mhurhangee/patent-ind-claim-en huggingface dataset:
A method for generating an electronic signature of a user for an electronic document , wherein a telecommunication terminal of a telecommunication network is assigned to the user, said method comprising the following steps: - establishing a secure Internet session between the telecommunication terminal of the user and a signature server computer system , the user being authenticated to the signature server computer system and gaining access, via the Internet session , to a user memory area of the signature server computer system assigned to said user in order to provide the electronic document to be signed, - receiving a code from the signature server computer system via a separate and/or separately secured side channel by the telecommunication terminal, - transmitting to the signature server computer system, via the secure Internet session, a combination of the code and authentication information of the user in order to release the signature function in the form of a signature PIN, - checking the validity of the combination of the code and authentication information by the signature server computer system in order to release the signature function, and - generating, with the aid of a private key of the user, the electronic signature of the user by a high-security module of the signature server computer system for the electronic document to be signed, the private key of the user for generating the electronic signature being stored in the high-security module. - establishing a secure Internet session between the telecommunication terminal of the user and a signature server computer system , the user being authenticated to the signature server computer system and gaining access, via the Internet session , to a user memory area of the signature server computer system assigned to said user in order to provide the electronic document to be signed, - receiving a code from the signature server computer system via a separate and/or separately secured side channel by the telecommunication terminal, - transmitting to the signature server computer system, via the secure Internet session, a combination of the code and authentication information of the user in order to release the signature function in the form of a signature PIN, - checking the validity of the combination of the code and authentication information by the signature server computer system in order to release the signature function, and - generating, with the aid of a private key of the user, the electronic signature of the user by a high-security module of the signature server computer system for the electronic document to be signed, the private key of the user for generating the electronic signature being stored in the high-security module.
An edible and thermoreversible oleogel comprising an oil, a structuring agent, and a fat, the structuring agent is a distilled monoglyceride of saturated fatty acid having from 12 to 24 carbon atoms containing more than 90% by weight of monoglycerides and the monoglycerides of the saturated fatty acid are at least 40% by weight of monoglycerides of stearic acid and at least 30% by weight of monoglycerides of palmitic acid, characterized in that the edible and thermoreversible oleogel has a profile of fatty acids from 16% to 45% by weight of palmitic acid, from 28% to 50% by weight of oleic acid, from 1% to 10% of stearic acid, from 9%to 35% by weight of linoleic acid, from 0.1% to 7% of alpha-linolenic acid, from 1% to 10% by weight of lauric acid, and from 1% to 3% of myristic acid; and has a complex modulus greater than 0.8 MPa when the sample previously melted at 80°C cools and crystallizes at a speed of 2°C/min up to 0 °C and 30 minutes to 0°C, performing the measurement at 10 Hz and 0,005% of amplitude.
A method performed by a network node for controlling uplink/downlink, UL/DL, switching for half-duplex operation of user equipment, UE , in which UL and DL transmissions occur on different frequencies, the method comprising: determining (S405, S505) a duration of time required for the UE to switch between UL operation and DL operation; determining (S410, S510) a time interval required by the UE to perform a measurement operation; determining a minimum number of subframes required for the measurement operation in the time interval; and controlling (S415) a switching configuration of the UE based on the determined duration of time, the determined time interval, and the minimum number of subframes. determining (S405, S505) a duration of time required for the UE to switch between UL operation and DL operation; determining (S410, S510) a time interval required by the UE to perform a measurement operation; determining a minimum number of subframes required for the measurement operation in the time interval; and controlling (S415) a switching configuration of the UE based on the determined duration of time, the determined time interval, and the minimum number of subframes.
A method for gear shaping a periodic structure, in particular a toothing on a workpiece, wherein the workpiece, continuously rotating around its axis of rotation (C2), is brought into material-removing machining engagement with a toothed shaping tool , which rotates around its axis of rotation (C8) in rolling contact with the workpiece rotation, and, after a working stroke (A-B), the shaping tool is lifted off (B-C) from the workpiece in a lifting direction (A2) and, after a subsequent return stroke (C-D), the shaping tool in the lifted state is reset (D-A) to the workpiece again for the next working stroke, characterised in that a deflection movement (δC8/δA z ) of the shaping tool running transversely to the lifting direction (A2) away from the incoming flank of the workpiece is superimposed on the rolling contact in the return stroke (C-D).
A composition comprising an FMDV antigen, wherein the FMDV antigen is an FMDV-E2 fusion protein, wherein E2 is dihydrolipoyl acetyltransferase of Geobacillus stearothermophilus, wherein the FMDV-E2 fusion protein has the sequence as set forth in SEQ ID NO: 6.
Window assembly having a movable window pane which has a disinfecting inner coating , a drive which moves the window pane between an open position and a closed position, and a sealing arrangement which comprises at least one seal for sealing the window pane , wherein a coupling device is configured to couple the at least one seal in the open position and in the closed position with a non-coated region (12.1, 12.2) of the window pane sealingly and to lift the at least one seal during a movement of the window pane and impositions of the window pane between the open position and the closed position of the window pane .
A viscous material pump , in particular a concrete pump, comprising a chassis and a pump assembly , which is mounted on the chassis and has a pump apparatus for conveying viscous material, a feed hopper for supplying viscous material to the pump apparatus , and/or a delivery pipe into which the viscous material is pumped, wherein the pump apparatus is arranged laterally offset in relation to the longitudinal axis of the chassis, characterised in that the pump assembly bounds the overall width of the viscous material pump on one side laterally to the longitudinal axis of the chassis, preferably on both sides.
Method for adapting a pressure (p) of a hydraulic pump of a traction drive , wherein the traction drive is provided with the hydraulic pump for the purpose of supplying pressure medium to a hydraulic motor , which can be coupled to an output , of the traction drive , wherein the pressure (p) generated by the hydraulic pump can be controlled by influencing an actuation pressure (p a , p b ), wherein the method comprises the following steps: a. calculating a maximum permissible actuation pressure (p amax , p bmax ) taking into account a swept volume (V P ) of the hydraulic pump or a quantity (α P ) representing this swept volume (V P ), the rotation speed (n P ) of the hydraulic pump and a maximum permissible pressure (p max ) of the hydraulic pump ; b. sensing the currently generated pressure (p) of the hydraulic pump ; c. comparing the currently generated pressure (p) of the hydraulic pump with the maximum permissible pressure (p max ); and d. adapting the maximum permissible actuation pressure (p amax , p bmax ) taking into account the difference between the current pressure (p) of the hydraulic pump and the maximum permissible pressure (p max ) by way of a learning factor, which is a parameter of a pump characteristic or a pump characteristic curve or a calculation specification, being corrected, wherein the learning factor is learned in step d., wherein the learning factor is permanently stored in a control device, so that the learned factor will already be available at restart. a. calculating a maximum permissible actuation pressure (p amax , p bmax ) taking into account a swept volume (V P ) of the hydraulic pump or a quantity (α P ) representing this swept volume (V P ), the rotation speed (n P ) of the hydraulic pump and a maximum permissible pressure (p max ) of the hydraulic pump ; b. sensing the currently generated pressure (p) of the hydraulic pump ; c. comparing the currently generated pressure (p) of the hydraulic pump with the maximum permissible pressure (p max ); and d. adapting the maximum permissible actuation pressure (p amax , p bmax ) taking into account the difference between the current pressure (p) of the hydraulic pump and the maximum permissible pressure (p max ) by way of a learning factor, which is a parameter of a pump characteristic or a pump characteristic curve or a calculation specification, being corrected, wherein the learning factor is learned in step d., wherein the learning factor is permanently stored in a control device, so that the learned factor will already be available at restart.
A fluid distribution system comprising: a. a pump connected to a pump variable speed drive , and further connected to a conduit ; b. one or more nodes incorporated in the conduit ; c. one or more node units , each incorporating a valve, and each of the one or more node units being incorporated in the conduit , each of the one or more node units being operable to receive information from at least one of other node units and from one or more external sources, and to process the received information to produce processed information for the purpose of determining if balanced flow in the conduit and line pressure loss at the one or more nodes is achieved and to generate adjustments to generate balanced flow and line pressure loss in the fluid distribution system; d. a return conduit wherein fluid flows directly to the pump ; and said fluid distribution system being operable to maintain balance of flow in the conduit and line pressure loss at each of the one or more nodes after initiation of the fluid distribution system to achieve an efficient energy transfer for heating or cooling within the fluid distribution system devoid of any of the following: pinpoint settings for any pressure value ; pinpoint settings for any exact pump speed; and any manual adjustment of any one or more valves of the one or more node units . a. a pump connected to a pump variable speed drive , and further connected to a conduit ; b. one or more nodes incorporated in the conduit ; c. one or more node units , each incorporating a valve, and each of the one or more node units being incorporated in the conduit , each of the one or more node units being operable to receive information from at least one of other node units and from one or more external sources, and to process the received information to produce processed information for the purpose of determining if balanced flow in the conduit and line pressure loss at the one or more nodes is achieved and to generate adjustments to generate balanced flow and line pressure loss in the fluid distribution system; d. a return conduit wherein fluid flows directly to the pump ; and
A method for preparing a composition comprising highly concentrated antibodies by tangential flow ultrafiltration, wherein the highly concentrated antibodies have a protein concentration of above 200 g/L, wherein the method comprises the steps of: 1) regulating the feed flow rate such that the maximum value of feed pressure applied to the ultrafiltration membrane is 85-100% of the specified maximum feed pressure of the ultrafiltration membrane, wherein the feed flow rate is maintained at 250 LMH (L/m 2 /hour) or higher; and 2) decreasing the feed flow rate to decrease the value of the feed pressure applied to the ultrafiltration membrane after the step , which decreased feed flow rate is maintained at a constant rate of 80 LMH (L/m 2 /hour) or lower; wherein step is transitioned to step when the retentate solution is concentrated to a protein concentration greater than 200 g/L; wherein the antibody preparation is recirculated between step and step through the membrane with the permeate valve closed at a constant flow rate between 10 to 80 LMH (L/m 2 /hour) with the retentate pressure control valve fully open; wherein the method operates with the permeate side open-ended; and wherein the transmembrane pressure (TMP) is controlled at 1.0 bar until the retentate pressure control valve becomes fully open. 1) regulating the feed flow rate such that the maximum value of feed pressure applied to the ultrafiltration membrane is 85-100% of the specified maximum feed pressure of the ultrafiltration membrane, wherein the feed flow rate is maintained at 250 LMH (L/m 2 /hour) or higher; and 2) decreasing the feed flow rate to decrease the value of the feed pressure applied to the ultrafiltration membrane after the step , which decreased feed flow rate is maintained at a constant rate of 80 LMH (L/m 2 /hour) or lower; wherein step is transitioned to step when the retentate solution is concentrated to a protein concentration greater than 200 g/L; wherein the antibody preparation is recirculated between step and step through the membrane with the permeate valve closed at a constant flow rate between 10 to 80 LMH (L/m 2 /hour) with the retentate pressure control valve fully open; wherein the method operates with the permeate side open-ended; and wherein the transmembrane pressure (TMP) is controlled at 1.0 bar until the retentate pressure control valve becomes fully open.
A system for use in cryoablation procedures, comprising a first device (14; 16), a second device comprising, an elongate body having a lumen dimensioned to receive the first device (14; 16) therethrough, the elongate body including a distal region , and a balloon positioned about the distal region and defining an interior in communication with the lumen , wherein the balloon is expandable outwardly from an outer surface of the elongate body , and a first pressure sensor positioned on the distal region of the first device (14; 16) extending distally of the second device when received in the lumen and characterized by a second pressure sensor positioned on the distal region of the second device distally of the balloon. a first device (14; 16), a second device comprising, an elongate body having a lumen dimensioned to receive the first device (14; 16) therethrough, the elongate body including a distal region , and a balloon positioned about the distal region and defining an interior in communication with the lumen , wherein the balloon is expandable outwardly from an outer surface of the elongate body , and an elongate body having a lumen dimensioned to receive the first device (14; 16) therethrough, the elongate body including a distal region , and a balloon positioned about the distal region and defining an interior in communication with the lumen , wherein the balloon is expandable outwardly from an outer surface of the elongate body , and a first pressure sensor positioned on the distal region of the first device (14; 16) extending distally of the second device when received in the lumen and characterized by a second pressure sensor positioned on the distal region of the second device distally of the balloon.
A method of providing an optimal surfactant blend to improve waterflood efficiency, wherein the method is characterized by : selecting candidate surfactant blends based on information of a crude oil and information of an injection fluid, wherein each candidate surfactant blend comprises at least a first surfactant which has a higher relative affinity for the crude oil than for the injection fluid and at least a second surfactant which has a higher relative affinity for the injection fluid than for the crude oil; evaluating the phase behavior of the candidate surfactant blends by blending the candidate surfactant blends with the crude oil and the injection fluid at a reservoir temperature, and selecting surfactant blends that form a Winsor III system having an oil phase, an aqueous phase, and a microemulsion in a separate phase between the oil phase and the aqueous phase; and evaluating the selected surfactant blends in a sand-pack cell or a coreflood unit to select an optimal surfactant blend which achieves at least an additional 10% crude oil recovery after waterflood in a sand pack or coreflood test. selecting candidate surfactant blends based on information of a crude oil and information of an injection fluid, wherein each candidate surfactant blend comprises at least a first surfactant which has a higher relative affinity for the crude oil than for the injection fluid and at least a second surfactant which has a higher relative affinity for the injection fluid than for the crude oil; evaluating the phase behavior of the candidate surfactant blends by blending the candidate surfactant blends with the crude oil and the injection fluid at a reservoir temperature, and selecting surfactant blends that form a Winsor III system having an oil phase, an aqueous phase, and a microemulsion in a separate phase between the oil phase and the aqueous phase; and evaluating the selected surfactant blends in a sand-pack cell or a coreflood unit to select an optimal surfactant blend which achieves at least an additional 10% crude oil recovery after waterflood in a sand pack or coreflood test.
An emulsion composition having different emulsion particle sizes, the emulsion composition comprising macroemulsion particles having a size of 1 μm-100 μm and nanoemulsion particles having a size of 100 nm-900 nm, wherein the macroemulsion particles include amphiphilic anisotropic powder; the amphiphilic anisotropic powder includes a first hydrophilic polymer spheroid and a second hydrophobic polymer spheroid; the first and second polymer spheroids are bound to each other with a structure in which one polymer spheroid at least partially infiltrates the other polymer spheroid; and the first polymer spheroid has a core-shell structure, and the shell has a functional group, wherein the second polymer spheroid and the core of the first polymer spheroid comprise a vinyl polymer, and the shell of the first polymer spheroid comprises a copolymer of a vinyl monomer with a functional group which is siloxane, and wherein the vinyl polymer comprises polystyrene.
A film mold comprising: a first resin layer having a pattern region including a concavo-convex pattern and constituted by a resin composition; a first glass substrate layer constituted by thin film glass and laminated on a surface on an opposite side to a surface on which the pattern region is formed in the first resin layer; and a second resin layer constituted by a resin composition and laminated on a surface on an opposite side to a surface on the first resin layer side of the first glass substrate layer, wherein (i) the first glass substrate layer is formed of a material having a tensile stress of 50 MPa or lower when bent into a state of a curvature radius of 150 mm or smaller, and/or (ii) the thickness of the first glass substrate layer is 200 μm or smaller. a first resin layer having a pattern region including a concavo-convex pattern and constituted by a resin composition; a first glass substrate layer constituted by thin film glass and laminated on a surface on an opposite side to a surface on which the pattern region is formed in the first resin layer; and a second resin layer constituted by a resin composition and laminated on a surface on an opposite side to a surface on the first resin layer side of the first glass substrate layer, wherein (i) the first glass substrate layer is formed of a material having a tensile stress of 50 MPa or lower when bent into a state of a curvature radius of 150 mm or smaller, and/or (ii) the thickness of the first glass substrate layer is 200 μm or smaller. (i) the first glass substrate layer is formed of a material having a tensile stress of 50 MPa or lower when bent into a state of a curvature radius of 150 mm or smaller, and/or (ii) the thickness of the first glass substrate layer is 200 μm or smaller.
A method performed at a wireless device for supporting multiple access networks, the method comprising: - establishing over a first access network a first packet data connection to a packet data network identified by a first packet data network identifier; - performing a registration with an application entity of the packet data network; and - sending over a second access network a request for a second packet data connection to the packet data network identified by a second packet data network identifier, wherein the request comprises i) an identifier of the application entity of the packet data network with which the wireless device has previously registered and ii) an indication for linking the second packet data connection to the first packet data connection. - establishing over a first access network a first packet data connection to a packet data network identified by a first packet data network identifier; - performing a registration with an application entity of the packet data network; and - sending over a second access network a request for a second packet data connection to the packet data network identified by a second packet data network identifier, wherein the request comprises i) an identifier of the application entity of the packet data network with which the wireless device has previously registered and ii) an indication for linking the second packet data connection to the first packet data connection.
A method for managing a plurality of Internet of Things (IoT)-devices associated with a loT device owner and connected to a wireless network, the method comprising: - receiving , by a network operator controller, a list of IoT devices that are scheduled for a firmware update, wherein the list is indicative of respective update data and update procedure for each loT device of the list; - determining , by the network operator controller, at least one network node serving a geographical area covering a respective location of each of the loT devices of the list of devices; - the network operator controller causing caching of the respective update data; - determining an updating schedule indicative of when each loT device is to receive its respective update data, wherein the updating schedule is based on at least one network condition; and - instructing , by the network operator controller, the at least one network node to update the loT devices with the cached respective update data according to the updating schedule and update procedure. - receiving , by a network operator controller, a list of IoT devices that are scheduled for a firmware update, wherein the list is indicative of respective update data and update procedure for each loT device of the list; - determining , by the network operator controller, at least one network node serving a geographical area covering a respective location of each of the loT devices of the list of devices; - the network operator controller causing caching of the respective update data; - determining an updating schedule indicative of when each loT device is to receive its respective update data, wherein the updating schedule is based on at least one network condition; and - instructing , by the network operator controller, the at least one network node to update the loT devices with the cached respective update data according to the updating schedule and update procedure.