mhurhangee/ep-ind-claims huggingface dataset:
A compound of the formula: A 1-δ M 1 V M 2 W M 3 X M 4 Y M 5 Z O 2 wherein A is one or more alkali metals comprising sodium and/or potassium either alone or in a mixture with lithium as a minor constituent; M 1 is nickel in oxidation state +2 M 2 comprises a metal in oxidation state +4 selected from one or more of manganese, titanium and zirconium; M 3 comprises a metal in oxidation state +2, selected from one or more of magnesium, calcium, copper, zinc and cobalt; M 4 comprises a metal in oxidation state +4, selected from one or more of titanium, manganese and zirconium; M 5 comprises a metal in oxidation state +3, selected from one or more of aluminium, iron, cobalt, molybdenum, chromium, vanadium, scandium and yttrium; wherein 0 ≤ δ ≤ 0.1 V is in the range 0 < V <0.5; W is in the range 0 < W ≤ 0.5; X is in the range 0 ≤ X < 0.5; Y is in the range 0 ≤ Y < 0.5; Z is ≥ 0; and further wherein V + W + X + Y + Z = 1. A is one or more alkali metals comprising sodium and/or potassium either alone or in a mixture with lithium as a minor constituent; M 1 is nickel in oxidation state +2 M 2 comprises a metal in oxidation state +4 selected from one or more of manganese, titanium and zirconium; M 3 comprises a metal in oxidation state +2, selected from one or more of magnesium, calcium, copper, zinc and cobalt; M 4 comprises a metal in oxidation state +4, selected from one or more of titanium, manganese and zirconium; M 5 comprises a metal in oxidation state +3, selected from one or more of aluminium, iron, cobalt, molybdenum, chromium, vanadium, scandium and yttrium; wherein 0 ≤ δ ≤ 0.1 V is in the range 0 < V <0.5; W is in the range 0 < W ≤ 0.5; X is in the range 0 ≤ X < 0.5; Y is in the range 0 ≤ Y < 0.5; Z is ≥ 0;
A composition comprising a pharmaceutically acceptable carrier and an isolated polypeptide for use in a method of inducing a protective immune response against a Plasmodium parasite in a mammal, wherein the method comprises administering to the mammal the composition, whereupon a protective immune response against the Plasmodium parasite in the mammal is induced, wherein said isolated polypeptide comprises the amino acid sequence of SEQ ID NO: 15 or SEQ ID NO: 16, and wherein said isolated polypeptide induces a protective immune response against Plasmodium falciparum and/or Plasmodium vivax in a mammal.
A method of manufacturing a battery cell, comprising the steps of: forming a battery cell by providing a separator; providing a first current collector; applying a protective layer directly to the surface of the first current collector, the first current collector and the protective layer being disposed on one side of the separator; wherein the protective layer is disposed between the first current collector and the separator, and wherein the protective layer is formed from a polymer and/or a polymer composite that includes a plurality of different polymers; disposing a first electrode on an opposite side of the separator as the first current collector and the protective layer; wherein the first electrode is formed from a lithium cobalt oxide (LiCoO 2), lithium nickel cobalt oxide (LiNiCoO 2), lithium manganese nickel cobalt oxide (LiNiMnCoO 2), lithium manganese silicon oxide (Li 2 MnSiO 4), lithium iron phosphate (LiFePO 4), lithium fluoride (LiF), and/or lithium sulfide (Li 2 S); filling the battery cell casing with a liquid electrolyte (200, 400) to render the protective layer ionically conductive; and subjecting the battery cell to charging, thereby causing lithium metal to be extracted from the first electrode and deposited between the first current collector and the protective layer, wherein the deposit of the metal forms a lithium metal electrode as a second electrode in situ between the first current collector and the protective layer, wherein the lithium metal extracted from the first electrode and deposited between the first current collector and the protective layer comprises dendrites, and wherein the protective layer prevents the dendrites forming the second electrode from penetrating the separator and causing an internal short within the battery. forming a battery cell by providing a separator; providing a first current collector; applying a protective layer directly to the surface of the first current collector, the first current collector and the protective layer being disposed on one side of the separator; wherein the protective layer is disposed between the first current collector and the separator, and wherein the protective layer is formed from a polymer and/or a polymer composite that includes a plurality of different polymers; disposing a first electrode on an opposite side of the separator as the first current collector and the protective layer; wherein the first electrode is formed from a lithium cobalt oxide (LiCoO 2), lithium nickel cobalt oxide (LiNiCoO 2), lithium manganese nickel cobalt oxide (LiNiMnCoO 2), lithium manganese silicon oxide (Li 2 MnSiO 4), lithium iron phosphate (LiFePO 4), lithium fluoride (LiF), and/or lithium sulfide (Li 2 S); filling the battery cell casing with a liquid electrolyte (200, 400) to render the protective layer ionically conductive; and
A positive airway pressure system, comprising: a controllable flow generator operable to provide breathable gas at a first pressure; wherein said first pressure is above atmospheric pressure; a gas delivery tube coupled to said controllable flow generator; a controllable oxygen concentrator device (15, 20) operable to provide oxygen-enriched gas; wherein said controllable oxygen concentrator device (15, 20) comprises at least one user-replaceable sieve cartridge (15, 118) comprising less than about 50 g adsorbent; an enriched gas delivery tube coupled to said controllable oxygen concentrator device (15, 20) and connected to said controllable flow generator; a patient mask coupled to said gas delivery tube to receive breathable gas from said flow generator and to provide said gas, at a treatment pressure, to an airway of a patient; a controller operable to receive an input signal and to control the magnitude of said treatment pressure provided by said flow generator; and a finger oximetry sensor configured to communicate oxygen levels to a software program where the oxygen levels are evaluated for blood oxygen levels.. a controllable flow generator operable to provide breathable gas at a first pressure; wherein said first pressure is above atmospheric pressure; a gas delivery tube coupled to said controllable flow generator; a controllable oxygen concentrator device (15, 20) operable to provide oxygen-enriched gas; wherein said controllable oxygen concentrator device (15, 20) comprises at least one user-replaceable sieve cartridge (15, 118) comprising less than about 50 g adsorbent; an enriched gas delivery tube coupled to said controllable oxygen concentrator device (15, 20) and connected to said controllable flow generator; a patient mask coupled to said gas delivery tube to receive breathable gas from said flow generator and to provide said gas, at a treatment pressure, to an airway of a patient; a controller operable to receive an input signal and to control the magnitude of said treatment pressure provided by said flow generator; and a finger oximetry sensor configured to communicate oxygen levels to a software program where the oxygen levels are evaluated for blood oxygen levels..
Apparatus for capping and sealing a vial with a cap, the vial comprising a hollow body having an opening to the interior thereof and a flanged neck surrounding the opening, the flanged neck having an undersurface, the cap comprising an elastomeric stopper arranged for disposition within the opening in the vial and an annular seal arranged to be crimped around and tightly engage the flanged neck of the vial to hold the stopper in place, said apparatus comprising a base, and a carriage including a platen, at least one roller and a load cell movable with said carriage, said base being arranged to receive the vial thereon with the vial oriented so that the neck of the vial confronts said platen, said carriage being arranged to be moved relative to said base after the stopper is located in the opening of the vial, whereupon said platen engages and applies a force to the stopper to drive the stopper into the opening of the vial, said load cell being arranged to determine the amount of force applied to the stopper and to provide a signal indicating when a desired amount of force has been applied to the stopper, whereupon the relative movement between said platen and said base is halted to ensure that the platen and the base are moved relative to each other to provide a desired amount of force to the stopper to cause the stopper to be firmly seated within the opening in the vial, said at least one roller being arranged to apply a force to the annular seal to crimp the annular seal on the neck of the vial to hold the stopper in place within the opening in the vial and thereby seal the vial.
A projection device comprising: a projection unit configured to project a screen; a distance detection unit configured to detect a projection distance of the screen; characterized by a control unit configured to control the amount of information on the screen according to the projection distance detected by the distance detection unit; wherein the screen includes thumbnails of one or two or more pieces of content data, and wherein the control unit is configured to control the number of thumbnails included in the screen according to the projection distance. a projection unit configured to project a screen; a distance detection unit configured to detect a projection distance of the screen; characterized by a control unit configured to control the amount of information on the screen according to the projection distance detected by the distance detection unit; wherein the screen includes thumbnails of one or two or more pieces of content data, and wherein the control unit is configured to control the number of thumbnails included in the screen according to the projection distance.
A laser comprising: a ceramic body defining a chamber therein containing a laser gas, the ceramic body including a plurality of parallel walls (28, 30) that partially define a first section of the chamber, the first section of the chamber defining a waveguide, the ceramic body further including a plurality of oblique walls (32, 34) that partially define a second section of the chamber, the second section of the chamber being shaped to modify a transverse profile of a laser beam traveling through the second section of the chamber, a first mirror located adjacent to a first end of the chamber, a second mirror located adjacent to a second end of the chamber, the second end being opposite the first end, the first and second mirrors (22, 24) creating a resonator in the first section of the chamber, and a plurality of electrodes (18, 20) positioned outside the ceramic body and adjacent to the plurality of parallel walls (28, 30) such that only laser gas within the first section of the chamber is excited when an excitation signal is applied to the plurality of electrodes (18, 20), wherein the first and second sections (12, 14) of the chamber extend adjacently between the first and second ends of the chamber, and wherein the laser beam enters the second section from the first section at the first end of the chamber and exits the second section at the second end of the chamber. a ceramic body defining a chamber therein containing a laser gas, the ceramic body including a plurality of parallel walls (28, 30) that partially define a first section of the chamber, the first section of the chamber defining a waveguide, the ceramic body further including a plurality of oblique walls (32, 34) that partially define a second section of the chamber, the second section of the chamber being shaped to modify a transverse profile of a laser beam traveling through the second section of the chamber, a first mirror located adjacent to a first end of the chamber, a second mirror located adjacent to a second end of the chamber, the second end being opposite the first end, the first and second mirrors (22, 24) creating a resonator in the first section of the chamber, and a plurality of electrodes (18, 20) positioned outside the ceramic body and adjacent to the plurality of parallel walls (28, 30) such that only laser gas within the first section of the chamber is excited when an excitation signal is applied to the plurality of electrodes (18, 20), wherein the first and second sections (12, 14) of the chamber extend adjacently between the first and second ends of the chamber, and wherein the laser beam enters the second section from the first section at the first end of the chamber and exits the second section at the second end of the chamber.
An apparatus for recovering heat from a polluted liquid flowing out of an industrial plant, so as to heat a liquid flowing into this plant, comprising a delivery conduit for delivering said incoming liquid and that is suitable for being connected to said industrial plant system and at least one recovery conduit suitable for having said outflowing liquid flow through it, said recovery conduit is disposed inside said delivery conduit and is operationally associated with at least one working machine so that said outflowing liquid passes through said recovery conduit at a pressure higher than the atmospheric pressure; characterized in that said apparatus further comprising collection means defining a collection tank suitable for receiving said liquid outflowing from the industrial plant, said working machine being operationally interposed between said collection means and said recovery conduit.
Method for implementing in-app software development kits for Android apps, comprising: - implementing application logics in a programming language compatible with a virtual machine operating system; - providing one or more proprietary support libraries provided by a first service provider; - using a software development environment to link the application logics and the proprietary support libraries together, and package them into a first APK binary; - uploading the first APK binary to an app market store associated to the first service provider; and characterized in that it further comprises at least the following steps: - including additional proprietary support libraries provided by second service providers implementing integration with alternative distribution channels in place of the ones provided by the first service provider; - using the said software development environment to link the application logics and the additional proprietary support libraries together in further APK binaries that can be uploaded to alternative app market stores; wherein said further APK binaries are obtained by applying at least the following steps: a) unpacking of the first APK binary to extract internal components; b) de-compilation of binary DEX file in separate class files; c) adding the class files implementing the additional proprietary support libraries; d) replacement of package name strings to refer to added class files; e) re-compilation of class files in a DEX file; f) adding resource files; g) patching the manifest file with additional elements referring the additional proprietary support libraries; h) re-build of the first APK file as further APK binaries, including generation of new signatures. - implementing application logics in a programming language compatible with a virtual machine operating system; - providing one or more proprietary support libraries provided by a first service provider; - using a software development environment to link the application logics and the proprietary support libraries together, and package them into a first APK binary; - uploading the first APK binary to an app market store associated to the first service provider; - including additional proprietary support libraries provided by second service providers implementing integration with alternative distribution channels in place of the ones provided by the first service provider; - using the said software development environment to link the application logics and the additional proprietary support libraries together in further APK binaries that can be uploaded to alternative app market stores; a) unpacking of the first APK binary to extract internal components; b) de-compilation of binary DEX file in separate class files; c) adding the class files implementing the additional proprietary support libraries; d) replacement of package name strings to refer to added class files; e) re-compilation of class files in a DEX file; f) adding resource files; g) patching the manifest file with additional elements referring the additional proprietary support libraries; h) re-build of the first APK file as further APK binaries, including generation of new signatures.
Directional valve for a pneumatic circuit, with a pressure chamber (21, 61) and a slider (23, 53, 97), wherein the pressure chamber (21, 61) has a pressure space, a first connection (41, 33) and at least one second connection (27. 31, 43, 47), and wherein the slider (23, 53, 97) is arranged in the pressure space and can move between a first position and at least one second position, and wherein the slider (23, 53, 97) comprises a first flexible sealing element and at least one second flexible sealing element (37, 55), and wherein the first sealing element is arranged in an area of the slider (23, 53, 97) which is located in a first passage area provided in the pressure space when the slider (23, 53, 97) is in the said first position, and wherein the at least one second sealing element (37, 55) is arranged in an area of the slider (23, 53, 97) which is located in a second passage area provided in the pressure space when the slider (23, 53, 97) is in the said at least one second position, and wherein the first passage area and the at least one second passage area each comprise a plurality of passage elements (67, 93) spaced apart from one another, characterised in that the directional valve (20, 50) comprises at least one detent device for releasing a connection of the slider (23, 53, 97) to the pressure chamber (21, 61), such that the slider (23, 53, 97) can be detained in the second position by means of the detent device.
A cabinet for the temporary storage of a heated food item, the cabinet having a base, a top and opposing sides (16, 18), wherein the base, top and opposing sides (16, 18) define an interior space of the cabinet which is accessible through opposing access apertures (22, 24) at each end of the cabinet, wherein the cabinet is provided with air movement means (26, 28) and air heating means operable to draw air from the interior space of the cabinet, heat said air and utilise said heated air to produce air curtains across the opposing access apertures (22, 24) of the cabinet, characterised in that the width of the interior space between the side walls (16, 18) narrows to a throat at a point approximately midway between the opposing access apertures (22, 24).
An electrical connection box comprising: a bus bar; a case to which the bus bar is fixed; a terminal that is connected to the bus bar; a fixing member that fixes a connection portion at which the terminal and the bus bar are connected to each other; and a base member that holds the fixing member, characterized in that the fixing member and the base member are disposed at a position at which the fixing member and the base member overlap the connection portion of the bus bar, and when the connection portion at which the terminal and the bus bar are connected to each other is fixed, the base member moves in a direction in which the base member comes into contact with the bus bar. a bus bar; a case to which the bus bar is fixed; a terminal that is connected to the bus bar; a fixing member that fixes a connection portion at which the terminal and the bus bar are connected to each other; and a base member that holds the fixing member,
Tundish car having a tundish for a continuous casting installation, having - a chassis which can be moved in a travel direction in a horizontal plane, comprising two longitudinal beams (5a, 5b) arranged in the travel direction and two transverse beams (7a, 7b) arranged in a transverse direction, wherein the transverse direction is arranged perpendicular to the travel direction, and wherein each longitudinal beam (5a, 5b) has at least two wheels for the travel of the chassis; - only two lifting elements (8a, 8b) which are arranged in a first vertical plane parallel to the travel direction, wherein each lifting element (8a, 8b) is releasably connected to a transverse beam (7a, 7b); - two lifting frames (9a, 9b) for receiving the tundish, wherein each lifting frame (9a, 9b) is connected to a lifting element (8a, 8b) and the lifting frame (9a, 9b) can be raised or lowered by the lifting element (8a, 8b) in a lifting direction that is perpendicular to the travel direction and perpendicular to the transverse direction; - the tundish having multiple outlets, wherein the outlets are arranged in a second vertical plane parallel to the travel direction. - a chassis which can be moved in a travel direction in a horizontal plane, comprising two longitudinal beams (5a, 5b) arranged in the travel direction and two transverse beams (7a, 7b) arranged in a transverse direction, wherein the transverse direction is arranged perpendicular to the travel direction, and wherein each longitudinal beam (5a, 5b) has at least two wheels for the travel of the chassis; - only two lifting elements (8a, 8b) which are arranged in a first vertical plane parallel to the travel direction, wherein each lifting element (8a, 8b) is releasably connected to a transverse beam (7a, 7b); - two lifting frames (9a, 9b) for receiving the tundish, wherein each lifting frame (9a, 9b) is connected to a lifting element (8a, 8b) and the lifting frame (9a, 9b) can be raised or lowered by the lifting element (8a, 8b) in a lifting direction that is perpendicular to the travel direction and perpendicular to the transverse direction; - the tundish having multiple outlets, wherein the outlets are arranged in a second vertical plane parallel to the travel direction.
Connecting element for connecting an essentially vertically arranged upright for a non-bearing wall structure with an essentially horizontal U-shaped profile, the connecting element comprising at least one fastening section for fastening the connecting element to the horizontal U-shaped profile, and at least one sliding guide for guiding the upright, wherein the at least one sliding guide is designed and provided to at least partially surround the cross-section of the upright on the outside to allow a sliding compensation movement in the vertical direction and wherein the at least one sliding guide has at least one elongated hole, whereby the sliding guide is set up for sliding fastening on the upright, characterized in that the fastening section comprises at least two fastening ears arranged in one plane.