mhurhangee/patent-ind-claim-en huggingface dataset:
Method of manufacturing a printed circuit board having at least one embedded sensor chip , in which at least one sensor surface and terminals are arranged on a surface of the sensor chip , characterized by the following steps in the following order: (a) providing an adhesive sheet , b) imprinting a conductive structure of a conductive paste on a surface of the adhesive sheet , c) registered placing of the at least one sensor chip with the surface having the at least one sensor surface and the terminals on the conductive structure of a conductive paste, d) curing the conductive paste, e) applying an insulating layer with an overlying conductive layer to the surface comprising the sensor chip of the structure created in the preceding steps, wherein the insulating layer is a prepreg, f) laminating the structure created in the preceding steps, g) patterning the conductor layer and forming vias from the conductor layer to conductor tracks of the conductor pattern on the surface of the adhesive film , and h) removing the adhesive film , thereby exposing the at least one sensor surface . (a) providing an adhesive sheet , b) imprinting a conductive structure of a conductive paste on a surface of the adhesive sheet , c) registered placing of the at least one sensor chip with the surface having the at least one sensor surface and the terminals on the conductive structure of a conductive paste, d) curing the conductive paste, e) applying an insulating layer with an overlying conductive layer to the surface comprising the sensor chip of the structure created in the preceding steps, wherein the insulating layer is a prepreg, f) laminating the structure created in the preceding steps, g) patterning the conductor layer and forming vias from the conductor layer to conductor tracks of the conductor pattern on the surface of the adhesive film , and h) removing the adhesive film , thereby exposing the at least one sensor surface .
A method comprising: deciding, by at least one processor, to not transmit over a first wireless link between a wireless device and a first access point, AP, in response to determining that the wireless device is communicating or is about to communicate over a second wireless link with a second AP, wherein the wireless device is concurrently associated with the first and second APs, wherein the deciding is performed by the at least one processor in the wireless device , and the deciding to not transmit comprises deciding to not transmit uplink information to the first AP, wherein the determining that the wireless device is communicating or is about to communicate wirelessly with the second AP comprises at least one of: processing, by the wireless device , a header of a frame and determining based on the header that the frame is targeted to the wireless device from the second AP, processing, by the wireless device , a unique identifying code prepended to a transmission from the second AP, the unique identifying code identifying the wireless device . processing, by the wireless device , a header of a frame and determining based on the header that the frame is targeted to the wireless device from the second AP, processing, by the wireless device , a unique identifying code prepended to a transmission from the second AP, the unique identifying code identifying the wireless device .
A line driver device (LTV) for efficient and error-tolerant dataflow control, comprising: - a first interface unit (A) set up for communication with a command unit or a first further line driver device (LTV); - a second interface unit (B) set up for communication with a second further line driver device (LTV); - a third interface unit (C) set up for communication with a plurality of execution units (AE), wherein a first communication path is arranged between the first interface unit (A) and the second interface unit (B) and a second communication path is arranged between the first interface unit (A), the second interface unit (B) and the third interface unit (C), wherein at least two resistors (W1, W2) and between them a switch (S) are arranged on the first communication path and the data flow can be diverted via the first communication path or the second communication path by means of a switch position and, depending on the switch position, the resistors (W1, W2) can be set as feed-through resistors through the first communication path if the switch (S) is open or termination resistors if the switch (S) is closed, in such a way that the data flow takes place via the second communication path, and a termination voltage is applied to the switch (S). - a first interface unit (A) set up for communication with a command unit or a first further line driver device (LTV); - a second interface unit (B) set up for communication with a second further line driver device (LTV); - a third interface unit (C) set up for communication with a plurality of execution units (AE), wherein a first communication path is arranged between the first interface unit (A) and the second interface unit (B) and a second communication path is arranged between the first interface unit (A), the second interface unit (B) and the third interface unit (C), wherein at least two resistors (W1, W2) and between them a switch (S) are arranged on the first communication path and the data flow can be diverted via the first communication path or the second communication path by means of a switch position and, depending on the switch position, the resistors (W1, W2) can be set as feed-through resistors through the first communication path if the switch (S) is open or termination resistors if the switch (S) is closed, in such a way that the data flow takes place via the second communication path, and a termination voltage is applied to the switch (S).
A polycarbonate comprising a unit represented by the following Chemical Formula 1a or 1b; and a unit represented by the following Chemical Formula 1c: in Chemical Formulae 1a, 1b and 1c, wherein X1 is one selected from a substituted or unsubstituted aliphatic ring and a substituted or unsubstituted aromatic ring, or a tetravalent group in which two or more of them are linked by a single bond; a substituted or unsubstituted straight-chained or branched alkylene; O or CO, X2 is one selected from a substituted or unsubstituted aliphatic ring and a substituted or unsubstituted aromatic ring, or a trivalent group in which two or more of them are linked by a single bond; a substituted or unsubstituted straight-chained or branched alkylene; O or CO, L1 to L6 are the same as or different from each other, and are each one selected from a single bond, a substituted or unsubstituted straight-chained or branched alkylene, a substituted or unsubstituted cycloalkylene and a substituted or unsubstituted arylene, or a divalent group in which two or more of them are linked by a single bond, a plurality of units of Chemical Formulae 1a, 1b and 1c included in the polycarbonate is each the same as or different from each other, and * means a site linked to the main chain of the polycarbonate. wherein X1 is one selected from a substituted or unsubstituted aliphatic ring and a substituted or unsubstituted aromatic ring, or a tetravalent group in which two or more of them are linked by a single bond; a substituted or unsubstituted straight-chained or branched alkylene; O or CO, X2 is one selected from a substituted or unsubstituted aliphatic ring and a substituted or unsubstituted aromatic ring, or a trivalent group in which two or more of them are linked by a single bond; a substituted or unsubstituted straight-chained or branched alkylene; O or CO, L1 to L6 are the same as or different from each other, and are each one selected from a single bond, a substituted or unsubstituted straight-chained or branched alkylene, a substituted or unsubstituted cycloalkylene and a substituted or unsubstituted arylene, or a divalent group in which two or more of them are linked by a single bond, a plurality of units of Chemical Formulae 1a, 1b and 1c included in the polycarbonate is each the same as or different from each other, and * means a site linked to the main chain of the polycarbonate.
Bicycle frame , comprising an upper tube 2, a lower tube 3 and a seat tube 4, in addition to a head tube 5, wherein the upper tube extends rearwardly from the head tube, the lower tube extends rearwardly and downwardly from the head tube below the upper tube and the seat tube extends forwardly and downwardly from the upper tube to the lower tube imparting a strong basic construction to the bicycle, further comprising: - a tube construction comprising the upper tube 2, the lower tube 3 and the seat tube 4, in addition to the head tube 5 providing attachment options for further components of the bicycle, such as a steering pin, a saddle, and attachment options for a rear wheel, and wherein - the upper tube extends substantially in horizontal direction from substantially the front side of the frame to substantially the rear side of the frame, - the tube construction comprises an accessory tube adapted for arranging therein at least one sub-system providing the bicycle with additional functionality , - the accessory tube is arranged to allow placing of the at least one subsystem providing the bicycle with additional functionality in the accessory tube wherein the accessory tube comprises an inner tube, wherein at least one subsystem for providing the bicycle with additional functionality ( is arranged in the inner tube such that the at least one subsystem in the inner tube is pushed into the accessory tube in one operation. - a tube construction comprising the upper tube 2, the lower tube 3 and the seat tube 4, in addition to the head tube 5 providing attachment options for further components of the bicycle, such as a steering pin, a saddle, and attachment options for a rear wheel, and wherein - the upper tube extends substantially in horizontal direction from substantially the front side of the frame to substantially the rear side of the frame, - the tube construction comprises an accessory tube adapted for arranging therein at least one sub-system providing the bicycle with additional functionality , - the accessory tube is arranged to allow placing of the at least one subsystem providing the bicycle with additional functionality in the accessory tube wherein the accessory tube comprises an inner tube, wherein at least one subsystem for providing the bicycle with additional functionality ( is arranged in the inner tube such that the at least one subsystem in the inner tube is pushed into the accessory tube in one operation.
Method of manufacturing a rotor blade of a wind turbine, the method comprising: placing fibre material on a shape forming surface ; arranging phase change material being in a first state at at least one predetermined first region and/or arranging phase change material being in a second state at at least one predetermined second region ; soaking the fibre material with resin to be in thermal contact with the phase change material at the first region and/or second region ; during a crosslinking reaction for crosslinking the resin: absorbing heat generated within the resin by the phase change material at the first region ; and/or releasing heat from the phase change material toward the resin at the second region . placing fibre material on a shape forming surface ; arranging phase change material being in a first state at at least one predetermined first region and/or arranging phase change material being in a second state at at least one predetermined second region ; soaking the fibre material with resin to be in thermal contact with the phase change material at the first region and/or second region ; during a crosslinking reaction for crosslinking the resin: absorbing heat generated within the resin by the phase change material at the first region ; and/or releasing heat from the phase change material toward the resin at the second region . absorbing heat generated within the resin by the phase change material at the first region ; and/or releasing heat from the phase change material toward the resin at the second region .
A composite laminated plate comprising a first plurality of plies of reinforcing fibers for lengthwise strength with respect to a dominant load direction, and a second plurality of reinforcing fibers oriented at different angles around average angles ±β with respect to the dominant load direction, where β is between 15 and 35 degrees.
An assembly for biopharmaceutical use comprising a bag adapted to receive a biopharmaceutical product and a frame , the bag being a flexible plastic envelope provided with at least one inlet/outlet port for a biopharmaceutical fluid and comprising a first side wall and a second side wall , the first side wall and the second side wall being partly secured by a weld , the weld defining a welded perimeter of the bag and delimiting an inner space of the bag , wherein the frame - encloses the bag on a continuous path along the welded perimeter at least in one area of the weld , and - comprises a first portion able to come into contact with the first side wall and a second portion able to come into contact with the second side wall , the first portion and the second portion being fixed together by a fixing means applying a reinforcing pressure on the weld , the reinforcing pressure being comprised between 10 N/m 2 and 100 N/m 2 . - encloses the bag on a continuous path along the welded perimeter at least in one area of the weld , and - comprises a first portion able to come into contact with the first side wall and a second portion able to come into contact with the second side wall , the first portion and the second portion being fixed together by a fixing means applying a reinforcing pressure on the weld , the reinforcing pressure being comprised between 10 N/m 2 and 100 N/m 2 .
A process for the preparation of an aqueous solution comprising at least one earth alkali hydrogen carbonate, comprising the steps of: a) providing water in a main process flow and in at least one side process flow ; b) adding at least one earth alkali carbonate-comprising material to the water provided in a first portion of the side process flow to obtain a suspension comprising the at least one earth alkali carbonate-comprising material; c) adding carbon dioxide to the water provided in a second portion of the side process flow and adjusting the pH-value to a range from 2.5 to 7.5 to obtain acidified water; d) combining the suspension obtained in step b) with the acidified water obtained in step c) to obtain a solution or suspension of at least one earth alkali hydrogen carbonate; e) dosing the solution of at least one earth alkali hydrogen carbonate obtained in step d) into the water provided in the main process flow to obtain an aqueous solution of at least one earth alkali hydrogen carbonate; and f) adding an earth alkali hydroxide provided in water to the aqueous solution of at least one earth alkali hydrogen carbonate obtained in the main process flow of step e) to adjust the pH-value of the aqueous solution of at least one earth alkali hydrogen carbonate to a range from 7.0 to 9.0 and to form an aqueous solution of at least one earth alkali hydrogen carbonate having an earth alkali concentration as earth alkali hydrogen carbonate in the range from 10 to 300 mg/l; wherein the molar ratio between the at least one earth alkali carbonate-comprising material in step b) and the earth alkali hydroxide in step f) is in the range from 50 : 1 to 1 : 10. a) providing water in a main process flow and in at least one side process flow ; b) adding at least one earth alkali carbonate-comprising material to the water provided in a first portion of the side process flow to obtain a suspension comprising the at least one earth alkali carbonate-comprising material; c) adding carbon dioxide to the water provided in a second portion of the side process flow and adjusting the pH-value to a range from 2.5 to 7.5 to obtain acidified water; d) combining the suspension obtained in step b) with the acidified water obtained in step c) to obtain a solution or suspension of at least one earth alkali hydrogen carbonate; e) dosing the solution of at least one earth alkali hydrogen carbonate obtained in step d) into the water provided in the main process flow to obtain an aqueous solution of at least one earth alkali hydrogen carbonate; and f) adding an earth alkali hydroxide provided in water to the aqueous solution of at least one earth alkali hydrogen carbonate obtained in the main process flow of step e) to adjust the pH-value of the aqueous solution of at least one earth alkali hydrogen carbonate to a range from 7.0 to 9.0 and to form an aqueous solution of at least one earth alkali hydrogen carbonate having an earth alkali concentration as earth alkali hydrogen carbonate in the range from 10 to 300 mg/l;
A nonaqueous electrolyte secondary battery comprising a coiled electrode assembly in which a positive electrode and a negative electrode are coiled with a separator interposed therebetween, wherein the negative electrode includes a negative electrode current collector , a first negative electrode mixture layer formed on a first surface of the negative electrode current collector , the first surface facing an outside of the electrode assembly , and a second negative electrode mixture layer formed on a second surface of the negative electrode current collector , the second surface facing an inside of the electrode assembly , the first negative electrode mixture layer contains a cellulose binder formed of at least one of carboxymethyl cellulose and a salt thereof and a rubber binder formed of at least one of styrene-butadiene rubber and a modified form thereof, a content of the cellulose binder is, in a thickness direction of the first negative electrode mixture layer , larger near a surface of the mixture layer than near the negative electrode current collector , and a content of the rubber binder is, in the thickness direction of the first negative electrode mixture layer , larger near the negative electrode current collector than near the surface of the mixture layer . wherein the negative electrode includes a negative electrode current collector , a first negative electrode mixture layer formed on a first surface of the negative electrode current collector , the first surface facing an outside of the electrode assembly , and a second negative electrode mixture layer formed on a second surface of the negative electrode current collector , the second surface facing an inside of the electrode assembly , the first negative electrode mixture layer contains a cellulose binder formed of at least one of carboxymethyl cellulose and a salt thereof and a rubber binder formed of at least one of styrene-butadiene rubber and a modified form thereof, a content of the cellulose binder is, in a thickness direction of the first negative electrode mixture layer , larger near a surface of the mixture layer than near the negative electrode current collector , and a content of the rubber binder is, in the thickness direction of the first negative electrode mixture layer , larger near the negative electrode current collector than near the surface of the mixture layer .
A method of operating a fuel cell stack with improved performance recovery from sub-saturated conditions, the method comprising setting an alert for the performance recovery of the fuel cell stack , performing oxidant starvation for a predetermined amount of time by supplying oxidant at a stoichiometric ratio below 1 to the fuel cell stack in at least one pulse and at low current while the fuel cell stack does not generate power, characterized in that the oxidant starvation is performed during the fuel cell stack startup, shutdown or when the fuel cell stack is in its run state and when the voltage measured across the fuel cell stack falls below around 0.05 V per cell in the stack.
An infrastructure-controller for an infrastructure , wherein the infrastructure has a plurality of Bluetooth Low Energy, "BLE", nodes associated with it, the infrastructure-controller configured to: identify one of the plurality of BLE nodes as a current-BLE-node, and activate the current-BLE-node for communication with a key using BLE signals; determine a communication-quality-indicator for each of the plurality of BLE nodes, that represents the quality of communication with the key; based on the communication-quality-indicators, identify one of the plurality of BLE nodes as a next-BLE-node; provide connection-information to the next-BLE-node using out-of-band signalling; deactivate the current-BLE-node; and activate the next-BLE-node for continued communication with the key using BLE signals. identify one of the plurality of BLE nodes as a current-BLE-node, and activate the current-BLE-node for communication with a key using BLE signals; determine a communication-quality-indicator for each of the plurality of BLE nodes, that represents the quality of communication with the key; based on the communication-quality-indicators, identify one of the plurality of BLE nodes as a next-BLE-node; provide connection-information to the next-BLE-node using out-of-band signalling; deactivate the current-BLE-node; and activate the next-BLE-node for continued communication with the key using BLE signals.
Connection chamber , which consists of a part which is used by being buried in the ground , which is in the shape of a parallelepiped rectangle and is closed at the top by at least one pad , said chamber accommodating means for connecting wires or cables which form part of a distribution network, and consisting of stacking, via fitting means , frame-shaped elements, and comprising at least one base element and an upper element which is intended to receive said pad via a metal frame , where each of said frame-shaped elements is molded from a composite material, each of said elements comprising, in addition to said fitting means , receiving means which are complementary to said fitting means and are designed to be suitable for securing two stacked elements together, said connection chamber being characterized in that the metal frame forms an integral part of the upper element without the metal frame being sealed to the upper element by concrete.