mhurhangee/patent-ind-claim-en huggingface dataset:
Public transport vehicle , comprising a passenger space delimited by two lateral walls , including at least one USB interface for connection with an electronic apparatus, the USB interface comprising: - an electronic member comprising at least one USB port , and connection elements which are able to connect each USB port to cabling , - a support box comprising a first face from which the USB port is accessible, and a second face opposite the first , the second face comprising at least one planar adhesive part, intended to be glued to one of the lateral walls , characterised in that the second face of the support box is glued to one of the lateral walls . - an electronic member comprising at least one USB port , and connection elements which are able to connect each USB port to cabling , - a support box comprising a first face from which the USB port is accessible, and a second face opposite the first , the second face comprising at least one planar adhesive part, intended to be glued to one of the lateral walls ,
A method for manufacturing a metal-clad laminate sheet including (i) a thermoplastic liquid crystal polymer film containing a thermoplastic polymer, and (ii) a metal foil bonded to at least one surface of the thermoplastic liquid crystal polymer film, the thermoplastic polymer being capable of forming an optically anisotropic molten phase, and the method comprising: forming a laminate sheet having the thermoplastic liquid crystal polymer film and the metal foil bonded together; and providing the laminate sheet with a heat treatment which satisfies conditions and below: a heat treatment temperature ranges between 1°C inclusive and 50°C exclusive higher than a melting point of the thermoplastic liquid crystal polymer film. a time for the heat treatment ranges from one second to 10 minutes, characterized in that the metal foil has a surface roughness of smaller than 2.0 μm. forming a laminate sheet having the thermoplastic liquid crystal polymer film and the metal foil bonded together; and providing the laminate sheet with a heat treatment which satisfies conditions and below: a heat treatment temperature ranges between 1°C inclusive and 50°C exclusive higher than a melting point of the thermoplastic liquid crystal polymer film. a time for the heat treatment ranges from one second to 10 minutes, a heat treatment temperature ranges between 1°C inclusive and 50°C exclusive higher than a melting point of the thermoplastic liquid crystal polymer film. a time for the heat treatment ranges from one second to 10 minutes, characterized in that the metal foil has a surface roughness of smaller than 2.0 μm.
An optical sensor for monitoring a protective field, having a transmitter/receiver unit with at least one transmitter emitting light beams and at least one receiver receiving light beams , which are designed to scan the protective field in each case with scans following one another in time, and having an evaluation unit in which an object detection signal is generated as a function of received signals, the protective field being divided into areas, characterised in that an object detection signal is then generated, if protective field violations are registered in the areas of the protective field in at least two temporally successive scans, wherein, when a protective field violation is registered during a first scan in at least one of the areas of the protective field, this forms an output area, starting from which one or more of the areas are defined as expectation areas which are in close spatial association with the output area, and wherein an object detection signal is generated only if a protective field violation is registered in at least one of these expectation areas in the following scan.
A group III nitride based high electron mobility transistor (HEMT) , comprising: a semiconductor buffer layer ; a high polarization semiconductor layer on said buffer layer ; a semiconductor barrier layer on said high polarization layer so that said high polarization layer is between said buffer and barrier layers , each of said layers having a non-zero total polarization pointing in the same direction, the magnitude of said polarization in said high polarization layer higher than the polarization of said buffer and barrier layers ; and a two dimensional electron gas at the interface between said buffer layer and said high polarization layer ; wherein said high polarization semiconductor layer is made of Al y Ga l-y N, with y=1, characterised in that said high polarization semiconductor layer is less than 50 Å thick. a semiconductor buffer layer ; a high polarization semiconductor layer on said buffer layer ; a semiconductor barrier layer on said high polarization layer so that said high polarization layer is between said buffer and barrier layers , each of said layers having a non-zero total polarization pointing in the same direction, the magnitude of said polarization in said high polarization layer higher than the polarization of said buffer and barrier layers ; and a two dimensional electron gas at the interface between said buffer layer and said high polarization layer ; wherein said high polarization semiconductor layer is made of Al y Ga l-y N, with y=1, characterised in that said high polarization semiconductor layer is less than 50 Å thick.
A shaped charge liner having a composition comprising metal powders, the composition comprising: one or more of an aluminum metal powder and a titanium metal powder, wherein each of the aluminum metal powder and the titanium metal powder comprise a grain size range from 50 micrometers to 150 micrometers; a first bronze metal powder comprising a grain size range of 160 micrometers to 179 micrometers; a second bronze metal powder comprising a grain size range of 125 micrometers to 159 micrometers; and a tungsten metal powder comprising a grain size up to 200 micrometers; and a graphite powder comprising a grain size up to 100 micrometers. one or more of an aluminum metal powder and a titanium metal powder, wherein each of the aluminum metal powder and the titanium metal powder comprise a grain size range from 50 micrometers to 150 micrometers; a first bronze metal powder comprising a grain size range of 160 micrometers to 179 micrometers; a second bronze metal powder comprising a grain size range of 125 micrometers to 159 micrometers; and a tungsten metal powder comprising a grain size up to 200 micrometers; and a graphite powder comprising a grain size up to 100 micrometers.
A method for controlling seal clearance in a turbine engine , the method comprising: positioning a seal ring within the turbine engine, the seal ring having an inner annular surface and an outer annular surface , the inner annular surface and the outer annular surface both being circular but non-concentric; rotating the seal ring within the engine until the seal ring is placed in an aligned orientation at which a center of a circle that defines the inner annular surface coincides with a centerline of the turbine engine; and securing the seal ring while in the aligned orientation. positioning a seal ring within the turbine engine, the seal ring having an inner annular surface and an outer annular surface , the inner annular surface and the outer annular surface both being circular but non-concentric; rotating the seal ring within the engine until the seal ring is placed in an aligned orientation at which a center of a circle that defines the inner annular surface coincides with a centerline of the turbine engine; and securing the seal ring while in the aligned orientation.
Radial bearing arrangement for a motor vehicle with an outer ring , with an inner ring arranged at least partially inside the outer ring , with a longitudinal axis extending in axial direction (x) of the outer ring and the inner ring from a vehicle inner side to a vehicle outer side and with a brake disc , wherein the inner ring is provided at its end facing the vehicle outer side with a flange section having a first section arranged spaced at the furthest point from an axial centre of the outer ring , and a second section, which forms a contact surface for attaching the brake disk , wherein the flange section is configured to be stepped such that the contact surface for attaching the brake disk is arranged offset relative to the section of the flange section spaced at the furthest point from the axial centre of the outer ring in axial direction (x) towards the vehicle inner side , wherein on the side opposite the contact surface for attaching the brake disk an at least partially peripheral projection is arranged, and the projection forms an undercut into which at least one wheel bearing seal projects, characterised in that the offset of the contact surface for attaching the brake disc with respect to the section of the flange section furthest from the axial centre of the outer ring corresponds in axial direction (x) to the thickness of the brake disc .
A tire having an axis of rotation, the tire comprising annular bead structures for attachment to a vehicle rim ; a carcass-like structure having at least one reinforced ply; and a tread disposed radially outward of the carcass-like structure ; wherein at least one or both of the two bead structures include at least one layer of a three dimensional fabric construction wherein the at least one layer of a three dimensional fabric construction includes a frame structure having a tear drop shape and one or more open cells defined by the frame structure having the tear drop shape, characterised in that the tear drop shape is supported by fabric elements extending in the tire axial direction, maintaining a gap between opposite walls of the tear drop shape.
A cutting method for cutting a fiber reinforced composite material and/or a metal using an entry sheet which comprises a resin sheet comprising a solid lubricant selected from the group consisting of graphite, molybdenum disulfide, tungsten disulfide, molybdenum compounds, polytetrafluoroethylenes and polyimides, characterized in that the fiber reinforced composite material comprises a carbon fiber reinforced plastic, the metal comprises a titanium alloy or an aluminum alloy, the cutting is performed while cooling a cutting portion and/or a cutting tool using a gas, an amount of the gas supplied to the cutting portion and/or the cutting tool is 5 to 300 L/min, a gas outlet area in an apparatus for supplying the gas is 7 mm 2 to 2000 mm 2 , and a distance between a gas outlet of the apparatus for supplying the gas and the cutting portion and/or the cutting tool is 100 mm to 500 mm. the fiber reinforced composite material comprises a carbon fiber reinforced plastic, the metal comprises a titanium alloy or an aluminum alloy, the cutting is performed while cooling a cutting portion and/or a cutting tool using a gas, an amount of the gas supplied to the cutting portion and/or the cutting tool is 5 to 300 L/min, a gas outlet area in an apparatus for supplying the gas is 7 mm 2 to 2000 mm 2 , and a distance between a gas outlet of the apparatus for supplying the gas and the cutting portion and/or the cutting tool is 100 mm to 500 mm.
A skin preparation kit comprising: a transdermal device having a skin contact area and a working area that lies within and is smaller than the skin contact area ; and a skin preparation patch comprising a first part , a second part and a third part , wherein: at least the first part of the patch comprises an adhesive layer suitable for adhering the patch to skin ; the third part can be removed, thereby to create an opening in the second part ; the opening in the second part of the patch defines a skin preparation area that lies within and is smaller than the overall area of the second part ; and the second part can be removed to leave the first part adhered to the skin ; whereby the first part of the patch defines a desired location for placing the transdermal device in contact with the skin such that the skin preparation area defined by the second part of the patch prior to its removal is in alignment with the working area of the device ; characterized in that : the skin preparation patch is divided by cut lines into the first part , the second part and the third part ; and the third part can be removed while leaving the first and second parts of the patch adhered to the skin . a transdermal device having a skin contact area and a working area that lies within and is smaller than the skin contact area ; and a skin preparation patch comprising a first part , a second part and a third part , wherein: at least the first part of the patch comprises an adhesive layer suitable for adhering the patch to skin ; the third part can be removed, thereby to create an opening in the second part ; the opening in the second part of the patch defines a skin preparation area that lies within and is smaller than the overall area of the second part ; and the second part can be removed to leave the first part adhered to the skin ; at least the first part of the patch comprises an adhesive layer suitable for adhering the patch to skin ; the third part can be removed, thereby to create an opening in the second part ; the opening in the second part of the patch defines a skin preparation area that lies within and is smaller than the overall area of the second part ; and the second part can be removed to leave the first part adhered to the skin ; whereby the first part of the patch defines a desired location for placing the transdermal device in contact with the skin such that the skin preparation area defined by the second part of the patch prior to its removal is in alignment with the working area of the device ; characterized in that : the skin preparation patch is divided by cut lines into the first part , the second part and the third part ; and the third part can be removed while leaving the first and second parts of the patch adhered to the skin . the skin preparation patch is divided by cut lines into the first part , the second part and the third part ; and the third part can be removed while leaving the first and second parts of the patch adhered to the skin .
Method for determining the current angle of lateral inclination α of a roadway by means of a vehicle , at least comprising the steps of: a) determining the current radius of curvature K of the roadway ; b) measuring the current velocities v of at least two different wheels of the vehicle , one of the wheels with the velocity v lying closer to the current center of the curve on the roadway ; c) calculating the current radius of lateral inclination Q of the roadway on the basis of the current wheel velocity v , the wheel distance d and the difference between the wheel velocities measured in method step b); d) calculating the current angle of inclination α of the roadway using the quotient of the radius of curvature K determined in method step a) and the current radius of lateral inclination Q calculated in method step c). a) determining the current radius of curvature K of the roadway ; b) measuring the current velocities v of at least two different wheels of the vehicle , one of the wheels with the velocity v lying closer to the current center of the curve on the roadway ; c) calculating the current radius of lateral inclination Q of the roadway on the basis of the current wheel velocity v , the wheel distance d and the difference between the wheel velocities measured in method step b); d) calculating the current angle of inclination α of the roadway using the quotient of the radius of curvature K determined in method step a) and the current radius of lateral inclination Q calculated in method step c).
Stackable panel for floating cultivation of plants on water, said panel comprising a plurality of parallel grooves (10 - 16) at a top side of said panel which extend in a longitudinal direction (X) of the panel and are adapted for receiving therein a substrate (S) and a number of plants or precursors thereof in the substrate, wherein at said top side the length (I) of each groove is at least 10 times the width of the groove, each groove extending through the panel from a first plane (P1) at said top side to a second plane (P2) parallel to and spaced apart from said first plane, wherein the panel comprises a plurality of air chambers at its lower side which extend substantially below the second plane (P2), each of said air chambers arranged to allow therein the formation of air roots of plants or precursors thereof which are supported in the substrate of one or more of said grooves, each of said chambers comprising a ceiling into which one or more of said grooves debouch and merging into a circumferential side wall delimiting said chamber from the other air chambers and having a circumferential bottom edge arranged for extending into the water when the panel floats on the water, wherein, at said second plane (P2), each groove is spaced apart from the circumferential side wall of the air chamber it debouches in when seen in projection onto a plane normal to the longitudinal direction, each of said grooves (10-16) comprising at least two side support surfaces which extend parallel to the groove and below the top side , said side support surfaces adapted for substantially completely supporting the substrate (S) in the groove. wherein the panel comprises a plurality of air chambers at its lower side which extend substantially below the second plane (P2), each of said air chambers arranged to allow therein the formation of air roots of plants or precursors thereof which are supported in the substrate of one or more of said grooves, each of said chambers comprising a ceiling into which one or more of said grooves debouch and merging into a circumferential side wall delimiting said chamber from the other air chambers and having a circumferential bottom edge arranged for extending into the water when the panel floats on the water, wherein, at said second plane (P2), each groove is spaced apart from the circumferential side wall of the air chamber it debouches in when seen in projection onto a plane normal to the longitudinal direction, each of said grooves (10-16) comprising at least two side support surfaces which extend parallel to the groove and below the top side , said side support surfaces adapted for substantially completely supporting the substrate (S) in the groove.
A pharmaceutical composition comprising oritavancin, or a pharmaceutically acceptable salt thereof, and a pharmaceutically acceptable carrier or diluent, for use in treating, preventing or providing prophylaxis for a bacterial infection in a subject, wherein said treating, preventing or prophylaxis is by administration of one dose of a therapeutically effective amount of said pharmaceutical composition over a course of therapy, prevention or prophylaxis to a subject having a bacterial infection, at risk of exposure to infectious bacteria, or at risk of developing a bacterial infection, which thereby treats, prevents or provides prophylaxis for said bacterial infection in said subject, wherein said one dose comprises 1200 mg oritavancin, or a pharmaceutically acceptable salt thereof, wherein the bacteria causing the bacterial infection is a bacteria selected from the group consisting of Staphylococcus aureus, methicillin-resistant Staphylococcus aureus, vancomycin-resistant Staphylococcus aureus, vancomycin-intermediate Staphylococcus aureus, vancomycin hetero-intermediate Staphylococcus aureus, Streptococcus pyogenes, Streptococcus agalactiae, Enterococcus faecalis and vancomycin-resistant Enterococcus faecalis.
An apparatus for generating neutrons comprising: - a hollow casing having a central axis (A) and configured for rotating about said central axis (A), said hollow casing comprising a wall having a central region substantially at the central axis (A) and a peripheral region external to said central region , said wall defining a cavity , said cavity being configured for containing a first coolant fluid; - an active layer positioned at least partially on said peripheral region externally to said cavity , said active layer being configured for carrying out a neutron-generating reaction; - at least a particle accelerator configured for directing an ion beam on said active layer to activate said reaction; - movement means configured for rotating said hollow casing about said central axis (A) by forcing said first coolant fluid to lick internally said wall at said active layer for cooling said hollow casing ; characterised by further comprising: - external cooling means configured for externally cooling the hollow casing , said external cooling means comprising a second coolant fluid licking externally at least partially said wall ; wherein - said hollow casing is sealed with respect to an external environment for retaining said first coolant fluid within said cavity . - a hollow casing having a central axis (A) and configured for rotating about said central axis (A), said hollow casing comprising a wall having a central region substantially at the central axis (A) and a peripheral region external to said central region , said wall defining a cavity , said cavity being configured for containing a first coolant fluid; - an active layer positioned at least partially on said peripheral region externally to said cavity , said active layer being configured for carrying out a neutron-generating reaction; - at least a particle accelerator configured for directing an ion beam on said active layer to activate said reaction; - movement means configured for rotating said hollow casing about said central axis (A) by forcing said first coolant fluid to lick internally said wall at said active layer for cooling said hollow casing ; - external cooling means configured for externally cooling the hollow casing , said external cooling means comprising a second coolant fluid licking externally at least partially said wall ; - said hollow casing is sealed with respect to an external environment for retaining said first coolant fluid within said cavity .
An exhalation port for noninvasive ventilation therapy comprising: an elongate body , said elongate body being hollow and defining a lumen to carry a flow of gases; a top portion , a centre portion , and a bottom portion ; a plurality of openings arranged on a portion of the elongate body, the plurality of openings configured to vent gases through the openings ; a pressure port extending outward from the elongate body , the pressure port configured to couple with a pressure sampling line that connects to a noninvasive ventilator; a shroud extending from the elongate body, the shroud surrounding one or more of the plurality of openings ; the shroud comprising an outer wall and an outer surface ; the shroud being removable from the elongate body; wherein a plurality of alternating recessed strips and ridges are provided on the outer wall of the shroud , the plurality of alternating recessed strips and the ridges starting from the outer surface of the shroud and extending toward the center portion ; and wherein the exhalation port is arranged to removably connect in-line with a circuit for delivering gases to a patient. an elongate body , said elongate body being hollow and defining a lumen to carry a flow of gases; a top portion , a centre portion , and a bottom portion ; a plurality of openings arranged on a portion of the elongate body, the plurality of openings configured to vent gases through the openings ; a pressure port extending outward from the elongate body , the pressure port configured to couple with a pressure sampling line that connects to a noninvasive ventilator; a shroud extending from the elongate body, the shroud surrounding one or more of the plurality of openings ; the shroud comprising an outer wall and an outer surface ; the shroud being removable from the elongate body; wherein a plurality of alternating recessed strips and ridges are provided on the outer wall of the shroud , the plurality of alternating recessed strips and the ridges starting from the outer surface of the shroud and extending toward the center portion ; and wherein the exhalation port is arranged to removably connect in-line with a circuit for delivering gases to a patient.