mhurhangee/ep-ind-claims huggingface dataset:
A laminated structure comprising: - a metal sheet including a thickness T3 from 0.5 mm to 2 mm; - a glass sheet including a thickness T1 of 200 μm or less; and - an adhesive layer attaching the glass sheet to the metal sheet, the adhesive layer including a thickness T2 of 300 μm or less. - a metal sheet including a thickness T3 from 0.5 mm to 2 mm; - a glass sheet including a thickness T1 of 200 μm or less; and - an adhesive layer attaching the glass sheet to the metal sheet, the adhesive layer including a thickness T2 of 300 μm or less.
A drill (10, 110) for metal cutting machining having a central rotation axis defining a longitudinal direction of the drill (10, 110) and around which the drill is rotatable, comprising: - an axially front end, - an axially rear end, - an envelope surface extending between the front end and the rear end, - a shaft extending axially rearward from the front end, - a shank extending axially forward from the rear end - at least one cutting insert (18, 118c, 118p) releasably mounted at the front end, - a first and a second chip flute in the envelope surface of the shaft, - a coolant chamber inside the shank, - a first and second coolant channel extending from the front end of the coolant chamber and terminating at the front end of the drill, the first coolant channel is associated with the first chip flute and the second coolant channel is associated with the second chip flute, characterized in that the coolant chamber comprises a flow control element, which is movable between a neutral position, in which coolant flow is distributed substantially equally to the first and second coolant channels, and an active position, in which the flow control element directs the coolant flow at least mainly to one of said coolant channels (27, 28), and that the flow control element is arranged to move from said neutral position to said active position in response to a flow restriction in one of the chip flutes (25, 26), such that the coolant is directed at least mainly to said one coolant channel (27, 28) associated with the chip flute (25, 26) having a flow restriction. - an axially front end, - an axially rear end, - an envelope surface extending between the front end and the rear end, - a shaft extending axially rearward from the front end, - a shank extending axially forward from the rear end - at least one cutting insert (18, 118c, 118p) releasably mounted at the front end, - a first and a second chip flute in the envelope surface of the shaft, - a coolant chamber inside the shank, - a first and second coolant channel extending from the front end of the coolant chamber and terminating at the front end of the drill, the first coolant channel is associated with the first chip flute and the second coolant channel is associated with the second chip flute,
A multi-component topsheet for an absorbent article, the topsheet comprising: a) a first discrete substrate; b) a second discrete substrate; and c) a third discrete substrate; wherein the second discrete substrate is disposed at least partially intermediate the first discrete substrate and the third discrete substrate; wherein the second discrete substrate is joined to the first discrete substrate and the third discrete substrate; wherein the topsheet has a single layer of substrate in 80% or more of the total area of the topsheet and a dual layer of substrate in 20% or less of the total area of the topsheet; wherein a first dual layer area is formed from an overlap between the first discrete substrate and the second discrete substrate; wherein a second dual layer area is formed from an overlap between the second discrete substrate and the third discrete substrate; wherein the first and second dual layer areas (640, 650) together form the dual layer of substrate; and wherein the second discrete substrate comprises a plurality of recesses and projections, wherein the plurality of recesses and projections together form a first three-dimensional surface on a first side of the second discrete substrate and a second three-dimensional surface on a second side of the substrate, wherein a majority of the projections have, according to the Projection Height Test, a z-dimensional height of between 500 μm and 4000 μm, and wherein a majority of the recesses define an aperture at a location most distal from a top surface of an adjacent projection, a majority of the recesses having, according to the Recess Height Test, a z-directional height of between 500 μm and 2000 μm, measured using the Projection Height Test and the Recess Height Test described in the description. a) a first discrete substrate; b) a second discrete substrate; and c) a third discrete substrate;
A container manufacturing device for manufacturing a resin container, comprising: a preform manufacturing portion for manufacturing a resin preform by molding a thermoplastic resin in a molding die, provided with a molding die and a feeder for supplying a molten thermoplastic resin in a cavity in the molding die, a conveyor for conveying the preform manufactured in the preform manufacturing portion; and a blow molding portion for liquid blow molding the preform in a container of a predetermined shape, provided with a blow molding die and a pressurized liquid feeder for supplying liquid pressurized in the preform conveyed using the conveyor and disposed in the cavity of the blow molding die; wherein the preform manufactured in the preform manufacturing portion is conveyed to the cavity in the blow molding die while maintaining a residual heat state via the conveyor and then liquid blow molded by the blow molding portion, characterized in that the molding die is a compression molding die, and the preform molding portion is adapted for manufacturing the preform by compression molding, and the molding die and the blow molding die are respectively provided with plurality of cavities. a preform manufacturing portion for manufacturing a resin preform by molding a thermoplastic resin in a molding die, provided with a molding die and a feeder for supplying a molten thermoplastic resin in a cavity in the molding die, a conveyor for conveying the preform manufactured in the preform manufacturing portion; and a blow molding portion for liquid blow molding the preform in a container of a predetermined shape, provided with a blow molding die and a pressurized liquid feeder for supplying liquid pressurized in the preform conveyed using the conveyor and disposed in the cavity of the blow molding die; wherein the preform manufactured in the preform manufacturing portion is conveyed to the cavity in the blow molding die while maintaining a residual heat state via the conveyor and then liquid blow molded by the blow molding portion, characterized in that the molding die is a compression molding die, and the preform molding portion is adapted for manufacturing the preform by compression molding, and the molding die and the blow molding die are respectively provided with plurality of cavities.
A viewing system coupled to a motor vehicle having a frame having a roof, at least one support (14.1; 14.2; 15.1; 15.2), and a body with the at least one support (14.1; 14.2; 15.1; 15.2) supporting the roof over the body, the viewing system comprising: a) at least one camera; b) at least one screen; c) at least one coupling bracket; wherein both, the at least one camera and the at least one coupling bracket are coupled to the at least one support (14.1; 14.2; 15.1; 15.2), and wherein the at least one screen is in communication with the at least one camera and displays images presented by the at least one camera, characterized in that the at least one coupling bracket comprises a plurality of prongs (552, 553, 554, 555) configured to be coupled to the at least one screen. a) at least one camera; b) at least one screen; c) at least one coupling bracket;
A connector (1, 201, 301, 401) mounted on a substrate (4, 404), for being fitted to a mating connector (5, 205, 303a, 405), the connector including a housing (12, 2012, 3012, 4012), and a contact (11, 2011, 3011, 4011) which is inserted into and held by the housing, wherein the housing includes a housing main body (121, 2121, 3121, 4121) which is inserted in an inserted portion (4b, 204b, 404b) formed in the substrate, and a top board portion (122, 2122, 3122, 4122) formed on the housing main body, wherein the contact includes a holding portion (111, 2111, 3111, 4111) which is inserted into the housing from a predetermined direction parallel to an upper surface (122b, 2122b, 3122b, 4122b) of the top board portion and is held by the housing, a contact portion (112, 2112, 3112, 4112) which is continuous with the holding portion and extends in a connector fitting direction (D1, D1'), and a connection portion (113, 2113, 3113, 4113) which is continuous with the holding portion and is connected to the substrate, wherein the housing main body has a connector receiving portion (121a, 2121a, 3121a, 4121a) formed therein which accommodates the contact portion and receives the mating connector, wherein the top board portion has a contact accommodating portion (122a, 2122a, 3122a, 4122a) formed therein which communicates with the connector receiving portion and accommodates the holding portion, and wherein the housing main body has a slot (121c, 2121c, 3121c, 4121c) formed therein via which the contact is inserted into the connector receiving portion and the contact accommodating portion, from the predetermined direction, characterized in that the holding portion (111, 2111, 3111, 4111) is planar plate-shaped and is parallel to the upper surface (122b, 2122b, 3122b, 4122b)of the top board portion (122, 2122, 3122, 4122).
Device for surface treatment of an endless material, in particular for surface cleaning, comprising a conveying path for the endless material, in which this is conveyed by the device in the direction of its longitudinal axis, and at least one high pressure nozzle (14, 15) which is adapted to apply a fluid jet to the endless material passing through the conveying path, wherein the high-pressure nozzle (14, 15) is configured such that the fluid jet makes an oscillating movement relative to a nozzle axis that extends from an outlet opening of the high-pressure nozzle (14, 15) to the endless material, wherein the high-pressure nozzle (14, 15) is arranged relative to the conveying path in such a way that the nozzle axis is oriented at an angle α between approximately 25° and approximately 65° and the high-pressure nozzle (14, 15) is arranged relative to the conveying path in such a way that the fluid jet has a movement component which is opposite to the conveying direction of the endless material through the conveying path, characterized in that the high-pressure nozzle (14, 15) is rotatable around the conveying path. characterized in that the high-pressure nozzle (14, 15) is rotatable around the conveying path.
A transformerless step-down power conversion apparatus configured to receive an alternating current signal at first and second input nodes (42, 44) and to provide a low voltage direct current signal from an output node, the power conversion apparatus comprising: a main path comprising a first capacitor wherein a first terminal of the first capacitor is arranged to be in a series current flow path with the first input node; a first current flow path operative to carry current carried by the main path in at least one of a positive going part and a negative going part of the alternating current signal, wherein the first current path comprises a first switch and extends from the second terminal of the first capacitor to the first terminal of a second capacitor acting as an energy store by way of the first switch, the second terminal of the second capacitor being connected to the second input node; a second current flow path operative to carry current carried by the main path in a positive going part and a negative going part of the alternating current signal, wherein the second current path comprises a second switch and extends from the second terminal of the first capacitor to the second input node by way of the second switch; and a switch control circuit for controlling the first and second switches (52, 54); characterized in that the switch control circuit controls both the first and second switches (52, 54) in response to the input alternating current signal and to a voltage stored on the second capacitor such that the first and second switches are not closed at the same time and such that the low voltage direct current signal is regulated to a target voltage value. a main path comprising a first capacitor wherein a first terminal of the first capacitor is arranged to be in a series current flow path with the first input node; a first current flow path operative to carry current carried by the main path in at least one of a positive going part and a negative going part of the alternating current signal, wherein the first current path comprises a first switch and extends from the second terminal of the first capacitor to the first terminal of a second capacitor acting as an energy store by way of the first switch, the second terminal of the second capacitor being connected to the second input node; a second current flow path operative to carry current carried by the main path in a positive going part and a negative going part of the alternating current signal, wherein the second current path comprises a second switch and extends from the second terminal of the first capacitor to the second input node by way of the second switch; and a switch control circuit for controlling the first and second switches (52, 54); characterized in that the switch control circuit controls both the first and second switches (52, 54) in response to the input alternating current signal and to a voltage stored on the second capacitor such that the first and second switches are not closed at the same time and such that the low voltage direct current signal is regulated to a target voltage value.
Electronic module for a chip card, wherein the module comprises at least one first dielectric substrate provided on one of its faces with at least one first microelectronic chip the input/output terminals of which are connected to first connection pads arranged around said first microelectronic chip and at least one second dielectric substrate positioned directly opposite the first substrate and provided on one of its faces with at least one second microelectronic chip, the input/output terminals of which are connected to second connection pads arranged around the said second microelectronic chip, the first and second microelectronic chips (7, 8) being arranged on the faces of the substrates (6, 4) turned towards the interior of the electronic module, characterised in that the module comprises a dielectric spacer of calibrated thickness separating the first and second dielectric substrates (4, 6), said spacer comprising either through holes (22, 22') opening on either side on the inner face of said substrates (6, 4) and in which electrically conductive materials (1a, lb) are arranged, capable of connecting some of the first connection pads to some of the second connection pads, or conductive vias, the ends of which are connected to the first and second electrical connection pads (2a, 2b) by means of an anisotropic conductive adhesive which conducts electrically only in a direction perpendicular to the substrates (4, 6).
A method of wireless communication, comprising: identifying, by an access point, control signaling information for a mini-slot associated with an ultra-reliable low-latency communication, URLLC, transmission within an enhanced mobile broadband, eMBB, slot, wherein the control signaling information includes information that identifies a location of a URLLC control resource within the mini-slot; and transmitting, by the access point, the control signaling information within the eMBB slot. identifying, by an access point, control signaling information for a mini-slot associated with an ultra-reliable low-latency communication, URLLC, transmission within an enhanced mobile broadband, eMBB, slot, wherein the control signaling information includes information that identifies a location of a URLLC control resource within the mini-slot; and transmitting, by the access point, the control signaling information within the eMBB slot.
A computer-implemented method of managing computer macros, comprising: storing code for a macro at a location in an internet-accessible hosted computer system; associating the macro with a registered user of the hosted computer system, and making the macro available to other users of the hosted computer system according to access restrictions identified by the registered user; receiving a request, from an application that is running on a client computer remote from the hosted computer, to execute the macro; executing the macro on the hosted computer system; providing results of executing the macro to the application that is running on the client computer; and automatically providing the results of executing the macro to a plurality of different accounts for a plurality of different users registered with the hosted computer system. storing code for a macro at a location in an internet-accessible hosted computer system; associating the macro with a registered user of the hosted computer system, and making the macro available to other users of the hosted computer system according to access restrictions identified by the registered user; receiving a request, from an application that is running on a client computer remote from the hosted computer, to execute the macro; executing the macro on the hosted computer system; providing results of executing the macro to the application that is running on the client computer; and automatically providing the results of executing the macro to a plurality of different accounts for a plurality of different users registered with the hosted computer system.
A single small volume solid dosage form for oral transmucosal administration to an alert, awake, subject comprising: the combination of from 2 μg to 100 μg of sufentanil, from 50 μg to 1,000 μg of triazolam, and a bioadhesive material, wherein the bioadhesive material adheres the dosage form to the oral mucosa of said subject during the period of drug delivery, and wherein said solid dosage form has a volume of less than 100 μl and a mass of less than 100mg. the combination of from 2 μg to 100 μg of sufentanil, from 50 μg to 1,000 μg of triazolam, and a bioadhesive material, wherein the bioadhesive material adheres the dosage form to the oral mucosa of said subject during the period of drug delivery, and wherein said solid dosage form has a volume of less than 100 μl and a mass of less than 100mg.
Actuator unit for a motor vehicle lock with an actuator and a drive for movement of the actuator, a Bowden cable (2, 3) connected to the actuator and a connecting component (4, 7) for the Bowden cable (2, 3), whereby the connecting component (4, 7) is angular, preferably L-shaped and connected with a leg, in particular with its longer leg with the remaining housing, characterized in that the connecting component (4, 7) acts as a stop to limit the movement of the actuator.
A method of establishing a microbial plug in a hydrocarbon-containing geological formation which has been flooded with water, the method comprising: a) introducing into the formation a microbial inoculum, the microorganisms of which are: (i) in a dormant state, (ii) capable of sporulation, (iii) cellulolytic or hemicellulolytic, (iv) thermophiles, extreme thermophiles or hyperthermophiles, (v) unable to utilise hydrocarbons as a carbon source, and (vi) not indigenous to the hydrocarbon-containing geological formation; b) simultaneously or sequentially introducing into the formation a growth medium which provides a carbon source which can be utilised by the microorganisms introduced in step (a) but not by indigenous microorganisms; c) exposing the inoculum to conditions which enable the microorganisms to enter an active growth phase within water channels in the geological formation; and d) introducing an injection liquid comprising further growth medium as defined in step b) into the formation via an injection well. a) introducing into the formation a microbial inoculum, the microorganisms of which are: (i) in a dormant state, (ii) capable of sporulation, (iii) cellulolytic or hemicellulolytic, (iv) thermophiles, extreme thermophiles or hyperthermophiles, (v) unable to utilise hydrocarbons as a carbon source, and (vi) not indigenous to the hydrocarbon-containing geological formation; (i) in a dormant state, (ii) capable of sporulation, (iii) cellulolytic or hemicellulolytic, (iv) thermophiles, extreme thermophiles or hyperthermophiles, (v) unable to utilise hydrocarbons as a carbon source, and (vi) not indigenous to the hydrocarbon-containing geological formation; b) simultaneously or sequentially introducing into the formation a growth medium which provides a carbon source which can be utilised by the microorganisms introduced in step (a) but not by indigenous microorganisms; c) exposing the inoculum to conditions which enable the microorganisms to enter an active growth phase within water channels in the geological formation; and d) introducing an injection liquid comprising further growth medium as defined in step b) into the formation via an injection well.
A wireless communication method, the method comprising receiving, by a terminal device, configuration information sent by a network device, wherein the configuration information comprises configuration information associated with a first uplink carrier, and the first uplink carrier is one of a plurality of uplink carriers that can be used for the terminal device; receiving, by the terminal device, indication information sent by the network device, wherein the indication information indicates a parameter used to select an uplink carrier during random access, wherein the parameter is used for the terminal device to acquire a DL signal threshold corresponding to an uplink carrier; determining, by the terminal device based on a relationship between a DL signal measurement result and the DL signal threshold, to perform uplink transmission on the first uplink carrier; and performing, by the terminal device, uplink transmission on the first uplink carrier based on the configuration information. receiving, by the terminal device, indication information sent by the network device, wherein the indication information indicates a parameter used to select an uplink carrier during random access, wherein the parameter is used for the terminal device to acquire a DL signal threshold corresponding to an uplink carrier; determining, by the terminal device based on a relationship between a DL signal measurement result and the DL signal threshold, to perform uplink transmission on the first uplink carrier; and performing, by the terminal device, uplink transmission on the first uplink carrier based on the configuration information.
A wheat allergen-binding nucleic acid molecule that binds to a wheat allergen with a dissociation constant of 20 nM or less, comprising the following polynucleotide (a) or (b): (a) a polynucleotide consisting of either of base sequences of SEQ ID NOs: 1 and 2, (b) a polynucleotide that consists of a base sequence with a sequence identity of at least 90% to either of the base sequences of the polynucleotide (a) and binds to the wheat allergen. (a) a polynucleotide consisting of either of base sequences of SEQ ID NOs: 1 and 2, (b) a polynucleotide that consists of a base sequence with a sequence identity of at least 90% to either of the base sequences of the polynucleotide (a) and binds to the wheat allergen.