mhurhangee/ep-ind-claims huggingface dataset:
A manufacturing method of an optical fibre grating, comprising: firstly, coating an optical fibre core with an optical fibre coating, and curing the optical fibre coating; then, spraying the optical fibre coating with a plurality of annular or semi-annular hard embedding bodies at intervals, coating the optical fibre coating and the hard embedding bodies with an optical fibre colouring layer; and finally, extruding and curing the optical fibre colouring layer to produce a radial inward extruding force, so that the density of the optical fibre core changes in an alternate manner along the axial direction of the optical fibre core; the density of the optical fibre core of the part wrapped by the hard embedding bodies is higher than the density of the optical fibre core of the other part which is not wrapped by the hard embedding bodies; wherein the optical fibre grating comprises the optical fibre core, an optical fibre coating and an optical fibre colouring layer in sequence from inside to outside, wherein the optical fibre core comprises a plurality of high-density segments and a plurality of low-density segments; the high-density segments and the low-density segments are arranged in an alternate manner along the axial direction of the optical fibre core; the plurality of hard embedding bodies are arranged between the optical fibre coating and the optical fibre colouring layer; the optical fibre coating and the optical fibre core are wrapped by the hard embedding bodies in an annular manner; the plurality of hard embedding bodies are arranged at intervals along the axis direction of the optical fibre core. the density of the optical fibre core of the part wrapped by the hard embedding bodies is higher than the density of the optical fibre core of the other part which is not wrapped by the hard embedding bodies; wherein the optical fibre grating comprises the optical fibre core, an optical fibre coating and an optical fibre colouring layer in sequence from inside to outside, wherein the optical fibre core comprises a plurality of high-density segments and a plurality of low-density segments; the high-density segments and the low-density segments are arranged in an alternate manner along the axial direction of the optical fibre core; the plurality of hard embedding bodies are arranged between the optical fibre coating and the optical fibre colouring layer; the optical fibre coating and the optical fibre core are wrapped by the hard embedding bodies in an annular manner; the plurality of hard embedding bodies are arranged at intervals along the axis direction of the optical fibre core.
A thermal printer comprising: a sheet conveyance mechanism configured to convey a sheet formed by attaching labels on a mount; a ribbon conveyance mechanism configured to convey a ribbon; a thermal head configured to heat the ribbon to carry out printing of printing data on the sheet contacted with the ribbon (12; and a head moving mechanism configured to control the thermal head in a case in which a non-printing area is longer than a first distance based on the printing data to separate the ribbon from the sheet; characterized in that: the ribbon conveyance mechanism is configured to stop the conveyance of the ribbon in a case in which the non-printing area is longer than the first distance, and the sheet conveyance mechanism is configured to control, in a case in which the non-printing area is longer than the first distance, the sheet conveyance speed to a second speed slower than a first speed applied in a case of conveying a printing area. a sheet conveyance mechanism configured to convey a sheet formed by attaching labels on a mount; a ribbon conveyance mechanism configured to convey a ribbon; a thermal head configured to heat the ribbon to carry out printing of printing data on the sheet contacted with the ribbon (12; and a head moving mechanism configured to control the thermal head in a case in which a non-printing area is longer than a first distance based on the printing data to separate the ribbon from the sheet; characterized in that: the ribbon conveyance mechanism is configured to stop the conveyance of the ribbon in a case in which the non-printing area is longer than the first distance, and the sheet conveyance mechanism is configured to control, in a case in which the non-printing area is longer than the first distance, the sheet conveyance speed to a second speed slower than a first speed applied in a case of conveying a printing area. the ribbon conveyance mechanism is configured to stop the conveyance of the ribbon in a case in which the non-printing area is longer than the first distance, and the sheet conveyance mechanism is configured to control, in a case in which the non-printing area is longer than the first distance, the sheet conveyance speed to a second speed slower than a first speed applied in a case of conveying a printing area.
A computer-implemented method for training a three-dimensional estimator neural network comprising: obtaining, from an object recognition engine, data specifying first image features derived from an image of an object; providing the first image features to the three-dimensional estimator neural network; obtaining, from the three-dimensional estimator neural network, data specifying (i) an estimated three-dimensional shape and (ii) an estimated texture that are each based on the first image features; providing the data specifying (i) the estimated three-dimensional shape and (ii) the estimated texture to a three-dimensional rendering engine; obtaining, from the three-dimensional rendering engine, data specifying a plurality of three-dimensional views of the object that are each generated based on the data specifying (i) the estimated three-dimensional shape and (ii) the estimated texture; providing the data specifying each of the plurality of three-dimensional views to the object recognition engine; obtaining, from the object recognition engine and for each of the plurality of three-dimensional views specified by the data, data specifying second image features derived from the data specifying the three-dimensional view; computing, based at least on the data specifying the first image features and the data specifying the second image features, a first loss based on a first loss function; and training the three-dimensional estimator neural network based at least on the computed first loss. obtaining, from an object recognition engine, data specifying first image features derived from an image of an object; providing the first image features to the three-dimensional estimator neural network; obtaining, from the three-dimensional estimator neural network, data specifying (i) an estimated three-dimensional shape and (ii) an estimated texture that are each based on the first image features; providing the data specifying (i) the estimated three-dimensional shape and (ii) the estimated texture to a three-dimensional rendering engine; obtaining, from the three-dimensional rendering engine, data specifying a plurality of three-dimensional views of the object that are each generated based on the data specifying (i) the estimated three-dimensional shape and (ii) the estimated texture; providing the data specifying each of the plurality of three-dimensional views to the object recognition engine; obtaining, from the object recognition engine and for each of the plurality of three-dimensional views specified by the data, data specifying second image features derived from the data specifying the three-dimensional view; computing, based at least on the data specifying the first image features and the data specifying the second image features, a first loss based on a first loss function; and training the three-dimensional estimator neural network based at least on the computed first loss.
An induction machine for bonding electrically conductive polymer-matrix composite materials comprising a movable coil inductor, a temperature sensor configured to detect the temperature of the surface of the composite material during energization of the coil inductor and a control unit to control said coil inductor on the basis of the signal received from said temperature sensor, and comprising at least one or more devices for directing a flow of a cooling gas or fluid in surface heat exchange with a heated zone facing said coil inductor of an element to be bonded, characterized in that said flow is controlled on the basis of a signal received by the temperature sensor.
An R-Fe-B based rare-earth sintered magnet comprising, as a main phase, crystal grains of an R 2 Fe 14 B type compound that includes a light rare-earth element RL (which is at least one of Nd and Pr) as a major rare-earth element R, wherein the magnet further includes a heavy rare-earth element RH (which is at least one element selected from the group consisting of Dy, Ho and Tb and) which has been introduced from its surface by grain boundary diffusion, and wherein in a surface region of the magnet, which is defined from the surface to a depth of 100 μm, there is a difference of at least 1 at% between the concentration of the heavy rare-earth element RH at a center portion of the crystal grains of the R 2 Fe 14 B type compound and that of the heavy rare-earth element RH on a grain boundary phase of the crystal grains of the R 2 Fe 14 B type compound, wherein a diffusion distance of the heavy rare-earth element RH in a direction of a c-axis defining the magnetization direction from a surface which intersects the c-axis at a normal angle is higher than a diffusion distance of the heavy rare-earth element RH in a direction perpendicular to the c-axis from a surface which does not intersect the c-axis at a normal angle.
Primers for bacteria detection in DNA isolated from blood of septic and bacteremia patients with the use of nested polymerase chain reaction (nested PCR) characterized in that these are composed of oligonucleotides of the following sequence: F 5' - ACGGCCNNRACTCCTAC - 3' R 5' - TTACGGNNTGGACTACHV - 3' F 5' - ACGGCCNNRACTCCTAC - 3' R 5' - TTACGGNNTGGACTACHV - 3'
A radiation detection system comprising: a guard detector subsystem comprising guard photomultiplier tubes and a liquid scintillator, wherein the guard detector subsystem is configured to detect active guard events; a sample detector subsystem comprising sample photomultiplier tubes and a sample counting chamber, the sample detector subsystem configured to detect sample events in an unknown sample, wherein the sample photomultiplier tubes are configured to detect light pulses generated by the transformation of radiation through a scintillating liquid added to the unknown sample; one or more processors adapted to: count coincident events (SP12 R) that are the detected sample events in the unknown sample and the detected guard events that are detected coincidently in a given energy region; and for the given energy region: calculate a compensation guard count (CGC R) for the unknown sample based on the count of coincident events (SP12 R) and a predetermined guard efficiency value (GE R) that is associated with the given energy region and determined based on utilization of a standard sample having a quench level that approximately matches the quench level of the unknown sample. a guard detector subsystem comprising guard photomultiplier tubes and a liquid scintillator, wherein the guard detector subsystem is configured to detect active guard events; a sample detector subsystem comprising sample photomultiplier tubes and a sample counting chamber, the sample detector subsystem configured to detect sample events in an unknown sample, wherein the sample photomultiplier tubes are configured to detect light pulses generated by the transformation of radiation through a scintillating liquid added to the unknown sample; one or more processors adapted to: count coincident events (SP12 R) that are the detected sample events in the unknown sample and the detected guard events that are detected coincidently in a given energy region; and for the given energy region: calculate a compensation guard count (CGC R) for the unknown sample based on the count of coincident events (SP12 R) and a predetermined guard efficiency value (GE R) that is associated with the given energy region and determined based on utilization of a standard sample having a quench level that approximately matches the quench level of the unknown sample. count coincident events (SP12 R) that are the detected sample events in the unknown sample and the detected guard events that are detected coincidently in a given energy region; and for the given energy region: calculate a compensation guard count (CGC R) for the unknown sample based on the count of coincident events (SP12 R) and a predetermined guard efficiency value (GE R) that is associated with the given energy region and determined based on utilization of a standard sample having a quench level that approximately matches the quench level of the unknown sample.
A method of manufacturing a window seal assembly for attachment to a vehicle having a securing point and defining a vehicle reference point spaced from the securing point at a predetermined distance, the method utilizing a molding apparatus having a first receptacle and a second receptacle and defining a molding cavity, and a bracket apparatus defining a bracket cavity, said method comprising the steps of: forming a first strip of material to define a first body extending between opposing first strip ends; forming a second strip of material to define a second body extending between opposing second strip ends; positioning one of the first strip ends of the first strip into the first receptacle with a portion of the first body engaging the bracket apparatus adjacent to the bracket cavity; positioning one of the second strip ends of the second strip into the second receptacle; directing material into the molding cavity to form a molding bonding the first strip together with the second strip, with the molding defining a molding reference point; and directing material into the bracket cavity to form a bracket having a flange with a receiver defining a receiver point and having an interface extending from the flange into contact with the first body to bond the bracket to the first body at a location along the first strip spaced from the molding reference point such that a distance between the receiver point of the bonded bracket and the molding reference point is equal to the predetermined distance between the securing point and the vehicle reference point. forming a first strip of material to define a first body extending between opposing first strip ends; forming a second strip of material to define a second body extending between opposing second strip ends; positioning one of the first strip ends of the first strip into the first receptacle with a portion of the first body engaging the bracket apparatus adjacent to the bracket cavity; positioning one of the second strip ends of the second strip into the second receptacle; directing material into the molding cavity to form a molding bonding the first strip together with the second strip, with the molding defining a molding reference point; and directing material into the bracket cavity to form a bracket having a flange with a receiver defining a receiver point and having an interface extending from the flange into contact with the first body to bond the bracket to the first body at a location along the first strip spaced from the molding reference point such that a distance between the receiver point of the bonded bracket and the molding reference point is equal to the predetermined distance between the securing point and the vehicle reference point.
A method of routing utility lines (14, 16) in a vacuum insulated refrigerator structure (2, 4, 6), the method comprising: forming a shell (26, 28, 32, 34) having an internal cavity (42, 44), the shell having at least first and second openings (48, 56) to the internal cavity (42, 44); forming an elongated umbilical comprising an elongated impervious tubular sleeve and an elongated core structure disposed inside the sleeve, wherein the core structure is formed from an insulating material and defines at least two elongated internal passageways (68A, 68B) extending lengthwise along the umbilical; sealingly connecting a first end of the sleeve to the shell at the first opening; sealingly connecting a second end of the sleeve to the shell at the second opening; forming a vacuum in the internal cavity (42, 44) of the shell; and routing utility lines (14, 16) through the at least two elongated internal passageways (68A, 68B) whereby portions of the utility lines (14, 16) are disposed inside the umbilical, and opposite ends of the utility lines (14, 16) extend out of opposite ends (54, 60) of the umbilical. forming a shell (26, 28, 32, 34) having an internal cavity (42, 44), the shell having at least first and second openings (48, 56) to the internal cavity (42, 44); forming an elongated umbilical comprising an elongated impervious tubular sleeve and an elongated core structure disposed inside the sleeve, wherein the core structure is formed from an insulating material and defines at least two elongated internal passageways (68A, 68B) extending lengthwise along the umbilical; sealingly connecting a first end of the sleeve to the shell at the first opening; sealingly connecting a second end of the sleeve to the shell at the second opening; forming a vacuum in the internal cavity (42, 44) of the shell; and routing utility lines (14, 16) through the at least two elongated internal passageways (68A, 68B) whereby portions of the utility lines (14, 16) are disposed inside the umbilical, and opposite ends of the utility lines (14, 16) extend out of opposite ends (54, 60) of the umbilical.
Injectable sterile aqueous formulation, sterilized under damp heat, used for therapeutic purposes, in the form of a particulate cohesive viscoelastic gel comprising: i) cross-linked hyaluronic acid, or one of its salts, at a concentration comprised between 1% and 4% (mass/volume), wherein the performed reticulation makes it possible to obtain a gel based on cross-linked hyaluronic acid of a so-called cohesive structure, and ii) hydroxyapatite, at a concentration comprised between 10% and 70% (mass/ volume), wherein said hydroxyapatite is in the form of particles whose average size is less than or equal to 80μm or less than or equal to 500nm; wherein said injectable sterile aqueous formulation having viscoelastic properties such as Tanδ at the frequency of 1Hz is lower than or equal to 0.60 as determined by performing a scanning at the frequency of 0.01 to 100Hz using a rheometre with a flat geometry of 40mm, an air gap of 1000 micrometres and an analysis temperature of 25°C. i) cross-linked hyaluronic acid, or one of its salts, at a concentration comprised between 1% and 4% (mass/volume), wherein the performed reticulation makes it possible to obtain a gel based on cross-linked hyaluronic acid of a so-called cohesive structure, and ii) hydroxyapatite, at a concentration comprised between 10% and 70% (mass/ volume), wherein said hydroxyapatite is in the form of particles whose average size is less than or equal to 80μm or less than or equal to 500nm;
A clutch actuator assembly comprising: a drive member; a threaded rod including a first end operatively connected to the drive member, a second end, and an intermediate portion including a plurality of threads extending therebetween; a member threadably engaged with the plurality of threads of the threaded rod; a clutch actuator member arranged at the second end of the threaded rod; characterized in further comprising: a velocity brake operatively coupled to the threaded rod, the velocity brake decelerating rotation of the threaded rod. a drive member; a threaded rod including a first end operatively connected to the drive member, a second end, and an intermediate portion including a plurality of threads extending therebetween; a member threadably engaged with the plurality of threads of the threaded rod; a clutch actuator member arranged at the second end of the threaded rod;
Hydraulic turbine comprising a wheel rotating about an axis of rotation under the action of a main water stream (F 1) from a penstock to a suction tube, along a flow path (5, 6, 7, 2, 8) passing through the turbine wheel, characterised in that the turbine comprises: - first means arranged outside the flow path of the main water stream (F 1) and for mixing, on the one hand, a secondary water stream (F 2) taken from the flow path and located upstream from the wheel of the turbine, and, secondly, an oxygen-containing gas (A 2); and - second means for injecting, downstream from the wheel of the turbine, a gas/water mixture (F 3) produced in the first means, the second means comprising a dispenser equipped with several nozzles arranged on a wall of the suction tube, oriented towards a central axis of this tube and through which the water/gas mixture (F 3) opens into the suction tube and comprising a deflector arranged in the suction tube at the nozzles - first means arranged outside the flow path of the main water stream (F 1) and for mixing, on the one hand, a secondary water stream (F 2) taken from the flow path and located upstream from the wheel of the turbine, and, secondly, an oxygen-containing gas (A 2); and - second means for injecting, downstream from the wheel of the turbine, a gas/water mixture (F 3) produced in the first means, the second means comprising a dispenser equipped with several nozzles arranged on a wall of the suction tube, oriented towards a central axis of this tube and through which the water/gas mixture (F 3) opens into the suction tube and comprising a deflector arranged in the suction tube at the nozzles
A method of manufacturing a lead assembly comprising: disposing a set of electrodes and a set of electrical traces on an insulating substrate (505, 620, 820, 1120), wherein each of the set of electrodes is connected to an electrical trace of the set of electrical traces; inserting a mandrel (610, 815, 1110) through a tubing (615, 810, 1115), wherein the tubing includes a thermoset material or a thermoplastic material; wrapping the substrate (620, 820, 1120) around the tubing such that the substrate is in a helical shape; inserting the substrate-wrapped tubing and mandrel into a heat-shrink tube (630, 830, 1130); heating, subsequent to the insertion, the heat-shrink tube, wherein the tubing and the insulating substrate are glued together by reflow when the tubing includes a thermoplastic material or adhered to one another by curing a coating (805, 905) of the tubing when the tubing includes a thermoset material; removing the heat-shrink tube from the substrate-wrapped tubing; and removing the mandrel from the substrate-wrapped tubing. disposing a set of electrodes and a set of electrical traces on an insulating substrate (505, 620, 820, 1120), wherein each of the set of electrodes is connected to an electrical trace of the set of electrical traces; inserting a mandrel (610, 815, 1110) through a tubing (615, 810, 1115), wherein the tubing includes a thermoset material or a thermoplastic material; wrapping the substrate (620, 820, 1120) around the tubing such that the substrate is in a helical shape; inserting the substrate-wrapped tubing and mandrel into a heat-shrink tube (630, 830, 1130); heating, subsequent to the insertion, the heat-shrink tube, wherein the tubing and the insulating substrate are glued together by reflow when the tubing includes a thermoplastic material or adhered to one another by curing a coating (805, 905) of the tubing when the tubing includes a thermoset material; removing the heat-shrink tube from the substrate-wrapped tubing; and removing the mandrel from the substrate-wrapped tubing.