mhurhangee/ep-ind-claims huggingface dataset:
A wavelength selective switch including a liquid crystal on silicon device and a polarization conversion unit configured to convert an input beam into linearly polarized light with a defined polarization direction, wherein the liquid crystal on silicon device is configured to diffract an incident beam (A1, A2, A3) in a linear polarization state with said defined polarization direction to form a deflected beam (C1, C2, C3), and the liquid crystal on silicon device comprises: a first panel and a second panel, that are oppositely disposed; a liquid crystal layer, located between the first panel and the second panel; a drive circuit, configured to generate an electric field to control a rotation of a liquid crystal in the liquid crystal layer; and two alignment films, wherein the two alignment films are located on two opposite sides of the liquid crystal layer, wherein the liquid crystal on silicon device has a first pixel area, the liquid crystal layer comprises a first liquid crystal located in the first pixel area, and each of the two alignment films comprises a first partial alignment film located in the first pixel area, wherein under control of the electric field, the first liquid crystal is rotated in a plane perpendicular to the first panel, and is also rotated in a first direction in a plane parallel to the first panel relative to an alignment direction of the first partial alignment film, and said alignment direction of the first partial alignment film is further at an angle β with said polarization direction of the incident beam (A1, A2, A3) in a second direction, and the second direction is opposite to the first direction to reduce a loss of the deflected beam. a first panel and a second panel, that are oppositely disposed; a liquid crystal layer, located between the first panel and the second panel; a drive circuit, configured to generate an electric field to control a rotation of a liquid crystal in the liquid crystal layer; and two alignment films, wherein the two alignment films are located on two opposite sides of the liquid crystal layer, wherein the liquid crystal on silicon device has a first pixel area, the liquid crystal layer comprises a first liquid crystal located in the first pixel area, and each of the two alignment films comprises a first partial alignment film located in the first pixel area, wherein under control of the electric field, the first liquid crystal is rotated in a plane perpendicular to the first panel, and is also rotated in a first direction in a plane parallel to the first panel relative to an alignment direction of the first partial alignment film, and said alignment direction of the first partial alignment film is further at an angle β with said polarization direction of the incident beam (A1, A2, A3) in a second direction, and the second direction is opposite to the first direction to reduce a loss of the deflected beam.
Machine for bending metal products comprising a drawing unit configured to feed at least one metal product along an axis of feed and toward a bending unit and a shearing unit configured to shear said metal product, said bending unit being mounted on a translating platform able to be translated in a direction of translation transverse to said axis of feed, characterized in that at least one part of said shearing unit is mounted on said translating platform.
A support structure for a wind turbine, comprising - at least two segments (12, 13, 14, 15, 16, 32, 34, 42, 44, 46, 48, 54, 55) which are connected to one another by means of a circular weld seam in such a manner that the longitudinal axes thereof run substantially collinearly to one another, wherein - at least one of the segments (12, 13, 14, 15, 16, 32, 34, 42, 44, 46, 48, 54, 55) is designed as a cylindrical pipe section which has at least two mutually facing joining surfaces which are connected to one another at least in sections, characterized in that - the joining surfaces are connected to one another by means of at least one welded joint, wherein a thickness (a) of the welded joint is smaller at least in sections than a wall thickness (t) of the pipe section (12, 13, 14, 15, 16, 32, 34, 42, 44, 46, 48, 54, 55). - at least two segments (12, 13, 14, 15, 16, 32, 34, 42, 44, 46, 48, 54, 55) which are connected to one another by means of a circular weld seam in such a manner that the longitudinal axes thereof run substantially collinearly to one another, wherein - at least one of the segments (12, 13, 14, 15, 16, 32, 34, 42, 44, 46, 48, 54, 55) is designed as a cylindrical pipe section which has at least two mutually facing joining surfaces which are connected to one another at least in sections, characterized in that - the joining surfaces are connected to one another by means of at least one welded joint, wherein a thickness (a) of the welded joint is smaller at least in sections than a wall thickness (t) of the pipe section (12, 13, 14, 15, 16, 32, 34, 42, 44, 46, 48, 54, 55).
Installation for producing biomethane and liquid CO 2, comprising: - A unit for producing biogas, - At least one biogas membrane separation unit making it possible to produce biomethane and a gaseous mixture M1 comprising mainly carbon dioxide, - A unit for cryogenic distillation of the gas mixture M1 to produce liquid CO 2 and a gas mixture M2 comprising carbon dioxide, methane, oxygen and hydrogen, - One or more membranes located on the flow of the gaseous mixture M2 and used to separate the methane from the oxygen-hydrogen mixture contained in the gaseous mixture M2, - A means for recycling the methane from the gas mixture M2 to the membrane separation unit, and - a vent for discharging the oxygen-hydrogen mixture from the gas mixture M2. - A unit for producing biogas, - At least one biogas membrane separation unit making it possible to produce biomethane and a gaseous mixture M1 comprising mainly carbon dioxide, - A unit for cryogenic distillation of the gas mixture M1 to produce liquid CO 2 and a gas mixture M2 comprising carbon dioxide, methane, oxygen and hydrogen, - One or more membranes located on the flow of the gaseous mixture M2 and used to separate the methane from the oxygen-hydrogen mixture contained in the gaseous mixture M2, - A means for recycling the methane from the gas mixture M2 to the membrane separation unit, and - a vent for discharging the oxygen-hydrogen mixture from the gas mixture M2.
A network node for wireless communication, the network node comprising: a memory; and one or more processors, coupled to the memory, configured to: transmit, to a first central unit, CU, that corresponds to an integrated access and backhaul, IAB, donor, an indication of a first resource configuration for communications corresponding to a cell served by the network node and associated with a second CU that corresponds to a base station; receive, from the first CU, a second resource configuration comprising a distributed unit, DU, cell resource configuration for the cell; transmit an indication of one or more conflicts between the second resource configuration and a third resource configuration associated with at least one of the cell or the second CU; and receive a modified second resource configuration, wherein the modified second resource configuration is based at least in part on the indication of the one or more conflicts. a memory; and one or more processors, coupled to the memory, configured to: transmit, to a first central unit, CU, that corresponds to an integrated access and backhaul, IAB, donor, an indication of a first resource configuration for communications corresponding to a cell served by the network node and associated with a second CU that corresponds to a base station; receive, from the first CU, a second resource configuration comprising a distributed unit, DU, cell resource configuration for the cell; transmit an indication of one or more conflicts between the second resource configuration and a third resource configuration associated with at least one of the cell or the second CU; and receive a modified second resource configuration, wherein the modified second resource configuration is based at least in part on the indication of the one or more conflicts. transmit, to a first central unit, CU, that corresponds to an integrated access and backhaul, IAB, donor, an indication of a first resource configuration for communications corresponding to a cell served by the network node and associated with a second CU that corresponds to a base station; receive, from the first CU, a second resource configuration comprising a distributed unit, DU, cell resource configuration for the cell; transmit an indication of one or more conflicts between the second resource configuration and a third resource configuration associated with at least one of the cell or the second CU; and receive a modified second resource configuration, wherein the modified second resource configuration is based at least in part on the indication of the one or more conflicts.
A compound of general formula, comprising 4, 5 or 6 gadolinium [4,7,10-tris-(carboxylatomethyl)-1,4,7,10-tetraazacyclododecan-1-yl] groups, in which: represents a group selected from: in which groups a and b represent an integer of 1; and, in which groups * indicates the point of attachment of said group with R 1; R 1 represents, independently from each other, a hydrogen atom or a group selected from: R3 in which groups * indicates the point of attachment of said group with A, with the proviso that only one of the substituents R 1 may represent a hydrogen atom; n represents an integer of 3 or 4; R 2 represents a hydrogen atom; R 3 represents a group selected from: in which groups * indicates the point of attachment of said group with the rest of the molecule; R 4 represents a hydrogen atom; R 5 represents a methyl group; or a stereoisomer, a tautomer, an N-oxide, a hydrate, a solvate, or a salt thereof, or a mixture of same. R 1 represents, independently from each other, a hydrogen atom or a group selected from: R3 in which groups * indicates the point of attachment of said group with A, with the proviso that only one of the substituents R 1 may represent a hydrogen atom; n represents an integer of 3 or 4; R 2 represents a hydrogen atom; R 3 represents a group selected from: in which groups * indicates the point of attachment of said group with the rest of the molecule; R 4 represents a hydrogen atom; R 5 represents a methyl group;
An annular seal assembly for sealing against a rotating shaft extending in an axial direction, wherein a radial direction extends outward from the shaft perpendicular to the axial direction, the seal assembly comprising: a housing (1130, 1230) comprising a radially interior inside channel, the radially interior inside channel being defined by an interior axially extending wall and two interior radially extending walls; a matrix (1110, 1210) provided substantially within the radially interior inside channel of the housing and protruding from the radially interior inside channel, the matrix having a radially inner surface for sealing against the shaft; and an energizer (1120, 1220) for providing a radial force to the matrix, wherein the energizer is disposed in the radially interior inside channel of the housing between the matrix and the interior axially extending wall in the radial direction, and wherein the energizer contacts the matrix and the interior axially extending wall and the two interior radially extending walls of the radially interior inside channel when compressed, and wherein the matrix contacts the two interior radially extending walls and the energizer in addition to the shaft, characterized in that the seal assembly comprises an anti-rotational mechanism to prevent the matrix from rotating with the shaft, wherein the anti-rotational mechanism comprises an anti-rotational element (1170, 1270) for preventing the matrix from rotating, the anti-rotational element extending through the housing and energizer and into the matrix. a housing (1130, 1230) comprising a radially interior inside channel, the radially interior inside channel being defined by an interior axially extending wall and two interior radially extending walls; a matrix (1110, 1210) provided substantially within the radially interior inside channel of the housing and protruding from the radially interior inside channel, the matrix having a radially inner surface for sealing against the shaft; and an energizer (1120, 1220) for providing a radial force to the matrix, wherein the energizer is disposed in the radially interior inside channel of the housing between the matrix and the interior axially extending wall in the radial direction, and wherein the energizer contacts the matrix and the interior axially extending wall and the two interior radially extending walls of the radially interior inside channel when compressed, and wherein the matrix contacts the two interior radially extending walls and the energizer in addition to the shaft, characterized in that the seal assembly comprises an anti-rotational mechanism to prevent the matrix from rotating with the shaft, wherein the anti-rotational mechanism comprises an anti-rotational element (1170, 1270) for preventing the matrix from rotating, the anti-rotational element extending through the housing and energizer and into the matrix.
A computer-implemented method to define a patching process associated with a cloud application, the method comprising: accepting a list of server identities corresponding to servers of a datacenter hosting the cloud application, wherein the server identities include a role of the servers of the datacenter hosting the cloud application; determining high availability, HA, metric values for each of the server identities on the list based on the roles of the corresponding servers, wherein determining the HA metric values for each of the server identities comprises computing the HA metric values using at least one of a mean time to recover, a mean time between failures, and a number of nines, and wherein each role has a different effect on the HA metric values of the cloud application based on external factors, wherein the external factors include a time of day; combining the HA metric values determined for each of the server identities on the list in order to compute an overall HA metric value for the cloud application, which is associated with availability of the cloud application to end users; removing a subset of the servers from a rotation framework of the cloud application based on the determined HA metric values and the time of day such that the removal of the subset of servers from the rotation framework will not affect the overall HA metric value of the cloud application; applying one or more patches to each server within the subset of servers in parallel; and reinstating the subset of servers in the rotation framework of the cloud application upon completion of the application of the one or more patches. accepting a list of server identities corresponding to servers of a datacenter hosting the cloud application, wherein the server identities include a role of the servers of the datacenter hosting the cloud application; determining high availability, HA, metric values for each of the server identities on the list based on the roles of the corresponding servers, wherein determining the HA metric values for each of the server identities comprises computing the HA metric values using at least one of a mean time to recover, a mean time between failures, and a number of nines, and wherein each role has a different effect on the HA metric values of the cloud application based on external factors, wherein the external factors include a time of day; combining the HA metric values determined for each of the server identities on the list in order to compute an overall HA metric value for the cloud application, which is associated with availability of the cloud application to end users; removing a subset of the servers from a rotation framework of the cloud application based on the determined HA metric values and the time of day such that the removal of the subset of servers from the rotation framework will not affect the overall HA metric value of the cloud application; applying one or more patches to each server within the subset of servers in parallel; and reinstating the subset of servers in the rotation framework of the cloud application upon completion of the application of the one or more patches.
An oxyfuel combustion boiler having a windbox, a throat portion formed in a furnace wall of the oxyfuel combustion boiler, and a pulverized coal burner comprising burner inner and outer cylinders (5 and 4) which penetrate the wind box and come close to the throat portion and a pulverized coal feed passage provided between the burner inner and outer cylinders (5 and 4), and a plurality of oxygen injection means outwardly of the burner outer cylinder for directly feeding oxygen ahead of the burner outer cylinder, each of the oxygen injection means being configured to prevent injected oxygen from hitting a tip of the outer cylinder, wherein each of the oxygen injection means penetrates the windbox and comes close to the throat portion, characterized in that each of the oxygen injection means is disposed at a position preventing a tip of the oxygen injection means from getting ahead of a tip of the burner outer cylinder.
A parcel for the transport of an object comprising: - a casing having a stowage volume defined by a bottom and a peripheral rim, the peripheral rim comprising panels distributed into at least two pairs, and movable relative to the bottom; - a lid able to occupy a closed position of the casing; - a tray housed in the stowage volume and movable relative to the bottom between a low position in which it is located in the vicinity of the bottom of the casing and a high position in which it is spaced apart from the bottom and holds an object against the bottom; the parcel being able to adopt at least one collapsed configuration in which: - the panels of a first pair are folded down on the bottom and provide a space therebetween, the panels of the first pair defining a storage area with the bottom; - the lid is folded down on the panels of the first pair, - the tray is located between the panels of the first pair and the lid, where the tray has at least one deformable area located facing the space between the panels of the first pair, and where the parcel comprises at least one pusher interposed between the deformable area and the lid, and positioned so as to push the deformable area towards the bottom of the casing in the collapsed configuration of the parcel, the deformable area being intended to exert pressure on an object housed in the storage area. - a casing having a stowage volume defined by a bottom and a peripheral rim, the peripheral rim comprising panels distributed into at least two pairs, and movable relative to the bottom; - a lid able to occupy a closed position of the casing; - a tray housed in the stowage volume and movable relative to the bottom between a low position in which it is located in the vicinity of the bottom of the casing and a high position in which it is spaced apart from the bottom and holds an object against the bottom; the parcel being able to adopt at least one collapsed configuration in which: - the panels of a first pair are folded down on the bottom and provide a space therebetween, the panels of the first pair defining a storage area with the bottom; - the lid is folded down on the panels of the first pair, - the tray is located between the panels of the first pair and the lid, - the panels of a first pair are folded down on the bottom and provide a space therebetween, the panels of the first pair defining a storage area with the bottom; - the lid is folded down on the panels of the first pair, - the tray is located between the panels of the first pair and the lid, where the tray has at least one deformable area located facing the space between the panels of the first pair, and where the parcel comprises at least one pusher interposed between the deformable area and the lid, and positioned so as to push the deformable area towards the bottom of the casing in the collapsed configuration of the parcel, the deformable area being intended to exert pressure on an object housed in the storage area.
A device for maintaining a soundproofing cover of a lower bay cross and a front apron of a motor vehicle, having a restraint wall and a hollow mounting device extending from that restraint wall, that device is capable of occupying a service configuration in which the said mounting device crosses a drilling device housed in the said cover by being encased on a pin protruding within the said hole from the said bay bottom cross so that the said soundproofing cover is sandwiched between the said wall of restraint and the said bay bottom cross; characterized in addition by at least one tether wall (42, 43) rigidly connected to the said retaining wall and equipped with at least one reception interface (45, 46) for a bridging staple (50, 60) of an electric beam (13, 14).
A cooker hood, comprising a cooker hood body, and further comprising: a communications component, a control component, and an image display component that are disposed in the cooker hood body, wherein the control component is configured to obtain, by using the communications component, a surveillance picture taken by at least one surveillance device; and the image display component is configured to present the surveillance picture to a user; characterized in that the cooker hood further comprises a projection component, configured to present the surveillance picture to the user by means of projection and further configured to present an operation interface of the at least one surveillance device to the user by means of projection, wherein the projection component comprises: an input perception component, configured to obtain an operation of the user for the operation interface to determine a user instruction, and wherein the control component further is configured to send in response to the user instruction, a control instruction to the at least one surveillance device by using the communications component, so as to adjust a shooting angle of the at least one surveillance device. a communications component, a control component, and an image display component that are disposed in the cooker hood body, wherein the control component is configured to obtain, by using the communications component, a surveillance picture taken by at least one surveillance device; and the image display component is configured to present the surveillance picture to a user; a projection component, configured to present the surveillance picture to the user by means of projection and further configured to present an operation interface of the at least one surveillance device to the user by means of projection, wherein the projection component comprises: an input perception component, configured to obtain an operation of the user for the operation interface to determine a user instruction, and wherein the control component further is configured to send in response to the user instruction, a control instruction to the at least one surveillance device by using the communications component, so as to adjust a shooting angle of the at least one surveillance device. an input perception component, configured to obtain an operation of the user for the operation interface to determine a user instruction, and wherein the control component further is configured to send in response to the user instruction, a control instruction to the at least one surveillance device by using the communications component, so as to adjust a shooting angle of the at least one surveillance device.