mhurhangee/ep-ind-claims huggingface dataset:
An electrochemical cell (24, 124, 224, 324, 424, 1424) comprising: a housing (126,426,1426, 2126, 2226) having a first end; a vent (52, 152, 452, 1452, 2152, 2252) located at the first end that is configured to deploy from the housing (126, 426, 1426, 2126, 2226) to allow the expulsion of gases from within the cell (24, 124, 224, 324, 424, 1424); wherein at least one projection (128,1428, 2128, 2228) extends outward from the first end immediately adjacent the vent (52, 152, 452, 1452, 2152, 2252), wherein the at least one projection (128,1428, 2128,2228) is configured to prevent accidental deployment of the vent (52, 152, 452, 1452, 2152, 2252), characterized in that the electrochemical cell further comprises a current collector (132, 432, 1432, 1470), wherein the current collector (132,432,1432,1470) is coupled on a first side to a cell element of the electrochemical cell (24, 124, 224, 324, 424, 1424), wherein the current collector (132,432, 1432,1470) is coupled on a second side to a center portion (144, 444, 1444, 2144, 2244) of the vent (52, 152, 452, 1452, 2152), and wherein the current collector (132,432,1432, 1470) comprises one or more flexible arms extending from the second side of the current collector (132, 432, 1432, 1470) and coupled to the center portion (144, 444, 1444,2144, 2244) of the vent (52, 152, 452, 1452, 2152). a housing (126,426,1426, 2126, 2226) having a first end; a vent (52, 152, 452, 1452, 2152, 2252) located at the first end that is configured to deploy from the housing (126, 426, 1426, 2126, 2226) to allow the expulsion of gases from within the cell (24, 124, 224, 324, 424, 1424); wherein at least one projection (128,1428, 2128, 2228) extends outward from the first end immediately adjacent the vent (52, 152, 452, 1452, 2152, 2252), wherein the at least one projection (128,1428, 2128,2228) is configured to prevent accidental deployment of the vent (52, 152, 452, 1452, 2152, 2252), characterized in that the electrochemical cell further comprises a current collector (132, 432, 1432, 1470), wherein the current collector (132,432,1432,1470) is coupled on a first side to a cell element of the electrochemical cell (24, 124, 224, 324, 424, 1424), wherein the current collector (132,432, 1432,1470) is coupled on a second side to a center portion (144, 444, 1444, 2144, 2244) of the vent (52, 152, 452, 1452, 2152), and wherein the current collector (132,432,1432, 1470) comprises one or more flexible arms extending from the second side of the current collector (132, 432, 1432, 1470) and coupled to the center portion (144, 444, 1444,2144, 2244) of the vent (52, 152, 452, 1452, 2152).
A coating composition, comprising: a binder based on one or more organosilicon compounds S 1; a hardener based on one or more organosilicon compounds S 2; and particles of an alloy comprising Zn and Mg, wherein the coating composition is essentially free of water, chromium-containing compounds and bisphenol A compounds, i.e., the total amount of water, the total amount of chromium-containing compounds and the total amount of bisphenol A compounds in the coating composition in each case is less than 1% by weight, based on the total weight of the coating composition. a binder based on one or more organosilicon compounds S 1; a hardener based on one or more organosilicon compounds S 2; and particles of an alloy comprising Zn and Mg,
A centrifugation system comprising: a drive assembly having an upper housing and a lower housing separated by a top bearing plate with a rotor opening defined therein, the lower housing having a drive disposed therein with a rotor shaft aligned with the rotor opening; a non-contact seal assembly; and a tank assembly having a centrifuge rotor rotatably housed therein, wherein the non-contact seal assembly is characterized in that it comprises an upper guard and a skirted pivot, the upper guard being secured to the top bearing plate at the rotor opening so that the skirted pivot is operatively coupled to the rotor shaft for rotation without contacting the upper guard and so that the upper guard and the skirted pivot form a labyrinth seal to mitigate leakage of fluid from the upper housing through the rotor opening into the drive in the lower housing; and the tank assembly being connectable to the lower housing so that the centrifuge rotor is rotatably driven by the rotor shaft via the skirted pivot. a drive assembly having an upper housing and a lower housing separated by a top bearing plate with a rotor opening defined therein, the lower housing having a drive disposed therein with a rotor shaft aligned with the rotor opening; a non-contact seal assembly; and a tank assembly having a centrifuge rotor rotatably housed therein, wherein the non-contact seal assembly is characterized in that it comprises an upper guard and a skirted pivot, the upper guard being secured to the top bearing plate at the rotor opening so that the skirted pivot is operatively coupled to the rotor shaft for rotation without contacting the upper guard and so that the upper guard and the skirted pivot form a labyrinth seal to mitigate leakage of fluid from the upper housing through the rotor opening into the drive in the lower housing; and the tank assembly being connectable to the lower housing so that the centrifuge rotor is rotatably driven by the rotor shaft via the skirted pivot.
An electric storage device comprising: - an electrode (13, 14) having an electrode current collector (20, 23), which is provided with a plurality of through-holes (20a, 23a), and an electrode mixture layer (21, 24) provided on the current collector (20, 23); and - an ion source (16, 27) that is connected to the electrode current collector (20, 23) for supplying lithium ions to the electrode mixture layer (21, 24), - characterized in that the current collector (20, 23) is provided with a first area (30a, 31a) having a predetermined aperture ratio of the through-holes (20a, 23a), and a second area (30b, 31b) having an aperture ratio of the through-holes (20a, 23a) greater than that of the first area (30a, 31a), - wherein the first area (30a, 31a) is an edge part of the current collector (20, 23), and the second area (30b, 31b) is a central part of the current collector (20, 23). - an electrode (13, 14) having an electrode current collector (20, 23), which is provided with a plurality of through-holes (20a, 23a), and an electrode mixture layer (21, 24) provided on the current collector (20, 23); and - an ion source (16, 27) that is connected to the electrode current collector (20, 23) for supplying lithium ions to the electrode mixture layer (21, 24), - characterized in that the current collector (20, 23) is provided with a first area (30a, 31a) having a predetermined aperture ratio of the through-holes (20a, 23a), and a second area (30b, 31b) having an aperture ratio of the through-holes (20a, 23a) greater than that of the first area (30a, 31a), - wherein the first area (30a, 31a) is an edge part of the current collector (20, 23), and the second area (30b, 31b) is a central part of the current collector (20, 23).
A container receptacle apparatus for receiving at least one sample container, the apparatus comprising: (a) a housing having a heating compartment, a cooling compartment spaced apart from the heating compartment, and an insulating region located between the heating compartment and the cooling compartment for thermally insulating the heating compartment from the cooling compartment, wherein the heating compartment is shaped to receive a crucible portion of the sample container and the cooling compartment is shaped to receive an expansion portion of the sample container, wherein the heating compartment has a receiving diameter for receiving the crucible portion of the sample container and the cooling compartment has a receiving diameter for receiving said expansion portion of the sample container; (b) at least one heating mechanism for heating a sample within the crucible portion of the at least one sample container while the sample container is received within the housing; and (c) at least one cooling mechanism for cooling the expansion portion of the at least one sample container while the sample container is received within the housing; the apparatus being characterized in that the at least one heating mechanism is disposed within the heating compartment; and the receiving diameter of the heating compartment is less than the receiving diameter of the cooling compartment. (a) a housing having a heating compartment, a cooling compartment spaced apart from the heating compartment, and an insulating region located between the heating compartment and the cooling compartment for thermally insulating the heating compartment from the cooling compartment, wherein the heating compartment is shaped to receive a crucible portion of the sample container and the cooling compartment is shaped to receive an expansion portion of the sample container, wherein the heating compartment has a receiving diameter for receiving the crucible portion of the sample container and the cooling compartment has a receiving diameter for receiving said expansion portion of the sample container; (b) at least one heating mechanism for heating a sample within the crucible portion of the at least one sample container while the sample container is received within the housing; and (c) at least one cooling mechanism for cooling the expansion portion of the at least one sample container while the sample container is received within the housing;
A measurement system for measuring a behavior of an ejection liquid, which is ejectable into an object from an ejection device, within the object, the system comprising: the ejection device in which a container part is mounted, which includes a storage space, in which the ejection liquid is stored, and a flow path, through which the storage space communicates with an ejection port through which the ejection liquid is ejectable to the outside, characterized in that the container part is formed of a resin material; and the system further comprises: an imaging device which is configured to image, across the object, a tip surface of the container part having the ejection port formed therein and which is configured to be positioned with respect to the object from a back side of the object in a predetermined state in which the ejection port is configured to be positioned from a front side of the object, and a first emission device which is configured to emit first near infrared light to the tip surface. the ejection device in which a container part is mounted, which includes a storage space, in which the ejection liquid is stored, and a flow path, through which the storage space communicates with an ejection port through which the ejection liquid is ejectable to the outside, characterized in that the container part is formed of a resin material; and the system further comprises: an imaging device which is configured to image, across the object, a tip surface of the container part having the ejection port formed therein and which is configured to be positioned with respect to the object from a back side of the object in a predetermined state in which the ejection port is configured to be positioned from a front side of the object, and a first emission device which is configured to emit first near infrared light to the tip surface. an imaging device which is configured to image, across the object, a tip surface of the container part having the ejection port formed therein and which is configured to be positioned with respect to the object from a back side of the object in a predetermined state in which the ejection port is configured to be positioned from a front side of the object, and a first emission device which is configured to emit first near infrared light to the tip surface.
An intervertebral implant configured to be inserted into an intervertebral space that is disposed between a first vertebral body and a second vertebral body, the intervertebral implant comprising: a compliant bag that includes an outer wall that defines a superior surface configured to be disposed adjacent the superior vertebral body, and an inferior surface configured to be disposed adjacent the inferior vertebral body, and an internal void; and a plurality of fill particles configured to be disposed in the internal void, such that the compliant bag defines a first height before the fill particles are inserted into the internal void, and a second height after the fill particles are inserted into the internal void, wherein the second height is greater than the first height, wherein the fill particles engage or touch each other such that the compliant bag provides a resistance to relative rotation of the superior and inferior surfaces (131, 133), characterized in that the plurality of fill particles comprises a first type of fill particles and a second type of fill particles that are different than the first type of fill particles, wherein the compliant bag defines a first chamber that contains the first type of fill particles and a second chamber that contains the second type of fill particles. a compliant bag that includes an outer wall that defines a superior surface configured to be disposed adjacent the superior vertebral body, and an inferior surface configured to be disposed adjacent the inferior vertebral body, and an internal void; and a plurality of fill particles configured to be disposed in the internal void, such that the compliant bag defines a first height before the fill particles are inserted into the internal void, and a second height after the fill particles are inserted into the internal void, wherein the second height is greater than the first height, wherein the fill particles engage or touch each other such that the compliant bag provides a resistance to relative rotation of the superior and inferior surfaces (131, 133), characterized in that the plurality of fill particles comprises a first type of fill particles and a second type of fill particles that are different than the first type of fill particles, wherein the compliant bag defines a first chamber that contains the first type of fill particles and a second chamber that contains the second type of fill particles.
Method for controlling a cooking process of a food for cooking contained in a cooking vessel, wherein the sound of the cooking process is registered by means of at least one acoustic sensor, and the characteristic of the sound is evaluated directly in order to determine the temperature of the food for cooking and/or as a safety element, wherein the cooking process is additionally monitored by at least one temperature sensor, characterised in that, through the use of at least two temperature sensors distanced from one another, a spatial temperature characteristic is determined and, from this, a temperature field for the interior space of the cooking vessel is determined.
An apparatus (1, 101, 201, 301) for cooking at least one egg with an eggshell, which apparatus (1, 101, 201, 301) comprises a housing (8, 10) provided with a device for providing microwave radiation in a confined space in the housing (8, 10) and a holder (9, 11) located in the confined space, which holder (9, 11) being provided with at least one cavity adapted to the shape of the egg with the eggshell, which holder (9, 11) comprises at least a first holder part and a second holder part being movable with respect to each other between a first position in which an egg with an eggshell can be positioned in the cavity to a second position wherein the holder parts (9, 11) enclose the cavity, which apparatus (1, 101, 201, 301) further comprises means to insert a liquid into the holder (9, 11) for filling the cavity with the liquid to at least partly surround the eggshell of the egg located in the cavity, characterized in that the housing (8, 10) comprises at least a first housing part provided with the first holder part and a second housing part provided with the second holder part, which first housing part is located at least partly below the second housing part, wherein the first housing part with the first holder part is movable between the first and second position with respect to the second housing part with the second holder part.
A landing point indication system comprising: an image provider operable to provide a real time visual representation of an area underneath a rotorcraft; a rotorcraft state provider operable to provide information indicating a position of the rotorcraft and an attitude of the rotorcraft; a pilot image generation system operable to generate a supplemented real time visual representation based on the provided position of the rotorcraft and the provided attitude of the rotorcraft, the supplemented real time visual representation comprising the real time visual representation of the area underneath the aircraft and information indicating a position of the rotorcraft relative to the real time visual representation; and a display device operable to display the supplemented real time visual representation within the rotorcraft; wherein the pilot image generation system is operable to generate the supplemented real time visual representation by: determining a position within the real time visual representation of the area underneath the rotorcraft indicative of the position of the rotorcraft, based on the provided position and provided attitude of the rotorcraft; and overlaying a visual representation of the rotorcraft on the real time visual representation at the determined position. an image provider operable to provide a real time visual representation of an area underneath a rotorcraft; a rotorcraft state provider operable to provide information indicating a position of the rotorcraft and an attitude of the rotorcraft; a pilot image generation system operable to generate a supplemented real time visual representation based on the provided position of the rotorcraft and the provided attitude of the rotorcraft, the supplemented real time visual representation comprising the real time visual representation of the area underneath the aircraft and information indicating a position of the rotorcraft relative to the real time visual representation; and a display device operable to display the supplemented real time visual representation within the rotorcraft; wherein the pilot image generation system is operable to generate the supplemented real time visual representation by: determining a position within the real time visual representation of the area underneath the rotorcraft indicative of the position of the rotorcraft, based on the provided position and provided attitude of the rotorcraft; and overlaying a visual representation of the rotorcraft on the real time visual representation at the determined position. determining a position within the real time visual representation of the area underneath the rotorcraft indicative of the position of the rotorcraft, based on the provided position and provided attitude of the rotorcraft; and overlaying a visual representation of the rotorcraft on the real time visual representation at the determined position.
An electrowetting element comprising: a first fluid; a second fluid immiscible with the first fluid, a configuration of the first fluid and the second fluid controllable with an applied voltage; at least one electrode for providing the applied voltage; anc characterized by a support plate having a surface for adjoinment by the first fluid, wherein the support plate includes a first layer comprising a material with the formula SiOCF, the material comprising hydrogen atoms. a first fluid; a second fluid immiscible with the first fluid, a configuration of the first fluid and the second fluid controllable with an applied voltage; at least one electrode for providing the applied voltage; anc characterized by a support plate having a surface for adjoinment by the first fluid, wherein the support plate includes a first layer comprising a material with the formula SiOCF, the material comprising hydrogen atoms.
A method of making an air filter, which method comprises: (a) providing an aqueous solution that contains one or more of a first water soluble copper salt and that has a pH less than 8; (b) providing an aqueous solution that contains one or more of a second water soluble salt that includes a polynuclear anion that contains molybdenum, tungsten, or a combination thereof, which aqueous solution has a pH less than 8; wherein the aqueous solution that contains the first water soluble copper salt may be the same or different from the aqueous solution that contains the second salt; and (c) contacting a substrate with the one or more solutions such that copper and molybdenum or tungsten or a combination thereof become impregnated onto the substrate. (a) providing an aqueous solution that contains one or more of a first water soluble copper salt and that has a pH less than 8; (b) providing an aqueous solution that contains one or more of a second water soluble salt that includes a polynuclear anion that contains molybdenum, tungsten, or a combination thereof, which aqueous solution has a pH less than 8; wherein the aqueous solution that contains the first water soluble copper salt may be the same or different from the aqueous solution that contains the second salt; and (c) contacting a substrate with the one or more solutions such that copper and molybdenum or tungsten or a combination thereof become impregnated onto the substrate.
A method for operating an industrial automation component, the method comprising: receive design information from a database, the database being configured to store a comprehensive list of industrial automation components (82, 84, 86, 88, 90, 92, 94), wherein the design information is associated with an arrangement of one or more industrial automation components in an industrial automation system; identify a first portion of the industrial automation components in the industrial automation system that is unable to interface with a second portion of industrial automation components based on the design information; and generate a list of industrial automation components based on the first portion of the industrial automation components and the second portion of industrial automation components, wherein each of the list of industrial automation components is configured to translate a first set of data associated with the first portion of the industrial automation components to a second set of data configured to be at least partly interpretable by the second portion of industrial automation components based on translation functions, wherein the database is configured to download translation functions to an industrial automation component. receive design information from a database, the database being configured to store a comprehensive list of industrial automation components (82, 84, 86, 88, 90, 92, 94), wherein the design information is associated with an arrangement of one or more industrial automation components in an industrial automation system; identify a first portion of the industrial automation components in the industrial automation system that is unable to interface with a second portion of industrial automation components based on the design information; and generate a list of industrial automation components based on the first portion of the industrial automation components and the second portion of industrial automation components, wherein each of the list of industrial automation components is configured to translate a first set of data associated with the first portion of the industrial automation components to a second set of data configured to be at least partly interpretable by the second portion of industrial automation components based on translation functions, wherein the database is configured to download translation functions to an industrial automation component.