mhurhangee/patent-ind-claim-en huggingface dataset:
A cylindrical secondary battery comprising: a jelly-roll type electrode assembly, configured to have a structure in which a long sheet type positive electrode and a long sheet type negative electrode are wound in a state in which a separator is interposed between the positive electrode and the negative electrode; a cylindrical battery case for receiving the jelly-roll type electrode assembly; and a cap assembly mounted to an open upper end of the cylindrical battery case, wherein a welding pole having shape of a cylinder or a polygonal prism is formed on a bottom surface of the cylindrical battery case so as to be perpendicular thereto, wherein a positive electrode tab of the jelly-roll type electrode assembly extends upwards and is coupled to the cap assembly, and a negative electrode tab of the jelly-roll type electrode assembly extends upwards and is coupled to the uppermost end of the welding pole. a jelly-roll type electrode assembly, configured to have a structure in which a long sheet type positive electrode and a long sheet type negative electrode are wound in a state in which a separator is interposed between the positive electrode and the negative electrode; a cylindrical battery case for receiving the jelly-roll type electrode assembly; and a cap assembly mounted to an open upper end of the cylindrical battery case, wherein a welding pole having shape of a cylinder or a polygonal prism is formed on a bottom surface of the cylindrical battery case so as to be perpendicular thereto, wherein a positive electrode tab of the jelly-roll type electrode assembly extends upwards and is coupled to the cap assembly, and a negative electrode tab of the jelly-roll type electrode assembly extends upwards and is coupled to the uppermost end of the welding pole.
A battery module for receiving electrochemical cells , the battery module including a battery module housing that defines an interior space, the battery module housing including at least one interior wall that segregates the interior space into at least two cavities , the battery module housing and the at least one interior wall being formed of a flexible laminate material, and an electrochemical cell disposed in one of the at least two cavities , the electrochemical cell comprising an electrode assembly ; characterized in that the battery module housing includes a first exterior wall and a second exterior wall , and the at least one interior wall is arranged in parallel to both the first exterior wall and the second exterior wall ; each cavity of the at least two cavities includes, at most, a single electrochemical cell ; and the battery module has a complex curved and non-planar geometry. a battery module housing that defines an interior space, the battery module housing including at least one interior wall that segregates the interior space into at least two cavities , the battery module housing and the at least one interior wall being formed of a flexible laminate material, and an electrochemical cell disposed in one of the at least two cavities , the electrochemical cell comprising an electrode assembly ; characterized in that the battery module housing includes a first exterior wall and a second exterior wall , and the at least one interior wall is arranged in parallel to both the first exterior wall and the second exterior wall ; each cavity of the at least two cavities includes, at most, a single electrochemical cell ; and the battery module has a complex curved and non-planar geometry.
Rupture disc arrangement , in particular for an extinguishing equipment, wherein the rupture disc arrangement - has a rupture disc which is designed to open under a sufficient pressure load, and - has a catching means for catching an opening rupture disc , which means is arranged behind the rupture disc as viewed in the direction of discharge, - wherein the catching means has a main body with an opening in which a band is provided which has two ends which adjoin the edge of the main body enclosing the opening, characterised in that - the band is horseshoe-shaped. - has a rupture disc which is designed to open under a sufficient pressure load, and - has a catching means for catching an opening rupture disc , which means is arranged behind the rupture disc as viewed in the direction of discharge, - wherein the catching means has a main body with an opening in which a band is provided which has two ends which adjoin the edge of the main body enclosing the opening, characterised in that - the band is horseshoe-shaped.
A method for conditioning of spent ion exchange resins from nuclear facilities, comprising the steps of: - mixing the spent ion exchange resins with water to form a reaction mixture; - setting and monitoring the pH of the reaction mixture in a range from 1.0 to 3.5, preferably in a range from 2.0 to 3.0; - adding an oxidant, preferably an aqueous solution of hydrogen peroxide, to the reaction mixture, with the temperature of the reaction mixture being maintained at 90 °C or less, preferably at 85 °C or less, so that the spent ion exchange resin and the oxidant react with each other to form an aqueous reaction solution comprising organic reaction products of the spent ion exchange resin; and subsequently - electrochemically oxidizing the organic reaction products in the reaction solution by means of a boron-doped diamond electrode , wherein carbon dioxide is produced and a carbon-depleted aqueous reaction solution having a TOC (total organic carbon) value of less than 50 ppm is obtained. - mixing the spent ion exchange resins with water to form a reaction mixture; - setting and monitoring the pH of the reaction mixture in a range from 1.0 to 3.5, preferably in a range from 2.0 to 3.0; - adding an oxidant, preferably an aqueous solution of hydrogen peroxide, to the reaction mixture, with the temperature of the reaction mixture being maintained at 90 °C or less, preferably at 85 °C or less, so that the spent ion exchange resin and the oxidant react with each other to form an aqueous reaction solution comprising organic reaction products of the spent ion exchange resin; and subsequently - electrochemically oxidizing the organic reaction products in the reaction solution by means of a boron-doped diamond electrode , wherein carbon dioxide is produced and a carbon-depleted aqueous reaction solution having a TOC (total organic carbon) value of less than 50 ppm is obtained.
Method for loading an unmanned transport device , docked on a receiving container , with a payload container for a consignment , having a loading device for loading the transport device with the payload container , wherein the payload container has at its first end a bearing means , the transport device has on its underside a loading opening for receiving the payload container , and the loading opening has at its front end a mating contour corresponding to the bearing means , and the method comprises the steps: pivoting of the payload container disposed on the loading device in relation to the horizontal by the loading device such that the first end is elevated in relation to a second, opposite end of the payload container , raising of the loading device until the payload container ends up, at least with its first end , within and/or beneath the loading opening , and pivoting of the payload container into the horizontal by the loading device for introduction into the loading opening such that firstly the bearing means enters into engagement with the mating contour , and subsequently the second end of the payload container enters into engagement with a rear end of the loading opening . pivoting of the payload container disposed on the loading device in relation to the horizontal by the loading device such that the first end is elevated in relation to a second, opposite end of the payload container , raising of the loading device until the payload container ends up, at least with its first end , within and/or beneath the loading opening , and pivoting of the payload container into the horizontal by the loading device for introduction into the loading opening such that firstly the bearing means enters into engagement with the mating contour , and subsequently the second end of the payload container enters into engagement with a rear end of the loading opening .
A cDNA molecule encoding a green alga Cia8 protein, wherein the cDNA molecule encodes a polypeptide having greater than or equal to 90% sequence identity to SEQ ID NO: 4, such as wherein the cDNA molecule has greater than or equal to 90% sequence identity to SEQ ID NO: 3, preferably wherein the cDNA molecule has 100% sequence identity to SEQ ID NO: 3, wherein the green alga Cia8 protein binds and/or transports bicarbonate.
A surgical implant device, comprising: a metallic body portion; and one or more metallic surfaces comprising a metallic osteo-porous or osteo-derived layer and a plurality of needles on an exterior portion of the metallic body portion; wherein the metallic body portion and the one or more metallic surfaces comprising the metallic osteo-porous or osteo-derived layer and the plurality of needles are integrally formed, wherein the metallic osteo-porous or osteo-derived layer comprises an irregular lattice of intersecting struts that intersects at randomly perturbed nodes, wherein some of the plurality of needles are anchored to the metallic body portion and some of the plurality of needles are anchored to the intersecting struts of the irregular lattice of the metallic osteo-porous or osteo-derived layer, wherein the plurality of needles substantially increase the coefficient of friction of the one or more metallic surfaces. a metallic body portion; and one or more metallic surfaces comprising a metallic osteo-porous or osteo-derived layer and a plurality of needles on an exterior portion of the metallic body portion; wherein the metallic body portion and the one or more metallic surfaces comprising the metallic osteo-porous or osteo-derived layer and the plurality of needles are integrally formed, wherein the metallic osteo-porous or osteo-derived layer comprises an irregular lattice of intersecting struts that intersects at randomly perturbed nodes, wherein some of the plurality of needles are anchored to the metallic body portion and some of the plurality of needles are anchored to the intersecting struts of the irregular lattice of the metallic osteo-porous or osteo-derived layer, wherein the plurality of needles substantially increase the coefficient of friction of the one or more metallic surfaces.
Device for monitoring a shaft coupling coupling a first shaft to a second shaft , having: - an optical unit with a receiving element , embodied to receive an electromagnetic radiation in the form of light, - an error notification element , wherein the error notification element can be arranged on and/or within the first shaft and on and/or within the second shaft , - wherein the error notification element is embodied to notify an asynchronous running of the first shaft with respect to the second shaft . - an optical unit with a receiving element , embodied to receive an electromagnetic radiation in the form of light, - an error notification element , wherein the error notification element can be arranged on and/or within the first shaft and on and/or within the second shaft , - wherein the error notification element is embodied to notify an asynchronous running of the first shaft with respect to the second shaft .
A modular power system for providing power to a downhole tool, comprising: a high temperature rechargeable energy storage, HTRES, , and a modular signal interface device, MSID, module for controlling at least one of the power provided to a downhole tool connected to the modular power system and the charge-discharge cycles of the HTRES, wherein the MSID is adapted to connect to a downhole power source; wherein the HTRES comprises an ultracapacitor comprising an advanced electrolyte system, AES, and wherein the ultracapacitor comprises a positive electrode and a negative electrode, wherein at least one electrode comprises an energy storage media, the energy storage media comprising carbon nanotubes; characterised in that the AES comprises a salt of the following formula: wherein R 1 is straight-chain or branched alkyl having 1 to 4 carbon atoms, R 2 is methyl or ethyl, and X - is [ B(CN) 4 ]- or [ BF n (CN) 4-n ]- where n = 0, 1, 2 or 3; wherein the AES is purified to contain less than 1000 ppm of chloride ions, less than about 100 ppm of fluoride ions, and/or less than about 100 ppm of water; wherein the energy storage media consists of at least 98% by mass elemental carbon; and wherein at least one of the electrodes has a moisture content of less than 350 ppm and chloride content of less than 300 ppm. a high temperature rechargeable energy storage, HTRES, , and a modular signal interface device, MSID, module for controlling at least one of the power provided to a downhole tool connected to the modular power system and the charge-discharge cycles of the HTRES, wherein the MSID is adapted to connect to a downhole power source; wherein the HTRES comprises an ultracapacitor comprising an advanced electrolyte system, AES, and wherein the ultracapacitor comprises a positive electrode and a negative electrode, wherein at least one electrode comprises an energy storage media, the energy storage media comprising carbon nanotubes; characterised in that the AES comprises a salt of the following formula: wherein R 1 is straight-chain or branched alkyl having 1 to 4 carbon atoms, R 2 is methyl or ethyl, and X - is [ B(CN) 4 ]- or [ BF n (CN) 4-n ]- where n = 0, 1, 2 or 3; wherein the AES is purified to contain less than 1000 ppm of chloride ions, less than about 100 ppm of fluoride ions, and/or less than about 100 ppm of water; wherein the energy storage media consists of at least 98% by mass elemental carbon; and wherein at least one of the electrodes has a moisture content of less than 350 ppm and chloride content of less than 300 ppm.
A geothermal heating and/or cooling system comprising: a geothermal storage ; at least one outer heat exchanger (4a-c); a main circuit configured to route a flow of heat transfer liquid out of the geothermal storage to the at least one outer heat exchanger (4a-c) and back to the geothermal storage again; a main circulation pump configured to force the heat transfer liquid through the main circuit ; a temperature sensor configured to measure the temperature of the heat transfer liquid; a flow rate sensor configured to measure flow rate in a return portion of the main circuit after the at least one outer heat exchanger (4a-c), and a controller configured to control the main circulation pump based on temperature readings of the temperature sensor such that a calculated Reynolds number for the flow of heat transfer liquid is constant at a predetermined target Reynolds number over at least a primary temperature range, wherein the predetermined target Reynolds number is within the range of 2500-3500 such that turbulent flow of the heat transfer liquid is achieved, wherein the controller further is configured to control the speed of the main circulation pump to achieve a target flow rate measured by the flow rate sensor in a return portion of the main circuit after the at least one outer heat exchanger (4a-c), wherein the controller is further configured to base the control of the main circulation pump on a predetermined control curve, lookup table or function correlating temperature reading of the temperature sensor with target flow of heat transfer liquid for a given target Reynolds number. a geothermal storage ; at least one outer heat exchanger (4a-c); a main circuit configured to route a flow of heat transfer liquid out of the geothermal storage to the at least one outer heat exchanger (4a-c) and back to the geothermal storage again; a main circulation pump configured to force the heat transfer liquid through the main circuit ; a temperature sensor configured to measure the temperature of the heat transfer liquid; a flow rate sensor configured to measure flow rate in a return portion of the main circuit after the at least one outer heat exchanger (4a-c), and a controller configured to control the main circulation pump based on temperature readings of the temperature sensor such that a calculated Reynolds number for the flow of heat transfer liquid is constant at a predetermined target Reynolds number over at least a primary temperature range, wherein the predetermined target Reynolds number is within the range of 2500-3500 such that turbulent flow of the heat transfer liquid is achieved, wherein the controller further is configured to control the speed of the main circulation pump to achieve a target flow rate measured by the flow rate sensor in a return portion of the main circuit after the at least one outer heat exchanger (4a-c), wherein the controller is further configured to base the control of the main circulation pump on a predetermined control curve, lookup table or function correlating temperature reading of the temperature sensor with target flow of heat transfer liquid for a given target Reynolds number.
A method for starting up a device , wherein the device comprises a power button and a fingerprint sensor , the power button is integrated with the fingerprint sensor, and the method comprises: detecting a touch operation performed by a user on the power button ; in response to the touch operation, obtaining (S505), by a first microcontroller unit, MCU, fingerprint information acquired by the fingerprint sensor , and saving, by the first MCU, the fingerprint information; if detecting (S1401) that the power button of the device is pressed: powering on a central processing unit, CPU, of the device; and obtaining (S1304), by the first MCU, a fingerprint authentication request after the power-on of the CPU, and the method further comprises: if detecting, by the first MCU, within a first preset duration that the power button of the device is pressed: after obtaining the fingerprint authentication request, providing (S1305), by the first MCU, the fingerprint information to a fingerprint driver to perform (S1306) fingerprint authentication, so as to log in (S1403) to an operating system of the device ; and if not detecting, by the first MCU, within the first preset duration that the power button of the device is pressed, deleting (S1504), by the first MCU, the fingerprint information. detecting a touch operation performed by a user on the power button ; in response to the touch operation, obtaining (S505), by a first microcontroller unit, MCU, fingerprint information acquired by the fingerprint sensor , and saving, by the first MCU, the fingerprint information; if detecting (S1401) that the power button of the device is pressed: powering on a central processing unit, CPU, of the device; and obtaining (S1304), by the first MCU, a fingerprint authentication request after the power-on of the CPU, and the method further comprises: if detecting, by the first MCU, within a first preset duration that the power button of the device is pressed: after obtaining the fingerprint authentication request, providing (S1305), by the first MCU, the fingerprint information to a fingerprint driver to perform (S1306) fingerprint authentication, so as to log in (S1403) to an operating system of the device ; and if not detecting, by the first MCU, within the first preset duration that the power button of the device is pressed, deleting (S1504), by the first MCU, the fingerprint information. if detecting, by the first MCU, within a first preset duration that the power button of the device is pressed: after obtaining the fingerprint authentication request, providing (S1305), by the first MCU, the fingerprint information to a fingerprint driver to perform (S1306) fingerprint authentication, so as to log in (S1403) to an operating system of the device ; and if not detecting, by the first MCU, within the first preset duration that the power button of the device is pressed, deleting (S1504), by the first MCU, the fingerprint information.
An organic light emitting diode, OLED, device comprising an anode and a cathode and a light emitting functional layer interposed between the anode and the cathode , wherein a photoinduced electron film layer is formed on a side of the cathode away from the light emitting functional layer , the photoinduced electron film layer is able to generate photoinduced electrons, and the photoinduced electrons are transferable from the photoinduced electron film layer to the cathode , wherein the cathode comprises a first cathode layer and a second cathode layer adjacent to each other, wherein the first cathode layer is close to the photoinduced electron film layer , and the photoinduced electron film layer has a work function smaller than that of the first cathode layer , and wherein the first cathode layer is formed of Indium Zinc Oxide, IZO, and the photoinduced electron film layer is formed of Cadmium Sulfide, CdS.
A composition for use in a method for treating pruritus or atopic dermatitis, the composition comprising tradipitant or a pharmaceutically acceptable salt thereof, and the method comprising: determining a baseline Immunoglobulin E (IgE) level in a biological sample from the patient; and if the baseline IgE level is above a threshold level, administering to the patient tradipitant at a dose 170 mg/day; wherein the threshold level is greater than or equal to 100 kU/L. determining a baseline Immunoglobulin E (IgE) level in a biological sample from the patient; and if the baseline IgE level is above a threshold level, administering to the patient tradipitant at a dose 170 mg/day; wherein the threshold level is greater than or equal to 100 kU/L.
Multi-layer loudspeaker cover for covering a loudspeaker , having at least a first layer , a second layer and a third layer , wherein the first layer is an air-permeable layer, the second layer is a layer with through-holes for the reduction of dynamic pressure, and the third layer is a dimensionally stable foam layer.
A wafer carrier for metal organic chemical vapor deposition, comprising: at least one wafer sub-carrier that is in a groove structure and that is configured to place a substrate for an epitaxial wafer ; and wherein a thermal conductivity of a side wall of the wafer sub-carrier is higher than a thermal conductivity of a bottom wall of the wafer sub-carrier; characterized in that the wafer carrier further comprises: a first space in the wafer sub-carrier is filled with a first thermally conductive material, the first space is a space between a flat edge of the substrate for an epitaxial wafer and a side wall of the wafer sub-carrier when the substrate for an epitaxial wafer is placed on the wafer sub-carrier , a thermal conductivity of the first thermally conductive material is not lower than a thermal conductivity of the wafer sub-carrier . at least one wafer sub-carrier that is in a groove structure and that is configured to place a substrate for an epitaxial wafer ; and wherein a thermal conductivity of a side wall of the wafer sub-carrier is higher than a thermal conductivity of a bottom wall of the wafer sub-carrier; characterized in that the wafer carrier further comprises: a first space in the wafer sub-carrier is filled with a first thermally conductive material, the first space is a space between a flat edge of the substrate for an epitaxial wafer and a side wall of the wafer sub-carrier when the substrate for an epitaxial wafer is placed on the wafer sub-carrier , a thermal conductivity of the first thermally conductive material is not lower than a thermal conductivity of the wafer sub-carrier .