mhurhangee/ep-ind-claims huggingface dataset:
A MEMS sensor for measuring a force, comprising: a proof mass located within a MEMS layer of the MEMS sensor and comprising a proof mass planar surface; an electrode comprising an electrode planar surface to form a first capacitor with the proof mass, wherein the electrode planar surface faces the proof mass planar surface to form the first capacitor, wherein the proof mass is caused to oscillate according to a drive motion, and wherein an overlap of the facing portions of the electrode planar surface and the proof mass planar surface changes during the drive motion; and processing circuitry configured to receive a sense signal from the first capacitor, the sense signal including a force signal based on a displacement of the proof mass normal to the electrode planar surface in response to the force and an overlap signal generated due to a change in the overlap, measure a magnitude of the overlap signal from the sense signal, receive a force signal based on a movement of the proof mass orthogonal to the drive motion, and calculate a force based on the force signal and the magnitude of the signal generated based on the change in the overlap. a proof mass located within a MEMS layer of the MEMS sensor and comprising a proof mass planar surface; an electrode comprising an electrode planar surface to form a first capacitor with the proof mass, wherein the electrode planar surface faces the proof mass planar surface to form the first capacitor, wherein the proof mass is caused to oscillate according to a drive motion, and wherein an overlap of the facing portions of the electrode planar surface and the proof mass planar surface changes during the drive motion; and processing circuitry configured to receive a sense signal from the first capacitor, the sense signal including a force signal based on a displacement of the proof mass normal to the electrode planar surface in response to the force and an overlap signal generated due to a change in the overlap, measure a magnitude of the overlap signal from the sense signal, receive a force signal based on a movement of the proof mass orthogonal to the drive motion, and calculate a force based on the force signal and the magnitude of the signal generated based on the change in the overlap.
A data processing method, wherein the method is applied to a switching device in a data center network, and the method comprises: receiving routing information that is corresponding to a specified calculation task and that is sent by a controller, wherein the routing information is used to indicate data forwarding paths between a plurality of computing nodes which are configured to execute the specified calculation task and a target switching device determined by the controller from switching devices configured to connect to the plurality of computing nodes; receiving a combining type that is corresponding to the specified calculation task and that is sent by the controller; combining data reported by the plurality of computing nodes based on the combining type; and sending combined data based on the routing information. receiving routing information that is corresponding to a specified calculation task and that is sent by a controller, wherein the routing information is used to indicate data forwarding paths between a plurality of computing nodes which are configured to execute the specified calculation task and a target switching device determined by the controller from switching devices configured to connect to the plurality of computing nodes; receiving a combining type that is corresponding to the specified calculation task and that is sent by the controller; combining data reported by the plurality of computing nodes based on the combining type; and sending combined data based on the routing information.
A method for producing prestressed concrete parts, which include cast-in-place or formed-in-place fastening devices or installation parts, namely sleepers of prestressed concrete or switches-sleepers of prestressed concrete with means for rail fastening, wherein in at least one molding bed, molded parts are generated by casting, and the molding bed receives a plurality of stressing tendons, furthermore between the molded parts and/or in the end areas of the molding bed, storing boxes or storing plates are inserted, and after hardening of the concrete, the molded parts are removed from the respective molding bed, wherein into the molding bed, bottom plates that are free from fastening devices or installation parts are introduced, or molding beds provided with such bottom plates and representing a trough are inserted, the storing boxes or storing plates are placed depending on the desired length dimensions of the molded part, and the fastening devices or installation parts are fixed in dimensional accuracy on the respective bottom plate by means of permanent magnetic retaining devices (3; 5), characterized in that fixing of the fastening devices, installation parts, storing boxes and/or storing plates is performed by means of switchable permanent magnetic retaining devices, wherein the fastening device is formed as a metallic bead plate having pre-assembled dowels, furthermore, at the predetermined position within the molding bed, a switchable permanent magnet is disposed or inserted in order to fix the bead plate in its position with respect to the molding bed, wherein, prior to re-stressing or de-stressing of the stressing tendons, the permanent magnetic fixation is cancelled such that a position displacement of the bead plate can be performed, whereby a bead crack formation within the molded part is avoidable.
A method of real time monitoring of a fuel flow rate measuring system for an airplane engine fitted with a mass flowmeter of the inductive type that is known per se, the method being characterized in that it consists in evaluating continuously whether at least the following conditions are satisfied: • the signal delivered by said flowmeter is less than a predetermined threshold value (e1,40) representative of a minimum flowrate indicating a zero or nearly zero flowrate; • the engine is running on its own at a speed greater than a predetermined value (e2, e3, 40); and in invalidating the measurement delivered by said flowmeter if said conditions are satisfied simultaneously. • the signal delivered by said flowmeter is less than a predetermined threshold value (e1,40) representative of a minimum flowrate indicating a zero or nearly zero flowrate; • the engine is running on its own at a speed greater than a predetermined value (e2, e3, 40); and
A developer conveying device for an electrostatic image forming apparatus, comprising: a housing with a pair of wall portions (70B, 70C); a developer conveyance path (74a, 74b) extending between the pair of wall portions; and a conveying member (72, 73) rotatably supported on the wall portions and configured to convey developer from one wall portion to the other; wherein the conveying member includes: a spiral member (721, 731) formed by connecting spiral pieces, each forming one spiral turn, in a conveying direction of the developer and including a hollow interior formed by the connected spiral pieces; an inner wall portion (721S, 731S) including a plurality of planar portions which define the hollow interior of the spiral member and are connected at predetermined angles in a circumferential direction of the rotation of the conveying member; and a pair of shaft portions (726, 727, 736, 737) arranged at opposite end parts of the spiral member, rotatably supported on the wall portions and serving as a rotary shaft for the rotation of the conveying member, wherein there is no shaft part between the pair of shaft portions, 727, 736, 737), characterized in that the plurality of planar portions are connected at a plurality of connecting portions in the circumferential direction; and the plurality of connecting portions connect the plurality of planar portions at the same angle. a housing with a pair of wall portions (70B, 70C); a developer conveyance path (74a, 74b) extending between the pair of wall portions; and a conveying member (72, 73) rotatably supported on the wall portions and configured to convey developer from one wall portion to the other; a spiral member (721, 731) formed by connecting spiral pieces, each forming one spiral turn, in a conveying direction of the developer and including a hollow interior formed by the connected spiral pieces; an inner wall portion (721S, 731S) including a plurality of planar portions which define the hollow interior of the spiral member and are connected at predetermined angles in a circumferential direction of the rotation of the conveying member; and a pair of shaft portions (726, 727, 736, 737) arranged at opposite end parts of the spiral member, rotatably supported on the wall portions and serving as a rotary shaft for the rotation of the conveying member, wherein there is no shaft part between the pair of shaft portions, 727, 736, 737),
A method for a mobile station, in a wireless communications network having at least one mobile station, to control the receipt of messages, the method being characterized by comprising: creating a plurality of message response groups, wherein creating each message response group comprises: a) creating a hierarchy of message responses; b) creating a hierarchy of priority groups; c) inserting calling party identities into the priority groups; d) creating a priority group-message response matrix cross-referencing the hierarchy of priority groups to the hierarchy of message responses; the method further comprising, when a message is received from a calling party: identifying the calling party; selecting a message response group in response to factors including the time of day, communication activity level, and manual selection; selecting a message response from the selected message response group in response to the identity of the calling party comprising: a) locating the calling party in a priority group, and b) selecting a message response in response to locating the priority group; the method further comprising: supplying the selected message response. creating a plurality of message response groups, wherein creating each message response group comprises: a) creating a hierarchy of message responses; b) creating a hierarchy of priority groups; c) inserting calling party identities into the priority groups; d) creating a priority group-message response matrix cross-referencing the hierarchy of priority groups to the hierarchy of message responses; the method further comprising, when a message is received from a calling party: identifying the calling party; selecting a message response group in response to factors including the time of day, communication activity level, and manual selection; selecting a message response from the selected message response group in response to the identity of the calling party comprising: a) locating the calling party in a priority group, and b) selecting a message response in response to locating the priority group; the method further comprising: supplying the selected message response. a) creating a hierarchy of message responses; b) creating a hierarchy of priority groups; c) inserting calling party identities into the priority groups; d) creating a priority group-message response matrix cross-referencing the hierarchy of priority groups to the hierarchy of message responses; identifying the calling party; selecting a message response group in response to factors including the time of day, communication activity level, and manual selection; selecting a message response from the selected message response group in response to the identity of the calling party comprising: a) locating the calling party in a priority group, and b) selecting a message response in response to locating the priority group; the method further comprising: supplying the selected message response. a) locating the calling party in a priority group, and b) selecting a message response in response to locating the priority group;
Control device for automatically guiding a vehicle, in particular during a parking process, having an interface to a monitoring unit of a brake operation control device of the vehicle for determining readiness of the driver to brake in such a way that automatic guidance of the vehicle is interrupted if the readiness of a driver to brake is not detected, characterized in that a readiness to brake is detected when a foot of the driver is located in a spatial area above the brake pedal.
A stapling assembly, comprising, a staple cartridge having a plurality of staples disposed therein, the plurality of staples being arranged in staple rows and configured to be deployed into tissue, and the cartridge including a knife slot extending therethrough between the staple rows for receiving a knife to cut tissue along a cut line; an anvil positioned opposite the staple cartridge; and an adjunct (3000, 3020, 3030) configured to be releasably retained on one of the staple cartridge and anvil and configured to be delivered to tissue by deployment of the plurality of staples from the staple cartridge, the adjunct having a first shape, wherein at least one first portion (3002, 3032) of the adjunct is formed from a biocompatible porous polymer material and is configured to exhibit a first expansion behavior in response to receipt of a unit volume of fluid, and at least one second portion (3004, 3034) of the adjunct is formed from a swellable material that is different from the biocompatible porous polymer material and is configured to exhibit a second expansion behavior different from the first expansion behavior in response to receipt of the unit volume of fluid such that the adjunct adopts a second shape that is different from the first shape, and wherein the difference between the first and second expansion behavior is configured to apply different pressures to different portions of tissue having the adjunct stapled thereto. a staple cartridge having a plurality of staples disposed therein, the plurality of staples being arranged in staple rows and configured to be deployed into tissue, and the cartridge including a knife slot extending therethrough between the staple rows for receiving a knife to cut tissue along a cut line; an anvil positioned opposite the staple cartridge; and an adjunct (3000, 3020, 3030) configured to be releasably retained on one of the staple cartridge and anvil and configured to be delivered to tissue by deployment of the plurality of staples from the staple cartridge, the adjunct having a first shape, wherein at least one first portion (3002, 3032) of the adjunct is formed from a biocompatible porous polymer material and is configured to exhibit a first expansion behavior in response to receipt of a unit volume of fluid, and at least one second portion (3004, 3034) of the adjunct is formed from a swellable material that is different from the biocompatible porous polymer material and is configured to exhibit a second expansion behavior different from the first expansion behavior in response to receipt of the unit volume of fluid such that the adjunct adopts a second shape that is different from the first shape, and wherein the difference between the first and second expansion behavior is configured to apply different pressures to different portions of tissue having the adjunct stapled thereto.
A method of preparing a reduced-fat yoghurt, comprising formulating said yoghurt such that it includes a starch; wherein the starch is partially oxidized with hypochlorite and modified by reaction with n-octenyl succinic anhydride to a maximum substitution of 3%, and wherein the n-octenyl succinic anhydride modified starch molecules retain their branched nature and form granules that are 10-100 microns in diameter.
A method of reducing fouling of an ultrafiltration membrane in a process wherein virus particles are removed from an aqueous solution comprising said virus particles and at least one protein, the method comprising the steps of a) adding to said aqueous solution10-200 PPM polysorbate 20 or Triton® X-100, and b) filtering said aqueous solution comprising said 10 to 200 PPM polysorbate 20 or Triton® X-100 through said ultrafiltration membranes, wherein the presence of said 10 to 200 PPM polysorbate 20 or Triton® X-100 in said aqueous solution reduces fouling of said ultrafiltration membrane by at least 50% as compared to not adding said 10 to 200 PPM polysorbate 20 or Triton® X-100 in said aqueous solution, and wherein said step of filtering said aqueous solution is by normal flow filtration. a) adding to said aqueous solution10-200 PPM polysorbate 20 or Triton® X-100, and b) filtering said aqueous solution comprising said 10 to 200 PPM polysorbate 20 or Triton® X-100 through said ultrafiltration membranes,
An electronic cigarette atomizing core, comprising an atomizing cotton, an installation seat of the atomizing cotton, and an ultrasonic atomizing sheet, wherein an atomizing cavity is formed in the middle of the installation seat; the ultrasonic atomizing sheet comprises an upper surface electrode connected to an outer electrode and a lower surface electrode connected to an inner electrode, and characterized in that a first groove and a second groove that are integrally communicated with each other are formed in an upper surface of the installation seat; an air outlet is formed at the top of the first groove and disposed correspondingly to an e-liquid outlet of an e-liquid tank device; a first air inlet is formed at both an end of the first groove close to the atomizing cavity and an end of the second groove close to the atomizing cavity; the first groove is communicated with the second groove by means of the first air inlet thereof; the first air inlet of the second groove is communicated with the atomizing cavity; characterized in that the first air inlet of the first groove is smaller than the first air inlet of the second groove.
Method for ensuring the drilling progress and for protecting the drilling tool when drilling holes in the ground or rock which are made by means of a hammer drill rig having a drilling mast, in which, in order to form an aspiration device for aspirating material which has been dislodged at the bottom of the drillhole, an aspiration hood connected to an aspiration unit via an aspiration hose is arranged on the drilling mast on its side facing the drillhole, characterized in that, during a drilling process, the flow of aspiration air generated in the aspiration hose by means of the aspiration unit is monitored by sensors and, if an interruption of the flow of aspiration air from the drillhole or, if the flow of aspiration air is uninterrupted, the absence of discharged material with the flow of aspiration air is detected here by a processing unit evaluating at least one sensor signal, the outputting of at least one warning signal is activated by the processing unit or/and a control signal is output to at least one actuator designed for this purpose and counteracting seizing of the drilling tool in the bottom of the drillhole.
A method for wireless communication, performed by a user equipment, UE, the method comprising: monitoring a plurality of carriers of a radio frequency, RF, spectrum band according to a discovery reference signals, DRS, configuration, wherein transmissions over the plurality of carriers are subject to a listen-before-talk, LBT, procedure; determining a network reporting measurement based at least in part on measurements of DRS transmitted over one or more of the plurality of carriers according to the DRS configuration, wherein the DRS are transmitted at respective first transmit power levels that are preconfigured for the plurality of carriers; receiving a transmission over a first set of carriers of the plurality of carriers, the transmission including cell-specific reference signals, CRS, and/or channel state information reference signals, CSI-RS, transmitted at respective second transmit power levels, wherein the respective second transmit power levels are dependent on the number of carriers of the first set of transmitted carriers of the transmission and a maximum output power; receiving at least one traffic-to-pilot ratio, TPR, indicator associated with the transmission; and demodulating the transmission based at least in part on measured power levels of the received CRS and/or CSI-RS and the at least one TPR indicator. monitoring a plurality of carriers of a radio frequency, RF, spectrum band according to a discovery reference signals, DRS, configuration, wherein transmissions over the plurality of carriers are subject to a listen-before-talk, LBT, procedure; determining a network reporting measurement based at least in part on measurements of DRS transmitted over one or more of the plurality of carriers according to the DRS configuration, wherein the DRS are transmitted at respective first transmit power levels that are preconfigured for the plurality of carriers; receiving a transmission over a first set of carriers of the plurality of carriers, the transmission including cell-specific reference signals, CRS, and/or channel state information reference signals, CSI-RS, transmitted at respective second transmit power levels, wherein the respective second transmit power levels are dependent on the number of carriers of the first set of transmitted carriers of the transmission and a maximum output power; receiving at least one traffic-to-pilot ratio, TPR, indicator associated with the transmission; and demodulating the transmission based at least in part on measured power levels of the received CRS and/or CSI-RS and the at least one TPR indicator.
A prosthetic heart valve leaflet (140; 1414) comprising a fiber-reinforced structure characterized by: including a plurality of composite fibers (300; 400; 500; 600), each composite fiber comprising a core fiber (310; 410; 510; 610) and a sheathing fiber (320; 420; 520; 620) disposed about the core fiber, the core fiber or the sheathing fiber having a curvilinear shape.
An implantable medical device, comprising a control unit that is connected to a bidirectional radio interface and a magnetic interface, of which the bidirectional radio interface is configured for bidirectional wireless data transmission by means of an electric alternating field between the medical device and an external device and can adopt at least one power-off state and one power-on state, wherein a wireless data transmission is possible only in the power-on state and the radio interface requires no or hardly any energy in the power-off state, and of which the magnetic interface is configured to be able to permanently receive control signals transmitted by means of a magnetic alternating field from an external device, and of which the magnetic interface is also configured to receive a data transmission start signal containing a radio channel identifier and to process said signal in such a way that the magnetic interface or the control unit generates a radio interface power-on signal in response to the receipt of this data transmission start signal, and the bidirectional radio interface is connected at least indirectly to the magnetic interface and is configured, upon receipt of a radio interface power-on signal, to change from the power-off state into the power-on state and then to set up the radio interface for data transmission in a transmission channel identified by the radio channel identifier and to await the receipt of a data packet via the radio interface before the implantable medical device itself sends a data packet via the radio interface.
A fluid formulation of fatty acid monoethanolamides, comprising: (a) 71-76% by weight, based on the fluid formulation, of one or more C8-C22 fatty acid monoethanolamides, (b) 15-17% by weight of water, based on the fluid formulation, and (c) 10-12% by weight, based on the fluid formulation, of one or more hydrotropes, wherein said fluid formulation is homogeneous, pumpable and color stable at a temperature of less than 55°C. (a) 71-76% by weight, based on the fluid formulation, of one or more C8-C22 fatty acid monoethanolamides, (b) 15-17% by weight of water, based on the fluid formulation, and (c) 10-12% by weight, based on the fluid formulation, of one or more hydrotropes,