mhurhangee/ep-ind-claims huggingface dataset:
A head mounted display (2, 2a) including heat-producing electronic components, comprising: an optical mounting structure adapted to include the electronic components on an interior surface, the structure including frame elements (115, 104, 131, 117, 130, 102) having an exterior surface, wherein the optical mounting structure includes first and second temple arms (102l, 102r) extending away from the components, each temple arm (102l, 102r) having a length, a width and a height, and at least one bonded graphite layer (402, 404) comprising at least a first graphite layer (402l, 404l) and a second graphite layer (402r, 404r) each thermally coupled to the electronic components and respectively mounted to an exterior surface of the first temple arm and the second temple arm of the optical mounting structure. an optical mounting structure adapted to include the electronic components on an interior surface, the structure including frame elements (115, 104, 131, 117, 130, 102) having an exterior surface, wherein the optical mounting structure includes first and second temple arms (102l, 102r) extending away from the components, each temple arm (102l, 102r) having a length, a width and a height, and at least one bonded graphite layer (402, 404) comprising at least a first graphite layer (402l, 404l) and a second graphite layer (402r, 404r) each thermally coupled to the electronic components and respectively mounted to an exterior surface of the first temple arm and the second temple arm of the optical mounting structure.
A method for making a balloon expandable scaffold for being implanted in a peripheral vessel of a body including a scaffold crimped to a balloon-catheter, comprising biaxially expanding a polymer precursor to form an expanded tube having a diameter and a wall thickness; forming a scaffold from the expanded tube using a laser; crimping the scaffold to a balloon-catheter at a crimping temperature between about 5 to 15 degrees Celsius less than the glass transition temperature of the polymer material; and characterized by fitting a removable sheath over the scaffold immediately following crimping to limit recoil of the crimped scaffold; wherein a ratio of the tube diameter to the wall thickness for the scaffold is between 20 and 60; and wherein the crimped scaffold, when deployed, is capable of regaining at least 90% of its diameter after being crushed to at least 75% of its diameter.
A thermostatic mixer, particularly for hygienic-sanitary components, comprising a mixer body (2, 2a) in which there is a mixing chamber (3, 3a) that accommodates a thermostatic mixing cartridge (4, 4a) and has at least one first inlet (5, 5a) connected to a cold water supply port (6, 6a), at least one second inlet (7, 7a) connected to a hot water supply port (8, 8a), and at least one outlet (9, 9a) for the mixed water that is connected to at least one mixed water delivery duct (10, 10a) that leads out of said mixer body (2, 2a), at least said mixed water delivery duct (10, 10a) extends within a protective body (11, 11a) that is arranged inside said mixer body (2, 2a) and is spaced, over its extension, from the internal walls of said mixer body (2, 2a), between said mixer body (2, 2a) and said protective body (11, 11a) a space (12, 12a) being defined, along said delivery duct (10, 10a) there is a flow rate adjustment chamber (13, 13a) that accommodates means (14, 14a) for adjusting the flow rate of the mixed water to be delivered, characterized in that said delivery duct (10, 10a) comprises at least: - a first branch (17, 17a) that enters said flow rate adjustment chamber (13, 13a), - a second branch (19,19a) that exits from said flow rate adjustment chamber (13, 13a) and leads out of said mixer body (2, 2a) and - a third branch (20, 20a) that exits from said flow rate adjustment chamber (13, 13a) and leads out of said mixer body (2, 2a); said flow rate adjustment means (14, 14a) comprising a redirection element for the selective and/or combined connection of said first branch (17, 17a) of said delivery duct (10, 10a) with said second and third branches (19, 20, 19a, 20a) of the delivery duct (10, 10a); said space (12, 12a) being connected to said cold water supply port (6, 6a); said space (12, 12a) being separated from said hot water supply port (8, 8a) and from said mixed water outlet (9, 9a) in such a way that said space (12, 12a) is never affected by the hot water or by the mixed water. - a first branch (17, 17a) that enters said flow rate adjustment chamber (13, 13a), - a second branch (19,19a) that exits from said flow rate adjustment chamber (13, 13a) and leads out of said mixer body (2, 2a) and - a third branch (20, 20a) that exits from said flow rate adjustment chamber (13, 13a) and leads out of said mixer body (2, 2a);
A pressure vessel, comprising: a vessel main body (10,20) having a tank head section and a shell plate section; and a protective member placed in contact with and fixed to part of an outer surface of the tank head section, wherein the protective member includes a non-foamed material configured to be thermally foamable to form a heat insulating layer when being foamed; wherein the protective member includes a layer containing the thermally foamable material and a layer containing a buffer material. a vessel main body (10,20) having a tank head section and a shell plate section; and a protective member placed in contact with and fixed to part of an outer surface of the tank head section, wherein the protective member includes a non-foamed material configured to be thermally foamable to form a heat insulating layer when being foamed; wherein the protective member includes a layer containing the thermally foamable material and a layer containing a buffer material.
Vehicle with a body, an inner covering arranged in the body and a textile duct which extends between the body and the inner covering and is composed of a textile fabric, for conducting air-conditioning air, wherein the textile duct is attached to the body, characterized in that the textile duct is held on the inner covering by means of a touch-and-close fastener.
A method for preparing poly(carbonate-etherimide) compound comprising polycarbonate segment as shown in the structure and polyetherimide segment as shown in the structure, comprising the steps of: (a) adding aromatic amine having halogen functional group into a solution containing aromatic dianhydride and aromatic diamine; (b) mixing polycarbonate with bisphenol A; and (c) adding a mixture containing copper compound and pyridyl ketone compound into a mixture containing basic cesium compound and the mixture obtained from the step (a) and (b); wherein R 1 represents aromatic having 6 to 30 carbon atoms or, optionally said aromatic is bonded with heteroatom; R 2 represents aromatic having 6 to 30 carbon atoms or, optionally said aromatic is bonded with heteroatom; m is an integer number from 1 to 15; and n is an integer number from 1 to 10. (a) adding aromatic amine having halogen functional group into a solution containing aromatic dianhydride and aromatic diamine; (b) mixing polycarbonate with bisphenol A; and (c) adding a mixture containing copper compound and pyridyl ketone compound into a mixture containing basic cesium compound and the mixture obtained from the step (a) and (b); wherein R 1 represents aromatic having 6 to 30 carbon atoms or, optionally said aromatic is bonded with heteroatom; R 2 represents aromatic having 6 to 30 carbon atoms or, optionally said aromatic is bonded with heteroatom; m is an integer number from 1 to 15; and n is an integer number from 1 to 10. R 1 represents aromatic having 6 to 30 carbon atoms or, optionally said aromatic is bonded with heteroatom; R 2 represents aromatic having 6 to 30 carbon atoms or, optionally said aromatic is bonded with heteroatom; m is an integer number from 1 to 15; and n is an integer number from 1 to 10.
A method of statistically characterizing populations of nano-particles, comprising: forming force centers on a surface, each of the force centers being an area that attracts or repels nano-particles, the force centers being configured to arrange multiple nano-particles of a population of nano-particles over the surface in a pattern facilitating a statistical characterization of the population of nano-particles; distributing the multiple nano-particles over the surface, the distribution of the multiple nano-particles being influenced by a force on the nano-particles by the force centers; measuring a property of the multiple nano-particles on the surface without manipulating individual nano-particles of the multiple nano-particles; and determining a statistical characteristic of the measured property of the multiple nano-particles. forming force centers on a surface, each of the force centers being an area that attracts or repels nano-particles, the force centers being configured to arrange multiple nano-particles of a population of nano-particles over the surface in a pattern facilitating a statistical characterization of the population of nano-particles; distributing the multiple nano-particles over the surface, the distribution of the multiple nano-particles being influenced by a force on the nano-particles by the force centers; measuring a property of the multiple nano-particles on the surface without manipulating individual nano-particles of the multiple nano-particles; and determining a statistical characteristic of the measured property of the multiple nano-particles.
A method for processing a print job in a printing system having a server and a printer which comprises a print controller, comprising: receiving, by the server, the print job data and a first job ticket defined according to a first language, wherein a second job ticket defined according to a second language is wrapped within the first job ticket; analyzing, by the server, the first job ticket to identify the second job ticket wrapped within; selecting, by the server, a printer for processing the print job that is capable of interpreting the second language; transmitting the print job data from the server to the print controller for printing; transmitting a communication that encapsulates the second job ticket from the server to the print controller; receiving by the print controller the second job ticket; processing by the print controller the print job data according to the second language; and implementing by the print controller, counters defined according to the first language to track progress while processing the print job data. receiving, by the server, the print job data and a first job ticket defined according to a first language, wherein a second job ticket defined according to a second language is wrapped within the first job ticket; analyzing, by the server, the first job ticket to identify the second job ticket wrapped within; selecting, by the server, a printer for processing the print job that is capable of interpreting the second language; transmitting the print job data from the server to the print controller for printing; transmitting a communication that encapsulates the second job ticket from the server to the print controller; receiving by the print controller the second job ticket; processing by the print controller the print job data according to the second language; and implementing by the print controller, counters defined according to the first language to track progress while processing the print job data.
Sensor element (1; 1') for storing rotation or position information, wherein the sensor element (1; 1') - comprises a domain wall conductor (1.1; 1.1') which is arranged on a substrate (1.2), wherein the course of the domain wall conductor (1.1; 1.1') is without crossings and the domain wall conductor (1.1; 1.1') has a first region with a positive curvature and a second region with a negative curvature, - comprises an electrically conductive layer (1.7) which is applied to the substrate (1.2) and is arranged in an overlapping manner relative to the domain wall conductor (1.1; 1.1') and so as to be electrically insulated with respect to the latter, wherein the electrically conductive layer (1.7) has four contact points (1.71, 1.72, 1.73, 1.74) which are arranged such that two pairs of contact points (1.71, 1.72, 1.73, 1.74) can have a voltage applied to them, with the result that an electric current flows either in a first current direction (ξ) or in a second current direction (Ψ), the first current direction (ξ) being oriented orthogonally with respect to the second current direction (Ψ), with the result that the magnetic field induced by the current can generate domain walls (W1, W2, W1', W2') in the domain wall conductor (1.1; 1.1'). - comprises a domain wall conductor (1.1; 1.1') which is arranged on a substrate (1.2), wherein the course of the domain wall conductor (1.1; 1.1') is without crossings and the domain wall conductor (1.1; 1.1') has a first region with a positive curvature and a second region with a negative curvature, - comprises an electrically conductive layer (1.7) which is applied to the substrate (1.2) and is arranged in an overlapping manner relative to the domain wall conductor (1.1; 1.1') and so as to be electrically insulated with respect to the latter, wherein the electrically conductive layer (1.7) has four contact points (1.71, 1.72, 1.73, 1.74) which are arranged such that
Method for determining the location of a selected position within a lumen, the method comprising the procedures of: registering a three-dimensional coordinate system with a two-dimensional coordinate system, said three-dimensional coordinate system being associated with a medical positioning system, said two-dimensional coordinate system being associated with a two-dimensional image acquisition device; characterized by the procedures of selecting at least one point corresponding to said selected position on a first two-dimensional image of said lumen, and selecting at least another point, corresponding to said selected position on at least a second two-dimensional image, the respective viewing directions of said first two dimensional image and said at least second two-dimensional image are different from each other, each of said first and said at least second two-dimensional images (720, 724) is associated with a respective image plane in said three-dimensional coordinate system, each of said at least one point and said at least other point is associated with a respective location in the respective image plane associated with the respective image (720, 724) on which said at least one point and said at least another point were selected; determining the location of said selected position in said three-dimensional coordinate system according to the respective locations of said at least one point and said at least another point on the respective image planes thereof and according to said viewing directions of said first and said at least second two-dimensional images (720, 724) registering a three-dimensional coordinate system with a two-dimensional coordinate system, said three-dimensional coordinate system being associated with a medical positioning system, said two-dimensional coordinate system being associated with a two-dimensional image acquisition device; characterized by the procedures of selecting at least one point corresponding to said selected position on a first two-dimensional image of said lumen, and selecting at least another point, corresponding to said selected position on at least a second two-dimensional image, the respective viewing directions of said first two dimensional image and said at least second two-dimensional image are different from each other, each of said first and said at least second two-dimensional images (720, 724) is associated with a respective image plane in said three-dimensional coordinate system, each of said at least one point and said at least other point is associated with a respective location in the respective image plane associated with the respective image (720, 724) on which said at least one point and said at least another point were selected; determining the location of said selected position in said three-dimensional coordinate system according to the respective locations of said at least one point and said at least another point on the respective image planes thereof and according to said viewing directions of said first and said at least second two-dimensional images (720, 724)
A charging apparatus configured to couple to and wirelessly charge a portable device having a device coil, the charging apparatus comprising: a charging mount with a mount body defining a rear surface and a front surface defined in opposite relation to the rear surface, the rear surface and the front surface of the mount body defining a first thickness, the front surface of the mount body configured to be engaged with the portable device such that the front surface of the mount body is positioned adjacent to the portable device; and a charging module including a coil operable to interact with the device coil of the portable device to wirelessly charge the portable device, the coil being positioned within a coil receiver, characterized by: the rear surface of the mount body including a module receiver with the coil receiver that extends toward the front surface of the charging mount so that the mount body corresponding with the coil receiver defines a second thickness between the front surface of the mount body and the coil receiver, wherein the second thickness is less than the first thickness such that the coil receiver defines a recess, and the charging module being removably coupled with the charging mount and positioned within the module receiver on the rear surface of the mount body. a charging mount with a mount body defining a rear surface and a front surface defined in opposite relation to the rear surface, the rear surface and the front surface of the mount body defining a first thickness, the front surface of the mount body configured to be engaged with the portable device such that the front surface of the mount body is positioned adjacent to the portable device; and a charging module including a coil operable to interact with the device coil of the portable device to wirelessly charge the portable device, the coil being positioned within a coil receiver, characterized by: the rear surface of the mount body including a module receiver with the coil receiver that extends toward the front surface of the charging mount so that the mount body corresponding with the coil receiver defines a second thickness between the front surface of the mount body and the coil receiver, wherein the second thickness is less than the first thickness such that the coil receiver defines a recess, and the charging module being removably coupled with the charging mount and positioned within the module receiver on the rear surface of the mount body. the rear surface of the mount body including a module receiver with the coil receiver that extends toward the front surface of the charging mount so that the mount body corresponding with the coil receiver defines a second thickness between the front surface of the mount body and the coil receiver, wherein the second thickness is less than the first thickness such that the coil receiver defines a recess, and the charging module being removably coupled with the charging mount and positioned within the module receiver on the rear surface of the mount body.
An implantable medical lead comprising: a lead body extending from a proximal portion of the implantable medical lead to a distal portion of the implantable medical lead; an electrode at the distal portion of the implantable medical lead; and a lead electrical connector at the proximal portion of the implantable medical lead, wherein the lead electrical connector is configured to establish electrical communication between a test device and the electrode; and a rotational electrical coupling, wherein at least a portion of the rotational electrical coupling is mechanically supported by the lead electrical connector, and wherein the rotational electrical coupling comprises: a first conductive component electrically connected to the electrode; and a second conductive component electrically connected to the first conductive component, wherein the second conductive component is configured to establish electrical communication with the test device, and wherein the first conductive component and the second conductive component are configured to rotate relative to each other. a lead body extending from a proximal portion of the implantable medical lead to a distal portion of the implantable medical lead; an electrode at the distal portion of the implantable medical lead; and a lead electrical connector at the proximal portion of the implantable medical lead, wherein the lead electrical connector is configured to establish electrical communication between a test device and the electrode; and a rotational electrical coupling, wherein at least a portion of the rotational electrical coupling is mechanically supported by the lead electrical connector, and wherein the rotational electrical coupling comprises: a first conductive component electrically connected to the electrode; and a second conductive component electrically connected to the first conductive component, wherein the second conductive component is configured to establish electrical communication with the test device, and wherein the first conductive component and the second conductive component are configured to rotate relative to each other. a first conductive component electrically connected to the electrode; and a second conductive component electrically connected to the first conductive component, wherein the second conductive component is configured to establish electrical communication with the test device, and wherein the first conductive component and the second conductive component are configured to rotate relative to each other.