mhurhangee/patent-ind-claim-en huggingface dataset:
A device capable of being implanted into the body of a subject to form an implant capable of replacing and/or increasing a soft tissue volume, said device being of the type comprising a three-dimensional framework which defines a space internal to said framework , characterised in that said framework is bio-resorbable, in that it comprises two side openings forming a transverse passage for inserting a vascular pedicle and in that it further comprises at least two bio-resorbable textile sheets (31; 61) capable of being stacked one upon the other into said space internal to said framework .
A tail cutter comprising • a tail knife with a longitudinal cutting blade for cutting free part of the tail at the base part of the tail, characterized in that the tail cutter is suitable for being connected to a cutting device for splitting animal carcasses, the tail cutter being capable of partly cutting free the tail of an animal carcass while the cutting device is cutting the back of an animal carcass into two halves, that the tail cutter further comprises: • a finger connected to the tail knife , the finger being capable of directing the loose part of the tail to a predetermined side of the animal carcass, • the finger is bent to the right or left relative to the longitudinal direction of the cutting blade of the tail knife , and • that the tail cutter is configured such that, when the tail cutter is connected to a cutting device, the cutting blade of the tail knife is located in line with and/or in the same plane as the cutting device when the tail knife is located on this cutting device . • a tail knife with a longitudinal cutting blade for cutting free part of the tail at the base part of the tail, • a finger connected to the tail knife , the finger being capable of directing the loose part of the tail to a predetermined side of the animal carcass, • the finger is bent to the right or left relative to the longitudinal direction of the cutting blade of the tail knife , and • that the tail cutter is configured such that, when the tail cutter is connected to a cutting device, the cutting blade of the tail knife is located in line with and/or in the same plane as the cutting device when the tail knife is located on this cutting device .
A bore basket assembly for a gas turbine engine comprising: an outer cylindrical member ; a plurality of radial openings located in the outer cylindrical member; an inner cylindrical member at least partially surrounded by the outer cylindrical member to define an annulus therebetween, one of the cylindrical members configured to be operatively coupled to an aft rotor stage (RN), the other of the cylindrical members configured to be operatively coupled to a forward rotor stage (R1), characterised in that the inner cylindrical member and the outer cylindrical member are moveable in an axially telescoping manner with respect to each other; and a flange extends radially outward from the inner cylindrical member, the flange defining a plurality of circumferentially spaced flow slots between the outer cylindrical member and the inner cylindrical member, the plurality of circumferentially spaced flow slots being configured to provide fluid communication between the annulus and a bleed port . an outer cylindrical member ; a plurality of radial openings located in the outer cylindrical member; an inner cylindrical member at least partially surrounded by the outer cylindrical member to define an annulus therebetween, one of the cylindrical members configured to be operatively coupled to an aft rotor stage (RN), the other of the cylindrical members configured to be operatively coupled to a forward rotor stage (R1), characterised in that the inner cylindrical member and the outer cylindrical member are moveable in an axially telescoping manner with respect to each other; and a flange extends radially outward from the inner cylindrical member, the flange defining a plurality of circumferentially spaced flow slots between the outer cylindrical member and the inner cylindrical member, the plurality of circumferentially spaced flow slots being configured to provide fluid communication between the annulus and a bleed port .
A method of using a printing jig system, the method comprising the steps of: positioning a print support portion in a base plate ; securing an article onto a first article maintaining jig , the article extending over a processing aperture of the first article maintaining jig , the article having a first surface and an opposite second surface; characterized in that said step of positioning the print support portion in the base plate is performed by aligning a plurality of alignment pins extending from a bottom surface of the print support portion with a plurality of receiving portions of a grid in the base plate ; the method further comprising the steps of: positioning the first article maintaining jig on the base plate , wherein a top surface of the print support portion extends above a top surface of the first article maintaining jig ; and printing on the first surface of the article in a location proximate the print support portion that is supporting the article at the second surface of the article . positioning a print support portion in a base plate ; securing an article onto a first article maintaining jig , the article extending over a processing aperture of the first article maintaining jig , the article having a first surface and an opposite second surface; characterized in that said step of positioning the print support portion in the base plate is performed by aligning a plurality of alignment pins extending from a bottom surface of the print support portion with a plurality of receiving portions of a grid in the base plate ; the method further comprising the steps of: positioning the first article maintaining jig on the base plate , wherein a top surface of the print support portion extends above a top surface of the first article maintaining jig ; and printing on the first surface of the article in a location proximate the print support portion that is supporting the article at the second surface of the article . positioning the first article maintaining jig on the base plate , wherein a top surface of the print support portion extends above a top surface of the first article maintaining jig ; and printing on the first surface of the article in a location proximate the print support portion that is supporting the article at the second surface of the article .
An electrode plate comprising: a composite layer including active material particles; and a covering layer including filler particles stacked on the composite layer, wherein the active material particle has a particle size (D30) equal to or smaller than a particle size (D50) of the filler particle, wherein a particle size ratio (active material size diameter (D30)/filler particle size (D50)) of the particle size (D30) of the active material particle to the particle size (D50) of the filler particle is 0.2 or more, wherein the particle size (D30) of the positive active material particles and the particle size (D50) of the filler particles were measured as described in paragraph of the description. a composite layer including active material particles; and a covering layer including filler particles stacked on the composite layer, wherein the active material particle has a particle size (D30) equal to or smaller than a particle size (D50) of the filler particle, wherein a particle size ratio (active material size diameter (D30)/filler particle size (D50)) of the particle size (D30) of the active material particle to the particle size (D50) of the filler particle is 0.2 or more, wherein the particle size (D30) of the positive active material particles and the particle size (D50) of the filler particles were measured as described in paragraph of the description.
A method of making a composition, the method comprising: a first step of at least one of cold rolling, cold drawing, and pilgering a material, wherein the material is the iron-based composition of claim 5; a second step, subsequent to the first step, of heat treating the material at a first temperature between about 1025 °C and about 1100 °C for at least 5 minutes in which the iron-based composition is transformed into an austenite phase; a third step, subsequent to the second step, of air cooling the material to a second temperature of about 20 °C in which at least some of the iron-based composition is transformed into a martensite phase; and a fourth step, subsequent to the third step, of heat treating the material at a third temperature between about 650 °C and about 780 °C for between about 0.5 hours to about 3 hours in which carbides are precipitated. a first step of at least one of cold rolling, cold drawing, and pilgering a material, wherein the material is the iron-based composition of claim 5; a second step, subsequent to the first step, of heat treating the material at a first temperature between about 1025 °C and about 1100 °C for at least 5 minutes in which the iron-based composition is transformed into an austenite phase; a third step, subsequent to the second step, of air cooling the material to a second temperature of about 20 °C in which at least some of the iron-based composition is transformed into a martensite phase; and a fourth step, subsequent to the third step, of heat treating the material at a third temperature between about 650 °C and about 780 °C for between about 0.5 hours to about 3 hours in which carbides are precipitated.
A method of predicting the ability of a salmonid to utilise dietary pigment, the method comprising determining the alleles present at NC_027301.1_71404326 (SNP No. 1) in the abcg2 gene in the salmonid and predicting the ability of the salmonid to utilise dietary pigment based on the determination of the alleles.
Monitoring method for a coolant circuit , in which a coolant flows, by means of which a conversion device giving rise to a power loss is cooled, - wherein a monitoring device determines, on the basis of operating data (TV, TL, δP) of the conversion device and/or of the coolant circuit , a flow velocity (v) at which the coolant flows in the coolant circuit , - wherein the monitoring device compares the determined flow velocity (v) with a limit velocity (vG), - wherein the monitoring device resorts to a special reaction if the flow velocity (v) reaches or exceeds the limit velocity (vG), - wherein the monitoring device resorts either to no reaction at all or to a normal reaction that is not the same as the special action as long as the flow velocity (v) does not reach the limit velocity (vG), and - wherein a local temperature (TL) of the conversion device is known to the monitoring device , characterised in that - a quantity of heat to be removed per unit of time by means of the coolant is known to the monitoring device , - an inflow temperature (TV) at which the coolant is supplied to the conversion device is sent to the monitoring device as a measurement value, and - the monitoring device determines the flow velocity (v) on the basis of the quantity of heat to be removed per unit of time, the local temperature (TL) of the conversion device and the inflow temperature (TV). - wherein a monitoring device determines, on the basis of operating data (TV, TL, δP) of the conversion device and/or of the coolant circuit , a flow velocity (v) at which the coolant flows in the coolant circuit , - wherein the monitoring device compares the determined flow velocity (v) with a limit velocity (vG), - wherein the monitoring device resorts to a special reaction if the flow velocity (v) reaches or exceeds the limit velocity (vG), - wherein the monitoring device resorts either to no reaction at all or to a normal reaction that is not the same as the special action as long as the flow velocity (v) does not reach the limit velocity (vG), and - wherein a local temperature (TL) of the conversion device is known to the monitoring device , - a quantity of heat to be removed per unit of time by means of the coolant is known to the monitoring device , - an inflow temperature (TV) at which the coolant is supplied to the conversion device is sent to the monitoring device as a measurement value, and - the monitoring device determines the flow velocity (v) on the basis of the quantity of heat to be removed per unit of time, the local temperature (TL) of the conversion device and the inflow temperature (TV).
A package structure comprising: an insulating layer formed on a substrate to be packaged; a metal layer formed on a surface of the insulating layer away from the substrate ; and an inorganic package layer covering the metal layer and the insulating layer ; wherein a portion of the insulating layer in contact with edges of the metal layer is formed with a plurality of insulating grooves arranged at intervals, the edges of the metal layer are formed with a plurality of metal rims arranged at intervals, and some or all of the metal rims are covered by the inorganic package layer ; and wherein, the plurality of metal rims are arranged in the same layer as the metal layer , orthographic projections of the plurality of metal rims on the insulating layer correspond, at a one-to-one basis, to the plurality of insulating grooves , and an orthographic projection of each of the metal rims on the insulating layer partially overlaps a groove opening of a corresponding insulating groove. an insulating layer formed on a substrate to be packaged; a metal layer formed on a surface of the insulating layer away from the substrate ; and an inorganic package layer covering the metal layer and the insulating layer ; wherein a portion of the insulating layer in contact with edges of the metal layer is formed with a plurality of insulating grooves arranged at intervals, the edges of the metal layer are formed with a plurality of metal rims arranged at intervals, and some or all of the metal rims are covered by the inorganic package layer ; and wherein, the plurality of metal rims are arranged in the same layer as the metal layer , orthographic projections of the plurality of metal rims on the insulating layer correspond, at a one-to-one basis, to the plurality of insulating grooves , and an orthographic projection of each of the metal rims on the insulating layer partially overlaps a groove opening of a corresponding insulating groove.
A secondary battery electrolyte comprising: a lithium salt; a non-aqueous organic solvent; and a cyclophosphate compound represented by the following Chemical Formula 1: in Chemical Formula 1, R 1 to R 6 are each independently hydrogen, C1-C10 alkyl, or C6-C12 aryl C1-C10 alkyl; L is C1-C5 alkylene; R is fluoro or fluoro C1-C10 alkyl; m is an integer of 0 to 2; and n is an integer of 0 to 5. a lithium salt; a non-aqueous organic solvent; and a cyclophosphate compound represented by the following Chemical Formula 1: in Chemical Formula 1, R 1 to R 6 are each independently hydrogen, C1-C10 alkyl, or C6-C12 aryl C1-C10 alkyl; L is C1-C5 alkylene; R is fluoro or fluoro C1-C10 alkyl; m is an integer of 0 to 2; and n is an integer of 0 to 5.
A process to form a "functionalized ethylene-based polymer" from a first composition comprising an ethylene-based polymer and at least one polar compound, and at least one peroxide, said process comprising at least the following: a) thermally treating the first composition, in at least one extruder comprising at least one barrel, to form the functionalized ethylene-based polymer; b) extruding the functionalized ethylene-based polymer, in melt form, to form an extrudate; c) cooling the extrudate; and d) pelletizing the extrudate; and wherein the "efficiency of the peroxide consumption, after the thermal treatment, is ≥ 91 wt% within the at least one extruder; and wherein the feed rate of the extruder is ≥ 635.0 kg/hr (1400 lbs/hr) and the "normalized feed rate" of the extruder is ≥ 0.00082 (kg/hr)/(mm) 3 (0.0018 (lbs/hr)/(mm) 3 ); and wherein, for step c), after the extrudate exits the extruder, and before the extrudate is pelletized, the extrudate is cooled in a cooling medium to a pelletization temperature, T pel (in °C), ≤ the crystallization temperature T c (in °C) of the functionalized ethylene-based polymer. a) thermally treating the first composition, in at least one extruder comprising at least one barrel, to form the functionalized ethylene-based polymer; b) extruding the functionalized ethylene-based polymer, in melt form, to form an extrudate; c) cooling the extrudate; and d) pelletizing the extrudate; and
An experimental bench for a UAV power system and avionics equipment, comprising: A support component ; A plurality of power system load-bearing components , which are provided, and are fixedly arranged on the support component , respectively, and each of which is configured to bear a UAV power system; Avionics equipment load-bearing component , which is fixedly arranged on the support component , and is configured to bear the UAV avionics equipment; and A roller component , comprising a roller stand and a guide wheel connected to the roller stand ; characterised in that the experimental bench further comprises: A jacking component , the output end of which is fixedly connected to the bottom end of the support component ; and in that the roller stand is fixedly connected to the jacking component . A support component ; A plurality of power system load-bearing components , which are provided, and are fixedly arranged on the support component , respectively, and each of which is configured to bear a UAV power system; Avionics equipment load-bearing component , which is fixedly arranged on the support component , and is configured to bear the UAV avionics equipment; and A roller component , comprising a roller stand and a guide wheel connected to the roller stand ; characterised in that the experimental bench further comprises: A jacking component , the output end of which is fixedly connected to the bottom end of the support component ; and in that the roller stand is fixedly connected to the jacking component . A jacking component , the output end of which is fixedly connected to the bottom end of the support component ; and in that the roller stand is fixedly connected to the jacking component .
A system for weight preselection and evaluation of the technical state of road infrastructure, in particular a bridge, comprising a control unit, a set of strain sensors connected wirelessly or by wire to the control unit and placed in a roadway, and at least one camera connected wirelessly or by wire to the control unit and placed over the roadway, characterized in that the values of pressure exerted on each sensor , and of time interval between successive peaks of pressure from each sensor are measured, and the camera placed above the roadway makes an image of the front of the vehicle, and the vehicle is automatically identified based on the images recorded by the camera , and the result of identification is recorded in a data file identifying the vehicle, and the speed of the vehicle and the number of axles of the vehicle are determined from the peaks of pressure and time intervals between successive peaks, and the value of load on each axle of the vehicle is calculated, as well as the axle overload value equal to the difference between the load on given axle and the threshold, and wherein the calculated values are added to the data file identifying the vehicle, and the vehicles for which the calculated value of difference between the load on each axle and the threshold value is greater than zero are selected, and in that on a basis of measured values of pressure on each axle, speed, weight, vehicle wheelbase and length, and the number of measuring cycles, a degree of technical wear of the engineering object of road infrastructure, in particular a bridge, is calculated.
A method of operation of a wireless device to receive a plurality of Single-Cell Multicast Control Channel, SC-MCCH, segments, comprising: obtaining information regarding segmentation of a SC-MCCH into a plurality of SC-MCCH segments by receiving separate Downlink Control Information, DCI, messages scheduling separate transmissions for the plurality of SC-MCCH segments, wherein, for each SC-MCCH segment, the separate DCI message scheduling the separate transmission for the SC-MCCH segment comprises an indication as to whether there is a subsequent SC-MCCH segment scheduled and at what time interval a next SC-MCCH segment is scheduled; and receiving , from a network node , the separate transmissions for the plurality of SC-MCCH segments in accordance with the information regarding segmentation of the SC-MCCH. obtaining information regarding segmentation of a SC-MCCH into a plurality of SC-MCCH segments by receiving separate Downlink Control Information, DCI, messages scheduling separate transmissions for the plurality of SC-MCCH segments, wherein, for each SC-MCCH segment, the separate DCI message scheduling the separate transmission for the SC-MCCH segment comprises an indication as to whether there is a subsequent SC-MCCH segment scheduled and at what time interval a next SC-MCCH segment is scheduled; and receiving , from a network node , the separate transmissions for the plurality of SC-MCCH segments in accordance with the information regarding segmentation of the SC-MCCH.
An adhesive tape dispenser head assembly arranged to dispense pieces of adhesive tape onto an object , the assembly comprising: a feed spool arranged to hold adhesive tape ; a tape launcher arranged to launch the adhesive tape onto the object; a first brake arranged to move between an applied position, in which the tape brake is arranged to press the tape against the tape launcher, and an unapplied position; and a tape cutter movable between a cutting position, in which the tape cutter is arranged to cut the tape, and a non-cutting position; characterised in that : the tape launcher is arranged to move between a braked position, in which the first brake can be applied to the tape launcher, and an unbraked position, in which the tape is free to move relative to the tape launcher; and the assembly further includes: a second brake arranged to facilitate positioning of the tape launcher in the braked position; and a co-ordination mechanism arranged to co-ordinate relative movement between the tape launcher, the tape cutter, the first brake and the second brake such that when the tape cutter is in the cutting position, the tape launcher is in the braked position and the first brake is in the applied position. a feed spool arranged to hold adhesive tape ; a tape launcher arranged to launch the adhesive tape onto the object; a first brake arranged to move between an applied position, in which the tape brake is arranged to press the tape against the tape launcher, and an unapplied position; and a tape cutter movable between a cutting position, in which the tape cutter is arranged to cut the tape, and a non-cutting position; characterised in that : the tape launcher is arranged to move between a braked position, in which the first brake can be applied to the tape launcher, and an unbraked position, in which the tape is free to move relative to the tape launcher; and the assembly further includes: a second brake arranged to facilitate positioning of the tape launcher in the braked position; and a co-ordination mechanism arranged to co-ordinate relative movement between the tape launcher, the tape cutter, the first brake and the second brake such that when the tape cutter is in the cutting position, the tape launcher is in the braked position and the first brake is in the applied position. a second brake arranged to facilitate positioning of the tape launcher in the braked position; and a co-ordination mechanism arranged to co-ordinate relative movement between the tape launcher, the tape cutter, the first brake and the second brake such that when the tape cutter is in the cutting position, the tape launcher is in the braked position and the first brake is in the applied position.