mhurhangee/ep-ind-claims huggingface dataset:
A process for polymerization of ethylene and optionally one or more α-olefins under continuous, solution polymerization conditions to prepare a high molecular weight polymer, said process comprising conducting the polymerization in the presence of a catalyst composition comprising a transition metal complex and an activating cocatalyst under conditions that result in a value for the polymerization index, Ψ, that is greater than or equal to zero as determined by the following equation: Ψ = β 0 + β 1 T + β 2 X + β 3 E + β 4 ρ + β 5 I 2, where, T is the polymerization temperature in degrees Celsius, X is the ethylene conversion in the reactor in mol percent, E is the catalyst efficiency in g polymer produced per μg of metal in the metal complex fed to the reactor per unit time, ρ is the resulting polymer density in units of g/ml, I 2 is the melt index of the polymer in units of dg/minute, and the equation constants, β 0 - β 5, are unitless numbers having the values defined in the following table: Equation Constant Value Equation Constant Value β 0 -13796.073 β 3 62.5876298 β 1 111.445393 β 4 -18931.8878 β 2 137.437524 β 5 -108.320017 wherein the process is conducted at a temperature from 170 to 250 °C in the presence of a chain transfer agent to prepare a polymer having a density between 0.885 and 0.950 g/cm 3, a melt index, I 2, < 2.0, a molecular weight distribution Mw/Mn < 3.0, and a catalyst efficiency of greater than 0.5 g polymer /μg metal.
A communication method, applied to a first terminal, characterized in that the method comprises: when an instruction for instructing transmitting user data via a direct communication connection is received, acquiring user verification information, the user verification information comprising verification data input through the first terminal; establishing a second direct communication connection with the second terminal; sending the user verification information to a second terminal via the second direct communication connection; when verification success information is received from the second terminal via the second direct communication connection, transmitting, via the second direct communication connection, at least one connection parameter for establishing the first direct communication connection between the first terminal and the second terminal, and establishing a first direct communication connection with the second terminal according to the at least one connection parameter; and sending the user data to the second terminal via the first direct communication connection. when an instruction for instructing transmitting user data via a direct communication connection is received, acquiring user verification information, the user verification information comprising verification data input through the first terminal; establishing a second direct communication connection with the second terminal; sending the user verification information to a second terminal via the second direct communication connection; when verification success information is received from the second terminal via the second direct communication connection, transmitting, via the second direct communication connection, at least one connection parameter for establishing the first direct communication connection between the first terminal and the second terminal, and establishing a first direct communication connection with the second terminal according to the at least one connection parameter; and sending the user data to the second terminal via the first direct communication connection.
A superposition operation circuit, comprising a current generation circuit and a first operational amplifier, wherein the current generation circuit comprises a first input end, a second input end, and an output end, wherein a first voltage signal is input to the first input end, a second voltage signal is input to the second input end, and the current generation circuit is configured to convert the first voltage signal to a first current signal, convert the second voltage signal to a second current signal, and output a current difference between the first current signal and the second current signal through the output end; and a to-be-superposed analog signal is input to a positive-phase input end of the first operational amplifier, a negative-phase input end of the first operational amplifier is connected to an output end of the first operational amplifier, the output end of the first operational amplifier is connected to the output end of the current generation circuit by using a first resistor, and the first operational amplifier is configured to superpose the to-be-superposed analog signal on a voltage drop on the first resistor. the current generation circuit comprises a first input end, a second input end, and an output end, wherein a first voltage signal is input to the first input end, a second voltage signal is input to the second input end, and the current generation circuit is configured to convert the first voltage signal to a first current signal, convert the second voltage signal to a second current signal, and output a current difference between the first current signal and the second current signal through the output end; and a to-be-superposed analog signal is input to a positive-phase input end of the first operational amplifier, a negative-phase input end of the first operational amplifier is connected to an output end of the first operational amplifier, the output end of the first operational amplifier is connected to the output end of the current generation circuit by using a first resistor, and the first operational amplifier is configured to superpose the to-be-superposed analog signal on a voltage drop on the first resistor.
A polymeric scaffold for cardiac regeneration, comprising a support structure comprising at least one support layer characterized in that it is formed of a polymeric material selected from the group consisting of poly(lactic-co-glycolic) acid, poly(3-hydroxybutyric-co-3-hydroxyvaleric) acid and poly(dioxanone), possibly in association with a biological polymer, the support layer being further characterized in that it has a surface on which a plurality of cavities is formed, arranged in a regular lattice, said cavities being defined by an array of longitudinal linear projections (40a, 40b) and by an array of transverse linear projections, respectively intersecting each other.
A floor-to-floor transport system for transporting articles between different floors by using an upward path (Va) and a downward path (Vb) in a vertical transporter that revolves in one direction, the articles being transport containers for semiconductor wafers or reticles, the floor-to-floor transport system comprising on one floor: a loading transport line (20, 20B) configured to transport to the vertical transporter an article to be transported to another floor; a first loading opening through which the article is loaded into the upward path (Va) in the vertical transporter; a second loading opening through which the article is loaded into the downward path (Vb) in the vertical transporter; a transferer (50, 50A-D) configured to selectively transfer to the first loading opening or the second loading opening an article transported by the loading transport line (20, 20B); and a controller configured to control the transferer (50, 50A-D) depending on a destination of the article. a loading transport line (20, 20B) configured to transport to the vertical transporter an article to be transported to another floor; a first loading opening through which the article is loaded into the upward path (Va) in the vertical transporter; a second loading opening through which the article is loaded into the downward path (Vb) in the vertical transporter; a transferer (50, 50A-D) configured to selectively transfer to the first loading opening or the second loading opening an article transported by the loading transport line (20, 20B); and
Aeroplane comprising at least one fuselage, two wings (3, 4), a tail unit comprising a horizontal stabilizer provided with two stabilizer ends (9, 10), and at least two engines (5, 6) arranged on the fuselage on either side of a vertical plane of symmetry of the aeroplane, said aeroplane having a longitudinal axis, characterized in that said engines (5, 6) are mounted such that they can be moved, at least in flight, on said fuselage, essentially parallel to the longitudinal axis, between a "forward" position and a "rear" position, and in that said stabilizer ends (9, 10) are mounted such that they can be pivoted, at least in flight, relative to said horizontal stabilizer.
A method comprising: a) providing initial starting genetic material comprising cell free polynucleotides; b) converting polynucleotides from the initial starting genetic material into tagged parent polynucleotides by ligating non-unique barcodes to the cell free polynucleotides such that the combination of the barcode and the sequence of the cell free polynucleotide creates a unique sequence that may be individually tracked; c) amplifying the tagged parent polynucleotides to produce amplified progeny polynucleotides; d) sequencing a subset of the amplified progeny polynucleotides to produce sequence reads; e) grouping the sequence reads into families, each family generated from a unique tagged parent polynucleotide from step (b); and f) producing a representation of information in the tagged parent polynucleotides and/or initial starting genetic material with reduced noise and/or distortion compared with sequence reads within a family. a) providing initial starting genetic material comprising cell free polynucleotides; b) converting polynucleotides from the initial starting genetic material into tagged parent polynucleotides by ligating non-unique barcodes to the cell free polynucleotides such that the combination of the barcode and the sequence of the cell free polynucleotide creates a unique sequence that may be individually tracked; c) amplifying the tagged parent polynucleotides to produce amplified progeny polynucleotides; d) sequencing a subset of the amplified progeny polynucleotides to produce sequence reads; e) grouping the sequence reads into families, each family generated from a unique tagged parent polynucleotide from step (b); and f) producing a representation of information in the tagged parent polynucleotides and/or initial starting genetic material with reduced noise and/or distortion compared with sequence reads within a family.
An outer diffuser case for use in a gas turbine engine comprising an epicyclic transmission, the outer diffuser case comprising: a housing orientated about an axis; a forward flange projecting radially outward from the housing and configured to detachably engage a high pressure compressor; an aft flange spaced axially downstream from the forward flange, projecting radially outward from the housing, and configured to detachably engage a high pressure turbine; and a mid-flange spaced axially between the forward and aft flanges and projecting radially inward from the housing, and wherein the mid flange is configured to detachably engage an inner diffuser case; wherein the housing is cone shaped and diverges in a downstream direction; characterized in that, the housing has an axial length within a range of 39.200 to 39.210 cm, and an outer diameter proximate to the forward flange within a range of 51.864 to 51.890 cm; and the housing has a minimum wall thickness proximate to the aft flange within a range of 0.305 to 0.330 cm. a housing orientated about an axis; a forward flange projecting radially outward from the housing and configured to detachably engage a high pressure compressor; an aft flange spaced axially downstream from the forward flange, projecting radially outward from the housing, and configured to detachably engage a high pressure turbine; and a mid-flange spaced axially between the forward and aft flanges and projecting radially inward from the housing, and wherein the mid flange is configured to detachably engage an inner diffuser case; wherein the housing is cone shaped and diverges in a downstream direction; characterized in that,
A contactless electric power supply mechanism for a rotary table (10A, 10B) of a wafer rotating and holding device (12A, 12B), the contactless electric power supply mechanism comprising: a rotary shaft; a rotary table, which is placed on an end of the rotary shaft, and is configured to hold a wafer on an upper surface of the rotary table; a drive motor configured to supply motive power to the rotary shaft; a fixed-side primary coil wound around the rotary shaft; an electric power supply source connected to the fixed-side primary coil; a rotary table-side secondary coil, which is provided so as to correspond to the fixed-side primary coil and be separated from the fixed-side primary coil by a predetermined distance, and is mounted to the rotary table; a load connected to the rotary table-side secondary coil, wherein the load is supplied with electric power by electromagnetic induction via the rotary table-side secondary coil; a first resonant capacitor connected to the fixed-side primary coil; and a second resonant capacitor connected to the rotary table-side secondary coil. a rotary shaft; a rotary table, which is placed on an end of the rotary shaft, and is configured to hold a wafer on an upper surface of the rotary table; a drive motor configured to supply motive power to the rotary shaft; a fixed-side primary coil wound around the rotary shaft; an electric power supply source connected to the fixed-side primary coil; a rotary table-side secondary coil, which is provided so as to correspond to the fixed-side primary coil and be separated from the fixed-side primary coil by a predetermined distance, and is mounted to the rotary table; a load connected to the rotary table-side secondary coil, wherein the load is supplied with electric power by electromagnetic induction via the rotary table-side secondary coil; a first resonant capacitor connected to the fixed-side primary coil; and a second resonant capacitor connected to the rotary table-side secondary coil.
An LED lighting device with modular optical system, comprising at least one LED element and at least one lighting module that is associated with said LED element and is adapted to distribute a light beam emitted by said LED element, according to a given photometric model; said lighting module comprising a primary optical element and a secondary optical element, said secondary optical element cooperating with said primary optical element in order to distribute said light beam; said primary and secondary optical elements (8, 9) being interchangeable in order to modify said photometric model; said device comprising a supporting plate which comprises a plurality of seats and a plurality of lighting modules, each of said seats accommodating a respective lighting module; each lighting module being arranged at a respective LED element applied to a base plate; said device being characterized by a same secondary optical element being mounted on a same primary optical element in different positions, in a detachable manner with a variable angle of rotation with respect to the primary optical element, in order to modify said photometric model.
Solar collector having a plurality of absorbers arranged parallel, and a collector lens which closes the solar collector on the side of the entry of the solar radiation, Fresnel lenses being applied, preferably as a film coating, in or below the collector lens, the absorbers being located at the focal points of the Fresnel lenses, characterised in that lines, which are arranged in metal foam absorbers and through which fluid flows, are arranged between the absorbers.
Window assembly for a vehicle or building, particularly a side window for a high-speed passenger-train, comprising a glazing having one or more panes (2, 3) made of glass, plastic, and/or ceramic material, a window opening provided in a body of the vehicle or building, a frame like gasket provided between the glazing and the body and holding the glazing on the body within the window opening, at least one insert or pin for reinforcing the gasket, wherein the gasket comprises a gasket recess for accommodating and holding a glazing edge face or edge of the glazing, wherein the gasket recess of the gasket provides a circumferential gasket bottom, characterized in that the at least one insert or pin comprises a flanged head extending between the glazing edge face or edge and the gasket bottom of the gasket recess. a glazing having one or more panes (2, 3) made of glass, plastic, and/or ceramic material, a window opening provided in a body of the vehicle or building, a frame like gasket provided between the glazing and the body and holding the glazing on the body within the window opening, at least one insert or pin for reinforcing the gasket, wherein the gasket comprises a gasket recess for accommodating and holding a glazing edge face or edge of the glazing, wherein the gasket recess of the gasket provides a circumferential gasket bottom, characterized in that the at least one insert or pin comprises a flanged head extending between the glazing edge face or edge and the gasket bottom of the gasket recess.
Method of manufacturing a plant receptacle wherein the following steps are performed: a) a PLA thread is covered with a flexible aliphatic polyester, said flexible aliphatic polyester comprising 10 wt% to 90 wt% organic material, such that the flexible aliphatic polyester covers the PLA thread, thereby creating a weldable biodegradable thread; b) using said weldable biodegradable thread in a woven or non-woven process, making a permeable sheet material; c) continuously forming said sheet material into a continuous receptacle, by bringing the side edges of said sheet material into contact and welding said side edges together; d) cutting said continuous receptacle in predetermined lengths thereby creating separate plant receptacles or wherein said continuous receptacle is perforated substantially perpendicular to the longitudinal direction of the continuous receptacle at predetermined intervals, thereby allowing separate plant receptacles to be detached from the continuous receptacle. a) a PLA thread is covered with a flexible aliphatic polyester, said flexible aliphatic polyester comprising 10 wt% to 90 wt% organic material, such that the flexible aliphatic polyester covers the PLA thread, thereby creating a weldable biodegradable thread; b) using said weldable biodegradable thread in a woven or non-woven process, making a permeable sheet material; c) continuously forming said sheet material into a continuous receptacle, by bringing the side edges of said sheet material into contact and welding said side edges together; d) cutting said continuous receptacle in predetermined lengths thereby creating separate plant receptacles or wherein said continuous receptacle is perforated substantially perpendicular to the longitudinal direction of the continuous receptacle at predetermined intervals, thereby allowing separate plant receptacles to be detached from the continuous receptacle.
A thin film dispenser, comprising: a housing comprising an upper casing having a first end; a length; and an inner surface; a lower casing combined with the upper casing to define a chamber between the lower casing and the upper casing, and the lower casing having an end pivotally connected with the first end of the upper casing; a length being longer than that of the upper casing; and an inner surface facing to and spaced from the inner surface of the upper casing; and an engagement device disposed on the inner surfaces of the upper casing and the lower casing; and a dispensing unit mounted in the chamber in the housing, characterized in that: the engagement device comprises an upper engaging tab formed on the upper casing; and a lower engaging tab formed on the lower casing and engaging the upper engaging tab the upper casing has a second end opposite to the first end of the upper casing; the upper engaging tab is formed on the second end of the upper casing and extends toward the lower casing; the lower casing has an inner bottom facing the upper casing; and the lower engaging tab is formed on the inner bottom of the lower casing at a position corresponding to the upper engaging tab. a housing comprising an upper casing having a first end; a length; and an inner surface; a lower casing combined with the upper casing to define a chamber between the lower casing and the upper casing, and the lower casing having an end pivotally connected with the first end of the upper casing; a length being longer than that of the upper casing; and an inner surface facing to and spaced from the inner surface of the upper casing; and an engagement device disposed on the inner surfaces of the upper casing and the lower casing; and a dispensing unit mounted in the chamber in the housing, characterized in that: the engagement device comprises an upper engaging tab formed on the upper casing; and a lower engaging tab formed on the lower casing and engaging the upper engaging tab the upper casing has a second end opposite to the first end of the upper casing; the upper engaging tab is formed on the second end of the upper casing and extends toward the lower casing; the lower casing has an inner bottom facing the upper casing; and the lower engaging tab is formed on the inner bottom of the lower casing at a position corresponding to the upper engaging tab. the engagement device comprises an upper engaging tab formed on the upper casing; and a lower engaging tab formed on the lower casing and engaging the upper engaging tab the upper casing has a second end opposite to the first end of the upper casing; the upper engaging tab is formed on the second end of the upper casing and extends toward the lower casing; the lower casing has an inner bottom facing the upper casing; and the lower engaging tab is formed on the inner bottom of the lower casing at a position corresponding to the upper engaging tab.
An arrangement of a combustor and a device for selective non catalytic reduction, the device for selective non catalytic reduction comprising at least a nozzle with a slit (54, 54a) for injecting a reagent, and a control system for controlling the flow from the nozzle, characterized in that the flow of the reagent is a pulsed flow from the nozzle controlled by the control system so that during operation, because of the varying volume flow of the reagent, the exit velocity from the slit increases or decreases causing a change in the diameter of the reagent droplets, wherein the device comprises a hose connected to the nozzle, wherein the nozzle comprises a body and an occlusion, and wherein the slit (54, 54a) is defined by the body and the occlusion, or by the body and an intermediate disc between the body and the occlusion.