mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for generating a temperature-controlled, cold gas stream, comprising a storage tank for storing cryogenically liquefied gas and a withdrawal line, connected to the storage tank, for withdrawing liquefied gas from the storage tank and comprising an evaporator unit integrated in the withdrawal line, wherein branching off of the withdrawal line, downstream of the storage tank and upstream of the evaporator unit, is a liquid feed line which leads into the withdrawal line downstream of the evaporator unit at an introduction device, wherein the introduction device is equipped with a measuring device for recording the temperature in the withdrawal line downstream of the evaporator unit and with a control valve, operatively connected to the measuring device, for controlling the introduction of liquefied gas into the withdrawal line, characterized in that the evaporator unit comprises a heat exchanger with a heat-exchanger surface for causing the liquefied gas to come into indirect thermal contact with a heat transfer fluid, an air evaporator arranged parallel to the heat exchanger, and a switching arrangement (11, 12) for the controlled switching on and off of the heat exchanger and/or air evaporator. wherein branching off of the withdrawal line, downstream of the storage tank and upstream of the evaporator unit, is a liquid feed line which leads into the withdrawal line downstream of the evaporator unit at an introduction device, wherein the introduction device is equipped with a measuring device for recording the temperature in the withdrawal line downstream of the evaporator unit and with a control valve, operatively connected to the measuring device, for controlling the introduction of liquefied gas into the withdrawal line, characterized in that the evaporator unit comprises a heat exchanger with a heat-exchanger surface for causing the liquefied gas to come into indirect thermal contact with a heat transfer fluid, an air evaporator arranged parallel to the heat exchanger, and a switching arrangement (11, 12) for the controlled switching on and off of the heat exchanger and/or air evaporator.
An optical system of LED variable-focus imaging lamp, comprising a LED light source module, a light-collecting assembly, a shutter assembly and a zoom lens assembly, which are installed in sequence according to the direction of a light path, geometry centers of the module and assemblies being collinear with a primary optic axis A, a focal point F1 of said light-collecting assembly coinciding with a focal point F2 of the zoom lens assembly for at least two points of operation of the zoom lens, wherein said zoom lens assembly comprises a first zoom lens, a diaphragm with a clear aperture and a second zoom lens, said first zoom lens and the second zoom lens move forward or backward along the direction of the primary optic axis A so that zoom is realized, said diaphragm is disposed between the first zoom lens and the second zoom lens, and the clear aperture of said diaphragm is adjustable, characterized in that said shutter assembly is disposed at the position of the focal point F1 of the light-collecting assembly.
An ejection chip comprising: a substrate that includes one or more fluid channels and one or more fluid ports each in communication with at least one of the one or more fluid channels; a nozzle layer disposed over the flow feature layer, the nozzle layer including one or more nozzles each in communication with at least one of the one or more flow features so that one or more fluid paths are defined by the one or more fluid channels, the one or more fluid ports, the one or more flow features, and the one or more nozzles; and one or more valves that selectively impede flow of fluid through the one or more fluid paths; and characterised in that the ejection chip further comprising a flow feature layer disposed over the substrate, the flow feature layer include one or more flow features each in communication with at least one of the one or more fluid ports for directing fluid and the flow feature layer is layered with respect to the substrate and directs fluid through the ejection chip. a substrate that includes one or more fluid channels and one or more fluid ports each in communication with at least one of the one or more fluid channels; a nozzle layer disposed over the flow feature layer, the nozzle layer including one or more nozzles each in communication with at least one of the one or more flow features so that one or more fluid paths are defined by the one or more fluid channels, the one or more fluid ports, the one or more flow features, and the one or more nozzles; and one or more valves that selectively impede flow of fluid through the one or more fluid paths; and
Process for producing fumed silica, in which i) a stream of matter a, comprising at least one fuel gas, is combined ii) with a stream of matter b, comprising at least one silane selected from the group consisting of dichlorosilane (H 2 SiCl 2), monochlorosilane (H 3 SiCl) or monosilane (SiH 4) or mixtures thereof, to give a stream of matter c, without using a static or dynamic mixing element, iii) and in which stream of matter c is supplied to a stream of matter d, comprising at least one oxygen source, iv) streams of matter c and d are mixed with a mixing element to give a stream of matter e, v) stream of matter e is introduced into a reaction chamber, where it is ignited and converted, and vi) the resultant solids are removed. i) a stream of matter a, comprising at least one fuel gas, is combined ii) with a stream of matter b, comprising at least one silane selected from the group consisting of dichlorosilane (H 2 SiCl 2), monochlorosilane (H 3 SiCl) or monosilane (SiH 4) or mixtures thereof, to give a stream of matter c, without using a static or dynamic mixing element, iii) and in which stream of matter c is supplied to a stream of matter d, comprising at least one oxygen source, iv) streams of matter c and d are mixed with a mixing element to give a stream of matter e, v) stream of matter e is introduced into a reaction chamber, where it is ignited and converted, and vi) the resultant solids are removed.
Method for the positionally correct orientation of working equipment arranged on a liftable and lowerable lifting frame of a working machine in a tiltable manner, wherein the working equipment is moved relative to the lifting frame by means of a tilting cylinder, wherein the working equipment is connected to the piston rod of the tilting cylinder by means of an articulated lever mechanism (5, 6), wherein the tilting cylinder is supplied with hydraulic oil from a hydraulic pump for the working hydraulic system by a direct-operated control valve, and wherein secondary consumers of the working machine are supplied with hydraulic oil from at least one other hydraulic pump, wherein following operation of a triggering element by the driver, the two hydraulic connections (25, 27) of the tilting cylinder designed as a differential cylinder are also connected to the hydraulic pump for the secondary consumers by a switch-over valve activated by a control device thereby moving the tilting cylinder in the direction of the neutral position of the working equipment, wherein the position of the tilting cylinder is determined and monitored by the control device of the switch-over valve, and wherein, on reaching the pre-set neutral position of the tilting cylinder, the control device of the switch-over valve switches the switch-over valve into a position in which the two hydraulic connections (25, 27) of the tilting cylinder are shut off from the hydraulic pump for the secondary consumers.
A method of decreasing immunogenicity of an RNA encoding at least one peptide or protein, wherein the RNA comprises characteristics of eukaryotic mRNA, wherein the RNA comprises a 5' untranslated region, a coding region, a 3' untranslated region and a poly sequence, said method comprising modifying the nucleotide sequence of the RNA by reducing the uridine content in the coding region, wherein said reduction of the U content comprises a substitution of U nucleosides by nucleosides other than U, wherein the modified RNA is an A-rich RNA which comprises a coding region having an A content of more than 25%; wherein said nucleosides other than U are selected from the group consisting of adenosine, guanosine, and cytidine, and wherein the amino acid sequence of the peptide or protein encoded by the modified RNA is identical to the amino acid sequence of the peptide or protein encoded by the non-modified RNA.
A method for manufacturing a printing plate containing a print image, wherein the print image of the printing plate is generated while employing a 3D-printingprocess, characterized in that the printing plate is a printing plate for intaglio printing, the printing plate is cast from a matrix which carries the negative of the print image, wherein the negative of the print image is imprinted regionally on the matrix using the 3D-printing process, and the matrix has been created by galvanic casting from a master.
A composition comprising the following components a. At least 30 wt. % organic vehicle; b. 0.5 to 35 wt. % of Au as such present in the composition in the form of a Au organic compound; c. 0.1 to 10 wt. % of a tetravalent metal as such present in the composition in form of a tetravalent metal organic compound; d. 0 to 6 wt. % of Bi as such present in the composition in the form of a Bi organic compound; wherein the wt. % are based on the total weight of the composition. a. At least 30 wt. % organic vehicle; b. 0.5 to 35 wt. % of Au as such present in the composition in the form of a Au organic compound; c. 0.1 to 10 wt. % of a tetravalent metal as such present in the composition in form of a tetravalent metal organic compound; d. 0 to 6 wt. % of Bi as such present in the composition in the form of a Bi organic compound; wherein the wt. % are based on the total weight of the composition.
A high tensile strength galvanized steel sheet with excellent formability and anti-crush properties, having a TS-El balance of TS × EL ≥ 19000 MPa·% according to JIS Z 2241, a hole expansion ratio of λ ≥ 50% according to JFST 1001, and a ratio of the absorption energy and the tensile strength of AE/TS ≥ 0.063 measured according to the method specified in the description, the steel sheet comprising, in terms of % by mass, 0.05 to 0.30 of C, 0.01 to 2.5% of Si, 0.5 to 3.5% of Mn, 0.003 to 0.100% of P, 0.02% or less of S, 0.010 to 1.5% of Al, 0.007% or less of N, and 0.01 to 0.2% in total of at least one element selected from Ti, Nb, and V, and optionally one or more of 0.005 to 2.00% of Cr, 0.005 to 2.00% of Mo, 0.005 to 2.00% of Ni, 0.005 to 2.00% of Cu, 0.0002 to 0.005% of B, 0.001 to 0.005% of Ca and 0.001 to 0.005% of REM, the remainder being Fe and unavoidable impurities, the steel sheet having a microstructure consisting of, in terms of area fraction, 20 to 87% of ferrite, 3 to 10% in total of martensite and residual austenite, and 10 to 600 of tempered martensite, and a second phase composed of the martensite, residual austenite, and tempered martensite having an average crystal grain diameter of 3 μm or less, wherein the second phase may further contain perlite and bainite. having a TS-El balance of TS × EL ≥ 19000 MPa·% according to JIS Z 2241, a hole expansion ratio of λ ≥ 50% according to JFST 1001, and a ratio of the absorption energy and the tensile strength of AE/TS ≥ 0.063 measured according to the method specified in the description, the steel sheet comprising, in terms of % by mass, 0.05 to 0.30 of C, 0.01 to 2.5% of Si, 0.5 to 3.5% of Mn, 0.003 to 0.100% of P, 0.02% or less of S, 0.010 to 1.5% of Al, 0.007% or less of N, and 0.01 to 0.2% in total of at least one element selected from Ti, Nb, and V, and optionally one or more of 0.005 to 2.00% of Cr, 0.005 to 2.00% of Mo, 0.005 to 2.00% of Ni, 0.005 to 2.00% of Cu, 0.0002 to 0.005% of B, 0.001 to 0.005% of Ca and 0.001 to 0.005% of REM, the remainder being Fe and unavoidable impurities, the steel sheet having a microstructure consisting of, in terms of area fraction, 20 to 87% of ferrite, 3 to 10% in total of martensite and residual austenite, and 10 to 600 of tempered martensite, and a second phase composed of the martensite, residual austenite, and tempered martensite having an average crystal grain diameter of 3 μm or less, wherein the second phase may further contain perlite and bainite.
An article of footwear having an upper and a sole structure secured to the upper, the upper comprising: a knitted component (a) forming an ankle opening in a heel region of the footwear and (b) extending between the heel region and a forefoot region of the footwear to define a void within the footwear for receiving a foot, a majority of the knitted component being formed from a first knit layer, wherein a portion of the knitted component located in a throat area of the upper having a layered structure that includes the first knit layer, a second knit layer, and a third knit layer, and each of the first knit layer, the second knit layer, and the third knit layer being formed of unitary knit construction; and a cover component secured to the sole structure and extending between the throat area and the sole structure, the knitted component being at least partially located within the cover component. a knitted component (a) forming an ankle opening in a heel region of the footwear and (b) extending between the heel region and a forefoot region of the footwear to define a void within the footwear for receiving a foot, a majority of the knitted component being formed from a first knit layer, wherein a portion of the knitted component located in a throat area of the upper having a layered structure that includes the first knit layer, a second knit layer, and a third knit layer, and each of the first knit layer, the second knit layer, and the third knit layer being formed of unitary knit construction; and a cover component secured to the sole structure and extending between the throat area and the sole structure, the knitted component being at least partially located within the cover component.
A peptidomimetic of Formula: Z2-Lys-Phe-Arg-Arg-Gln-Arg-Pro-aa'8-aa'9-Ser-His-Lys-Gly-Pro-Nle-Aib-paraBrPhe, or a pharmaceutically acceptable salt thereof, wherein aa'8-aa'9 is a dipeptide selected from a group consisting of: Arg-NMeLeu, Arg-αMeLeu, Arg-azaLeu, Arg-D-Leu, αMeArg-Leu, and azaArg-Leu; and wherein Z2 is selected from the group consisting of H, PALM or PEG; wherein PALM is wherein n is from 8 to 20; and wherein PEG is wherein m is from 3 to 10, and W is H, a lower alkyl, or a protecting group. Z2-Lys-Phe-Arg-Arg-Gln-Arg-Pro-aa'8-aa'9-Ser-His-Lys-Gly-Pro-Nle-Aib-paraBrPhe, or a pharmaceutically acceptable salt thereof, wherein aa'8-aa'9 is a dipeptide selected from a group consisting of: Arg-NMeLeu, Arg-αMeLeu, Arg-azaLeu, Arg-D-Leu, αMeArg-Leu, and azaArg-Leu; and wherein Z2 is selected from the group consisting of H, PALM or PEG; wherein PALM is wherein n is from 8 to 20; and wherein PEG is wherein m is from 3 to 10, and W is H, a lower alkyl, or a protecting group. Arg-NMeLeu, Arg-αMeLeu, Arg-azaLeu, Arg-D-Leu, αMeArg-Leu, and azaArg-Leu; and wherein Z2 is selected from the group consisting of H, PALM or PEG; wherein PALM is wherein n is from 8 to 20; and wherein PEG is wherein m is from 3 to 10, and W is H, a lower alkyl, or a protecting group.
A method for removing a hollow support element from within a moulded part to form a cavity within the moulded part, the hollow support element being an inflatable bladder comprising an internal cavity, the hollow support element being disposed within the moulded part and composed of material having a softening temperature, the method comprising: heating a liquid to a temperature at least equal to the softening temperature of the material; injecting the heated liquid into an opening in the moulded part to deform the material; and removing deformed material and liquid from the cavity. heating a liquid to a temperature at least equal to the softening temperature of the material; injecting the heated liquid into an opening in the moulded part to deform the material; and removing deformed material and liquid from the cavity.
A method for controlling the concentration of volatile organic compounds in a fluid of a fluid network of an industrial plant, the plant being intended to carry out an industrial method, the fluid comprising a plurality of volatile organic compounds, comprising the following steps: · first step of on-line measurement of the concentration of each of the volatile organic compounds of the plurality of volatile organic compounds in the fluid of the fluid network by an analyser, · second step of comparing the concentration of each of the volatile organic compounds of the plurality of organic compounds measured by the analyser with a threshold value predefined for each of the volatile organic compounds, as a treatment setpoint value or maximum alarm value, · third step of reducing the concentration of at least one volatile organic compound if the concentration of said at least one volatile organic compound measured by the analyser is greater than the corresponding predefined threshold value, the industrial method being a drilling method using a drilling fluid, the method being characterised in that the drilling fluid comprises a contaminated/non-contaminated fluid mixture and the third step of reduction consists in adapting the density of the drilling fluid as a function of the concentration of the at least one volatile organic compound measured in the network fluid by controlling the contaminated/non-contaminated fluid mixture. · first step of on-line measurement of the concentration of each of the volatile organic compounds of the plurality of volatile organic compounds in the fluid of the fluid network by an analyser, · second step of comparing the concentration of each of the volatile organic compounds of the plurality of organic compounds measured by the analyser with a threshold value predefined for each of the volatile organic compounds, as a treatment setpoint value or maximum alarm value, · third step of reducing the concentration of at least one volatile organic compound if the concentration of said at least one volatile organic compound measured by the analyser is greater than the corresponding predefined threshold value,
A television receiver comprising a sound reproduction system comprising: an audio processor; a plurality of separate audio channels; an audio amplifier connected to an output of the audio processor through the plurality of separate audio channels; one or more speakers, the one or more speakers being in communication with an output of the audio amplifier; and, an audio signal detector in communication with the output of the audio processor, wherein the audio signal detector is adapted to monitor a signal strength between the audio processor and the audio amplifier of an output signal from the audio processor and adapted to generate a mute control signal in response to which the output of the audio amplifier is muted, the sound reproduction system being characterised in that the audio signal detector comprises for each audio channel: a detector circuit and a threshold determining circuit (R3, R4, R8, R11) having an output connected to an input of the detector circuit and configured to determine at said output of the threshold determining circuit a threshold voltage of said detector circuit at which the mute control signal is generated wherein the threshold determining circuit comprises an isolating capacitor (C1, C2) by means of which it is coupled to the output of the audio processor, and wherein each detector circuit comprises an amplifier stage (Q1, R5, Q5, R12) having an input connected to the output of the threshold determining circuit, an emitter follower (Q2,Q6) having an input connected to an output of the amplifier stage (Q1, R5, Q5, R12), a smoothing circuit (R2, C4, R9, C5) having an input connected to an output of the emitter follower (Q2,Q6) and a transistor functioning as a switch (Q3,Q4) and having a base connected to an output of the smoothing circuit, wherein the switches (Q3,Q4) of the detector circuits of the plurality of separate audio channels are arranged to function as an AND circuit so that the mute control signal is generated only when the output signal strength from the audio processor for each audio channel of the plurality of separate audio channels is below the threshold voltage.
A mask system for treating a patient for sleep disordered breathing, comprising: a respiratory mask adapted to seal against a patient's face thereby forming a breathing cavity for positive pressure treatment of the patient; and headgear for use in supporting the respiratory mask in position on the patient's face for positive pressure treatment of the patient, the headgear comprising: a knitted tube formed of a unitary seamless structure that is formed in one piece to shape without the need to cut away substantial amounts of material; and a rear portion, wherein the knitted tube has a portion connecting to the rear portion. a respiratory mask adapted to seal against a patient's face thereby forming a breathing cavity for positive pressure treatment of the patient; and headgear for use in supporting the respiratory mask in position on the patient's face for positive pressure treatment of the patient, the headgear comprising: a knitted tube formed of a unitary seamless structure that is formed in one piece to shape without the need to cut away substantial amounts of material; and a rear portion, a knitted tube formed of a unitary seamless structure that is formed in one piece to shape without the need to cut away substantial amounts of material; and a rear portion, wherein the knitted tube has a portion connecting to the rear portion.
A positive electrode active material for a lithium secondary battery, the positive electrode active material being a secondary particle formed by agglomerating a plurality of polycrystalline primary particles comprising a lithium composite metal oxide of Chemical Formula 1, wherein an average crystallite size of the primary particles is 180 to 400 nm, a particle size D50 of the primary particle is 1.5 to 3 μm, and the primary particle is doped or surface-coated with at least one element M selected from the group consisting of Al, Ti, Mg, Zr, Y, Sr, and B in an amount of 3,800 to 7,000 ppm based on a total weight of the positive electrode active material: [Chemical Formula 1] Li a (Ni x Mn y Co z Aw)O 2+b in Chemical Formula 1, A is at least one element selected from the group consisting of W, V, Cr, Nb, and Mo, and 0.95≤a≤1.2, 0≤b≤0.02, 0<x<1, 0<y≤0.4, 0<z<1, 0≤w<0.2, and x+y+z+w=1.