mhurhangee/patent-ind-claim-en huggingface dataset:
A gas spring , comprising a guide , having an outer surface , a slider , defining with said guide at least one chamber containing pressurised gas, said slider being slidably constrained to said guide so as to have a minimum stroke, of expansion, in which said guide is partially extracted from said slider , and a maximum stroke, of compression, a bushing , arranged between said slider and said guide , comprising sealing means for tightness of the chamber , and removably coupled and so as to move integrally with said slider up to said maximum stroke of compression, so that, when said slider slides with respect to said guide beyond said maximum stroke of compression, said bushing decouples from said slider so as to eliminate the tightness of the chamber , a safety element to prevent said slider from disengaging itself from said guide when said slider slides beyond said minimum stroke of expansion, characterised in that said guide has a circular housing in correspondence with an outer surface and in that said safety element is a Seeger or a stop ring, housed in said circular housing so as to protrude with respect to said outer surface of said guide . a guide , having an outer surface , a slider , defining with said guide at least one chamber containing pressurised gas, said slider being slidably constrained to said guide so as to have a minimum stroke, of expansion, in which said guide is partially extracted from said slider , and a maximum stroke, of compression, a bushing , arranged between said slider and said guide , comprising sealing means for tightness of the chamber , and removably coupled and so as to move integrally with said slider up to said maximum stroke of compression, arranged between said slider and said guide , comprising sealing means for tightness of the chamber , and removably coupled and so as to move integrally with said slider up to said maximum stroke of compression, so that, when said slider slides with respect to said guide beyond said maximum stroke of compression, said bushing decouples from said slider so as to eliminate the tightness of the chamber , a safety element to prevent said slider from disengaging itself from said guide when said slider slides beyond said minimum stroke of expansion, said guide has a circular housing in correspondence with an outer surface and in that said safety element is a Seeger or a stop ring, housed in said circular housing so as to protrude with respect to said outer surface of said guide .
A method of transferring graphics data between virtual machine partitions (800, 810; 1000, 1010) when virtualizing graphics hardware, the method comprising: sending by a first virtual machine partition to a second virtual machine partition a request for allocation of memory, wherein the allocation indicates a maximum buffer size for transferred data; mapping the requested memory allocation to one or more physical memory pages; allocating the requested memory in a shared memory aperture between, in kernel mode , the first virtual machine partition and, in user mode , the second virtual machine partition; and transferring graphics data between the first and second virtual machine partitions using the shared memory aperture, wherein the maximum buffer size is negotiated between the first and second partitions, and wherein the first virtual machine partition is a child partition (800; 1010) and the second virtual machine partition is a parent partition (204; 600; 810; 1000) on which the rendering using one or more hardware GPUs occurs. sending by a first virtual machine partition to a second virtual machine partition a request for allocation of memory, wherein the allocation indicates a maximum buffer size for transferred data; mapping the requested memory allocation to one or more physical memory pages; allocating the requested memory in a shared memory aperture between, in kernel mode , the first virtual machine partition and, in user mode , the second virtual machine partition; and transferring graphics data between the first and second virtual machine partitions using the shared memory aperture, wherein the maximum buffer size is negotiated between the first and second partitions, and wherein the first virtual machine partition is a child partition (800; 1010) and the second virtual machine partition is a parent partition (204; 600; 810; 1000) on which the rendering using one or more hardware GPUs occurs.
Secondary side rectifier of an inductive energy transmission system, wherein the secondary side rectifier has a single-phase resonant circuit, which has at least one inductivity (L) and at least one capacity (C s ) which can be magnetically coupled to a primary side resonant circuit, and in that the secondary side rectifier has a B2 bridge circuit, comprising four diodes (D1, D2, D3, D4) which is connected with its input side to the secondary side resonant circuit; and whose outlet voltage is smoothened by at least one smoothing capacitor (C gr ), characterised in that a switching means (S) is connected in parallel with a diode (D1, D2, D3, D4) by means of which the diode (D1, D2, D3, D4) can be short-circuited, wherein in a first mode, in which the switching means (S) is switched off and the associated diode (D1) is therefore not short-circuited, the secondary side rectifier is a normal rectifier, and in that in a second mode, in which the switching means (S) is switched on and the associated diode (D1) is therefore short-circuited, the secondary side rectifier together with the at least one capacity (C s ) of the secondary side resonant circuit forms a voltage doubler.
Magnetorheological braking device with a stationary holder and with at least two brake components , wherein a first brake component is non-rotatably connected with the holder and extends in the axial direction , and wherein the second brake component comprises a sleeve part rotatable around the first brake component and configured hollow, wherein a gap is configured between the first and second brake components , in which gap at least one, two or more rotatable transmission component/s is/are disposed, and wherein the gap is at least partially filled with a magnetorheological medium , characterized in that the first brake component comprises a core of a magnetically conductive material extending in the axial direction , and an electric coil which is wound around the core in the axial direction , so that a magnetic field of the electric coil extends transverse through the first brake component .
A method of fabricating a ceramic matrix composite, the method comprising: modifying a wetting property between a preceramic matrix polymer and fibers of a porous structure by providing an exposed carbon coating on the fibers, wherein the wetting property controls a pore structure of the preceramic matrix polymer once pyrolyzed to convert the preceramic matrix polymer to a ceramic matrix; infiltrating pores of the porous structure with the preceramic matrix polymer, the preceramic matrix polymer wetting the carbon coating according to the modified wetting property; and pyrolyzing the preceramic matrix polymer to convert the preceramic matrix polymer to the ceramic matrix that has the pore structure according to the modified wetting property; characterized in that the fibers have a fiber diameter D and the exposed carbon coating has a thickness T, and a ratio of D/T is in a range of 20000-1000. modifying a wetting property between a preceramic matrix polymer and fibers of a porous structure by providing an exposed carbon coating on the fibers, wherein the wetting property controls a pore structure of the preceramic matrix polymer once pyrolyzed to convert the preceramic matrix polymer to a ceramic matrix; infiltrating pores of the porous structure with the preceramic matrix polymer, the preceramic matrix polymer wetting the carbon coating according to the modified wetting property; and pyrolyzing the preceramic matrix polymer to convert the preceramic matrix polymer to the ceramic matrix that has the pore structure according to the modified wetting property; characterized in that the fibers have a fiber diameter D and the exposed carbon coating has a thickness T, and a ratio of D/T is in a range of 20000-1000.
A positioning method applied to a second device, the method comprising: receiving a second request message transmitted by a first device, wherein the second device comprises a multi-antenna device; and the first device comprises a single-antenna device; acquiring second geographic orientation information of the first device from the second request message; determining first geographic orientation information of the second device, and determining , using a plurality of antennas, first relative orientation information of the first device relative to the second device; determining second relative orientation information of the second device relative to the first device according to the first geographic orientation information, the second geographic orientation information, and the first relative orientation information; and transmitting the second relative orientation information to the first device. receiving a second request message transmitted by a first device, wherein the second device comprises a multi-antenna device; and the first device comprises a single-antenna device; acquiring second geographic orientation information of the first device from the second request message; determining first geographic orientation information of the second device, and determining , using a plurality of antennas, first relative orientation information of the first device relative to the second device; determining second relative orientation information of the second device relative to the first device according to the first geographic orientation information, the second geographic orientation information, and the first relative orientation information; and transmitting the second relative orientation information to the first device.
A method of configuring, by a network node of a wireless communication network , a reference signal resource in the wireless communication network , the method comprising: obtaining (S2205) a combination of one or more components to be used for a reference signal resource, the one or more components being contained in one or more physical resource blocks of a slot; and indicating (S2210), to one or more wireless devices , the combination of the one or more components in the one or more physical resource blocks that are to be used for the reference signal resource, wherein each physical resource block spans a plurality of subcarriers, and wherein indicating the combination of the one or more components includes indicating one or more subcarrier indexes, wherein the indication of the one or more subcarrier indexes includes a bitmap, and wherein each bit in the bitmap uniquely corresponds to a subcarrier index and a set bit in the bitmap indicates that a component located at a subcarrier index corresponding to the set bit is part of the combination of one or more components used for the reference signal resource. obtaining (S2205) a combination of one or more components to be used for a reference signal resource, the one or more components being contained in one or more physical resource blocks of a slot; and indicating (S2210), to one or more wireless devices , the combination of the one or more components in the one or more physical resource blocks that are to be used for the reference signal resource, wherein each physical resource block spans a plurality of subcarriers, and wherein indicating the combination of the one or more components includes indicating one or more subcarrier indexes, wherein the indication of the one or more subcarrier indexes includes a bitmap, and wherein each bit in the bitmap uniquely corresponds to a subcarrier index and a set bit in the bitmap indicates that a component located at a subcarrier index corresponding to the set bit is part of the combination of one or more components used for the reference signal resource.
A mounting box for mounting an electrical device in a substantially vertically extending cavity of a wall , the mounting box comprising: • an outer body , arranged to be mounted, in use, into the cavity of the wall , wherein the outer body is provided with outer walls enclosing a first volume, wherein the outer walls are provided with at least one sidewall extending in an axial direction, wherein the axial direction, in use, lies in the vertical direction of the cavity , and wherein the outer walls are provided with an opening facing in the axial direction in use, arranged as a passage for electrical wires in the outer body , • an inner body , arranged to be mounted, in use, into the first volume of the outer body , wherein the inner body is provided with inner walls enclosing a second volume, wherein the second volume is arranged for receiving the electrical device , wherein the inner walls are provided with at least one sidewall extending substantially along the axial direction, and wherein the at least one sidewall of the inner body comprises an opening through which, in use, the electrical wires are connected to the electrical device , characterized in that the inner body is further provided with an awning provided with a bottom surface and a top surface , wherein the awning is positioned in such a way relative to the inner walls that liquid reaching the inner body through the opening in the outer walls is led away from the opening in the inner walls . • an outer body , arranged to be mounted, in use, into the cavity of the wall , wherein the outer body is provided with outer walls enclosing a first volume, wherein the outer walls are provided with at least one sidewall extending in an axial direction, wherein the axial direction, in use, lies in the vertical direction of the cavity , and wherein the outer walls are provided with an opening facing in the axial direction in use, arranged as a passage for electrical wires in the outer body , • an inner body , arranged to be mounted, in use, into the first volume of the outer body , wherein the inner body is provided with inner walls enclosing a second volume, wherein the second volume is arranged for receiving the electrical device , wherein the inner walls are provided with at least one sidewall extending substantially along the axial direction, and wherein the at least one sidewall of the inner body comprises an opening through which, in use, the electrical wires are connected to the electrical device , characterized in that the inner body is further provided with an awning provided with a bottom surface and a top surface , wherein the awning is positioned in such a way relative to the inner walls that liquid reaching the inner body through the opening in the outer walls is led away from the opening in the inner walls .
A centrifuge for selectively concentrating at least one constituent of a biologic mixture comprising adipose tissue, the constituents having differing specific gravities and being stratifiable in a centrifugal field produced by said centrifuge, said centrifuge comprising an inner chamber arranged to receive the biologic mixture and having a central longitudinal axis about which said inner chamber is arranged to be rotated, said inner chamber comprising a sidewall having a tapered inner surface, a base , and an annular screen , said annular screen having an inner surface and being located at a first radial distance from said central longitudinal axis , said annular screen projecting away from said base , and a first port having an inlet at a second radial distance from said longitudinal axis, wherein said inner chamber additionally comprises at least one roller arranged to effectively roll around said inner surface of said annular screen to propel at least a portion of said biologic mixture through said annular screen and away from said central longitudinal axis and towards said tapered sidewall .
A vehicle glazing panel comprising at least one glazed element and at least one base for the reversible attachment of at least one internal accessory, such as an internal rearview mirror or an internal display screen, to said glazed element , said base being based on plastics material and having a body , an external face located opposite the internal face of said glazed element, an internal face and a housing for the fixing of a further accessory opposite the internal face of said glazed element, such as a sensor, characterized in that said base further comprises a metal part which has: - at least one recessed part located inside the body of said base , and preferably two recessed parts located inside the body of said base , - at least one external protruding part which protrudes further to the exterior than said external face of said base and in the direction of the internal face of said glazed element, and preferably two external protruding parts which protrude further to the exterior than said external face of said base and in the direction of the internal face of said glazed element, and - at least one internal protruding part which protrudes further to the interior than said internal face of said base . - at least one recessed part located inside the body of said base , and preferably two recessed parts located inside the body of said base , - at least one external protruding part which protrudes further to the exterior than said external face of said base and in the direction of the internal face of said glazed element, and preferably two external protruding parts which protrude further to the exterior than said external face of said base and in the direction of the internal face of said glazed element, and - at least one internal protruding part which protrudes further to the interior than said internal face of said base .
A floor cleaner comprising: a vacuum source ; a base movable over a surface to be cleaned, the base having a suction inlet in fluid communication with the vacuum source ; a body pivotally coupled to the base , the body pivotable between an upright storage position and an inclined operating position; a handle that extends from the body , the handle configured to pivot the body between the upright storage position and the inclined operating position and the handle configured to move the base over the surface; an upper end , the handle adjacent the upper end ; a lower end opposite the upper end , the base adjacent the lower end ; a front side , the suction inlet adjacent the front side ; a back side opposite the front side ; a battery that powers the vacuum source , the battery adjacent the back side ; a supply tank configured to store a cleaning fluid, the supply tank adjacent the back side ; and a recovery tank configured to store the cleaning fluid drawn through the suction inlet from the surface by the vacuum source , the recovery tank adjacent the front side . a vacuum source ; a base movable over a surface to be cleaned, the base having a suction inlet in fluid communication with the vacuum source ; a body pivotally coupled to the base , the body pivotable between an upright storage position and an inclined operating position; a handle that extends from the body , the handle configured to pivot the body between the upright storage position and the inclined operating position and the handle configured to move the base over the surface; an upper end , the handle adjacent the upper end ; a lower end opposite the upper end , the base adjacent the lower end ; a front side , the suction inlet adjacent the front side ; a back side opposite the front side ; a battery that powers the vacuum source , the battery adjacent the back side ; a supply tank configured to store a cleaning fluid, the supply tank adjacent the back side ; and a recovery tank configured to store the cleaning fluid drawn through the suction inlet from the surface by the vacuum source , the recovery tank adjacent the front side .
An organic iodine trapping apparatus that is configured to trap organic iodine in a nuclear reactor container vessel , comprising: a liquid vessel containing a non-volatile liquid (L1) capable of decomposing organic iodine; and an introduction pipe for introducing a fluid containing organic iodine in the nuclear reactor container vessel to the non-volatile liquid (L1), wherein the apparatus is configured to heat the non-volatile liquid (L1) by reaction heat of the fluid in the nuclear reactor container vessel , and then to decompose and trap the organic iodine, wherein the liquid vessel is installed in a dry well or in a wet well in the nuclear reactor container vessel , and the non-volatile liquid (L1) is heated by the heat in the nuclear reactor container vessel , characterized by a reactor around the liquid vessel , wherein the reactor generates the reaction heat by causing an exothermic reaction of the fluid in the nuclear reactor container vessel . a liquid vessel containing a non-volatile liquid (L1) capable of decomposing organic iodine; and an introduction pipe for introducing a fluid containing organic iodine in the nuclear reactor container vessel to the non-volatile liquid (L1), wherein the apparatus is configured to heat the non-volatile liquid (L1) by reaction heat of the fluid in the nuclear reactor container vessel , and then to decompose and trap the organic iodine, wherein the liquid vessel is installed in a dry well or in a wet well in the nuclear reactor container vessel , and the non-volatile liquid (L1) is heated by the heat in the nuclear reactor container vessel , characterized by a reactor around the liquid vessel , wherein the reactor generates the reaction heat by causing an exothermic reaction of the fluid in the nuclear reactor container vessel .
A jig , comprising: a base having an upper surface , which is configured to receive a substrate shaped as a flattened polyhedron having multiple facets (88A-88F); and one or more movable blocks (77A-77D), which are configured to move on the base so as to fold respective ones of the multiple facets, and to hold the substrate in a folded three-dimensional configuration. a base having an upper surface , which is configured to receive a substrate shaped as a flattened polyhedron having multiple facets (88A-88F); and one or more movable blocks (77A-77D), which are configured to move on the base so as to fold respective ones of the multiple facets, and to hold the substrate in a folded three-dimensional configuration.