mhurhangee/ep-ind-claims huggingface dataset:
A manufacturing method of a seat back structure, wherein the seat back structure comprises a seat back sponge and a seat back iron support disposed in the seat back sponge, wherein lateral connecting plates are disposed on two sides of the seat back iron support, support borders for supporting two sides of the seat back sponge are disposed on the lateral connecting plates on the two sides respectively, and fixing plates for fixing an airbag are also disposed on the lateral connecting plates, a plurality of S-shaped springs are horizontally disposed on the seat back iron support at intervals from bottom to top, two ends of each said S-shaped spring are connected to the two sides of the seat back iron support, and the airbag is disposed in an anti-explosion cloth cover, a U-shaped upper tube frame is disposed on an upper portion of the seat back iron support, a pair of headrest tubes for fixing a headrest is welded to an upper end of the upper tube frame, and a plurality of rear borders are horizontally welded to the upper tube frame; and a lower metal plate is disposed on a lower portion of the seat back iron support, and the seat back sponge is covered with a surface assembly, the method comprising the following steps: mounting the seat back iron support on a cladding jig, and disposing the seat back sponge around the chair back iron support; disposing the surface assembly at an upper end of the seat back sponge to cover the seat back sponge, and fixing the surface assembly to sponge positioning holes in a front side of the seat back sponge; enabling the anti-explosion cloth cover to penetrate through the seat back sponge, disposing the airbag in the anti-explosion cloth cover, and fixing airbag fixing bolts to the fixing plates, and locking the airbag fixing bolts with safety nuts; inserting an airbag wire harness into an airbag detection mechanism, reading a bar code on the airbag by a code reader, tearing the bar code from the airbag and attaching it to a rear side of the surface assembly, taking a torque wrench out of the airbag detection mechanism to detect the torque of the safety nuts, and then pulling out the airbag wire harness.
A method of wireless communications by a first wireless communications device, comprising: receiving one or more signals from a second wireless communications device; determining a precoder matrix index, PMI, based on the signals; performing a channel-tap compression of the PMI in two stages by determining a first subset of a plurality of taps corresponding to a plurality of beams based on a time domain representation of the PMI, based on a correlation between tap profiles of the plurality of beams, and for each of the plurality of beams, determining a second subset of the first subset, the second subset of taps being the most active taps of the first subset of taps for that beam; and transmitting the channel-tap compressed PMI to the second wireless communications device, wherein the channel-tap compressed PMI comprises information indicative of the first subset and each of the second subsets. receiving one or more signals from a second wireless communications device; determining a precoder matrix index, PMI, based on the signals; performing a channel-tap compression of the PMI in two stages by determining a first subset of a plurality of taps corresponding to a plurality of beams based on a time domain representation of the PMI, based on a correlation between tap profiles of the plurality of beams, and for each of the plurality of beams, determining a second subset of the first subset, the second subset of taps being the most active taps of the first subset of taps for that beam; and transmitting the channel-tap compressed PMI to the second wireless communications device, wherein the channel-tap compressed PMI comprises information indicative of the first subset and each of the second subsets.
A system for wear reduction in a combustion system of a gas turbine, said system comprising: at least one substantially H-shaped block configured to secure a transition piece of a gas turbine combustor to a support piece; a first insert (602,702) including a first tungsten carbide in a first metal matrix, wherein said first metal matrix is selected from a group comprising cobalt and nickel; and a first brazing material between said at least one substantially H-shaped block and said first insert (602,702) said first brazing material being configured to braze said first insert (602, 702) to said at least one substantially H-shaped block in at least one location on an interior wear surface of said at least one substantially H-shaped block, wherein said interior surface of said at least one substantially H-shaped block includes a first surface substantially perpendicular to a second surface which is substantially perpendicular to a third surface, said third surface being substantially parallel to and having a substantially same surface area as said first surface. at least one substantially H-shaped block configured to secure a transition piece of a gas turbine combustor to a support piece; a first insert (602,702) including a first tungsten carbide in a first metal matrix, wherein said first metal matrix is selected from a group comprising cobalt and nickel; and a first brazing material between said at least one substantially H-shaped block and said first insert (602,702) said first brazing material being configured to braze said first insert (602, 702) to said at least one substantially H-shaped block in at least one location on an interior wear surface of said at least one substantially H-shaped block,
A dialysis machine comprising: a dialyzer; a fluid source (116, 420); a first line connected to the fluid source; a container (104, 408) containing bicarbonate, the container connected to the first line, wherein the fluid flows from the fluid source, through the first line, to the container; a second line connected to the container; a flow rate sensor connected to at least one of the lines; a pressure sensor configured for detecting fluid pressure of the container; a display (102, 300); and a data processing apparatus configured to receive signals from the flow rate sensor and the pressure sensor, the data processing apparatus configured for: based on the received signals, calculating a size of the container; based on the received signals and the calculated size of the container, calculating a concentration of a solution of bicarbonate and fluid flowing through the second line to the dialyzer; based on the calculated concentration, calculating an estimated time at which the bicarbonate will be depleted; and causing the display to present a visual representation of the estimated time at which the bicarbonate will be depleted. a dialyzer; a fluid source (116, 420); a first line connected to the fluid source; a container (104, 408) containing bicarbonate, the container connected to the first line, wherein the fluid flows from the fluid source, through the first line, to the container; a second line connected to the container; a flow rate sensor connected to at least one of the lines; a pressure sensor configured for detecting fluid pressure of the container; a display (102, 300); and a data processing apparatus configured to receive signals from the flow rate sensor and the pressure sensor, the data processing apparatus configured for: based on the received signals, calculating a size of the container; based on the received signals and the calculated size of the container, calculating a concentration of a solution of bicarbonate and fluid flowing through the second line to the dialyzer; based on the calculated concentration, calculating an estimated time at which the bicarbonate will be depleted; and causing the display to present a visual representation of the estimated time at which the bicarbonate will be depleted. based on the received signals, calculating a size of the container; based on the received signals and the calculated size of the container, calculating a concentration of a solution of bicarbonate and fluid flowing through the second line to the dialyzer; based on the calculated concentration, calculating an estimated time at which the bicarbonate will be depleted; and causing the display to present a visual representation of the estimated time at which the bicarbonate will be depleted.
A method for preparing a multi-layer cured print construct, the method comprising: a) providing a substrate; b) providing one or more energy-curable compositions, comprising: i) one or more energy curable monomers, oligomers and/or polymers comprising reactive functional groups capable of polymerizing or crosslinking under actinic radiation; and ii) wherein at least one of the one or more energy-curable compositions comprise an amine; c) providing one or more non-energy-curable compositions, comprising: i) resins that do not comprise reactive functional groups capable of polymerizing or crosslinking under actinic radiation, and ii) one or more organic peroxides d) applying the one or more compositions onto the substrate as energy-curable ink layers; e) applying the non-energy-curable composition as a coating layer on top of the one or more ink layers of compositions; f) curing all of the ink layers of composition simultaneously by a single exposure to an external energy source to create a cured print construct; wherein the non-energy-curable composition is dried or cured before, during or after exposure to actinic radiation. a) providing a substrate; b) providing one or more energy-curable compositions, comprising: i) one or more energy curable monomers, oligomers and/or polymers comprising reactive functional groups capable of polymerizing or crosslinking under actinic radiation; and ii) wherein at least one of the one or more energy-curable compositions comprise an amine; i) one or more energy curable monomers, oligomers and/or polymers comprising reactive functional groups capable of polymerizing or crosslinking under actinic radiation; and ii) wherein at least one of the one or more energy-curable compositions comprise an amine; c) providing one or more non-energy-curable compositions, comprising: i) resins that do not comprise reactive functional groups capable of polymerizing or crosslinking under actinic radiation, and ii) one or more organic peroxides i) resins that do not comprise reactive functional groups capable of polymerizing or crosslinking under actinic radiation, and ii) one or more organic peroxides d) applying the one or more compositions onto the substrate as energy-curable ink layers; e) applying the non-energy-curable composition as a coating layer on top of the one or more ink layers of compositions; f) curing all of the ink layers of composition simultaneously by a single exposure to an external energy source to create a cured print construct;
Torsion or torque sensor comprising at least one magneto-elastic force sensor having - a sensor head, which has a ferrite core with a central limb and four outer limbs surrounding the central limb, wherein a transmission coil which generates a magnetic field is arranged on the central limb and magnetic field sensors for measuring a magnetic flux caused by the magnetic field of the transmission coil in a measurement object are arranged on the outer limbs, characterized by - a recording device for recording an electrical variable which represents the inductance of the transmitting coil or is clearly linked thereto, wherein the magneto-elastic force sensor also comprises a device for determining the distance between the sensor head and the measurement object from the electrical variable. - a sensor head, which has a ferrite core with a central limb and four outer limbs surrounding the central limb, wherein a transmission coil which generates a magnetic field is arranged on the central limb and magnetic field sensors for measuring a magnetic flux caused by the magnetic field of the transmission coil in a measurement object are arranged on the outer limbs, - a recording device for recording an electrical variable which represents the inductance of the transmitting coil or is clearly linked thereto, wherein the magneto-elastic force sensor also comprises a device for determining the distance between the sensor head and the measurement object from the electrical variable.
An automatic expansion type focusing electrode for photomultiplier tube, comprising a fixed hold-down mechanism, expandable blades, a trigger pedal, a trigger wire and a trigger ring, wherein: the fixed hold-down mechanism comprises an annular bottom plate and torsion springs and rotating shafts arranged on the bottom plate, wherein the torsion springs are wound around the rotating shafts; the multiple expandable blades are arranged along the edge of the bottom plate and are mounted around the rotating shafts in a rotating manner; the multiple expandable blades are fixed vertically over the bottom plate in the initial state, held down by the trigger ring to be folded together in an annular shape and to present in a folded condition; the torsion springs are arranged one-to-one with the expandable blades, with one end of each torsion spring fixed to the expandable blade and the other end to the bottom plate, and the torsion springs are arranged to make the expandable blades expand towards the radial dimension of the focusing electrode and to provide a pretightening force; the trigger pedal, the trigger wire and the trigger ring constitute an automatic trigger mechanism; one end of the trigger wire is fixed to the trigger pedal and the other end to the trigger ring; the trigger pedal is arranged to drive the trigger wire to move when being triggered so as to release the multiple expandable blades from the folded condition due to being held down by the trigger ring and to enter into an expanded condition by the pretightening force from the torsion springs. the fixed hold-down mechanism comprises an annular bottom plate and torsion springs and rotating shafts arranged on the bottom plate, wherein the torsion springs are wound around the rotating shafts; the multiple expandable blades are arranged along the edge of the bottom plate and are mounted around the rotating shafts in a rotating manner; the multiple expandable blades are fixed vertically over the bottom plate in the initial state, held down by the trigger ring to be folded together in an annular shape and to present in a folded condition; the torsion springs are arranged one-to-one with the expandable blades, with one end of each torsion spring fixed to the expandable blade and the other end to the bottom plate, and the torsion springs are arranged to make the expandable blades expand towards the radial dimension of the focusing electrode and to provide a pretightening force; the trigger pedal, the trigger wire and the trigger ring constitute an automatic trigger mechanism; one end of the trigger wire is fixed to the trigger pedal and the other end to the trigger ring; the trigger pedal is arranged to drive the trigger wire to move when being triggered so as to release the multiple expandable blades from the folded condition due to being held down by the trigger ring and to enter into an expanded condition by the pretightening force from the torsion springs.
An inoculant for the manufacture of cast iron with spheroidal graphite, said inoculant comprises a particulate ferrosilicon alloy consisting of between 40 and 80 % by weight of Si, 0.02-8 % by weight of Ca; 0-5 % by weight of Sr; 0-12 % by weight of Ba; 0-10 % by weight of rare earth metal; 0-5 % by weight of Mg; 0.05-5 % by weight of Al; 0-10 % by weight of Mn; 0-10 % by weight of Ti; 0-10 % by weight of Zr; wherein said inoculant additionally contains, by weight, based on the total weight of inoculant: 0.1 to 15 % by weight of particulate rare earth metal oxide(s), and at least one of from 0.1 to 15 % of particulate Bi 2 O 3, and/or from 0.1 to 15 % of particulate Bi 2 S 3, and/or from 0.1 to 15 % of particulate Sb 2 O 3, and/or from 0.1 to 15 % of particulate Sb 2 S 3, and/or from 0.1 to 5 % of one of more of particulate Fe 3 O 4, Fe 2 O 3, FeO, or a mixture thereof, and/or from 0.1 to 5 % of one of more of particulate FeS, FeS 2, Fe 3 S 4, or a mixture thereof. the balance being iron and incidental impurities in the ordinary amount. 0.02-8 % by weight of Ca; 0-5 % by weight of Sr; 0-12 % by weight of Ba; 0-10 % by weight of rare earth metal; 0-5 % by weight of Mg; 0.05-5 % by weight of Al; 0-10 % by weight of Mn; 0-10 % by weight of Ti; 0-10 % by weight of Zr; wherein said inoculant additionally contains, by weight, based on the total weight of inoculant: 0.1 to 15 % by weight of particulate rare earth metal oxide(s), and at least one of from 0.1 to 15 % of particulate Bi 2 O 3, and/or from 0.1 to 15 % of particulate Bi 2 S 3, and/or from 0.1 to 15 % of particulate Sb 2 O 3, and/or from 0.1 to 15 % of particulate Sb 2 S 3, and/or from 0.1 to 5 % of one of more of particulate Fe 3 O 4, Fe 2 O 3, FeO, or a mixture thereof, and/or from 0.1 to 5 % of one of more of particulate FeS, FeS 2, Fe 3 S 4, or a mixture thereof. the balance being iron and incidental impurities in the ordinary amount. 0.1 to 15 % by weight of particulate rare earth metal oxide(s), and at least one of from 0.1 to 15 % of particulate Bi 2 O 3, and/or from 0.1 to 15 % of particulate Bi 2 S 3, and/or from 0.1 to 15 % of particulate Sb 2 O 3, and/or from 0.1 to 15 % of particulate Sb 2 S 3, and/or from 0.1 to 5 % of one of more of particulate Fe 3 O 4, Fe 2 O 3, FeO, or a mixture thereof, and/or from 0.1 to 5 % of one of more of particulate FeS, FeS 2, Fe 3 S 4, or a mixture thereof. the balance being iron and incidental impurities in the ordinary amount.
An apparatus for automatically preparing baked waffle cone sheets, for use in preparing a waffle cone to be filled with a frozen confectionery product, from waffle cone batter, the apparatus comprising a baking station, the baking station comprising a plurality of baking plate locations onto which the waffle cone batter is to be deposited, each baking plate location comprising an essentially planar baking surface comprising a characteristic waffle region comprising a first array of parallel linear grooves (15, 17) so as to produce a characteristic waffle pattern in the baked waffle sheet from the resulting parallel linear protrusions in the baked waffle sheet; wherein each baking plate location also comprises a graphical region, the graphical region being located within the characteristic waffle region and comprising grooves (15, 17) corresponding to a graphical image, and also comprising at least one linear groove, each linear groove being contiguous with, dimensionally similar to and collinear with a groove in the characteristic waffle region, and wherein the spacing density of grooves in the graphical region is less than that in the surrounding characteristic waffle region.
A massaging tool for pets, which comprises: two approximately cylindrical roller bodies (3, 103), and a grip body having a branched supporting part which has a first supporting part and a second supporting part which are in the form of a right and left pair, and can vary a separation distance between the first supporting part and the second supporting part, wherein each of the first supporting part and the second supporting part supports the roller body (3, 103) in the freely rotatable manner so that a rotation axis of the roller body (3, 103) is oriented in the direction approximately vertical to the direction of the separation distance between the first supporting part and the second supporting part, and the roller body (3, 103) has a plurality of convex parts (11, 111) which project to the radial direction, characterised in that: the convex parts (11, 111) are formed on a surface of a ring-like cover belt which is detachable to the roller body (3, 103), a variable range of the separation distance between the first supporting part and the second supporting part is in the range of 140 mm to 290 mm, and the height of the convex parts (11, 111) is within the range of 3 mm to 9 mm. two approximately cylindrical roller bodies (3, 103), and a grip body having a branched supporting part which has a first supporting part and a second supporting part which are in the form of a right and left pair, and can vary a separation distance between the first supporting part and the second supporting part, wherein each of the first supporting part and the second supporting part supports the roller body (3, 103) in the freely rotatable manner so that a rotation axis of the roller body (3, 103) is oriented in the direction approximately vertical to the direction of the separation distance between the first supporting part and the second supporting part, and the roller body (3, 103) has a plurality of convex parts (11, 111) which project to the radial direction, characterised in that: the convex parts (11, 111) are formed on a surface of a ring-like cover belt which is detachable to the roller body (3, 103), a variable range of the separation distance between the first supporting part and the second supporting part is in the range of 140 mm to 290 mm, and the height of the convex parts (11, 111) is within the range of 3 mm to 9 mm. the convex parts (11, 111) are formed on a surface of a ring-like cover belt which is detachable to the roller body (3, 103), a variable range of the separation distance between the first supporting part and the second supporting part is in the range of 140 mm to 290 mm, and the height of the convex parts (11, 111) is within the range of 3 mm to 9 mm.
A method of monitoring and controlling desalting in a crude distillation unit, comprising: mixing crude oil and wash water by a pressure drop across a mix valve, thereby forming a crude oil/water phase stream; supplying the crude oil/water phase stream into a desalter vessel, whereupon an emulsion forms at an interface between the crude oil and the water phase; contacting the crude oil/water phase stream with a dosage of an emulsion breaker in an applied electric field; measuring at least one property associated with the emulsion using an emulsion level indicator; measuring a total chlorine and a water percentage of the crude oil; and adjusting in real time at least one of the pressure drop and the dosage of the emulsion breaker in response to at least one of the measured properties, total chlorine, and water percentage, further comprising measuring an oil percentage of the water phase, and adjusting in real time a dosage of an adjunct additive in response to the measured oil percentage, wherein the properties associated with the emulsion include a width of the interface and a rate of change, further comprising injecting in real time a dosage of a caustic in response to at least one of the measured properties, total chlorine, and water percentage. mixing crude oil and wash water by a pressure drop across a mix valve, thereby forming a crude oil/water phase stream; supplying the crude oil/water phase stream into a desalter vessel, whereupon an emulsion forms at an interface between the crude oil and the water phase; contacting the crude oil/water phase stream with a dosage of an emulsion breaker in an applied electric field; measuring at least one property associated with the emulsion using an emulsion level indicator; measuring a total chlorine and a water percentage of the crude oil; and adjusting in real time at least one of the pressure drop and the dosage of the emulsion breaker in response to at least one of the measured properties, total chlorine, and water percentage, further comprising measuring an oil percentage of the water phase, and adjusting in real time a dosage of an adjunct additive in response to the measured oil percentage, wherein the properties associated with the emulsion include a width of the interface and a rate of change, further comprising injecting in real time a dosage of a caustic in response to at least one of the measured properties, total chlorine, and water percentage.