mhurhangee/patent-ind-claim-en huggingface dataset:
A container , comprising: a container body having a base and a sidewall extending therefrom, the container body having an inner surface defining an interior of the container body , the container body further having an opening leading to the interior ; optionally a lid that is movable with respect to the container body to move the container between a closed position in which the lid covers the opening and an open position in which the opening is exposed;and an insert secured, optionally fixedly secured, within the interior of the container body , the insert comprising a base material and a desiccant, wherein the base material provides structure to the insert and is optionally a polymer, the insert having an opening leading to an interior compartment configured for housing products and an outer surface facing the inner surface of the container body , wherein a void is provided between an exposed portion of the outer surface of the insert and a portion of the inner surface of the container body , and characterised in that at least one fluid pathway is provided through a plurality of thru holes in the insert , between the void and the interior compartment of the insert. a container body having a base and a sidewall extending therefrom, the container body having an inner surface defining an interior of the container body , the container body further having an opening leading to the interior ; optionally a lid that is movable with respect to the container body to move the container between a closed position in which the lid covers the opening and an open position in which the opening is exposed;and an insert secured, optionally fixedly secured, within the interior of the container body , the insert comprising a base material and a desiccant, wherein the base material provides structure to the insert and is optionally a polymer, the insert having an opening leading to an interior compartment configured for housing products and an outer surface facing the inner surface of the container body , wherein a void is provided between an exposed portion of the outer surface of the insert and a portion of the inner surface of the container body , and characterised in that at least one fluid pathway is provided through a plurality of thru holes in the insert , between the void and the interior compartment of the insert.
A seismic detection line, comprising: identified elements arranged in a string along the seismic detection line; and a telemetry link connecting the identified elements along the string and configured to convey seismic data from at least one of the identified elements to a data recorder and identification data to a topology controller , wherein each of the identified elements includes a respective first identification unit operatively connected to the telemetry link to provide a respective first identifier to a topology controller, wherein the identified elements include active seismic elements configured to transmit seismic data via the telemetry link to the data recorder, characterized in that the identified elements also include passive elements, said seismic telemetry link going through said passive elements so that telemetry link is not electrically interrupted, said first identification unit of each of the passive and active elements being configured to communicate with the telemetry link for reporting the first respective identifier for a determination of a complete topological view including localization of both passive elements and active seismic elements. identified elements arranged in a string along the seismic detection line; and a telemetry link connecting the identified elements along the string and configured to convey seismic data from at least one of the identified elements to a data recorder and identification data to a topology controller , wherein each of the identified elements includes a respective first identification unit operatively connected to the telemetry link to provide a respective first identifier to a topology controller, wherein the identified elements include active seismic elements configured to transmit seismic data via the telemetry link to the data recorder, characterized in that the identified elements also include passive elements, said seismic telemetry link going through said passive elements so that telemetry link is not electrically interrupted, said first identification unit of each of the passive and active elements being configured to communicate with the telemetry link for reporting the first respective identifier for a determination of a complete topological view including localization of both passive elements and active seismic elements.
Display comprising: - a housing , - a light guide (50; 80) located inside the housing of the display , comprising an entrance face and an exit face opposite one another, connected to one another by a lateral wall , said light guide (50; 80) being shaped so as, on the one hand, to collect, via its entrance face , light radiation from outside the housing of the display, and, on the other hand, to guide said light radiation to its exit face , - a light sensor , arranged inside said housing , behind the exit face of the light guide (50; 80), suitable for delivering a signal representative of a light intensity that it receives, - an image generation unit suitable for generating at least one image, and - an optical projection assembly suitable for transmitting the image generated by the image generation unit in the direction of a partially transparent plate , distinct from said light guide , so as to form a virtual image (IMV) in the field of view of a user and wherein a zone of interest (Z1) is located approximately in the direction in which said virtual image (IMV) is formed, characterized in that the lateral wall of the light guide (50; 80) of the display is shaped so that at least some stray light radiation entering the light guide (50; 80) from an angular zone extending beyond the zone of interest exits said light guide (50; 80) without reaching the exit face of the light guide (50; 80). - a housing , - a light guide (50; 80) located inside the housing of the display , comprising an entrance face and an exit face opposite one another, connected to one another by a lateral wall , said light guide (50; 80) being shaped so as, on the one hand, to collect, via its entrance face , light radiation from outside the housing of the display, and, on the other hand, to guide said light radiation to its exit face , - a light sensor , arranged inside said housing , behind the exit face of the light guide (50; 80), suitable for delivering a signal representative of a light intensity that it receives, - an image generation unit suitable for generating at least one image, and - an optical projection assembly suitable for transmitting the image generated by the image generation unit in the direction of a partially transparent plate , distinct from said light guide , so as to form a virtual image (IMV) in the field of view of a user and wherein a zone of interest (Z1) is located approximately in the direction in which said virtual image (IMV) is formed,
A heat dissipation system comprising an antenna assembly for a vehicle , the antenna assembly having an amplifier that generates heat during operation and a modem that generates heat during operation, the heat dissipation system comprising: a base comprising a body and a heat sink , the heat sink comprising a plurality of heat dissipation elements (66a-66e) and the body defining a recess forming a component mounting surface ; a first heat transfer plate in thermal contact with the amplifier ; a second heat transfer plate in thermal contact with the modem ; and a thermally insulative material disposed between the modem and the base configured to minimize the heat transferred from the amplifier to the modem . wherein the modem and amplifier are disposed within the recess on the component mounting surface ; wherein the first heat transfer plate is in thermal contact with a first area of the heat sink and the second transfer plate is in thermal contact with a second area of the heat sink separate from the first part of the heat sink . a base comprising a body and a heat sink , the heat sink comprising a plurality of heat dissipation elements (66a-66e) and the body defining a recess forming a component mounting surface ; a first heat transfer plate in thermal contact with the amplifier ; a second heat transfer plate in thermal contact with the modem ; and a thermally insulative material disposed between the modem and the base configured to minimize the heat transferred from the amplifier to the modem . wherein the modem and amplifier are disposed within the recess on the component mounting surface ; wherein the first heat transfer plate is in thermal contact with a first area of the heat sink and the second transfer plate is in thermal contact with a second area of the heat sink separate from the first part of the heat sink .
A device for separation of a biological sample into a first phase and a second phase , said device comprising: a container including an inlet and an outlet , said inlet configured for receiving the biological sample ; a separator located within said container configured for separating the biological sample into the first phase and the second phase , said separator comprising a series of filters of variable pore sizes or multiple grades of fibrous filters configured to progressively filter out different components of the biological sample to yield the first phase ; a member configured for creating a pressure gradient across the separator to increase a rate of movement of the biological sample through the separator such that the first phase exits the separator prior to the second phase ; and wherein the container is configured such that the biological sample moves through said container in a vertical direction and the separator includes an open cell foam positioned adjacent the inlet , the device further including a cell filter located after the separator , said cell filter configured to block the second phase from movement therethrough and exiting through the outlet , and at least one fibrous filter comprising a chaotic fibrous structure configured to slow particles located within the second phase to further slow the flow of the second phase and increase a flow of the first phase through the separator. a container including an inlet and an outlet , said inlet configured for receiving the biological sample ; a separator located within said container configured for separating the biological sample into the first phase and the second phase , said separator comprising a series of filters of variable pore sizes or multiple grades of fibrous filters configured to progressively filter out different components of the biological sample to yield the first phase ; a member configured for creating a pressure gradient across the separator to increase a rate of movement of the biological sample through the separator such that the first phase exits the separator prior to the second phase ; and wherein the container is configured such that the biological sample moves through said container in a vertical direction and the separator includes an open cell foam positioned adjacent the inlet , the device further including a cell filter located after the separator , said cell filter configured to block the second phase from movement therethrough and exiting through the outlet , and at least one fibrous filter comprising a chaotic fibrous structure configured to slow particles located within the second phase to further slow the flow of the second phase and increase a flow of the first phase through the separator.
A preparation method of a super absorbent polymer non-woven fabric comprising superabsorbent polymer fibers having a diameter of more than 10 μm and a length of 0.1 m or more, wherein a critical curvature is 0.5 mm -1 or more, wherein the critical curvature means a reciprocal 1/r of the minimum radius of curvature R in mm that does not break when the fiber is bent, and the critical curvature is measured as disclosed in the specification, wherein the super absorbent polymer fibers have saline flow conductivity (SFC) of 30*10 -7 to 100*10 -7 cm 3 ·sec/g, as measured as disclosed in the specification, comprising the steps of: preparing a first aqueous polymer solution containing a hydrogel polymer by polymerizing an aqueous monomer solution containing an acrylic acid-based monomer having at least partially neutralized acidic groups, a comonomer having a glass transition temperature (Tg) of room temperature (25 °C) or lower, and a polymerization initiator, mixing the first aqueous polymer solution with a cross-linking agent having a glass transition temperature (Tg) of room temperature (25 °C) or lower to prepare a second aqueous polymer solution; spinning the second aqueous polymer solution by a solution blown process; and drying the spun second aqueous polymer solution to prepare a super absorbent polymer non-woven fabric comprising super absorbent polymer fibers. preparing a first aqueous polymer solution containing a hydrogel polymer by polymerizing an aqueous monomer solution containing an acrylic acid-based monomer having at least partially neutralized acidic groups, a comonomer having a glass transition temperature (Tg) of room temperature (25 °C) or lower, and a polymerization initiator, mixing the first aqueous polymer solution with a cross-linking agent having a glass transition temperature (Tg) of room temperature (25 °C) or lower to prepare a second aqueous polymer solution; spinning the second aqueous polymer solution by a solution blown process; and drying the spun second aqueous polymer solution to prepare a super absorbent polymer non-woven fabric comprising super absorbent polymer fibers.
A fuel tank inerting system for an aircraft, the system comprising: a fuel tank ; a first reactant source fluidly connected to the fuel tank, the first reactant source arranged to receive fuel from the fuel tank; a second reactant source ; a catalytic reactor arranged to receive a first reactant from the first reactant source and a second reactant from the second reactant source to generate an inert gas that is supplied to the fuel tank to fill an ullage space of the fuel tank; a heat exchanger arranged between the catalytic reactor and the fuel tank and configured to at least one of cool and condense an output from the catalytic reactor to separate out the inert gas; and a controller configured to monitor a temperature at an outlet of the catalytic reactor, and perform a light-off operation of the catalytic reactor by controlling at least one light-off parameter and, after light-off occurs, adjusting the at least one light-off parameter to an operating level, wherein the at least one light-off parameter comprises the temperature of the catalytic reactor. a fuel tank ; a first reactant source fluidly connected to the fuel tank, the first reactant source arranged to receive fuel from the fuel tank; a second reactant source ; a catalytic reactor arranged to receive a first reactant from the first reactant source and a second reactant from the second reactant source to generate an inert gas that is supplied to the fuel tank to fill an ullage space of the fuel tank; a heat exchanger arranged between the catalytic reactor and the fuel tank and configured to at least one of cool and condense an output from the catalytic reactor to separate out the inert gas; and a controller configured to monitor a temperature at an outlet of the catalytic reactor, and perform a light-off operation of the catalytic reactor by controlling at least one light-off parameter and, after light-off occurs, adjusting the at least one light-off parameter to an operating level, wherein the at least one light-off parameter comprises the temperature of the catalytic reactor.
A piezoelectric element , comprising: a stacked body in which a plurality of internal electrodes (11, 11a, 11b, 11b1, 11b2, 11c) and piezoelectric layers are laminated, the stacked body having a rectangular shape in a plan view thereof; and a plurality of connecting electrodes connected to one ends of the plurality of internal electrodes (11, 11a, 11b, 11b1, 11b2, 11c), respectively, corner portions of the other ends of the plurality of internal electrodes (11, 11a, 11b, 11b1, 11b2, 11c) being chamfered, each one of the plurality of internal electrodes (11, 11a, 11b, 11b1, 11b2, 11c) provided with the chamfered corner portions being disposed between the piezoelectric layers , characterized in that further conductor layers are disposed between the chamfered corner portions and edge portions of the stacked body close to the chamfered corner portions . a stacked body in which a plurality of internal electrodes (11, 11a, 11b, 11b1, 11b2, 11c) and piezoelectric layers are laminated, the stacked body having a rectangular shape in a plan view thereof; and a plurality of connecting electrodes connected to one ends of the plurality of internal electrodes (11, 11a, 11b, 11b1, 11b2, 11c), respectively, corner portions of the other ends of the plurality of internal electrodes (11, 11a, 11b, 11b1, 11b2, 11c) being chamfered, each one of the plurality of internal electrodes (11, 11a, 11b, 11b1, 11b2, 11c) provided with the chamfered corner portions being disposed between the piezoelectric layers , characterized in that further conductor layers are disposed between the chamfered corner portions and edge portions of the stacked body close to the chamfered corner portions .
A polythiol compound having the general Formula VIA, VIB or VIC: wherein: R 1 is a C 1 -C 18 alkylene group, C 2 -C 18 oxyalkylene group, C 2 -C 18 thioalkylene group, C 6 -C 18 arylene or C 7 -C 18 aralkylene group, wherein alkylene groups, oxyalkylene group and thioalkylene group may be unsubstituted or may be substituted with one or more halogen or hydroxyl; and arylene groups may be unsubstituted or may be substituted with one or more halogen; and, R 2 is H or methyl. R 1 is a C 1 -C 18 alkylene group, C 2 -C 18 oxyalkylene group, C 2 -C 18 thioalkylene group, C 6 -C 18 arylene or C 7 -C 18 aralkylene group, wherein alkylene groups, oxyalkylene group and thioalkylene group may be unsubstituted or may be substituted with one or more halogen or hydroxyl; and arylene groups may be unsubstituted or may be substituted with one or more halogen; and, R 2 is H or methyl.
A computer-implemented method of generating a virtual model of a set of teeth for manufacturing a physical model of the set of teeth, where the model comprises one or more teeth preparations, where the method comprises: generating a virtual model of the set of teeth, where the virtual model is based on a virtual representation of the set of teeth; providing that each of the teeth preparations is configured to be arranged as a removable component in the model, where each removable component comprises a part that is adapted to fit into a corresponding cavity in a gingival part of the model while being surrounded by the corresponding cavity, said cavity comprising a cavity wall; providing means for supporting and positioning each of the removable components in its corresponding cavity in the model, wherein the means for supporting and positioning are generated on one of said removable component and said cavity wall; providing that the removable component is configured to only partly contact the cavity wall in certain few areas, thereby providing a gap between the removable component and the cavity, except at the areas where the means for supporting and positioning are arranged; and is characterized by configuring the means for supporting and positioning such that the area of contact between the part of each removable component when fit in the corresponding cavity and the corresponding cavity of each removable component is smaller than the area in which there is no contact between the part of each removable component and the corresponding cavity. generating a virtual model of the set of teeth, where the virtual model is based on a virtual representation of the set of teeth; providing that each of the teeth preparations is configured to be arranged as a removable component in the model, where each removable component comprises a part that is adapted to fit into a corresponding cavity in a gingival part of the model while being surrounded by the corresponding cavity, said cavity comprising a cavity wall; providing means for supporting and positioning each of the removable components in its corresponding cavity in the model, wherein the means for supporting and positioning are generated on one of said removable component and said cavity wall; providing that the removable component is configured to only partly contact the cavity wall in certain few areas, thereby providing a gap between the removable component and the cavity, except at the areas where the means for supporting and positioning are arranged; and is characterized by configuring the means for supporting and positioning such that the area of contact between the part of each removable component when fit in the corresponding cavity and the corresponding cavity of each removable component is smaller than the area in which there is no contact between the part of each removable component and the corresponding cavity.