mhurhangee/ep-ind-claims huggingface dataset:
An air pipe head comprising a housing bounding a venting channel (2, 4) and a chamber, wherein the venting channel (2, 4) has an end port opening downwards into the chamber, wherein a float member (6, 6') is arranged in the chamber and guided for guided movement between an uppermost position closing off the end port and a lowermost position spaced below the end port, and wherein the chamber communicates with surroundings of the air pipe head via at least one side port (7; 57), characterized in that a downwardly facing surface portion of the float member in its lowermost position is shielded in substantially all lateral directions and an upper surface portion of the float member in its lowermost position is left exposed and visible in laterally inward direction through said side port (7; 57).
A CAR natural killer cell-derived effector cell population comprising: a population of NK cells expressing a chimeric antigen receptor, the CAR comprising an extracellular domain which specifically binds a predetermined antigen, a transmembrane domain, and a cytoplasmic co-stimulatory signaling domain, wherein the nucleic acid of the NK cells have been modified by reaction with a nucleic acid targeting compound, wherein the nucleic acid targeting compound is a psoralen or a nucleic acid alkylator, wherein the NK cells are present in the population in a therapeutically effective amount for treatment of a malignancy that expresses the predetermined antigen.
Packaging machine in the form of a tray sealing machine, a deep-drawing machine or a chamber machine, comprising a display device, wherein the display device in a timeline graphic provides for a simultaneous representation of at least two processes that take place in the packaging machine in parallel, one after the other and/or in timeoverlapping fashion, wherein a line is provided for each process in the timeline graphic, wherein the dimensions of process symbols assigned to the processes are proportional to the time duration of the respective processes, and wherein the display device shows the representation of a zero line indicating the respectively current state of the processes of the packaging machine.
A method of measuring the transfer function in terms of energy of the radiation of an X-ray optical component over a wide range of X-ray energies comprising: using an X-ray optical component between an X-ray source and a scattering target to obtain a first scatter spectrum; obtaining a second scatter spectrum from the same or a similar target without the X-ray optical component between the X-ray source and the scattering target; and calculating the transfer function by the ratio of the first scatter spectrum to the second scatter spectrum. using an X-ray optical component between an X-ray source and a scattering target to obtain a first scatter spectrum; obtaining a second scatter spectrum from the same or a similar target without the X-ray optical component between the X-ray source and the scattering target; and calculating the transfer function by the ratio of the first scatter spectrum to the second scatter spectrum.
Heat-protective sheet comprising a first layer and a second layer coupled to one another, wherein said first layer comprises a microporous liquid-proof polymer matrix permeable to water vapor, and said second layer comprises a non-woven fabric made of synthetic fibers, wherein said first layer and said second layer are not metallized, wherein said first layer comprises mineral fillers dispersed in said polymer matrix, said polymer matrix comprising micro-pores at least next to said mineral fillers, said mineral fillers comprising particles of calcium carbonate, characterised in that said first layer comprises at least one substance with low-transmittance of the electromagnetic radiation with wavelength from about 7 μm and about 14 μm, wherein said sheet has a whole grammage equal to, or lower than, 60 g/m2.
Cooling apparatus for cooling electrical components of a converter, comprising at least one cooling plate with a first and second cooling region (410, 420), wherein the cooling plate is embodied in at least two parts, and a first part of the cooling plate comprises the first cooling region and a second part of the cooling plate the second cooling region, wherein the cooling regions (410, 420) are thermally coupled to an evaporative cooling apparatus comprising a pipe system and a condenser, and the cooling apparatus has at least a first control element, by means of which the cooling capacity of the evaporative cooling apparatus of at least one of the cooling regions is able to be controlled, wherein the cooling plate comprises a steam collector 10 for collecting evaporated cooling fluid and for guiding the evaporated cooling fluid back to the condenser 8.
A process for recovering diphosphite-containing compounds from a feed mixture comprising diphosphite-containing compounds, organic mononitriles, organic dinitriles and a Lewis acid in a multistage countercurrent liquid-liquid extractor with extraction solvent comprising aliphatic hydrocarbon, cycloaliphatic hydrocarbon or a mixture of aliphatic and cycloaliphatic hydrocarbon, said process comprising: a) flowing the feed mixture to the first stage of the multistage countercurrent liquid-liquid extractor; and b) contacting the feed mixture with extraction solvent from the second stage of the multistage countercurrent liquid-liquid extractor, wherein the first stage of the multistage countercurrent liquid-liquid extractor comprises a mixing section and a settling section, wherein the mixing section provides a mixed phase comprising a light phase and a heavy phase, wherein a light phase separates from a heavy phase in the settling section, wherein a Lewis base is added to the mixing section of the first stage of the multistage countercurrent liquid-liquid extractor, wherein the light phase comprises extraction solvent and extracted diphosphite-containing compounds, wherein the heavy phase comprises organic mononitriles, organic dinitriles and a complex of said Lewis acid and said Lewis base, wherein at least a portion of the light phase is withdrawn from the settling section and treated to recover diphosphite-containing compounds extracted into the light phase, wherein at least a portion of the heavy phase is passed to the second stage of the multistage countercurrent liquid-liquid extractor; and wherein the Lewis base is bis-hexamethylenetriamine. a) flowing the feed mixture to the first stage of the multistage countercurrent liquid-liquid extractor; and b) contacting the feed mixture with extraction solvent from the second stage of the multistage countercurrent liquid-liquid extractor, wherein the first stage of the multistage countercurrent liquid-liquid extractor comprises a mixing section and a settling section, wherein the mixing section provides a mixed phase comprising a light phase and a heavy phase, wherein a light phase separates from a heavy phase in the settling section, wherein a Lewis base is added to the mixing section of the first stage of the multistage countercurrent liquid-liquid extractor, wherein the light phase comprises extraction solvent and extracted diphosphite-containing compounds, wherein the heavy phase comprises organic mononitriles, organic dinitriles and a complex of said Lewis acid and said Lewis base, wherein at least a portion of the light phase is withdrawn from the settling section and treated to recover diphosphite-containing compounds extracted into the light phase, wherein at least a portion of the heavy phase is passed to the second stage of the multistage countercurrent liquid-liquid extractor; and wherein the Lewis base is bis-hexamethylenetriamine.
Microphone assembly comprising a MEMS dual backplate microphone configured to provide a differential output signal, an ASIC comprising a differential amplifier configured to receive the differential output signal, and a control element configured to adjust a setting of the ASIC, wherein the ASIC comprises a first damping capacitor and a second damping capacitor, wherein the capacitance of the first damping capacitor and the capacitance of the second damping capacitor are adjustable, wherein the first damping capacitor is connected to a first signal path that connects a first backplate of the MEMS dual backplate microphone with a first input of the differential amplifier and to a reference potential, wherein the second damping capacitor is connected to a second signal path that connects a second backplate of the MEMS dual backplate microphone with a second input of the differential amplifier and to the reference potential, and wherein the control element is configured to adjust a capacitance of the first damping capacitor and/or a capacitance of the second damping capacitor.
A leading-edge shield for a turbomachine blade, said leading-edge shield comprising a pressure-side wing and a suction-side wing, each extending heightwise from a bottom edge to a top edge and lengthwise from the leading edge to a respective trailing edge (40, 42), and connected together via the leading edge, and wherein the rear edge of the suction-side wing presents tangential continuity over the whole height of the leading-edge shield and at least one shaped segment (S1, S2) that extends with tangential continuity between two rounded ends, the shield being characterised in that the segment is shaped in such a manner that the length (l1, l11, l12) of the suction-side wing within this segment (S1, S2) is shorter than the length (l2, l3, l21, l22, l31, l32) of the suction-side wing at each rounded end of this segment (S1, S2) and outside the at least one segment (S1, S2).
Arrangement comprising an optoelectronic component with two contacts (3a, 3b) and at least one further component part, wherein at least one contact is arranged between the octoelectronic component and the further component part, wherein at least one web is arranged between the optoelectronic component and the further component part, characterized in that insertion bevels are formed at the web and at the contact between the optoelectronic component and the further component part and the insertion bevels take effect in such a way that self-alignment between the optoelectronic component and the further component part is effected during mounting.
System to test and rate operation-dependent processes on operating elements and/or components in automated production and test sequences, comprising a robot that records measured values by means of at least one sensor (14, 18) on at least one operating and/or display element (22, 24) of the component to be tested respectively to be rated and transmits said values to a rating unit which by means of definable quality functions analyzes and rates said measured values, characterized in that the quality functions by means of operators imitate human rating schemes respectively rules, according to which a human expert would make a rating, and based on said process at least one rating is made as the rating result, wherein individual criteria are interactively implemented in the total rating, so that the quality of operating elements is rated in relation to other operating elements.
A system including: a flow source having: a bone cement source including an in-situ hardenable bone cement; and a pressure source to impart motion to the bone cement; an introducer assembly having a channel therethrough, the introducer coupleable to the flow source to provide a bone cement inflow to a bone; an energy source coupled to an energy delivery mechanism for applying energy to the bone cement; a sensor to measure a characteristic of the bone cement; a computer controller for control of the bone cement inflows wherein the controller adjusts a flow parameter in response to a measured characteristic of the bone cement. a flow source having: a bone cement source including an in-situ hardenable bone cement; and a pressure source to impart motion to the bone cement; a bone cement source including an in-situ hardenable bone cement; and a pressure source to impart motion to the bone cement; an introducer assembly having a channel therethrough, the introducer coupleable to the flow source to provide a bone cement inflow to a bone; an energy source coupled to an energy delivery mechanism for applying energy to the bone cement; a sensor to measure a characteristic of the bone cement; a computer controller for control of the bone cement inflows wherein the controller adjusts a flow parameter in response to a measured characteristic of the bone cement.
Pipe manufactured by means of a composition containing ethylene polymers comprising from 30 to 70% by weight relative to the total weight of the composition of an ethylene homopolymer having a melt flow rate MI 2 of 5 to 1000 g/10 min and an standard density SD of at least 965 kg/m 3 and 30 to 70% by weight relative to the total weight of the composition of an ethylene and hexene copolymer having a melt flow rate MI 5 of from 0.01 to 2g/10 min and an standard density SD of from 915 to 935 kg/m 3, the copolymer being prepared in the presence of the homopolymer, so that the composition is composed of particles comprising both the homopolymer and the copolymer, characterized in that the composition has a dynamic viscosity μ 2 measured at 190°C at a 100s -1 shear rate of 10 to 30000 dPa.s, and a ratio between the intrinsic viscosity of the copolymer (η B) and that of the homopolymer (ηA) of at least 2, and the composition is obtainable by a process such as in the first reactor, ethylene is polymerized in suspension in a medium comprising a diluent, of hydrogen, a transition metal catalyst and a co-catalyzer, to form 30 to 70% by weight relative to the total weight of the ethylene homopolymer composition, - said medium further comprising the homopolymer is drawn off from said reactor and subjected to an expansion to degas at least part of hydrogen, then, - the at least partially degassed medium comprising the homopolymer and the ethylene and 1-hexene is introduced into a subsequent reactor and, optionally, at least one other α-olefin and the polymerization is carried out in suspension to form from 30 to 70% by weight relative to the total weight of the composition of the ethylene and hexene copolymer. - said medium further comprising the homopolymer is drawn off from said reactor and subjected to an expansion to degas at least part of hydrogen, then, - the at least partially degassed medium comprising the homopolymer and the ethylene and 1-hexene is introduced into a subsequent reactor and, optionally, at least one other α-olefin and the polymerization is carried out in suspension to form from 30 to 70% by weight relative to the total weight of the composition of the ethylene and hexene copolymer.
A wet pet food product comprising a moisture content of 40 to 90% and being in the form of a solids in gravy or solids in jelly product, wherein the solids comprise a solid pet food component, said solid pet food component having a moisture content of at least 40% and comprising: a) curdlan; b) a hydrocolloid selected from carrageenan, cassia, xanthan, pectin, alginate, agar gum, cellulose, methylcellulose, guar gum, gellan gum, galactomannans, konjac gum, carob gum, starch, modified starch, waxy starch, Arabic gum, karaya gum, tara gum, gum ghatti, gelatin, or any other hydrocolloid from a microbial, plant or animal source; and c) protein in particulate form; wherein the protein content of the solid pet food component is from 5 to 30% on a wet weight basis. a) curdlan; b) a hydrocolloid selected from carrageenan, cassia, xanthan, pectin, alginate, agar gum, cellulose, methylcellulose, guar gum, gellan gum, galactomannans, konjac gum, carob gum, starch, modified starch, waxy starch, Arabic gum, karaya gum, tara gum, gum ghatti, gelatin, or any other hydrocolloid from a microbial, plant or animal source; and c) protein in particulate form;
A drive sprocket comprising a plurality of teeth for meshing with a drive member to transmit rotary motion, the drive member including a plurality of engagement pockets engaging the teeth of the drive sprocket, wherein the teeth are formed integrally with the drive sprocket and each tooth of the plurality of teeth has a tooth profile defined by a first side comprising a first engagement surface and an opposite second side comprising a second engagement surface, and characterized in that, said engagement surfaces are configured such that when driven, a tooth meshes to one of the engagement pockets at a first contact location on the first engagement surface and also at a second contact location on the second engagement surface, wherein the first contact location is radially offset from the second contact location.
Surface-mountable light-emitting diode light source, in which an LED chip is mounted on a leadframe and the leadframe is encapsulated with a one-piece transparent plastic molded body, from which a leadframe connection (11, 12) for the LED chip protrudes on each of at least two side faces, wherein, within the transparent plastic molded body, each of the leadframe connections (11, 12) has between the LED chip and a mounting side of the light-emitting diode light source an S-like bend (14,15) from a chip mounting region to the mounting side of the light-emitting diode light source, which is encapsulated by the plastic molded body.
An ice making machine including: an ice making compartment accommodating an ice making unit for making ice, and storing the ice; and a machine compartment disposed under the ice making compartment, and accommodating a cool air generating unit including a compressor, a condenser, and a blower fan, characterized in that the ice making machine comprising: a water collecting plate disposed between the ice making compartment and the machine compartment, and collecting water generated from ice melted in the ice making compartment; a sprinkling barrel disposed over the condenser, and communicating with the water collecting plate to sprinkle cooling water to the condenser; and the blower fan forcibly moving air for cooling the condenser, wherein the water collecting plate is provided with a first discharge tube for discharging the collected water, the first discharge tube is provided with a first valve for selectively discharging the collected water, and the sprinkling barrel is provided with a first level sensor that measures a level of water in the sprinkling barrel to open and close the first valve. a water collecting plate disposed between the ice making compartment and the machine compartment, and collecting water generated from ice melted in the ice making compartment; a sprinkling barrel disposed over the condenser, and communicating with the water collecting plate to sprinkle cooling water to the condenser; and the blower fan forcibly moving air for cooling the condenser, wherein the water collecting plate is provided with a first discharge tube for discharging the collected water, the first discharge tube is provided with a first valve for selectively discharging the collected water, and the sprinkling barrel is provided with a first level sensor that measures a level of water in the sprinkling barrel to open and close the first valve.
A method performed by hardware processing circuitry, comprising: receiving measurements of dynamic feature data for a geographic region (650, 700); determining static features for the geographic region (650, 700); generating a predicted background noise loudness in the geographic region (650, 700) during a defined time period using a model, wherein the model is trained on training data including historical measurements of dynamic features and historical measurements of static features; characterised in that the method further comprises: determining a route based at least in part on the predicted background noise loudness in the geographic region (650, 700); and selecting an aircraft, from among a plurality of different aircraft, for the route in order to maintain a total noise level below an acceptable level of loudness. receiving measurements of dynamic feature data for a geographic region (650, 700); determining static features for the geographic region (650, 700); generating a predicted background noise loudness in the geographic region (650, 700) during a defined time period using a model, wherein the model is trained on training data including historical measurements of dynamic features and historical measurements of static features; characterised in that the method further comprises: determining a route based at least in part on the predicted background noise loudness in the geographic region (650, 700); and selecting an aircraft, from among a plurality of different aircraft, for the route in order to maintain a total noise level below an acceptable level of loudness. determining a route based at least in part on the predicted background noise loudness in the geographic region (650, 700); and selecting an aircraft, from among a plurality of different aircraft, for the route in order to maintain a total noise level below an acceptable level of loudness.
Tank (100, 300), in particular fermentation tank, having a substantially cylindrical body comprising: a lateral wall constituted by metal sheet wound according to a three-dimensional spiral, wherein said metal sheet comprises a main development direction and two lateral edges (104a, 104b) aligned with respect to said main development direction, said two lateral edges (104a, 104b) comprising first segments welded with second segments of said two lateral edges (104a, 104b) respectively, said first segments and said second segments being adjacent in said three-dimensional spiral for closing said lateral wall, said tank (100, 300) further comprising at least one heat-exchange jacket (106, 306) associated with said lateral wall, for circulation of a fluid inside said heat-exchange jacket (106, 306), so as to exchange heat through said lateral wall with a content of said tank (100, 300). a lateral wall constituted by metal sheet wound according to a three-dimensional spiral, wherein said metal sheet comprises a main development direction and two lateral edges (104a, 104b) aligned with respect to said main development direction, said two lateral edges (104a, 104b) comprising first segments welded with second segments of said two lateral edges (104a, 104b) respectively, said first segments and said second segments being adjacent in said three-dimensional spiral for closing said lateral wall, said tank (100, 300) further comprising at least one heat-exchange jacket (106, 306) associated with said lateral wall, for circulation of a fluid inside said heat-exchange jacket (106, 306), so as to exchange heat through said lateral wall with a content of said tank (100, 300).
A trim unit comprising a control member and a trim plate having a peripheral portion that is provided with a central opening defined by an inner edge of the peripheral portion, the control member being received in the central opening and including a translucent portion having at least one reception zone (222a, 223, 226) for receiving light, the trim unit being characterized in that the trim plate includes a central portion that is arranged in the central opening and that is surrounded by the control member, and in that the translucent portion is designed to transmit, towards the central portion, light received on the reception zone (222a, 223, 226).