mhurhangee/patent-ind-claim-en huggingface dataset:
A rectilinear combing machine, comprising a pair of counter-rotating tearing rollers mounted on a first frame which swings with an alternating motion about a first axis (P1), under the control of first motorized transmission means, with respect to a clamp which retains a ribbon (F) of fibers, so as to move said tearing rollers closer to the clamp in order to pinch a protruding head of said ribbon (F), and then move said tearing rollers away from the clamp so as to tear a tuft of fibers from said ribbon (F), said first motorized transmission means comprising a first connecting rod-crank mechanism , which is connected to said frame by means of linkages and is actuated by a first motor which is controlled electronically according to a predetermined mathematical function, characterized in that it comprises adjustment means which can be activated remotely in order to adjust the minimum distance reached by said frame with respect to said clamp during said alternating motion, and in that said adjustment means comprise a support , to which said first motor is fixed, which is pivoted to the structure of the combing machine parallel to the motor axis, and can rotate to predetermined angular positions under the control of an electronically controlled actuator .
Method for operating an internal combustion engine, in particular for load regulation and/or load control in the internal combustion engine, which has: - an intake path and an engine having a number of cylinders (Ai, Bi) and a receiver which is arranged upstream of the cylinders (Ai, Bi), wherein the intake path has: - a charge having a compressor and a bypass for bypassing the charge, and wherein - an engine throttle (DK) is associated with the receiver and a compressor bypass throttle (VP) is associated with the bypass; and in the method, a position of the engine throttle (DK) and/or the compressor bypass throttle (VDPK) is adjusted in accordance with the operation in order to influence a charge fluid, characterised in that - there is associated with the intake path an intake path model, by means of which at least one mass flow and/or state of the charge fluid upstream of the engine is determined on a first slower timescale and on a second more rapid timescale, and, based on the determination result, - the compressor bypass throttle (VDBK) is adjusted in accordance with the engine throttle (DK). - an intake path and an engine having a number of cylinders (Ai, Bi) and a receiver which is arranged upstream of the cylinders (Ai, Bi), wherein - a charge having a compressor and a bypass for bypassing the charge, and wherein - an engine throttle (DK) is associated with the receiver and a compressor bypass throttle (VP) is associated with the bypass; and in the method, a position of the engine throttle (DK) and/or the compressor bypass throttle (VDPK) is adjusted in accordance with the operation in order to influence a charge fluid, characterised in that - there is associated with the intake path an intake path model, by means of which at least one mass flow and/or state of the charge fluid upstream of the engine is determined on a first slower timescale and on a second more rapid timescale, and, based on the determination result, - the compressor bypass throttle (VDBK) is adjusted in accordance with the engine throttle (DK).
A method , performed by an electronic device , for obtaining a speaker-independent keyword model of a keyword designated by a user, suitable for recognizing a keyword in a voice command, the method comprising: receiving at least one sample sound from the user indicative of the keyword; generating a speaker-dependent keyword model for the keyword based on the at least one sample sound; sending , to a server , a request for the speaker-independent keyword model of the keyword in response to generating the speaker-dependent keyword model; and receiving, from the server, the speaker-independent keyword model for detecting the keyword spoken by a plurality of users. receiving at least one sample sound from the user indicative of the keyword; generating a speaker-dependent keyword model for the keyword based on the at least one sample sound; sending , to a server , a request for the speaker-independent keyword model of the keyword in response to generating the speaker-dependent keyword model; and receiving, from the server, the speaker-independent keyword model for detecting the keyword spoken by a plurality of users.
An adhesive application unit having at least one conveyor and at least one bridge provided on said conveyor in order to provide application of adhesive material to the edges of layers used in bed production, characterized by comprising a left spraying head provided on the bridge , a right spraying head provided such that there is a predetermined distance with respect to said left spraying head , a movable spraying head positioned on a first carrier provided on the bridge and configured to at least partially displace between the left spraying head and the right spraying head , the conveyor comprises a left stop provided on the left side of the feeding side , the conveyor comprises a right stop provided on the right side of the feeding side , and at least one sensor is provided for detecting the position of the layer on the conveyor . the conveyor comprises a left stop provided on the left side of the feeding side , the conveyor comprises a right stop provided on the right side of the feeding side , and at least one sensor is provided for detecting the position of the layer on the conveyor .
Use of a minority co-monomer in a polymerization process for reducing the crystallization temperature and the melting temperature of a polyamide resulting from the polymerization of at least one majority monomer, said at least one minority co-monomer being different from said at least one majority monomer and polymerized in a polymerization step according to the same polymerization process as said at least one majority monomer, said at least one minority co-monomer comprising 11-amino-undecanoic acid and/or lauryllactam and/or caprolactam and/or caprolactone and/or at least one of the following diamine.diacid couples: 6.6, 6.10, 6.11, 6.12, 6.14, 6.18, 10.14, 10.18 and/or 10.T, T being terephthalic acid, said at least one minority co-monomer representing from 1% to 7% by mass of the total mixture of said monomer(s) and co-monomer(s), preferably from 1% to 5% by mass of said total mixture, so that the reduction in the crystallization temperature is greater than the reduction in the melting temperature, respectively with respect to the crystallization temperature and the melting temperature of the polyamide resulting from the polymerization of said at least one majority monomer, said melting and melting temperatures crystallization being measured by DSC according to standard ISO 11357-3.
A method of controlling the timing of uplink control information, UCI, in a radio communication between a network node (100; 1000) and a radio device (200; 1100), the method performed by the network node and comprising or triggering: sending , to the radio device, downlink control information, DCI, including a timing indicator for timing uplink control information, UCI, on a physical uplink control channel, PUCCH, wherein the timing is represented by the timing indicator according to a scheme that depends on the PUCCH , and wherein a size of the timing indicator within the DCI is independent of the PUCCH , wherein the scheme depends on a category of the PUCCH, wherein the category for the PUCCH includes a short PUCCH and a long PUCCH , and wherein the timing indicator is interpreted differently in accordance with the scheme such that the timing associated with the timing indicator varies in accordance with the scheme; and receiving , from the radio device (200; 1100), the UCI on the PUCCH according to the timing . sending , to the radio device, downlink control information, DCI, including a timing indicator for timing uplink control information, UCI, on a physical uplink control channel, PUCCH, wherein the timing is represented by the timing indicator according to a scheme that depends on the PUCCH , and wherein a size of the timing indicator within the DCI is independent of the PUCCH , wherein the scheme depends on a category of the PUCCH, wherein the category for the PUCCH includes a short PUCCH and a long PUCCH , and wherein the timing indicator is interpreted differently in accordance with the scheme such that the timing associated with the timing indicator varies in accordance with the scheme; and receiving , from the radio device (200; 1100), the UCI on the PUCCH according to the timing .
A wound closure system comprising: a) an anisotropic wound closure device; and b) a coating composition comprising: a cross-linkable silicone polymer having reactive functionalities; a silica-containing composition; a silicone cross-linking agent; and, a catalyst, wherein said catalyst comprises a platinum tetramethyldivinyl disiloxane diethyl maleate complex having the formula: Pt[(CH 2 = CH)(CH 3 ) 2 Si] 2 O·(COCH = CHCO)(C 2 H 5 O) 2 . a) an anisotropic wound closure device; and b) a coating composition comprising: a cross-linkable silicone polymer having reactive functionalities; a silica-containing composition; a silicone cross-linking agent; and, a catalyst, wherein said catalyst comprises a platinum tetramethyldivinyl disiloxane diethyl maleate complex having the formula: Pt[(CH 2 = CH)(CH 3 ) 2 Si] 2 O·(COCH = CHCO)(C 2 H 5 O) 2 . a cross-linkable silicone polymer having reactive functionalities; a silica-containing composition; a silicone cross-linking agent; and, a catalyst, wherein said catalyst comprises a platinum tetramethyldivinyl disiloxane diethyl maleate complex having the formula: Pt[(CH 2 = CH)(CH 3 ) 2 Si] 2 O·(COCH = CHCO)(C 2 H 5 O) 2 .
A method of a master terminal including at least one subscriber identification module SIM, and at least one radio frequency, RF, module, the method comprising: receiving, from another terminal including at least one SIM and at least one RF module, first information including information on a number of the at least one SIM included in the another terminal and information on a type of the at least one SIM included in the another terminal , second information on the at least one RF module included in the another terminal , and third information on at least one function of the another terminal , wherein the another terminal and the terminal form a wireless network for each other; characterized in that the method further comprises determining information on a connection relationship between one or more SIMs and one or more RF modules based on the first information, the second information, the third information, fourth information on the at least one SIM included in the master terminal and fifth information on the at least on RF module included in the master terminal ; and transmitting, to the another terminal , the information on the connection relationship. receiving, from another terminal including at least one SIM and at least one RF module, first information including information on a number of the at least one SIM included in the another terminal and information on a type of the at least one SIM included in the another terminal , second information on the at least one RF module included in the another terminal , and third information on at least one function of the another terminal , wherein the another terminal and the terminal form a wireless network for each other; characterized in that the method further comprises determining information on a connection relationship between one or more SIMs and one or more RF modules based on the first information, the second information, the third information, fourth information on the at least one SIM included in the master terminal and fifth information on the at least on RF module included in the master terminal ; and transmitting, to the another terminal , the information on the connection relationship.
A pole handle with a hand loop , in particular for a cross-country walking pole, trekking pole, ski pole or Nordic walking pole, having a fastening mechanism which is intended for the hand loop and makes it possible to secure the hand loop with loop strips at variable lengths, wherein the fastening mechanism is arranged in a cut-out in the head region of the pole handle , wherein the fastening mechanism comprises a clamping element which is arranged in the cut-out and is mounted such that it can be rotated about a rotary shaft arranged transversely to a pole-handle axis , wherein the cut-out is configured as a passage opening which is oriented at an acute angle to the pole handle axis , wherein the passage opening has a lower opening which opens towards the outside within or above a rear handle region facing towards a palm of the hand of a user wearing said hand loop and gripping the handle, wherein the upper opening opens upward towards the top of the pole handle , that the clamping element has a lever region which is arranged substantially in the passage opening and through which the rotary shaft passes, and a head region which protrudes upwards out of the cut-out of the handle and has a pressure surface , characterized in that the loop strips are guided through the passage opening, past the lever region , and through a loop opening of the head region of the clamping element , or past the head region of the clamping element , and emerge with their free ends at the top of the pole handle or the loop opening , wherein the clamping element has a latching lug and can be secured in a clamping position in which the loop strips are clamped by force fit and/or form fit between the lever region and a wall of the passage opening or a fixing element , in that the latching lug of the clamping element engages releasably behind a protrusion of the handle head or behind a latching protrusion of the fixing element , and wherein the latching of the clamping position can be released by tilting the clamping element around the rotary shaft , thus releasing the latching lug .
An age-hardenable sterling silver alloy, characterised in that it comprises: - silver (Ag): from 92.5 to 96.8% by weight and balance to 100% by weight; - palladium (Pd): from 0.7 to 1.9% by weight; - sum of zinc (Zn) and indium (In): from 2.5 to 6.8% by weight, wherein Zn and In are both present in the final ready-to-use alloy; - germanium (Ge) and/or silicon (Si), either each one alone or in combination: from 0 to 0.25% by weight; - copper (Cu): from 0 to 3% by weight; - sum of tin (Sn) and gallium (Ga): from 0 to 2% by weight; - aluminium (Al), magnesium (Mg), manganese (Mn), and titanium (Ti), from 0 to 0.2% by weight for each element; - boron (B), iridium (Ir), ruthenium (Ru), rhodium (Rh), cobalt (Co), nickel (Ni), iron (Fe), molybdenum (Mo), vanadium (V) and rhenium (Re), from 0 to 0.1% by weight; - phosphorus (P) and lithium (Li) from 0 to 500 ppm; and - gold (Au) and platinum (Pt), from 0 to 1% by weight. - silver (Ag): from 92.5 to 96.8% by weight and balance to 100% by weight; - palladium (Pd): from 0.7 to 1.9% by weight; - sum of zinc (Zn) and indium (In): from 2.5 to 6.8% by weight, wherein Zn and In are both present in the final ready-to-use alloy; - germanium (Ge) and/or silicon (Si), either each one alone or in combination: from 0 to 0.25% by weight; - copper (Cu): from 0 to 3% by weight; - sum of tin (Sn) and gallium (Ga): from 0 to 2% by weight; - aluminium (Al), magnesium (Mg), manganese (Mn), and titanium (Ti), from 0 to 0.2% by weight for each element; - boron (B), iridium (Ir), ruthenium (Ru), rhodium (Rh), cobalt (Co), nickel (Ni), iron (Fe), molybdenum (Mo), vanadium (V) and rhenium (Re), from 0 to 0.1% by weight; - phosphorus (P) and lithium (Li) from 0 to 500 ppm; and - gold (Au) and platinum (Pt), from 0 to 1% by weight.
A method for manufacturing an electrode which comprises the steps of: (S1) applying electrode slurry containing an electrode active material, a polymer binder and a conductive material dispersed in a solvent to one surface of an electrode current collector; (S2) stacking a polymer film onto the top surface coated with the electrode slurry; (S3) drying the electrode current collector having the polymer film stacked thereon to allow evaporation of the solvent; (S4) rolling the electrode current collector having the polymer film stacked thereon to obtain an electrode; and (S5) removing the polymer film. (S1) applying electrode slurry containing an electrode active material, a polymer binder and a conductive material dispersed in a solvent to one surface of an electrode current collector; (S2) stacking a polymer film onto the top surface coated with the electrode slurry; (S3) drying the electrode current collector having the polymer film stacked thereon to allow evaporation of the solvent; (S4) rolling the electrode current collector having the polymer film stacked thereon to obtain an electrode; and (S5) removing the polymer film.
Dosing mechanism for use in a drug delivery device implementing a dialing mode and a dispensing mode, wherein the dosing mechanism comprises a dose button , a housing and a determination unit comprising a data processing unit, wherein the dose button is activatable by the user for dose dispense causing displacement of an indicating element connected to the housing from a first position to a second position, wherein the dosing mechanism further comprises a drive gear coupled to the dose button , wherein activation of the dose button means movement of the dose button in axial direction relative to the housing , thereby moving the drive gear in axial direction relative to the housing which causes displacement of the indicating element from the first position to the second position, wherein the determination unit is adapted such that it detects the indicating element in its second position and thereby determines that the dosing mechanism is in the dispensing mode, wherein the indicating element is the tip of a lever arm , wherein the lever arm is biased against displacement from the first position to the second position and wherein the determination unit comprises a proximity sensor adapted to detect the indicating element in its second position using electromagnetic radiation provided by a lighting element.
A system for communicating with an offshore subsea system connected to a shore facility by a first communication cable , the system characterized by comprising: a buoyant device adapted for wireless communication with an offshore control facility , a second communication cable adapted for connecting the buoyant device to a subsea connector on the first communication cable , such that the buoyant device is in communication with the shore facility ; and the offshore control facility is in communication with the offshore subsea system via the shore facility . a buoyant device adapted for wireless communication with an offshore control facility , a second communication cable adapted for connecting the buoyant device to a subsea connector on the first communication cable , such that the buoyant device is in communication with the shore facility ; and the offshore control facility is in communication with the offshore subsea system via the shore facility .
A cardboard box assembly device that folds four flaps (Zfb1, Zfb2, Zfb3, Zfb4) provided at edges of an opening in a cardboard box (B) so as to surround the opening, the cardboard box assembly device comprising: a folding unit configured to fold each of the four flaps (Zfb1, Zfb2, Zfb3, Zfb4) in a prescribed sequence and close the opening; a pushing unit configured to push one of the four flaps (Zfb1, Zfb2, Zfb3, Zfb4), that is folded last, inward into the cardboard box (B) as a locking flap (Zfb3), and overlap the locking flap (Zfb3) onto the other flaps (Zfb1, Zfb2, Zfb4); and a drive unit configured to contact the cardboard box (B) and impart a prescribed displacement to the cardboard box (B), wherein the locking flap (Zfb3) and at least one of the other flaps (Zfb1, Zfb2, Zfb4) mutually engage with one another, and the drive unit being further configured to move the locking flap (Zfb3) relative to the other flaps (Zfb1, Zfb2, Zfb4) due to the displacement when the pushing unit pushes the locking flap (Zfb3). a folding unit configured to fold each of the four flaps (Zfb1, Zfb2, Zfb3, Zfb4) in a prescribed sequence and close the opening; a pushing unit configured to push one of the four flaps (Zfb1, Zfb2, Zfb3, Zfb4), that is folded last, inward into the cardboard box (B) as a locking flap (Zfb3), and overlap the locking flap (Zfb3) onto the other flaps (Zfb1, Zfb2, Zfb4); and a drive unit configured to contact the cardboard box (B) and impart a prescribed displacement to the cardboard box (B), wherein the locking flap (Zfb3) and at least one of the other flaps (Zfb1, Zfb2, Zfb4) mutually engage with one another, and the drive unit being further configured to move the locking flap (Zfb3) relative to the other flaps (Zfb1, Zfb2, Zfb4) due to the displacement when the pushing unit pushes the locking flap (Zfb3).
A method for wireless communication in a frame-based equipment, FBE communications system, comprising: determining a base station frame timing for communication initiated by a base station operating as a FBE device over a channel, the base station frame timing defining a duration of each of a plurality of base station-initiated frames and a starting time of the plurality of base station-initiated frames , wherein the plurality of base station-initiated frames comprise respective idle periods; determining a device frame timing for communicating as an initiator device over the channel, an initiator device being capable of initiating communications without a grant scheduling said communications, the device frame timing defining a duration of each of a plurality of device-initiated frames and an offset of the plurality of device-initiated frames relative to the plurality of base station-initiated frames; performing a listen-before-talk, LBT procedure over the channel prior to a starting time of a first device-initiated frame of the plurality of device-initiated frames for an uplink transmission; and transmitting the uplink transmission to the base station within the first device-initiated frame based at least in part on the LBT procedure wherein the uplink transmission at least partially overlaps in time with one of the respective idle periods. determining a base station frame timing for communication initiated by a base station operating as a FBE device over a channel, the base station frame timing defining a duration of each of a plurality of base station-initiated frames and a starting time of the plurality of base station-initiated frames , wherein the plurality of base station-initiated frames comprise respective idle periods; determining a device frame timing for communicating as an initiator device over the channel, an initiator device being capable of initiating communications without a grant scheduling said communications, the device frame timing defining a duration of each of a plurality of device-initiated frames and an offset of the plurality of device-initiated frames relative to the plurality of base station-initiated frames; performing a listen-before-talk, LBT procedure over the channel prior to a starting time of a first device-initiated frame of the plurality of device-initiated frames for an uplink transmission; and transmitting the uplink transmission to the base station within the first device-initiated frame based at least in part on the LBT procedure wherein the uplink transmission at least partially overlaps in time with one of the respective idle periods.