiber is arranged on the non-skin side of the top-surface sheet , a skin side surface of the top-surface sheet is formed to be flat, and a large number of compressed parts are formed on a non-skin side surface of the second sheet by integrally recessing the second sheet and the top-surface sheet toward the skin side, the method comprising: allowing a laminate of the top-surface sheet and the second sheet to pass between a flat roll and a convex roll , the flat roll having a flat surface and not being heated, and the convex roll having a surface formed with a large number of protrusions corresponding to the compressed parts and being heated at least at a time of compression, thereby heat-fusing and joining the second sheet and the heat-fusible fiber of the heat-fusible layer while forming the compressed parts .
An orthopedic device for supporting a lower back of a user, wherein the device comprises - a mechanical energy store , - an upper body element with a first force transmission element and - an upper leg element with a second force transmission element , wherein • the mechanical energy store can be charged and discharged by swiveling the upper leg element relative to the upper body element when the first force transmission element is engaged with the second force transmission element , and the device comprises a pelvic element , wherein • the upper leg element is arranged on the pelvic element such that it can be swiveled about a first swivel axis , • the upper body element is movably arranged relative to the pelvic element , • the first force transmission element can be engaged and disengaged with the second force transmission element by moving the upper body element relative to the pelvic element . - a mechanical energy store , - an upper body element with a first force transmission element and - an upper leg element with a second force transmission element , wherein • the mechanical energy store can be charged and discharged by swiveling the upper leg element relative to the upper body element when the first force transmission element is engaged with the second force transmission element , and • the mechanical energy store can be charged and discharged by swiveling the upper leg element relative to the upper body element when the first force transmission element is engaged with the second force transmission element , and • the upper leg element is arranged on the pelvic element such that it can be swiveled about a first swivel axis , • the upper body element is movably arranged relative to the pelvic element , • the first force transmission element can be engaged and disengaged with the second force transmission element by moving the upper body element relative to the pelvic element .
A heat activated gel for cable filling comprising: a) a semi-crystalline, selectively hydrogenated block copolymer having the general formula C-A 1 -B 1 or a polymer analogous to the C-A 1 -B 1 structures, but possessing at least two A 1 blocks, preferably C-A 1 -B 1 -A 1 -C or (C-A 1 -B 1 )-X, where "X" represents a coupling site such that the final product possess at least two A 1 blocks per chain, b) diblock copolymer having the general formula A 2 -B 2 , and c) a low polarity fluid being selected from the group consisting of mineral oil, low toxicity synthetic oils, or so-called gas-to-liquid synthetic oils, or mixtures thereof, wherein C is a semi-crystalline, hydrogenated block of butadiene having a vinyl content of 15 mol% or less and a molecular weight less than the molecular weight of the A 1 block, A 1 and A 2 are independently mono-alkenyl arene blocks, B 1 and B 2 are independently a non-crystalline, hydrogenated polymer block comprising conjugated diene, and wherein the semi-crystalline, selectively hydrogenated block copolymer and diblock are dissolved in the low polarity fluid. a) a semi-crystalline, selectively hydrogenated block copolymer having the general formula C-A 1 -B 1 or a polymer analogous to the C-A 1 -B 1 structures, but possessing at least two A 1 blocks, preferably C-A 1 -B 1 -A 1 -C or (C-A 1 -B 1 )-X, where "X" represents a coupling site such that the final product possess at least two A 1 blocks per chain, b) diblock copolymer having the general formula A 2 -B 2 , and c) a low polarity fluid being selected from the group consisting of mineral oil, low toxicity synthetic oils, or so-called gas-to-liquid synthetic oils, or mixtures thereof, wherein C is a semi-crystalline, hydrogenated block of butadiene having a vinyl content of 15 mol% or less and a molecular weight less than the molecular weight of the A 1 block, A 1 and A 2 are independently mono-alkenyl arene blocks, B 1 and B 2 are independently a non-crystalline, hydrogenated polymer block comprising conjugated diene, and wherein the semi-crystalline, selectively hydrogenated block copolymer and diblock are dissolved in the low polarity fluid.
A beam-shaping laser optics with a lens field which comprises a plurality of first lenses , which are arranged next to one another and designed in such that they effect beam-shaping in a first direction (y) normal to an optical axis (x), and an individual second lens , which is designed such that it effects beam-shaping in a second direction (z) normal to the optical axis (x) and the first direction (y), wherein at least one lens or lens group, which collimates the radiation, is positioned upstream of the arrangement of the lens field and the second lens, in such a way that the lens field and the second lens are arranged in a region of a collimated radiation , at least one focusing lens is arranged in the beam path behind the lens field and the second lens , and the lens field and the second lens are arranged behind one another in the beam path along the optical axis (x) in such a way that they only partially overlap the beam path in a transverse direction normal to the optical axis (x). at least one lens or lens group, which collimates the radiation, is positioned upstream of the arrangement of the lens field and the second lens, in such a way that the lens field and the second lens are arranged in a region of a collimated radiation , at least one focusing lens is arranged in the beam path behind the lens field and the second lens , and the lens field and the second lens are arranged behind one another in the beam path along the optical axis (x) in such a way that they only partially overlap the beam path in a transverse direction normal to the optical axis (x).