mhurhangee/ep-ind-claims huggingface dataset:
A food processor comprising: a receptacle configured to receive processed food; a feed tube configured to receive a food substrate for processing and in communication with the receptacle to at least partially define a food processing path from the feed tube to the receptacle; a cutting tool configured for rotation through the food processing path to cut the food substrate as it passes through the food processing path, the cutting tool including first and second cutting assemblies (51, 52) adapted to make first and second cuts in the food substrate; a drive motor coupled to an output shaft disposed through the receptacle, the output shaft operably coupled to the cutting tool to rotate the cutting tool through the food processing path wherein the first cutting assembly of the cutting tool is configured to cut the food substrate along a first axis (z), and further wherein the second cutting assembly is configured to cut the food substrate along a second axis (x) that is substantially perpendicular to the first axis (z), characterized in that the food processor further comprises a dicing tool having a plurality of generally parallel spaced-apart dicing elements disposed within the food processing path, wherein the dicing tool is disposed between the cutting tool and the receptacle and adapted to make a single third cut in the food substrate to dice the food substrate cut by the cutting tool. a receptacle configured to receive processed food; a feed tube configured to receive a food substrate for processing and in communication with the receptacle to at least partially define a food processing path from the feed tube to the receptacle; a cutting tool configured for rotation through the food processing path to cut the food substrate as it passes through the food processing path, the cutting tool including first and second cutting assemblies (51, 52) adapted to make first and second cuts in the food substrate; a drive motor coupled to an output shaft disposed through the receptacle, the output shaft operably coupled to the cutting tool to rotate the cutting tool through the food processing path wherein the first cutting assembly of the cutting tool is configured to cut the food substrate along a first axis (z), and further wherein the second cutting assembly is configured to cut the food substrate along a second axis (x) that is substantially perpendicular to the first axis (z), characterized in that the food processor further comprises a dicing tool having a plurality of generally parallel spaced-apart dicing elements disposed within the food processing path, wherein the dicing tool is disposed between the cutting tool and the receptacle and adapted to make a single third cut in the food substrate to dice the food substrate cut by the cutting tool.
A flight control system for a rotary wing aircraft comprising a main rotor system and an elevator control system, the flight control system comprising: a flight control computer configured to interface with the main rotor system and the elevator control system, the flight control computer comprising processing circuitry configured to execute control logic comprising: an inverse plant model that produces a main rotor feed forward command based on a pitch rate command; a load alleviation control, LAC, filter configured to reduce loads on the main rotor system and produce an elevator command for the elevator control system; a transformed elevator command, TEC, filter that produces a main rotor pitch adjustment command based on the elevator command; and a main rotor command generator that generates an augmented main rotor feed forward command for the main rotor system based on the main rotor feed forward command and the main rotor pitch adjustment command. a flight control computer configured to interface with the main rotor system and the elevator control system, the flight control computer comprising processing circuitry configured to execute control logic comprising: an inverse plant model that produces a main rotor feed forward command based on a pitch rate command; a load alleviation control, LAC, filter configured to reduce loads on the main rotor system and produce an elevator command for the elevator control system; a transformed elevator command, TEC, filter that produces a main rotor pitch adjustment command based on the elevator command; and a main rotor command generator that generates an augmented main rotor feed forward command for the main rotor system based on the main rotor feed forward command and the main rotor pitch adjustment command. an inverse plant model that produces a main rotor feed forward command based on a pitch rate command; a load alleviation control, LAC, filter configured to reduce loads on the main rotor system and produce an elevator command for the elevator control system; a transformed elevator command, TEC, filter that produces a main rotor pitch adjustment command based on the elevator command; and a main rotor command generator that generates an augmented main rotor feed forward command for the main rotor system based on the main rotor feed forward command and the main rotor pitch adjustment command.
A method performed by a wireless device, wherein the wireless device is configured with access information comprising Random Access Channel configuration and separated system information associated with at least one of the wireless device and one or more wireless communication networks to which the wireless device is connectable, the method comprising: - determining a device hash code based on the configured system information in the wireless device, - transmitting a random access preamble to the network node, the method characterized in comprising: - receiving a random access response from the network node coded using a network hash code associated with configured system information in the network node, - attempting to decode the received random access response using the device hash code, the method comprising when the attempt to decode fails: - determining that the configured system information in the wireless device needs to be updated. - determining a device hash code based on the configured system information in the wireless device, - transmitting a random access preamble to the network node, the method characterized in comprising: - receiving a random access response from the network node coded using a network hash code associated with configured system information in the network node, - attempting to decode the received random access response using the device hash code, the method comprising when the attempt to decode fails: - determining that the configured system information in the wireless device needs to be updated. - receiving a random access response from the network node coded using a network hash code associated with configured system information in the network node, - attempting to decode the received random access response using the device hash code, - determining that the configured system information in the wireless device needs to be updated.
Roller shutter operating drive to initiate a positive movement on a roller shutter slat pack, with a hollow shaft which is connected in each case rotatably, at opposite end sections, to a bearing body (8, 9), and which is designed to roll up the roller shutter slat pack using a drive unit assigned to the hollow shaft, wherein the drive unit is coupled to a drive shaft which carries a winding disc, to which is attached an operating means for motion coupling with the roller shutter slat pack, together with a spring assembly arranged between the hollow shaft and the drive shaft and designed for a force transmission between the hollow shaft and the drive shaft, and wherein the drive unit is in the form of an electrical drive motor which includes a stator and a rotor mounted rotatably in the stator, wherein the stator is connected non-rotatably to one of the bearing bodies and the rotor is coupled to the drive shaft, characterised in that the drive unit includes a sensor system to detect a movement relative to the stator of the hollow shaft which encompasses the stator at least partially.
An apparatus for sealing a puncture through a vessel wall comprising: a positioning assembly including a positioning element positioned at a distal portion of the positioning assembly and a sealant disposed at a distal portion of the positioning assembly, the positioning assembly including a sealant sleeve, the sealant sleeve covering the sealant when the positioning assembly is in a first position; a sheath releasably engaged with the positioning assembly, wherein the sheath comprises a sheath hub at its proximal end; and a support member axially advanceable along the positioning assembly to contact the sealant, characterized in that the sheath hub retains the sealant sleeve when the positioning assembly is advanced from the first position into the sheath in a distal direction to transfer the sealant from the sealant sleeve to the sheath and thereby exposing the sealant and support member within the sheath, wherein further advancement of the positioning assembly distally causes the support member to direct the sealant distally through the sheath. a positioning assembly including a positioning element positioned at a distal portion of the positioning assembly and a sealant disposed at a distal portion of the positioning assembly, the positioning assembly including a sealant sleeve, the sealant sleeve covering the sealant when the positioning assembly is in a first position; a sheath releasably engaged with the positioning assembly, wherein the sheath comprises a sheath hub at its proximal end; and a support member axially advanceable along the positioning assembly to contact the sealant, characterized in that the sheath hub retains the sealant sleeve when the positioning assembly is advanced from the first position into the sheath in a distal direction to transfer the sealant from the sealant sleeve to the sheath and thereby exposing the sealant and support member within the sheath, wherein further advancement of the positioning assembly distally causes the support member to direct the sealant distally through the sheath.
A belt feeder for separating a plurality of stacked, substantially flat products with - a drive, - a separating device and - an outlet device, wherein the separating device has at least one separating belt and at least one separating roller, which are arranged with respect to each other and hinged by the drive in such a way that individual products are transferred between the separating belt and the separating roller through into the outlet device, wherein the outlet device has at least one upper outlet extension with at least one upper outlet belt and a lower outlet extension with at least one lower outlet belt which are arranged with respect to each other and hinged by the drive in such a way that the separated product is conveyed further between the belts (72, 73), characterized in that the upper outlet extension is capable of being folded down. - a drive, - a separating device and - an outlet device,
Acoustic absorber, having - a carrier which comprises a plurality of recesses; as well as - a coating of the carrier which is formed from a lacquer and covers the recesses, characterized in that the portions of the coating which cover the recesses realize in each case at least two segments which are separated from one another by means of an opening. - a carrier which comprises a plurality of recesses; as well as - a coating of the carrier which is formed from a lacquer and covers the recesses,
Adhesive composition comprising: • at least one starch and/or at least one starch derivative, in an amount of 5% w/w to 60% w/w, of the overall adhesive composition; • at least one solvent, said solvent preferably comprising or consisting of water, in an amount of 30% w/w to 95% w/w, of the overall adhesive composition; • microfibrillated cellulose in an amount of 0.001% w/w to 10% w/w, preferably 0.01% w/w to 10% w/w, of the overall adhesive composition, • alkaline, preferably alkali hydroxide, further preferably NaOH, in a total amount, that is from 0.05% w/w to 0.8% w/w, preferably 0.1% w/w to 0.5%, w/w further preferably from 0.1.% w/w to 0.3%, w/w, of the overall adhesive composition and/or in a total amount of 0.1% w/w to 2.7% w/w, preferably 0.1% w/w to 2.2% w/w, preferably 0.3% w/w to 1.5%, w/w further preferably 0.3% w/w to 1.3% w/w, as measured relative to the overall amount of starch in the overall adhesive composition. • at least one starch and/or at least one starch derivative, in an amount of 5% w/w to 60% w/w, of the overall adhesive composition; • at least one solvent, said solvent preferably comprising or consisting of water, in an amount of 30% w/w to 95% w/w, of the overall adhesive composition; • microfibrillated cellulose in an amount of 0.001% w/w to 10% w/w, preferably 0.01% w/w to 10% w/w, of the overall adhesive composition, • alkaline, preferably alkali hydroxide, further preferably NaOH, in a total amount, that is from 0.05% w/w to 0.8% w/w, preferably 0.1% w/w to 0.5%, w/w further preferably from 0.1.% w/w to 0.3%, w/w, of the overall adhesive composition and/or in a total amount of 0.1% w/w to 2.7% w/w, preferably 0.1% w/w to 2.2% w/w, preferably 0.3% w/w to 1.5%, w/w further preferably 0.3% w/w to 1.3% w/w, as measured relative to the overall amount of starch in the overall adhesive composition.
Method for operating a turning device, - wherein the turning device has a first turning station with a rotatable first workpiece spindle for receiving a lens blank (100a, 100b, 100c, 100d, 100e) and a first turning tool for machining a received lens blank (100a, 100b, 100c, 100d, 100e), - wherein the turning device has at least a second turning station with a rotatable second workpiece spindle for receiving a second lens blank (100a, 100b, 100c, 100d, 100e) and a second turning tool for machining a received second lens blank (100a, 100b, 100c, 100d, 100e), - wherein each turning tool (53a, 53b) has its own fast tool servomotor (75a, 75b) in each case, with which the feed depth can be changed relative to an assigned workpiece spindle (52a, 52b), characterised by the following steps: a) Loading a first and a second lens blank (100a,100b) into the workpiece spindles (52a, 52b), b) Simultaneous machining of the first and the second lens blank (100a, 100b) with the turning tools (53a, 53b), wherein the control electronics synchronise the drive signals (S1a, S1b, S2, S3, S4a, S4b) such that the drive signals (S4a, S4b) for the fast tool servomotors (75a, 75b) bring about an at least time-related or phased counter-rotating operation of the fast tool servomotors (75a, 75b), for the purpose of vibration damping. - wherein the turning device has a first turning station with a rotatable first workpiece spindle for receiving a lens blank (100a, 100b, 100c, 100d, 100e) and a first turning tool for machining a received lens blank (100a, 100b, 100c, 100d, 100e), - wherein the turning device has at least a second turning station with a rotatable second workpiece spindle for receiving a second lens blank (100a, 100b, 100c, 100d, 100e) and a second turning tool for machining a received second lens blank (100a, 100b, 100c, 100d, 100e), - wherein each turning tool (53a, 53b) has its own fast tool servomotor (75a, 75b) in each case, with which the feed depth can be changed relative to an assigned workpiece spindle (52a, 52b), a) Loading a first and a second lens blank (100a,100b) into the workpiece spindles (52a, 52b), b) Simultaneous machining of the first and the second lens blank (100a, 100b) with the turning tools (53a, 53b), wherein the control electronics synchronise the drive signals (S1a, S1b, S2, S3, S4a, S4b) such that the drive signals (S4a, S4b) for the fast tool servomotors (75a, 75b) bring about an at least time-related or phased counter-rotating operation of the fast tool servomotors (75a, 75b), for the purpose of vibration damping.
An airbag device which is installed in a vehicle and which includes a bag-like cushion that inflates and deploys in front of a seat, the cushion including: an inner inflating section which convexly inflates toward the rear of the vehicle and which restrains the head of an occupant from the front of the vehicle; at least one protrusion (124, 126) which is provided to the side of the inner inflating section in a vehicle width direction and which is capable of inflating so as to protrude toward the rear of the vehicle; and at least one outer inflating section (160, 162) which is provided between the inner inflating section and the protrusion (124, 126) characterized in that the outer inflation section (160, 162) inflates convexly toward the rear of the vehicle within a smaller range than an expansion range of the inner inflating section and the protrusion (124, 126), such that a curvature radius of the outer inflating section (160, 162) when inflating is smaller than curvature radii of the inner inflating section and the protrusion (124, 126). an inner inflating section which convexly inflates toward the rear of the vehicle and which restrains the head of an occupant from the front of the vehicle; at least one protrusion (124, 126) which is provided to the side of the inner inflating section in a vehicle width direction and which is capable of inflating so as to protrude toward the rear of the vehicle; and at least one outer inflating section (160, 162) which is provided between the inner inflating section and the protrusion (124, 126) characterized in that the outer inflation section (160, 162) inflates convexly toward the rear of the vehicle within a smaller range than an expansion range of the inner inflating section and the protrusion (124, 126), such that a curvature radius of the outer inflating section (160, 162) when inflating is smaller than curvature radii of the inner inflating section and the protrusion (124, 126).
A method comprising: receiving, by a user equipment (102, 200), during communication between network equipment and the user equipment (102, 200), a message in at least one subframe of a plurality of subframes, each of the plurality of subframes having one of a first transmission bandwidth configuration and a second transmission bandwidth configuration, wherein the message indicates a transmission bandwidth configuration for a control region in at least one of the first transmission bandwidth configuration and the second transmission bandwidth configuration for a plurality of subsequent subframes, wherein the transmission bandwidth configuration of a subsequent subframe of one or both of an uplink channel or a downlink channel is adjusted to create an effective guard band between the first transmission bandwidth configuration and the second transmission bandwidth configuration; and receiving, by the user equipment (102, 200), at least one of the plurality of subframes having the control region of the transmission bandwidth configuration indicated by the message. receiving, by a user equipment (102, 200), during communication between network equipment and the user equipment (102, 200), a message in at least one subframe of a plurality of subframes, each of the plurality of subframes having one of a first transmission bandwidth configuration and a second transmission bandwidth configuration, wherein the message indicates a transmission bandwidth configuration for a control region in at least one of the first transmission bandwidth configuration and the second transmission bandwidth configuration for a plurality of subsequent subframes, wherein the transmission bandwidth configuration of a subsequent subframe of one or both of an uplink channel or a downlink channel is adjusted to create an effective guard band between the first transmission bandwidth configuration and the second transmission bandwidth configuration; and receiving, by the user equipment (102, 200), at least one of the plurality of subframes having the control region of the transmission bandwidth configuration indicated by the message.
Connector assembly for coupling a tube to a base of a catheter device, the connector assembly comprising: a connector element having a channel and being configured to be coupled at a first end to the tube, a revolving lock having an opening for accommodating the connector element and being configured to engage with the connector element thereby enabling a free rotation around a rotation axis, a hub having a tubular channel and being configured to be attached to the base, wherein a second end of the connector element is configured to be at least partially inserted into the tubular channel of the hub, wherein the revolving lock is configured to be releasably locked with the hub, and wherein the rotation of the connector element is configured to be decoupled from the locking mechanism between the revolving lock and the hub, characterized in that the locking mechanism between the revolving lock and the hub comprises at least one thread element (31, 20) on an outer surface of the hub and on an inner surface of the revolving lock. a connector element having a channel and being configured to be coupled at a first end to the tube, a revolving lock having an opening for accommodating the connector element and being configured to engage with the connector element thereby enabling a free rotation around a rotation axis, a hub having a tubular channel and being configured to be attached to the base, wherein a second end of the connector element is configured to be at least partially inserted into the tubular channel of the hub, wherein the revolving lock is configured to be releasably locked with the hub, and wherein the rotation of the connector element is configured to be decoupled from the locking mechanism between the revolving lock and the hub, characterized in that the locking mechanism between the revolving lock and the hub comprises at least one thread element (31, 20) on an outer surface of the hub and on an inner surface of the revolving lock.
A bi-folded fluid-absorbent article comprising an upper liquid-pervious layer, a lower liquid-impervious layer, a fluid-absorbent core between and comprising at least 60% by weight of fluid-absorbent polymer particles and not more than 40% by weight of cellulose based fibers, based on the sum of fluid-absorbent polymer particles and cellulose based fibers, and an acquisition-distribution layer between and comprising at least 90% by weight of synthetic non-cellulose based fibers and not more than 10% by weight of cellulose based fibers, based on the sum of synthetic non-cellulose based fibers and cellulose based fibers, wherein the acquisition-distribution layer is, in a longitudinal direction, asymmetrically positioned on the fluid-absorbent core, wherein the distance between the centres of the fluid absorbent core and the acquisition-distribution layer is from 5 to 20% of the total length of the fluid-absorbent core in the longitudinal direction and the thickness of the acquisition-distribution layer is not more than 60% of the thickness of the fluid-absorbent core and the thickness deviation of the bifolded fluid-absorbent article in the longitudinal direction is less than 10%; and wherein the article is folded such that each longitudinal side is folded inward, then the article is folded once at the centre such that the article overlaps itself to form a rectangular shape. an upper liquid-pervious layer, a lower liquid-impervious layer, a fluid-absorbent core between and comprising at least 60% by weight of fluid-absorbent polymer particles and not more than 40% by weight of cellulose based fibers, based on the sum of fluid-absorbent polymer particles and cellulose based fibers, and an acquisition-distribution layer between and comprising at least 90% by weight of synthetic non-cellulose based fibers and not more than 10% by weight of cellulose based fibers, based on the sum of synthetic non-cellulose based fibers and cellulose based fibers,