mhurhangee/ep-ind-claims huggingface dataset:
A component mounting line, in which multiple component mounting machines are arranged along a conveyance path of a circuit board, and components, being supplied from a feeder setting base of each component mounting machine, are mounted on the circuit board by the multiple component mounting machines, the component mounting line comprising: an automatic exchanging device, moving alongside a front face of the component mounting line in the arrangement direction of the multiple component mounting machines, which sets and/or removes a feeder to and/or from the feeder setting base of each component mounting machine, in which the automatic exchanging device is configured to set and/or remove the feeder by moving to a front of the component mounting machine at which an automatic exchange request for setting and/or removing the feeder is generated, when the automatic exchange request is generated to any of the multiple component mounting machines, characterized in that at each component mounting machine, at least one of the component mounting machine and the feeder setting base is configured to enable an operator to pull out the at least one of the component mounting machine and the feeder setting base toward a front face side of the mounting line in a pull-out operation, and a pull-out operation prohibiting section configured to prohibit the pull-out operation at a predetermined number of component mounting machines, from the component mounting machine facing the automatic exchanging device toward a position of a component mounting machine at which a new automatic exchange request has been generated, when the new automatic exchange request is generated in any of the multiple component mounting machines. an automatic exchanging device, moving alongside a front face of the component mounting line in the arrangement direction of the multiple component mounting machines, which sets and/or removes a feeder to and/or from the feeder setting base of each component mounting machine, in which the automatic exchanging device is configured to set and/or remove the feeder by moving to a front of the component mounting machine at which an automatic exchange request for setting and/or removing the feeder is generated, when the automatic exchange request is generated to any of the multiple component mounting machines, characterized in that at each component mounting machine, at least one of the component mounting machine and the feeder setting base is configured to enable an operator to pull out the at least one of the component mounting machine and the feeder setting base toward a front face side of the mounting line in a pull-out operation, and a pull-out operation prohibiting section configured to prohibit the pull-out operation at a predetermined number of component mounting machines, from the component mounting machine facing the automatic exchanging device toward a position of a component mounting machine at which a new automatic exchange request has been generated, when the new automatic exchange request is generated in any of the multiple component mounting machines.
A computer-implemented method comprising: receiving cardiac electrogram data representing one or more substantially real time electrical signals based on measurements from one or more respective electrodes; selecting at least one subset time interval of one of the electrical signals as a signal of interest either in response to a SOI selection user input entered via a user input device, or based on user-programmed selection data defining one or more anatomical landmarks or predefined anatomical regions; storing in memory SOI data corresponding to each selected SOI, the SOI data including location data identifying a respective spatial location for each selected SOI in relation to anatomical geometry and that programmatically links each selected SOI to a respective anatomical location; based on the stored SOI data, including the location data, quantifying changes between signal characteristics of real time cadiac electrogram signals acquired for one or more respective anatomical locations and the at least one SOI that is associated with each of the respective anatomical locations; and generating an output based on the quantifying to characterize spatially local signal changes with respect to each of the respective anatomical locations. receiving cardiac electrogram data representing one or more substantially real time electrical signals based on measurements from one or more respective electrodes; selecting at least one subset time interval of one of the electrical signals as a signal of interest either in response to a SOI selection user input entered via a user input device, or based on user-programmed selection data defining one or more anatomical landmarks or predefined anatomical regions; storing in memory SOI data corresponding to each selected SOI, the SOI data including location data identifying a respective spatial location for each selected SOI in relation to anatomical geometry and that programmatically links each selected SOI to a respective anatomical location; based on the stored SOI data, including the location data, quantifying changes between signal characteristics of real time cadiac electrogram signals acquired for one or more respective anatomical locations and the at least one SOI that is associated with each of the respective anatomical locations; and generating an output based on the quantifying to characterize spatially local signal changes with respect to each of the respective anatomical locations.
A method of controlling fuel flow in a gas turbine engine, characterised in that the method comprises steps to: a. detect a surge condition of the gas turbine engine; b. set fuel flow demand (W f_D) proportional to compressor discharge pressure (P 30); c. detect actual fuel flow (W f_A); and d. increase the fuel flow demand (W f_D) at a first rate while fuel flow demand (W f_D) is less than a first predefined proportion (k; R 2) of actual fuel flow (W f_A). a. detect a surge condition of the gas turbine engine; b. set fuel flow demand (W f_D) proportional to compressor discharge pressure (P 30); c. detect actual fuel flow (W f_A); and d. increase the fuel flow demand (W f_D) at a first rate while fuel flow demand (W f_D) is less than a first predefined proportion (k; R 2) of actual fuel flow (W f_A).
A core catcher comprising: an inner wall; an outer wall; characterised by: a plurality of membranes disposed between the inner wall and outer wall, the plurality of membranes attached to the inner wall and outer wall at one or more attachment points; and a rotating knob attached to the inner wall or outer wall, the rotating knob configured to rotate the inner wall relative to the outer wall when the rotating knob is attached to the inner wall and to rotate the outer wall relative to the inner wall when the rotating knob is attached to the outer wall. an inner wall; an outer wall; characterised by: a plurality of membranes disposed between the inner wall and outer wall, the plurality of membranes attached to the inner wall and outer wall at one or more attachment points; and a rotating knob attached to the inner wall or outer wall, the rotating knob configured to rotate the inner wall relative to the outer wall when the rotating knob is attached to the inner wall and to rotate the outer wall relative to the inner wall when the rotating knob is attached to the outer wall. a plurality of membranes disposed between the inner wall and outer wall, the plurality of membranes attached to the inner wall and outer wall at one or more attachment points; and a rotating knob attached to the inner wall or outer wall, the rotating knob configured to rotate the inner wall relative to the outer wall when the rotating knob is attached to the inner wall and to rotate the outer wall relative to the inner wall when the rotating knob is attached to the outer wall.
A brake pad (1018, 1118, 1418) comprising: a) a brake pad backing plate (1000, 1100, 1400) having a rotor facing surface with a plurality of piercing members; and b) a friction pad (1008, 1108, 1408) secured to the rotor facing surface, the friction pad comprising a first layer of a first material impaled on the piercing members, and a second layer of a friction material adjacent the first layer, wherein the piercing members pierce only the first layer, wherein the friction material has a different composition from the first material characterized in that the friction material is harder than the first material, and in that the piercing members have a distal curved portion that abuts the second layer, and in that the friction pad (1008, 1108, 1408) comprises two disc-shaped friction pads. a) a brake pad backing plate (1000, 1100, 1400) having a rotor facing surface with a plurality of piercing members; and b) a friction pad (1008, 1108, 1408) secured to the rotor facing surface, the friction pad comprising a first layer of a first material impaled on the piercing members, and a second layer of a friction material adjacent the first layer,
Storage system, in particular work-clothing storage system, comprising at least one storage device (12a; 12b; 12c) at least for storing work clothing (14a; 14b; 14c), comprising at least one wired and/or wireless charging device (16a; 16b; 16c) which is provided for transmitting at least electrical energy to at least one energy storage unit (18a, 20a, 22a, 24a, 26a; 18b, 20b, 22b, 24b, 26b; 18c, 20c, 22c, 24c, 26c) of the work clothing (14a; 14b; 14c), comprising at least one sensor device (28a; 28b; 28c) at least for sensing at least one characteristic variable of the work clothing (14a; 14b; 14c), wherein the charging device (16a; 16b; 16c) is provided for charging different work-clothing items (30a, 32a, 34a, 36a, 38a; 30b, 32b, 34b, 36b, 38b; 30c, 32c, 34c, 36c, 38c; 30c) of the work clothing (14a; 14b; 14c), which can be disposed on the storage device (12a; 12b; 12c), and comprising at least one communication device (60a; 60b; 60c) at least for exchanging electronic data with the work clothing (14a; 14b; 14c), characterized by at least one control and/or regulating device (64a; 64b; 64c) which is provided for setting at least one characteristic variable of the work clothing (14a; 14b; 14c) by means of electronic data exchanged via the communication device (60a; 60b; 60c), wherein the at least one characteristic variable of the work clothing (14a; 14b; 14c) can be set by a centralized service point connected to the communication device, and alternatively the at least one characteristic variable can be set by a wearer of the work clothing (14a; 14b; 14c) by means of an external unit (58a; 58b; 58c) that interacts with the communication device (60a; 60b; 60c).
A configurable common deck system for an original equipment chassis of a vehicle comprising: a support frame configured to attach to the original equipment chassis of the vehicle; and a plurality of decking planks configured to cover the support frame to create a deck; wherein, the deck having a customizable size with a length, a width and a height, characterized in that the configurable common deck system further comprises an integration plate, the integration plate mounted flush to the plurality of decking planks, wherein a top side of the integration plate is flush with a top surface of the deck, wherein the integration plate is configurable for an array of hardware locations and sizes via fully tapped holes, wherein each of the fully tapped holes are reinforced with steel threaded inserts and are located and sized to match a thread size and a pitch that a customer chooses; wherein the integration plate with the fully tapped holes is configured to mount weaponry, wherein a bolt pattern of the weaponry is configured to match the fully tapped holes of the integration plate, wherein the integration plate includes: a circular integration plate with circularly oriented fully tapped holes; a rectangular integration plate with rectangularly oriented fully tapped holes; or combinations thereof. a support frame configured to attach to the original equipment chassis of the vehicle; and a plurality of decking planks configured to cover the support frame to create a deck; wherein, the deck having a customizable size with a length, a width and a height, characterized in that the configurable common deck system further comprises an integration plate, the integration plate mounted flush to the plurality of decking planks, wherein a top side of the integration plate is flush with a top surface of the deck, wherein the integration plate is configurable for an array of hardware locations and sizes via fully tapped holes, wherein each of the fully tapped holes are reinforced with steel threaded inserts and are located and sized to match a thread size and a pitch that a customer chooses; wherein the integration plate with the fully tapped holes is configured to mount weaponry, wherein a bolt pattern of the weaponry is configured to match the fully tapped holes of the integration plate, wherein the integration plate includes: a circular integration plate with circularly oriented fully tapped holes; a rectangular integration plate with rectangularly oriented fully tapped holes; or combinations thereof. a rectangular integration plate with rectangularly oriented fully tapped holes; or combinations thereof.
Shaft power plant for generating electricity by energy conversion of a drain between a headwater and a tailwater in a river, comprising: • at least two power plant modules, each with • a vertical open-top shaft, the shaft top of which forms an inflow plane which is essentially parallel to a bed and extends below the water level of the headwater, and • a turbine-generator unit disposed in the shaft, and • an ecological connection flume between the at least two power plant modules, wherein the connection flume is configured to be a drain of the headwater into the tailwater without generation of electricity by energy conversion, wherein • the connection flume extends from the power plant modules in a direction to the headwater, • an average incline of the connection flume is at least 1:20, preferably at least 1:25, especially preferably at least 1:30, and/or a length of the connection flume is at least a 20-fold, preferably at least a 25-fold, especially preferably a 30-fold, of a drop height between the headwater and the tailwater, and the connection flume ends at the power plant modules. • at least two power plant modules, each with • a vertical open-top shaft, the shaft top of which forms an inflow plane which is essentially parallel to a bed and extends below the water level of the headwater, and • a turbine-generator unit disposed in the shaft, and • a vertical open-top shaft, the shaft top of which forms an inflow plane which is essentially parallel to a bed and extends below the water level of the headwater, and • a turbine-generator unit disposed in the shaft, and • an ecological connection flume between the at least two power plant modules, wherein the connection flume is configured to be a drain of the headwater into the tailwater without generation of electricity by energy conversion, wherein • the connection flume extends from the power plant modules in a direction to the headwater, • an average incline of the connection flume is at least 1:20, preferably at least 1:25, especially preferably at least 1:30, and/or a length of the connection flume is at least a 20-fold, preferably at least a 25-fold, especially preferably a 30-fold, of a drop height between the headwater and the tailwater, and the connection flume ends at the power plant modules.
Circuit breaker device comprising an instantaneous electric power measurement unit, a processing unit, and a relay unit, wherein the instantaneous electric power measurement unit is configured to measure an instantaneous electric power corresponding to an AC voltage between the phase conductor and the neutral conductor and to an AC current flowing through the phase conductor or the neutral conductor, the instantaneous electric power measurement unit being configured to provide the processing unit with a digital signal indicating an instantaneous electric power measured by the instantaneous electric power measurement unit, characterised in that the relay unit is connected in a series connection to an unbalancing resistor, wherein the ends of said series connection are configured to be connected to a phase conductor and to a neutral conductor of a single phase power line, and in that the processing unit is configured to activate the relay unit when said measured instantaneous electric power is higher than a tolerance threshold P TOL for a delay time period T DLY, the activation of the relay unit being such that, when the ends of said series connection are connected to the phase conductor and to the neutral conductor, respectively, and an end is connected upstream of and the other end is connected downstream of a residual current circuit breaker the two branches of which are connected to the phase conductor and to the neutral conductor, it causes a current to flow through the unbalancing resistor and through only one of the two branches of the residual current circuit breaker resulting into an interruption of the residual current circuit breaker.
An array of connecting elements, the array comprising (i) a support structure, and (ii) a plurality of connecting elements, wherein each connecting element comprises a metal substrate having a first joining surface on one side of the substrate and a second joining surface on an opposite side of the substrate, wherein each joining surface (5, 6) comprises hard particles fixed on the metal substrate by a binder layer; wherein each connecting element is associated with at least one holding arm integrally linking the connecting element to at least one of (a) the support structure and (b) one or more other connecting elements. (i) a support structure, and (ii) a plurality of connecting elements, wherein each connecting element comprises a metal substrate having a first joining surface on one side of the substrate and a second joining surface on an opposite side of the substrate, wherein each joining surface (5, 6) comprises hard particles fixed on the metal substrate by a binder layer; (a) the support structure and (b) one or more other connecting elements.
A panic lock for a door or window comprising a case, a translatable bolt supported by a support plate provided with a slot, a translatable latch, a slit into which to insert a key, a cylinder having a pawl that is rotatable by said key for moving said bolt, a rotatable element for driving the latch, a cam present on said rotatable element for driving the latch, characterised in that it comprises a movement receiver and distributor comprising at least one first rotatable plate pivoted on the case, said first plate comprising a first shaped perimeter take-up profile for taking up the movement from said pawl, a second shaped perimeter take-up profile for taking up the movement from said cam, and a drawing organ for drawing the bolt that is slidable in said slot, said slot having an intermediate portion shaped for reversible movement of the bolt by the drawing organ, a first and respectively a second end portion (5b, 5c) shaped for locking the bolt by the drawing organ in extraction and respectively retraction end stroke positions from/into the case, an elastic pushing element being further provided that is pivoted on the case and interacts with said first plate to assist reaching said end stroke positions.
A thrust reverser device comprising at least one cowl movably mounted between a closed position and an open position, said cowl being actuated by at least one actuator adapted to be driven by at least one electric motor, characterized in that at least one electric motor is connected to at least two separate power supplies (7a, 7b, 107a, 107b).
Composition comprising: a titania source comprising: TiO 2 particles; and a solvent mixture comprising: cyclopentanol, cyclohexanol or a mixture thereof; polyethylene glycol, polypropylene glycol, poly(vinyl)alcohol, poly(vinyl)pyrrolidone, ethylcellulose or a mixture thereof; and an N,N-dialkylamide, an alkyl sulfoxide or a mixture thereof. a titania source comprising: TiO 2 particles; and a solvent mixture comprising: cyclopentanol, cyclohexanol or a mixture thereof; polyethylene glycol, polypropylene glycol, poly(vinyl)alcohol, poly(vinyl)pyrrolidone, ethylcellulose or a mixture thereof; and an N,N-dialkylamide, an alkyl sulfoxide or a mixture thereof. cyclopentanol, cyclohexanol or a mixture thereof; polyethylene glycol, polypropylene glycol, poly(vinyl)alcohol, poly(vinyl)pyrrolidone, ethylcellulose or a mixture thereof; and an N,N-dialkylamide, an alkyl sulfoxide or a mixture thereof.
A dental blank in the form of a three-dimensional molded body for producing a dental restoration comprising a preform, wherein the preform has a base surface and a top surface opposite to the base surface as well as a first side surface and at least one further side surface (33B, 33C, 33D), wherein a lumen is formed within the preform, that lumen extends from the base surface in the direction of the cover surface to a point P located between the base surface and the cover surface, wherein the point P being at a distance d1 from the base surface and at a distance d2 from the cover surface, and the ratio d1 to d2 being in the range from 1: 1 to 10: 1, wherein in the blank further comprises a base having a contact surface, wherein the base and the preform being formed in one piece of material and the contact surface being arranged in the plane of the first side surface, characterized in that, the preform being in the form of a frustum of pyramid.
A reconstituted high density lipoprotein (rHDL) formulation comprising an apolipoprotein or fragment thereof; a phospholipid; and a detergent at a level which is about 0.015-0.030 g/g apolipoprotein, wherein the molar ratio of apolipoprotein:phospholipid is in the range 1:20 to 1:100.
A method for performing an uplink transmission to a base station by a user equipment through an unlicensed cell in a wireless communication system, the method comprising: receiving an uplink grant that schedules an uplink transmission in at least one subframe from the base station; and performing the uplink transmission in the at least one subframe using at least one of a first type channel access or a second type channel access, wherein the first type channel access is a Listen Before Talk, LBT, with random back-off with a contention window, CW, of a variable size, wherein the second type channel access is based on an LBT without random back-off, characterized in that performing the uplink transmission comprises performing the uplink transmission using the second type channel access when all of one or more subframes corresponding to the uplink transmission are before a last subframe indicated by a common control channel regardless of a channel access type indicated for the one or more subframes corresponding to the uplink transmission by the uplink grant. receiving an uplink grant that schedules an uplink transmission in at least one subframe from the base station; and performing the uplink transmission in the at least one subframe using at least one of a first type channel access or a second type channel access, wherein the first type channel access is a Listen Before Talk, LBT, with random back-off with a contention window, CW, of a variable size, wherein the second type channel access is based on an LBT without random back-off, characterized in that performing the uplink transmission comprises performing the uplink transmission using the second type channel access when all of one or more subframes corresponding to the uplink transmission are before a last subframe indicated by a common control channel regardless of a channel access type indicated for the one or more subframes corresponding to the uplink transmission by the uplink grant.