mhurhangee/patent-ind-claim-en huggingface dataset:
Method for bonding large modules , characterised by the following steps: - a large module is fed to a bonder from behind in a loading plane by means of a feed unit ; - the large module is handed over from the feed unit to a first transverse conveyor unit and transferred by said unit into a first buffer position provided in the bonder , the first buffer position being provided in a loading plane of the bonder ; - the large module is transferred from the first buffer position into a first handover position, where it is handed over to a vertical conveyor unit , in the loading plane by means of the first transverse conveyor unit ; - by means of the vertical conveyor unit , the large module is displaced vertically and transferred into a bonding plane , the large module , in the bonding plane , being located at least in portions in a working region of the bonder ; - the large module is processed by a first bonding head and optionally additionally by a second bonding head , electrically conductive bonding connections being produced at the module ; - the large module is displaced vertically out of the bonding plane into a second handover position by the vertical conveyor unit , and in the second handover position handed over to a second transverse conveyor unit , the second handover position being provided in an unloading plane of the bonder ; - the large module in the unloading plane is transferred into a second buffer position by the second transverse conveyor unit ; - the large module is handed over to a removal unit from the second buffer position by means of the second transverse conveyor unit . - a large module is fed to a bonder from behind in a loading plane by means of a feed unit ; - the large module is handed over from the feed unit to a first transverse conveyor unit and transferred by said unit into a first buffer position provided in the bonder , the first buffer position being provided in a loading plane of the bonder ; - the large module is transferred from the first buffer position into a first handover position, where it is handed over to a vertical conveyor unit , in the loading plane by means of the first transverse conveyor unit ; - by means of the vertical conveyor unit , the large module is displaced vertically and transferred into a bonding plane , the large module , in the bonding plane , being located at least in portions in a working region of the bonder ; - the large module is processed by a first bonding head and optionally additionally by a second bonding head , electrically conductive bonding connections being produced at the module ; - the large module is displaced vertically out of the bonding plane into a second handover position by the vertical conveyor unit , and in the second handover position handed over to a second transverse conveyor unit , the second handover position being provided in an unloading plane of the bonder ; - the large module in the unloading plane is transferred into a second buffer position by the second transverse conveyor unit ; - the large module is handed over to a removal unit from the second buffer position by means of the second transverse conveyor unit .
An information sharing method, implemented by a server , comprising: receiving information data synchronized by a client , wherein the information data comprises at least one piece of group data, and each piece of group data comprises a mapping relation between user information categories corresponding to a group and target objects in the group, and a key corresponding to each target object, wherein the key corresponding to the target object is generated by the target object and sent to the client by the target object, when the client sends a request message to the target object for obtaining a confirmation of the target object, and is sent to the server by the client, when the client synchronizes the information data; receiving user information change data, and determining an information change content ; inquiring at least one pre-stored group according to the information change content, determining that a group corresponding to the information change content exists, and obtaining information about a target object of the group ; and sending the information change content to the target object of the group , wherein, sending the information change content to the target object of the group comprises: encrypting the information change content by using the key corresponding to the target object of the group; and sending the encrypted information change content to the target object to the target object of the group. receiving information data synchronized by a client , wherein the information data comprises at least one piece of group data, and each piece of group data comprises a mapping relation between user information categories corresponding to a group and target objects in the group, and a key corresponding to each target object, wherein the key corresponding to the target object is generated by the target object and sent to the client by the target object, when the client sends a request message to the target object for obtaining a confirmation of the target object, and is sent to the server by the client, when the client synchronizes the information data; receiving user information change data, and determining an information change content ; inquiring at least one pre-stored group according to the information change content, determining that a group corresponding to the information change content exists, and obtaining information about a target object of the group ; and sending the information change content to the target object of the group , wherein, sending the information change content to the target object of the group comprises: encrypting the information change content by using the key corresponding to the target object of the group; and sending the encrypted information change content to the target object to the target object of the group.
A method for forming a fin-shaped field effect transistor, FinFET, the method comprising: forming a shallow trench isolation, STI, layer on a substrate ; forming first and second dummy gates on the STI layer ; forming an interlayer dielectric, ILD, layer on the STI layer , the ILD layer corresponding to a gate cut region and separating the first and second dummy gates ; forming a first mask on the first and second dummy gates and on the ILD layer , the first mask having a trench corresponding to an isolation cut region and exposing the first and second dummy gates and the ILD layer , the isolation cut region being a region of an isolation cut mask, and the gate cut region intersecting the isolation cut region; forming a second mask on the first mask and on the ILD layer exposed by the trench ; removing the first and second dummy gates ; removing the first and second masks such that the ILD layer remains on the STI layer; and filling regions left by the removed first and second dummy gates. forming a shallow trench isolation, STI, layer on a substrate ; forming first and second dummy gates on the STI layer ; forming an interlayer dielectric, ILD, layer on the STI layer , the ILD layer corresponding to a gate cut region and separating the first and second dummy gates ; forming a first mask on the first and second dummy gates and on the ILD layer , the first mask having a trench corresponding to an isolation cut region and exposing the first and second dummy gates and the ILD layer , the isolation cut region being a region of an isolation cut mask, and the gate cut region intersecting the isolation cut region; forming a second mask on the first mask and on the ILD layer exposed by the trench ; removing the first and second dummy gates ; removing the first and second masks such that the ILD layer remains on the STI layer; and filling regions left by the removed first and second dummy gates.
An apparatus comprising: an automated guided vehicle that moves on a surface of a composite structure during operation of the apparatus to inspect the composite structure ; a surface inspection sensor system associated with the automated guided vehicle ; and an automated guided vehicle and surface inspection sensor system controller in communication with the automated guided vehicle and the surface inspection sensor system ; characterized in that : said automated guided vehicle is a crawler configured to step over surface protrusions on said surface , wherein the crawler is a hexapod comprising six legs. an automated guided vehicle that moves on a surface of a composite structure during operation of the apparatus to inspect the composite structure ; a surface inspection sensor system associated with the automated guided vehicle ; and an automated guided vehicle and surface inspection sensor system controller in communication with the automated guided vehicle and the surface inspection sensor system ; characterized in that : said automated guided vehicle is a crawler configured to step over surface protrusions on said surface , wherein the crawler is a hexapod comprising six legs.
A positioning method for balloon coating for forming a coating layer containing a water-insoluble drug on an outer surface of a balloon of a balloon catheter , characterized in that the positioning method comprises a positioning step in which a dispensing tube is moved, from a state of non-contact with the balloon , in a direction intersecting an extending direction of the dispensing tube , and an opening portion-formed end portion side of the dispensing tube formed at its end portion with an opening portion for discharging the coating solution, to be thereby placed in contact with the outer surface of the balloon .
A coating comprising a matrix component and oligomer-modified inorganic oxide fine particles that are oligomer-modified fine particles comprising inorganic oxide fine particles having a surface modified with an oligomer, the oligomer being derived from a metal alkoxide (or a mixture of metal alkoxides having different M 1 , R, R' and n) represented by Formula : R n M 1 (OR') z - n wherein M 1 : one or more elements selected from Si, Ti, Zr and Al; R and R': one or more groups selected from alkyl groups of 1 to 8 carbon atoms, aryl groups and vinyl groups; n: an integer of from 0 to (z - 2); and z: the valence of M 1 ; the oligomer having a polymerization degree of 15 to 90, the oligomer having a weight average molecular weight in the range of 3000 to 9000; wherein the oligomer is a linear polycondensate. R and R': one or more groups selected from alkyl groups of 1 to 8 carbon atoms, aryl groups and vinyl groups; n: an integer of from 0 to (z - 2); and z: the valence of M 1 ; the oligomer having a polymerization degree of 15 to 90, the oligomer having a weight average molecular weight in the range of 3000 to 9000; wherein the oligomer is a linear polycondensate.
A blow molding device provided with a mold for blow molding a bottomed cylindrical preform (P) mounted in the mold and a blow nozzle that connects to a mouth tube section (P3) of the preform (P) mounted in the mold , the blow molding device being adapted to mold a bottle by feeding pressurized liquid from the blow nozzle into the preform (P) to cause the preform (P) to expand in a shape along a cavity of the mold , the blow molding device comprising: a blow nozzle displacement unit configured to raise and lower the blow nozzle along an axis of the preform (P); the blow nozzle has a cap attaching unit configured to fix and hold a cap (C) for sealing the bottle to a mouth tube section (P3) of the bottle when the blow nozzle is lowered by operation of the blow nozzle displacement unit, characterized in that : - the cap attaching unit is a tip of the blow nozzle that abuts an upper surface of the cap and pushes the cap (C) onto the mouth tube section (P3) of the bottle, and - the cap (C) has a recess (C3) that opens upwards, and the tip of the blow nozzle has a protrusion that fits into the recess and positions the cap (C) a blow nozzle displacement unit configured to raise and lower the blow nozzle along an axis of the preform (P); the blow nozzle has a cap attaching unit configured to fix and hold a cap (C) for sealing the bottle to a mouth tube section (P3) of the bottle when the blow nozzle is lowered by operation of the blow nozzle displacement unit, characterized in that : - the cap attaching unit is a tip of the blow nozzle that abuts an upper surface of the cap and pushes the cap (C) onto the mouth tube section (P3) of the bottle, and - the cap (C) has a recess (C3) that opens upwards, and the tip of the blow nozzle has a protrusion that fits into the recess and positions the cap (C) - the cap attaching unit is a tip of the blow nozzle that abuts an upper surface of the cap and pushes the cap (C) onto the mouth tube section (P3) of the bottle, and - the cap (C) has a recess (C3) that opens upwards, and the tip of the blow nozzle has a protrusion that fits into the recess and positions the cap (C)
Use of calcium phosphate or calcium hydroxy phosphate particles in combination with at least one compound capable of reducing local subcutaneous fat in the cosmetic treatment of gynoid lipodystrophy, wherein said at least one compound capable of reducing local subcutaneous fat is polidocanol.
A composition for separating a C 1 to C 4 carboxylic acid from water, the composition comprising: (a) a quaternary phosphonium carboxylate salt; (b) a non-ionic organic solvent selected from the group consisting of carboxylic acids having 4 to 20 carbon atoms, ethers, esters, ketones, aromatic hydrocarbons, chlorinated hydrocarbons, and nitriles; (c) a C 1 to C 4 carboxylic acid; and (d) water wherein the non-ionic organic solvent is not the extract, and wherein the carboxylate salt has the general formula 1: wherein R 1 , R 2 , R 3 and R 4 are each independently a C 1 to C 26 hydrocarbyl group, provided that R 1 , R 2 , R 3 , and R 4 collectively have a total of at least 24 carbon atoms; and R 5 is hydrogen or a C 1 to C 24 non-aromatic hydrocarbyl group. (a) a quaternary phosphonium carboxylate salt; (b) a non-ionic organic solvent selected from the group consisting of carboxylic acids having 4 to 20 carbon atoms, ethers, esters, ketones, aromatic hydrocarbons, chlorinated hydrocarbons, and nitriles; (c) a C 1 to C 4 carboxylic acid; and (d) water R 1 , R 2 , R 3 and R 4 are each independently a C 1 to C 26 hydrocarbyl group, provided that R 1 , R 2 , R 3 , and R 4 collectively have a total of at least 24 carbon atoms; and R 5 is hydrogen or a C 1 to C 24 non-aromatic hydrocarbyl group.
A composition, comprising: 15 to 40 parts by weight of a poly(phenylene ether); 20 to 50 parts by weight of a hydrogenated block copolymer of an alkenyl aromatic monomer and a conjugated diene; 5 to 30 parts by weight of a flame retardant comprising 3 to 15 parts by weight of an organophosphate ester having a melting point of 60 to 150 °C; and 0.5 to 5 parts by weight of an ultraviolet absorbing agent; wherein all parts by weight are based on 100 parts by weight total of polymers and flame retardants. 15 to 40 parts by weight of a poly(phenylene ether); 20 to 50 parts by weight of a hydrogenated block copolymer of an alkenyl aromatic monomer and a conjugated diene; 5 to 30 parts by weight of a flame retardant comprising 3 to 15 parts by weight of an organophosphate ester having a melting point of 60 to 150 °C; and 0.5 to 5 parts by weight of an ultraviolet absorbing agent; wherein all parts by weight are based on 100 parts by weight total of polymers and flame retardants.
System comprising: - a heating device comprising at least one heating means supplied by an AC power grid ; - a control module for controlling said heating device ; the system being characterised in that the heating means is supplied via a switching converter rectifying the alternating current of the grid into direct current, the switching converter comprising a rectifier and a chopper , the switching converter being controlled by the control module in accordance at least with descriptive data of a state of said power grid characteristic of a present deficit and/or of a future excess amount of energy of renewable origin within said power grid , so as to adjust the power of the heating means . - a heating device comprising at least one heating means supplied by an AC power grid ; - a control module for controlling said heating device ;
An augmented reality apparatus for guiding collection of hazardous contaminant samples, comprising: an image capture device configured for capturing images of a test surface; a connectivity device; a projector configured to project an augmented reality overlay onto the test surface, the augmented reality overlay including a visual representation of a boundary of a test area comprising a portion of the test surface to be swabbed to collect a sample; at least one computer-readable memory having stored thereon executable instructions; and one or more processors in communication with the image capture device, the connectivity device, the projector and the at least one computer-readable memory, wherein when executed, the instructions cause the system to: cause the projector to project the visual representation of the boundary of the test area onto the test surface, analyze data received from the image capture device to monitor interactions between a user and the test area as the user swabs the test area to collect the sample, identify, programmatically or based on a received user input, completion of sampling, calculate an actual area swabbed by the user based on the monitored interactions, and transmit an indication of the calculated actual area swabbed to a test device. an image capture device configured for capturing images of a test surface; a connectivity device; a projector configured to project an augmented reality overlay onto the test surface, the augmented reality overlay including a visual representation of a boundary of a test area comprising a portion of the test surface to be swabbed to collect a sample; at least one computer-readable memory having stored thereon executable instructions; and one or more processors in communication with the image capture device, the connectivity device, the projector and the at least one computer-readable memory, wherein when executed, the instructions cause the system to: cause the projector to project the visual representation of the boundary of the test area onto the test surface, analyze data received from the image capture device to monitor interactions between a user and the test area as the user swabs the test area to collect the sample, identify, programmatically or based on a received user input, completion of sampling, calculate an actual area swabbed by the user based on the monitored interactions, and transmit an indication of the calculated actual area swabbed to a test device. cause the projector to project the visual representation of the boundary of the test area onto the test surface, analyze data received from the image capture device to monitor interactions between a user and the test area as the user swabs the test area to collect the sample, identify, programmatically or based on a received user input, completion of sampling, calculate an actual area swabbed by the user based on the monitored interactions, and transmit an indication of the calculated actual area swabbed to a test device.
A wound dressing comprising: a substantially flexible wound contact layer supporting one or more sensors configured to measure characteristics of a wound; the one or more sensors comprising an optical sensor array cluster including: an optical sensor; and one or more light sources wherein the one or more light sources comprises a white light emitting diode (LED). a substantially flexible wound contact layer supporting one or more sensors configured to measure characteristics of a wound; the one or more sensors comprising an optical sensor array cluster including: an optical sensor; and one or more light sources wherein the one or more light sources comprises a white light emitting diode (LED). an optical sensor; and one or more light sources wherein the one or more light sources comprises a white light emitting diode (LED).
A rotary head extruder comprising: a twin auger system comprising two co-rotatable augers within a single barrel and a transition piece surrounding a downstream end of the rotatable augers, a die assembly comprising a stator and a rotatable plate with a die gap there between, the stator comprising a stator head and a stationary plate surrounding an outlet end of the stator head downstream from the single barrel, and the rotatable plate comprising a plurality of fingers , wherein the rotatable plate is downstream from the stationary plate, the transition piece within the stator head section, characterized in that the transition piece comprises an upstream portion having a substantially constant thickness along its length, wherein the length spans at least half the length of the transition piece, and wherein the downstream end of the transition piece comprises a funnel-like shape that slopes out to a conical mouth with a wider opening at its most downstream end. a twin auger system comprising two co-rotatable augers within a single barrel and a transition piece surrounding a downstream end of the rotatable augers, a die assembly comprising a stator and a rotatable plate with a die gap there between, the stator comprising a stator head and a stationary plate surrounding an outlet end of the stator head downstream from the single barrel, and the rotatable plate comprising a plurality of fingers , wherein the rotatable plate is downstream from the stationary plate, the transition piece within the stator head section, characterized in that the transition piece comprises an upstream portion having a substantially constant thickness along its length, wherein the length spans at least half the length of the transition piece, and wherein the downstream end of the transition piece comprises a funnel-like shape that slopes out to a conical mouth with a wider opening at its most downstream end.
A method for adjusting brake pressures of a motor vehicle , wherein a control unit controls a pressure control valve having an inlet valve for admitting air to and having an outlet valve for releasing air from the brake pressure line in each case controlled by the pressure control valve taking into account determined dynamic state variables of the wheels to be braked, wherein the engine timing (tA) of the outlet valve are determined as a function of the control of the inlet valve , characterized in that the engine timing (tA) of the outlet valve is determined as a function of the engine timing (tE) of the inlet valve and wherein, during a braking operation, a correction factor is determined, with which the engine timing (tE) of the inlet valve is weighted for determining the engine timing (tA) of the outlet valve .