mhurhangee/patent-ind-claim-en huggingface dataset:
A packing device for filling fuel elements with a powder through a fill aperture in an outer shell of the fuel element , comprising a stationary base configured to be received on a support surface; a clamp assembly including a body defining a bore therein, the bore being configured to slidably receive a fuel element therein, and an adjustment member configured to exert force on a corresponding fuel element disposed within the bore of the body , wherein the clamp assembly is movable along a vertical axis with respect to the stationary base ; characterised by a vibratory motor affixed to the body of the clamp assembly so that the vibratory motor induces vibration of the clamp assembly ; and a powder reservoir assembly including a powder reservoir , a fill needle in fluid communication with the powder reservoir, and a reservoir support that is adjustably secured to the body of the clamp assembly so that the powder reservoir can be adjusted vertically. a stationary base configured to be received on a support surface; a clamp assembly including a body defining a bore therein, the bore being configured to slidably receive a fuel element therein, and an adjustment member configured to exert force on a corresponding fuel element disposed within the bore of the body , wherein the clamp assembly is movable along a vertical axis with respect to the stationary base ; characterised by a vibratory motor affixed to the body of the clamp assembly so that the vibratory motor induces vibration of the clamp assembly ; and a powder reservoir assembly including a powder reservoir , a fill needle in fluid communication with the powder reservoir, and a reservoir support that is adjustably secured to the body of the clamp assembly so that the powder reservoir can be adjusted vertically.
A sole structure for an article of footwear, the sole structure comprising: a first layer including a first bundle of fibers affixed to a first substrate ; a second layer including a second bundle of fibers affixed to a second substrate ; a traction element having a first portion disposed between the first substrate and the second substrate and a second portion extending from one of the first layer and the second layer; and a resin that is configured to consolidate the first bundle of fibers and the second bundle of fibers and to join together the first layer, the second layer and the traction element to form the sole structure. a first layer including a first bundle of fibers affixed to a first substrate ; a second layer including a second bundle of fibers affixed to a second substrate ; a traction element having a first portion disposed between the first substrate and the second substrate and a second portion extending from one of the first layer and the second layer; and a resin that is configured to consolidate the first bundle of fibers and the second bundle of fibers and to join together the first layer, the second layer and the traction element to form the sole structure.
An airfoil of a turbine blade , the airfoil comprising: a leading edge and a trailing edge ; a pressure sidewall and a suction sidewall both extending between the leading and the trailing edges ; an internal cavity for supplying cooling air; a showerhead of film cooling holes connected to the internal cavity , each film cooling hole having an inlet connected to the internal cavity and a flared diffuser section at an outlet opening onto an external wall surface at the leading edge of the airfoil , and the showerhead of film cooling holes extend from a root of the blade toward the tip in a span-wise direction in at least one row; and characterized in that a plurality of grooves are formed on the external wall surface , each groove of the plurality of grooves interconnecting the outlets of a selected sequential pair of the film cooling holes in the span-wise direction in the at least one row, each groove of the plurality of grooves including a first end at the outlet of one film cooling hole of the selected sequential pair of film cooling holes and a second end at the outlet of the other film cooling hole of the selected sequential pair of film cooling holes . a leading edge and a trailing edge ; a pressure sidewall and a suction sidewall both extending between the leading and the trailing edges ; an internal cavity for supplying cooling air; a showerhead of film cooling holes connected to the internal cavity , each film cooling hole having an inlet connected to the internal cavity and a flared diffuser section at an outlet opening onto an external wall surface at the leading edge of the airfoil , and the showerhead of film cooling holes extend from a root of the blade toward the tip in a span-wise direction in at least one row; and characterized in that a plurality of grooves are formed on the external wall surface , each groove of the plurality of grooves interconnecting the outlets of a selected sequential pair of the film cooling holes in the span-wise direction in the at least one row, each groove of the plurality of grooves including a first end at the outlet of one film cooling hole of the selected sequential pair of film cooling holes and a second end at the outlet of the other film cooling hole of the selected sequential pair of film cooling holes .
Packing process of at least two elements (6; 8; 106; 108; 206; 208) of a structure (4; 104; 204) of a vehicle, including a motor vehicle, the process comprising the following steps: (a) supply or manufacture of a first component ; 106; 206), and a second element (8; 108; 208) covered with glue (12; 112); (c) gluing of the elements ; 8; 106; 108; 206; 208) through glue (12; 112) by attaching the first element (6; 106; 206) and glue (12; 112); characterized in that at least one of the two elements (8; 108; 208) supplied is a sheet and includes a gage (10; 110; 210), the said spacer (10; 110; 210) being conformed in the sheet, the process including one step (b) stalling of the elements ; 8; 106; 108; 206; 208) where the spacer (10; 110; 210) comes into contact with the other of the two elements (6; 106; 206) in such a way as to maintain the first element at a distance (6; 106; 206) glue (12; 112); then at step (c) gluing the spacer (10; 110; 210) is distorted in such a way as to allow the connection between the glue (12; 112) and the first element (6; 106; 206). (a) supply or manufacture of a first component ; 106; 206), and a second element (8; 108; 208) covered with glue (12; 112); (c) gluing of the elements ; 8; 106; 108; 206; 208) through glue (12; 112) by attaching the first element (6; 106; 206) and glue (12; 112); characterized in that at least one of the two elements (8; 108; 208) supplied is a sheet and includes a gage (10; 110; 210), the said spacer (10; 110; 210) being conformed in the sheet, the process including one step (b) stalling of the elements ; 8; 106; 108; 206; 208) where the spacer (10; 110; 210) comes into contact with the other of the two elements (6; 106; 206) in such a way as to maintain the first element at a distance (6; 106; 206) glue (12; 112); then at step (c) gluing the spacer (10; 110; 210) is distorted in such a way as to allow the connection between the glue (12; 112) and the first element (6; 106; 206).
A method comprising: receiving, by a wireless device , an uplink grant comprising a listen-before-talk, LBT, type field indicating at least one of a first LBT type or a second LBT type for a subframe of an unlicensed cell; determining, at least based on uplink transmissions by the wireless device in a preceding adjacent subframe to the subframe, to continue transmitting uplink signals in the subframe without performing the at least one of the first LBT type or the second LBT type for the subframe indicated by the LBT type field; and transmitting the uplink signals in the subframe. receiving, by a wireless device , an uplink grant comprising a listen-before-talk, LBT, type field indicating at least one of a first LBT type or a second LBT type for a subframe of an unlicensed cell; determining, at least based on uplink transmissions by the wireless device in a preceding adjacent subframe to the subframe, to continue transmitting uplink signals in the subframe without performing the at least one of the first LBT type or the second LBT type for the subframe indicated by the LBT type field; and transmitting the uplink signals in the subframe.
A method for Pyramid Vector Quantizer, PVQ, shape search, performed by an encoder, the PVQ taking a target vector x as input vector and deriving a vector y by iteratively adding unit pulses in an inner dimension search loop, the method being characterized by: before entering a next inner dimension search loop for unit pulse addition: - determining , based on a maximum absolute value, xabSmax, of the input vector, x, a possible upshift, in a bit word, of a next inner dimension search loop's accumulated in-loop correlation value, corr xy , between the input vector x and the vector y. - determining , based on a maximum absolute value, xabSmax, of the input vector, x, a possible upshift, in a bit word, of a next inner dimension search loop's accumulated in-loop correlation value, corr xy , between the input vector x and the vector y.
An electric resistance welder comprising a welding holder , and a welding rod , and being characterised in that : the welder further comprises a compressor , and in that the welding rod comprises air outlets , so that, in use, air compressed by the compressor is introduced into the welding rod through the welding holder and is then discharged through the air outlets formed in the welding rod , in that the welding rod comprises an air flow path formed at a center portion (C) thereof, in that the air flow path is in fluid communication with the air outlets , and and in that the air outlets are formed on a side surface in the radial direction of the welding rod . the welder further comprises a compressor , and in that the welding rod comprises air outlets , so that, in use, air compressed by the compressor is introduced into the welding rod through the welding holder and is then discharged through the air outlets formed in the welding rod , in that the welding rod comprises an air flow path formed at a center portion (C) thereof, in that the air flow path is in fluid communication with the air outlets , and and in that the air outlets are formed on a side surface in the radial direction of the welding rod .
A composition for use in enhancing or improving wound healing, or in alleviating inflammation in a joint of a subject, said composition comprising a suspension of micronized particles, said particles comprising a dehydrated amnion layer and a dehydrated chorion layer, wherein the chorion layer is layered directly over the amnion layer, wherein the composition is formulated into a liquid or gel, and wherein the epithelium layer of the dehydrated amnion layer has not been substantially removed.
A terminal apparatus comprising: a transmission unit configured to and/or programmed to transmit a random access preamble on a Physical Random Access Channel, PRACH, to a base station apparatus , and a reception unit configured to and/or programmed to receive downlink control information with attached Cyclic Redundancy Check, CRC, parity bits that have been scrambled with a Random Access - Radio Network Temporary Identifier, RA-RNTI, from the base station apparatus , wherein the RA-RNTI is determined at least based on an index of an Orthogonal Frequency-Division Multiplexing, OFDM, symbol at which the PRACH starts, and the random access preamble on the PRACH is transmitted based on a PRACH mask index included in a Physical Downlink Control Channel, PDCCH, order. a transmission unit configured to and/or programmed to transmit a random access preamble on a Physical Random Access Channel, PRACH, to a base station apparatus , and a reception unit configured to and/or programmed to receive downlink control information with attached Cyclic Redundancy Check, CRC, parity bits that have been scrambled with a Random Access - Radio Network Temporary Identifier, RA-RNTI, from the base station apparatus , wherein the RA-RNTI is determined at least based on an index of an Orthogonal Frequency-Division Multiplexing, OFDM, symbol at which the PRACH starts, and the random access preamble on the PRACH is transmitted based on a PRACH mask index included in a Physical Downlink Control Channel, PDCCH, order.
A convertible vehicle comprising a hood with a hood cover , which hood can be stowed in a rear part of the convertible vehicle , and is accommodated in a hood compartment in its fully opened position, and is held down here and fixed in this held-down position by a hood compartment lid , said hood compartment lid having at least one hold-down element assigned to it, which hold-down element can be placed on the hood , characterised in that the hold-down element includes a compressible cushion which can be fixed in a defined manner relative to the hood compartment lid and is spanned by a textile layer on a side facing the hood , which textile layer is fixed on the side towards the hood compartment lid at a lateral distance from the cushion , wherein a coefficient of friction between the cushion and the textile layer is lower than between the textile layer and the hood cover .
A transmission gearbox comprising, housed at least partially inside said box , a so-called output shaft made as a single piece or as at least two coaxial shaft sections , a rotary so-called drive member mounted free to rotate on said shaft , a drive system for rotationally driving said rotary drive member in a first, so-called forward-running, rotationally driven direction and in a second, so-called reverse-running, rotationally driven direction and, positioned between the shaft or each of the shaft sections and the rotary drive member , a clutch mechanism , the or each clutch mechanism housed inside the transmission gearbox having a disengaged state and an engaged state, the shaft or each shaft section (6A; 6B) being, when the corresponding clutch mechanism is in the disengaged state, free to rotate in either one of its directions of rotation, the or each so-called automatic clutch mechanism being configured so that, when the rotary drive member is rotationally driven in the first so-called forward-running rotationally driven direction, said clutch mechanism passes from the disengaged state to the engaged state when the rotational speed of said rotary drive member is greater than that of the shaft or of said shaft section (6A; 6B) with which the clutch mechanism is intended to collaborate, and from the engaged state to the disengaged state by the forward-running rotational driving of the shaft or of the shaft section (6A; 6B) with which the clutch mechanism collaborates, when the rotational speed of the shaft or of said shaft section (6A; 6B) is greater than the rotational speed of the rotary drive member , characterized in that the or each so-called automatic clutch mechanism is a clutch mechanism with two directions of operation and is further configured so that, when the rotary drive member is rotationally driven in the second so-called reverse-running rotationally driven direction, said clutch mechanism passes from the disengaged state to the engaged state when the rotational speed of said rotary drive member is greater than that of the shaft or of said shaft section (6A; 6B) with which the clutch mechanism is designed to collaborate, and from the engaged state to the disengaged state by the reverse-running rotational driving of the shaft or of the shaft section (6A; 6B) with which the clutch mechanism collaborates when the rotational speed of the shaft or of said shaft section (6A; 6B) is greater than the rotational speed of the rotary drive member .
A method of manufacturing a stator including an insulating member intervening between a plurality of coil end portions each protruding from a stator core , the method comprising: a first step of disposing an interposed member to cover part of the insulating member , which is disposed between the plurality of coil end portions; and a second step of welding part of each of the plurality of coil end portions, wherein the interposed member is disposed at a center portion in space between every adjacent coil end portions in a circumferential direction of the stator core , and wherein the interposed member is further disposed between the insulating member and a jig that positions the plurality of coil end portions . a first step of disposing an interposed member to cover part of the insulating member , which is disposed between the plurality of coil end portions; and a second step of welding part of each of the plurality of coil end portions, wherein the interposed member is disposed at a center portion in space between every adjacent coil end portions in a circumferential direction of the stator core , and wherein the interposed member is further disposed between the insulating member and a jig that positions the plurality of coil end portions .
An adhesive composition comprising: a (meth)acrylate-based resin; and a polymer having a melting temperature (Tm), measured using differential scanning calorimetry, of 35°C or higher and 40 °C or less, wherein the polymer is a copolymer of a monofunctional polysiloxane and two types of monomers, the two types of monomers being represented by the following Chemical Formula 1: in Chemical Formula 1, X is N or O; R1 is hydrogen or a methyl group; and n is an integer of 10 to 30, and wherein the polymer having a melting temperature of 35°C or higher and 40 °C or less comprises, based on 100 parts by weight of the polymer having a melting temperature of 35°C or higher and 40 °C or less, the monofunctional polysiloxane in greater than or equal to 10 parts by weight and less than or equal to 40 parts by weight, and the two types of monomers in greater than or equal to 60 parts by weight and less than or equal to 90 parts by weight . a (meth)acrylate-based resin; and a polymer having a melting temperature (Tm), measured using differential scanning calorimetry, of 35°C or higher and 40 °C or less, wherein the polymer is a copolymer of a monofunctional polysiloxane and two types of monomers, the two types of monomers being represented by the following Chemical Formula 1: in Chemical Formula 1, X is N or O; R1 is hydrogen or a methyl group; and n is an integer of 10 to 30, and wherein the polymer having a melting temperature of 35°C or higher and 40 °C or less comprises, based on 100 parts by weight of the polymer having a melting temperature of 35°C or higher and 40 °C or less, the monofunctional polysiloxane in greater than or equal to 10 parts by weight and less than or equal to 40 parts by weight, and the two types of monomers in greater than or equal to 60 parts by weight and less than or equal to 90 parts by weight .
A modular linear gas burner system comprising: a plurality of interconnectable pipe modules , each said pipe module comprising a pipe segment , connector fittings adapted to join one said pipe segment to another said pipe segment , spuds mounted on each of said pipe segments , orifice mounting blocks connected to one or more of said spuds , and orifices mounted to each of said orifice mounting blocks ; one or more burner members connected to one or more of said pipe modules ; wherein the distance between adjacent said spuds on all said pipe segments is equal, and wherein for first and second said pipe segments joined together by said connector fittings , the distance between the outermost said spud of said first pipe segment to the outermost said spud of said second pipe segment is equal to the distance between adjacent said spuds on each of said first and second pipe segments ; and wherein each said pipe segment comprises a bore having an internal diameter , and wherein the combination of said connector fittings joining one said pipe segment to another said pipe segment defines a bore having an internal diameter smaller than the internal diameters of said pipe segment bores. a plurality of interconnectable pipe modules , each said pipe module comprising a pipe segment , connector fittings adapted to join one said pipe segment to another said pipe segment , spuds mounted on each of said pipe segments , orifice mounting blocks connected to one or more of said spuds , and orifices mounted to each of said orifice mounting blocks ; one or more burner members connected to one or more of said pipe modules ; wherein the distance between adjacent said spuds on all said pipe segments is equal, and wherein for first and second said pipe segments joined together by said connector fittings , the distance between the outermost said spud of said first pipe segment to the outermost said spud of said second pipe segment is equal to the distance between adjacent said spuds on each of said first and second pipe segments ; and wherein each said pipe segment comprises a bore having an internal diameter , and wherein the combination of said connector fittings joining one said pipe segment to another said pipe segment defines a bore having an internal diameter smaller than the internal diameters of said pipe segment bores.
A method for finding beneficial parameter settings of a controller for controlling an actuator connected to a valve in a heating or cooling system, the method comprising: - detecting a control activity level of the actuator of the heating or cooling system, and - executing an activity-parameter adjustment of an activity parameter associated with the control activity level of the actuator, wherein a first type of activity-parameter adjustment is executed if the control activity level is above a threshold control activity level, and wherein a second type of activity-parameter adjustment is executed, provided absence of the first type of activity-parameter adjustment during a first period of time, wherein the activity parameter is a scaling factor for scaling a predetermined gain factor wherein the product of the activity parameter and the predetermined gain factor is proportional to a level of change of an opening degree (V1;V2) of the valve , and wherein the first type of activity-parameter adjustment is a decrease of the activity parameter , and the second type of activity parameter-adjustment is an increase of the activity parameter . - detecting a control activity level of the actuator of the heating or cooling system, and - executing an activity-parameter adjustment of an activity parameter associated with the control activity level of the actuator, wherein a first type of activity-parameter adjustment is executed if the control activity level is above a threshold control activity level, and wherein a second type of activity-parameter adjustment is executed, provided absence of the first type of activity-parameter adjustment during a first period of time, wherein the activity parameter is a scaling factor for scaling a predetermined gain factor wherein the product of the activity parameter and the predetermined gain factor is proportional to a level of change of an opening degree (V1;V2) of the valve , and wherein the first type of activity-parameter adjustment is a decrease of the activity parameter , and the second type of activity parameter-adjustment is an increase of the activity parameter .