mhurhangee/ep-ind-claims huggingface dataset:
An antenna module, comprising: a ground plate; a metal plate spaced apart from the ground plate by a distance such that a surface of the ground plate faces a surface of the metal plate (103; and at least one feeding part and at least one ground part that couple the ground plate to the metal plate, wherein the at least one ground part comprises a first ground part and a second ground part that are formed at two different positions along an edge of the ground plate, wherein the first ground part and the second ground part are spaced apart from the at least one feeding part, wherein the at least one feeding part comprises a first feeding part positioned on an upper portion of the ground plate and a second feeding part positioned on a lower portion of the ground plate, and at least one of the first feeding part or the second feeding part is formed at an edge portion of the ground plate, and wherein the second feeding part is formed within the ground plate and at an asymmetrical point to the first feeding part. a ground plate; a metal plate spaced apart from the ground plate by a distance such that a surface of the ground plate faces a surface of the metal plate (103; and at least one feeding part and at least one ground part that couple the ground plate to the metal plate, wherein the at least one ground part comprises a first ground part and a second ground part that are formed at two different positions along an edge of the ground plate, wherein the first ground part and the second ground part are spaced apart from the at least one feeding part, wherein the at least one feeding part comprises a first feeding part positioned on an upper portion of the ground plate and a second feeding part positioned on a lower portion of the ground plate, and at least one of the first feeding part or the second feeding part is formed at an edge portion of the ground plate, and wherein the second feeding part is formed within the ground plate and at an asymmetrical point to the first feeding part.
Pharmaceutical composition comprising (a) dissolved cebranopadol, (b) organic solvent with a boiling point of 110° to 350° C, and (c) solid carrier. (a) dissolved cebranopadol, (b) organic solvent with a boiling point of 110° to 350° C, and (c) solid carrier.
A micro-truss sheet, including: a plurality of first truss members defined by a plurality of first self-propagating polymer waveguides and extending along a first direction; a plurality of second truss members defined by a plurality of second self-propagating polymer waveguides and extending along a second direction; and a plurality of third truss members defined by a plurality of third self-propagating polymer waveguides and extending along a third direction; the plurality of first truss members, the plurality of second truss members, and the plurality of third truss members being one continuous body; wherein each truss member has a diameter; the sheet having a length substantially greater than its thickness, characterized in that: the sheet having a first region comprising a first unit cell and a second region comprising a second unit cell, the first region and the second region being separated along the length of the sheet, wherein the diameter of each of the plurality of first truss members, the plurality of second truss members, and the plurality of third truss members in the first region is at least 10% greater than the diameter of each of the plurality of first truss members, the plurality of second truss members, and the plurality of third truss members in the second region. a plurality of first truss members defined by a plurality of first self-propagating polymer waveguides and extending along a first direction; a plurality of second truss members defined by a plurality of second self-propagating polymer waveguides and extending along a second direction; and a plurality of third truss members defined by a plurality of third self-propagating polymer waveguides and extending along a third direction; the plurality of first truss members, the plurality of second truss members, and the plurality of third truss members being one continuous body; wherein each truss member has a diameter; the sheet having a length substantially greater than its thickness, characterized in that: the sheet having a first region comprising a first unit cell and a second region comprising a second unit cell, the first region and the second region being separated along the length of the sheet, wherein the diameter of each of the plurality of first truss members, the plurality of second truss members, and the plurality of third truss members in the first region is at least 10% greater than the diameter of each of the plurality of first truss members, the plurality of second truss members, and the plurality of third truss members in the second region. the sheet having a first region comprising a first unit cell and a second region comprising a second unit cell, the first region and the second region being separated along the length of the sheet, wherein the diameter of each of the plurality of first truss members, the plurality of second truss members, and the plurality of third truss members in the first region is at least 10% greater than the diameter of each of the plurality of first truss members, the plurality of second truss members, and the plurality of third truss members in the second region.
Sole (100; 1610; 1710) for a shoe (1400; 1500; 2100; 2200a-d), in particular a sports shoe, comprising: a. a midsole (110; 1410; 1510; 1630; 1730; 2110; 2210a-d) comprising randomly arranged particles (1635; 1735) of an expanded material, b. an outsole (130; 1450; 1540; 1620; 1720; 1800a-d; 2150; 2250a-d) free from expanded material, c. wherein the outsole (130; 1450; 1540; 1620; 1720; 1800a-d; 2150; 2250a-d) reduces shearing motions within a first region of the midsole (110; 1410; 1510; 1630; 1730; 2110; 2210a-d) compared to shearing motions within a second region of the midsole (110; 1410; 1510; 1630; 1730; 2110; 2210a-d), and d. wherein the outsole (130; 1450; 1540; 1620; 1720; 1800a-d; 2150; 2250a-d) comprises a plurality of protrusions (132; 1459; 1622; 1722; 1810; 2259a) that serve as anchor points to allow for a targeted local compression of the midsole material to selectively influence the shear capacity of the midsole (110; 1410; 1510; 1630; 1730; 2110; 2210a-d). a. a midsole (110; 1410; 1510; 1630; 1730; 2110; 2210a-d) comprising randomly arranged particles (1635; 1735) of an expanded material, b. an outsole (130; 1450; 1540; 1620; 1720; 1800a-d; 2150; 2250a-d) free from expanded material, c. wherein the outsole (130; 1450; 1540; 1620; 1720; 1800a-d; 2150; 2250a-d) reduces shearing motions within a first region of the midsole (110; 1410; 1510; 1630; 1730; 2110; 2210a-d) compared to shearing motions within a second region of the midsole (110; 1410; 1510; 1630; 1730; 2110; 2210a-d), and d. wherein the outsole (130; 1450; 1540; 1620; 1720; 1800a-d; 2150; 2250a-d) comprises a plurality of protrusions (132; 1459; 1622; 1722; 1810; 2259a) that serve as anchor points to allow for a targeted local compression of the midsole material to selectively influence the shear capacity of the midsole (110; 1410; 1510; 1630; 1730; 2110; 2210a-d).
A process for generating chlorine dioxide for the disinfection of water, comprising the steps of providing a cartridge having a first inlet and an outlet, the cartridge in terms of flow being filled with dry or humid solid sodium chlorate between the first inlet and the outlet, introducing a stream of an acid through the first inlet into the cartridge, wherein the sodium chlorate within the cartridge is given in excess as compared to the introduced acid, wherein the acid is reacting with the sodium chlorate to form chlorine dioxide and water, wherein the water and at least one part of the not reacted sodium chlorate are forming a saturated aqueous sodium chlorate solution and wherein the chlorine dioxide is forming a gaseous phase above the saturated aqueous sodium chlorate solution, taking out through the outlet a gaseous stream of the chlorine dioxide from the gaseous phase, providing the gaseous stream of the chlorine dioxide to be introduced into the water to be disinfected, monitoring during the generation of chlorine dioxide an increasing liquid level within the cartridge, and indicating a replacement of the cartridge, when the liquid level has reached a specified value.
A shield (100,200) for protecting a display surface, the shield comprising: a rigid base layer (110, 210) having a shape that corresponds to the display surface; a first adhesive layer (140, 240) applied to a lower surface (111, 211) of the shield, the first adhesive configured to removably attach the shield to the display surface; and an outer layer (120, 220) applied to an upper surface (112, 212) of the shield, the outer layer comprising a flexible film material; and a second adhesive layer (121, 221) adhering the outer layer to the base layer; wherein the shield is configured to attach to the display surface with the outer layer facing away from the display surface, wherein the rigid base layer (110, 210) is formed from a material that comprises glass, and wherein the outer layer (120, 220) is configured to extend across and cover the display surface. a rigid base layer (110, 210) having a shape that corresponds to the display surface; a first adhesive layer (140, 240) applied to a lower surface (111, 211) of the shield, the first adhesive configured to removably attach the shield to the display surface; and an outer layer (120, 220) applied to an upper surface (112, 212) of the shield, the outer layer comprising a flexible film material; and a second adhesive layer (121, 221) adhering the outer layer to the base layer; wherein the shield is configured to attach to the display surface with the outer layer facing away from the display surface, wherein the rigid base layer (110, 210) is formed from a material that comprises glass, and wherein the outer layer (120, 220) is configured to extend across and cover the display surface.
Procedure for the establishment of communication compliant with the HART standard between a HART device and a field device used in process and automation engineering by automatically adding or removing a communication resistor of the HART device, wherein the HART device contains a HART modem and is connected to a current loop via terminals, wherein the field device is connected to the current loop and wherein a transmitter power supply unit is connected to the current loop, said procedure comprising the following steps: - A test signal is transmitted on the current loop by means of the HART device via the terminals; - A test voltage signal is read back from the current loop by means of the terminals of the HART device, said test voltage signal being based on the transmitted test signal; - Comparison of the test voltage signal with a reference signal; - Addition of the communication resistor to the current loop if the test voltage signal exceeds the reference signal, wherein a carrier detect signal which is output by the HART modem is used for verification purposes after the communication resistor is added to the circuit, and in the event that the carrier detect signal indicates a valid carrier signal the communication resistor remains in the circuit, and in the event that the carrier detect signal indicates an invalid carrier signal the communication resistor is removed from the circuit. - A test signal is transmitted on the current loop by means of the HART device via the terminals; - A test voltage signal is read back from the current loop by means of the terminals of the HART device, said test voltage signal being based on the transmitted test signal; - Comparison of the test voltage signal with a reference signal; - Addition of the communication resistor to the current loop if the test voltage signal exceeds the reference signal,
A method for simultaneously manufacturing and sterilizing a product comprising: holding a metal product component within a mold; injecting a plastic within the mold to substantially encapsulate the metal product component; and maintaining the plastic at a specified minimum mold temperature of at least about 188°C (370° Fahrenheit) for a specified minimum cycle time of at least about 10 seconds effective to sterilize the metal product component, wherein one or more heating elements for heating the mold are provided. holding a metal product component within a mold; injecting a plastic within the mold to substantially encapsulate the metal product component; and maintaining the plastic at a specified minimum mold temperature of at least about 188°C (370° Fahrenheit) for a specified minimum cycle time of at least about 10 seconds effective to sterilize the metal product component, wherein one or more heating elements for heating the mold are provided.
A method of making-up tubular string components for use in a subterranean well, the method comprising: inputting image data to an image processor, the image data being output from at least one camera; in response to the inputting, the image processor detecting positions of a threaded first tubular and a mark on a threaded second tubular; threading the first and second tubulars (22, 20) with each other; during the threading, inputting position data from the image processor to a controller, the position data being indicative of the position of the mark relative to the position of the first tubular; and the controller terminating the threading in response to the position of the mark relative to the position of the first tubular being within a predetermined range. inputting image data to an image processor, the image data being output from at least one camera; in response to the inputting, the image processor detecting positions of a threaded first tubular and a mark on a threaded second tubular; threading the first and second tubulars (22, 20) with each other; during the threading, inputting position data from the image processor to a controller, the position data being indicative of the position of the mark relative to the position of the first tubular; and the controller terminating the threading in response to the position of the mark relative to the position of the first tubular being within a predetermined range.
A method, comprising: receiving, by a controller, a write command, said write command specifying a data item (410A...410N, 420A...420K, 430A...430M) and an identifier of a data stream (410, 420, 430) comprising the data item (410A... 410N, 420A...420K, 430A...430M), said identifier consisting of stream identification information enhanced by a data attribute; determining, by parsing the identifier of the data stream (410, 420, 430), the data attribute shared by data items (410A...410N, 420A...420K, 430A...430M) comprised by the data stream (410, 420, 430), wherein the data attribute is encoded by a bit string of a pre-defined size starting from a pre-defined position within the identifier of the data stream (410, 420, 430), wherein the data attribute determines a respective distinct storage operation parameter; and transmitting, to a non-volatile memory device (112A...112N), an instruction specifying the data item (410A...410N, 420A...420K, 430A...430M) and the storage operation parameter. receiving, by a controller, a write command, said write command specifying a data item (410A...410N, 420A...420K, 430A...430M) and an identifier of a data stream (410, 420, 430) comprising the data item (410A... 410N, 420A...420K, 430A...430M), said identifier consisting of stream identification information enhanced by a data attribute; determining, by parsing the identifier of the data stream (410, 420, 430), the data attribute shared by data items (410A...410N, 420A...420K, 430A...430M) comprised by the data stream (410, 420, 430), wherein the data attribute is encoded by a bit string of a pre-defined size starting from a pre-defined position within the identifier of the data stream (410, 420, 430), wherein the data attribute determines a respective distinct storage operation parameter; and transmitting, to a non-volatile memory device (112A...112N), an instruction specifying the data item (410A...410N, 420A...420K, 430A...430M) and the storage operation parameter.
Stabilizing device for a load element of a ground anchor, the device consisting of two plate members (4a, 4b), wherein the plate members have a generally L-shape and are complementary and do form a generally cross shape when coupled together and when coupled together form a feed through sleeve for leading the load element there through, characterized in that each plate member comprises at least one recess surrounded by plate material, which at least one recess of each plate member receives a central feed through sleeve forming plate member portion when the plate members are coupled together for forming the generally cross shaped stabilizing device.
A façade server configured to provide a configurable façade having a configurable address space and serving as an interface for a client to an external server, wherein the configurable façade allows for the interface to be configured by the client by configuring the data model or data models used to build the configurable façade, and provide a mapping between the configurable address space of the façade and a data space and/or an address space (6, 6a, 6b) of the external server (7, 8). provide a configurable façade having a configurable address space and serving as an interface for a client to an external server, wherein the configurable façade allows for the interface to be configured by the client by configuring the data model or data models used to build the configurable façade, and provide a mapping between the configurable address space of the façade and a data space and/or an address space (6, 6a, 6b) of the external server (7, 8).
A prosthetic heart valve comprising at least two leaflets (200, 300), wherein each leaflet (200, 300) has a body portion (214, 314) and two opposite sleeve portions (216, 316), the body portion (214, 314) being defined by a bottom edge (222, 322) and two side edges (226, 228; 326, 328) adjacent each sleeve portion (216, 316), wherein each of the at least two leaflets (200, 300) are aligned and stitched along a first side edge (226, 228; 326, 328), the at least two leaflets are secured together along aligned edges (226a, 226b) thereof by a stitch of a single thread, the stitch comprising at least one loop extending through a first aperture, around the aligned edges (226a, 226b), and back through the first aperture, characterised in that the stitch further comprises at least one segment of thread extending from the first aperture to a second aperture in a direction parallel to the aligned edges (226a, 226b) of the at least two leaflets (200, 300), wherein the stitch comprises a second loop extended through the second aperture, around the aligned edges (226a, 226b), and back through the second aperture.
A heat exchanger comprising: (a) a liquid cavity having a liquid inlet for receiving a liquid flow; (b) a gas cavity configured for receiving a burner substantially centrally disposed within said gas cavity, said gas cavity is configured to be isolated from said liquid cavity with a flat sheet, wherein said gas cavity is disposed atop said liquid cavity; (c) at least one liquid tube connecting said liquid cavity to a liquid outlet through said gas cavity; and (d) at least one gas tube connecting said gas cavity through said liquid cavity to a gas exhaust disposed below said liquid cavity, wherein said at least one gas tube is disposed at a greater radial distance from said burner than the radial distance between said at least one liquid tube and said burner, and optionally, wherein said at least one gas tube is configured to extend into said gas cavity, said at least one gas tube further comprises at least one slot facing away from said burner, wherein said liquid flow is configured to flow from said liquid inlet through said liquid cavity, said at least one liquid tube to said liquid outlet and said burner is configured to produce direct heat and a flue gas flow configured to flow from said gas cavity through said at least one gas tube to said gas exhaust and heat transfer is caused from said direct heat and said flue gas flow to said liquid flow. (a) a liquid cavity having a liquid inlet for receiving a liquid flow; (b) a gas cavity configured for receiving a burner substantially centrally disposed within said gas cavity, said gas cavity is configured to be isolated from said liquid cavity with a flat sheet, wherein said gas cavity is disposed atop said liquid cavity; (c) at least one liquid tube connecting said liquid cavity to a liquid outlet through said gas cavity; and (d) at least one gas tube connecting said gas cavity through said liquid cavity to a gas exhaust disposed below said liquid cavity, wherein said at least one gas tube is disposed at a greater radial distance from said burner than the radial distance between said at least one liquid tube and said burner, and optionally, wherein said at least one gas tube is configured to extend into said gas cavity, said at least one gas tube further comprises at least one slot facing away from said burner,
Control and signalling device with an operating element, which has a cylindrical main body, and a holding device, for fastening the operating element, wherein a bayonet closure that has a plurality of different positions and is designed for fastening the operating element in the holding device is arranged within the holding device, characterized in that on the bayonet closure there is arranged an actuating lever, which in the "non-locked" position, in which the operating element is not locked with the holding device, at least partially conceals a screwing element, which is designed for fixing the control and signalling device on a circuit board.
A sealing and bonding structure comprising a combination of first and second semiconductor wafers, the second wafer being adapted to be bonded to the first wafer by a sealing and bonding material, and at least one of the first and second wafers comprising monolithically integrated components, the sealing and bonding material being provided as concentric sealing strips forming closed loops, wherein there are provided at least two concentric sealing strips (10, 12) on one wafer, said strips (10, 12) are laid out so as to surround the monolithically integrated components on the wafers to be sealed off when wafers are bonded together, wherein the material of said strips (10, 12) is capable of bonding said semiconductor wafers together and providing a seal for the monolithically integrated components, when subjected to force and optionally heating; and characterized in that the compressibility of the strips varies along the extension thereof and is dependent on the width of the strips, and wherein the sealing strips in said structure are slightly wider in the region where they extend between areas exhibiting topography, than where they cross the areas exhibiting topography, such as routing lines, to accommodate to the topography on the substrates when bonded together.
Method for producing a fuel cell comprising a stack of unit cells separated by bipolar plates, each unit cell comprising at least an anode element and a cathode element which are separated by an ion-exchange membrane, and a reinforcing element and a gas diffusion layer, the method comprising the following steps: - a step of producing a silicone seal by screen printing, - a step of positioning the silicone seal on the reinforcing element, - a step of assembling the constituent elements of a unit cell, - a step of positioning a bipolar plate on either side of the unit cell, these steps being repeated as many times as needed depending on the size of the desired stack. - a step of producing a silicone seal by screen printing, - a step of positioning the silicone seal on the reinforcing element, - a step of assembling the constituent elements of a unit cell, - a step of positioning a bipolar plate on either side of the unit cell,