mhurhangee/ep-ind-claims huggingface dataset:
Device for treating the exhaust gases of a vehicle, comprising an inlet for the gas and an outlet, a substrate extending in a longitudinal direction and arranged between the inlet and the outlet, the substrate having catalytic properties, a phase-change material being arranged close to the substrate, characterized in that the substrate is arranged, along at least one first part, divided into at least three sectors extending in the longitudinal direction and spaced apart from one another so as to form a space in which a single casing suffices to contain the phase-change material occupying the space between the sectors.
Method for counteracting axial migration of moisture in a foam insulation layer of a thermally insulated transport tube, which method comprises the steps of: providing an area of the transport tube where the foam insulation layer is absent; arranging a shrinking sleeve around said area, wherein this shrinking sleeve has a larger axial length than said area and overlaps at each side with an outer tube extending around said foam insulation layer; making said shrinking sleeve shrink by heating, so that the axial ends of the shrinking sleeve clamp around said outer tube; if desired, welding the axial ends of the shrinking sleeve to said outer tube; filling the annular space defined between the transport tube and the shrinking sleeve with a hardening substance, wherein the material of this substance is chosen, at least after hardening, to be watertight and to adhere well to the transport tube, to the shrinking sleeve, and to the foam insulation layer; wherein the hardening substance on introduction comprises a liquid fraction and a grain-shaped fraction. providing an area of the transport tube where the foam insulation layer is absent; arranging a shrinking sleeve around said area, wherein this shrinking sleeve has a larger axial length than said area and overlaps at each side with an outer tube extending around said foam insulation layer; making said shrinking sleeve shrink by heating, so that the axial ends of the shrinking sleeve clamp around said outer tube; if desired, welding the axial ends of the shrinking sleeve to said outer tube; filling the annular space defined between the transport tube and the shrinking sleeve with a hardening substance, wherein the material of this substance is chosen, at least after hardening, to be watertight and to adhere well to the transport tube, to the shrinking sleeve, and to the foam insulation layer; wherein the hardening substance on introduction comprises a liquid fraction and a grain-shaped fraction.
A sheet piling with a device for recovering heat from the environment in particular for use in civil and hydraulic engineering, and with at least one sheet piling element, the device comprising a thermocouple and a connecting element (16, 28) connected to the thermocouple for connection to the sheet piling element anchored in ground, wherein in the installed state the thermocouple is configured to transfer thermal energy drawn from the water or the ground surrounding the thermocouple and/or the sheet piling element to a heat pump, and wherein the thermocouple is formed as a heat tube or heat exchanger, characterized in that at least one connecting element is formed as a hook and the sheet piling comprises a loop, wherein connecting to the sheet piling element is performed by hooking up the hook with the loop on the sheet piling element and/or at least one connecting element is formed as a rail and the sheet piling element comprises a rail guide, so that connecting to the sheet piling element is performed by inserting the rail into the rail guide at the sheet piling element, wherein in the installed state the rail is spaced from a sheet piling lock for the connection of sheet piling elements.
A device (3; 3b) for adjusting the inclination of an optical axis in a lighting device for vehicles, specifically for varying the vertical alignment thereof with respect to a travel direction of the vehicle, by rotating a reflector pivotally carried about a horizontal axis by a cup-shaped body of the lighting device, inside the same, the adjusting device comprising: a first shaft supported in use by said cup-shaped body, manual 1 adjustment means for translating the first shaft along a symmetry axis thereof, and a second shaft provided with driving means for translating the second shaft along a symmetry axis whereof; wherein said second shaft and the corresponding driving means are carried by a slide (18; 180) engaged into guides (19,20) integral in use with said cup-shaped body and parallel to the first shaft, the latter being axially fastened so as to be integral with the slide so as to translate it along the guides upon the actuation of the manual adjustment means; the second shaft being arranged parallel to the first shaft and having a first free end, axially projecting so as to protrude from the driving means and axially movable with respect to the slide (18; 180), provided with means (26,27; 270,500) for the connection to the reflector; and wherein said slide (18; 180) is delimited by opposite longitudinal sides having a pair of side members (30,31; 300,310) engaging said guides; the second shaft projecting so as to protrude into an empty space of the slide (18; 180); characterized in that, in combination: i)- said empty space of the slide (18; 180) is delimited between said longitudinal sides and a first end of the slide, to which one end of the first shaft is idly fastened; ii)- the driving means for the second shaft being integrally carried by a second end of the slide, opposite to the first; iii)- the second shaft performing a complete axial translation stroke thereof, determined by said driving means within said empty space of the slide. i)- said empty space of the slide (18; 180) is delimited between said longitudinal sides and a first end of the slide, to which one end of the first shaft is idly fastened; ii)- the driving means for the second shaft being integrally carried by a second end of the slide, opposite to the first; iii)- the second shaft performing a complete axial translation stroke thereof, determined by said driving means within said empty space of the slide.
A blade for a turbo machine, in particular for a gas turbine, comprising: an airfoil body extending in a radial direction between a root end and a tip end, the air foil body comprising an inner cavity or void that extends from the root end in the radial direction; a root body integrally formed with the airfoil body and extending from the root end of the air foil body to a bottom end in the radial direction, the root body comprising a receiving slot extending from the bottom end in the radial direction and opening into the inner void of the air foil body; and a block shaped insert, wherein the dimensions and a shape of the insert and the slot of the root body correspond to each other, and the insert is positioned within the receiving slot of the root body, characterised in that the insert comprising a plurality of through holes extending in the radial direction to form a fluid connection to the inner void. an airfoil body extending in a radial direction between a root end and a tip end, the air foil body comprising an inner cavity or void that extends from the root end in the radial direction; a root body integrally formed with the airfoil body and extending from the root end of the air foil body to a bottom end in the radial direction, the root body comprising a receiving slot extending from the bottom end in the radial direction and opening into the inner void of the air foil body; and a block shaped insert, wherein the dimensions and a shape of the insert and the slot of the root body correspond to each other, and the insert is positioned within the receiving slot of the root body, characterised in that the insert comprising a plurality of through holes extending in the radial direction to form a fluid connection to the inner void.
A cleaning product comprising an inverted container assembly and a liquid hand dishwashing cleaning composition contained in the inverted container assembly, wherein: the inverted container assembly comprises an inverted container having a bottom surface and a top surface located away from the bottom surface, the bottom surface having an opening; and a liquid dispenser attached to the bottom surface of the inverted container, wherein: a) the cleaning composition comprises from 1% to 60% by weight of the total composition of a surfactant system, wherein the surfactant system comprises: i) an anionic surfactant; and ii) a primary co-surfactant system, wherein the primary co-surfactant system is selected from the group consisting of amphoteric surfactant, zwitterionic surfactant and mixtures thereof; wherein the composition comprises the anionic surfactant and the primary cosurfactant system is in a weight ratio of from 8:1 to 1:1. b) from 0.001% to 5% by weight of the composition of an external structurant, wherein the external structurant is selected from the group consisting of micro fibril cellulose, non-polymeric crystalline hydroxyl-containing rheology modifiers selected from the group consisting of hydroxyl-containing fatty acids, fatty esters and hydrogenated castor oil derivatives, naturally derived or synthetic polymeric structurants, or mixtures thereof. a) the cleaning composition comprises from 1% to 60% by weight of the total composition of a surfactant system, wherein the surfactant system comprises: i) an anionic surfactant; and ii) a primary co-surfactant system, wherein the primary co-surfactant system is selected from the group consisting of amphoteric surfactant, zwitterionic surfactant and mixtures thereof; wherein the composition comprises the anionic surfactant and the primary cosurfactant system is in a weight ratio of from 8:1 to 1:1. i) an anionic surfactant; and ii) a primary co-surfactant system, wherein the primary co-surfactant system is selected from the group consisting of amphoteric surfactant, zwitterionic surfactant and mixtures thereof; b) from 0.001% to 5% by weight of the composition of an external structurant, wherein the external structurant is selected from the group consisting of micro fibril cellulose, non-polymeric crystalline hydroxyl-containing rheology modifiers selected from the group consisting of hydroxyl-containing fatty acids, fatty esters and hydrogenated castor oil derivatives, naturally derived or synthetic polymeric structurants, or mixtures thereof.
A capacitor structure comprising: a first well having a first dopant polarity and a first high-dose implant formed therein; a second well adjacent the first well and having a second dopant polarity opposite the first dopant polarity, the second well having a second high-dose implant formed therein; at least one insulating layer formed over the first high-dose implant and the second high-dose implant; a first set of well-ties (114, 116) formed in the first well; a second set of well-ties (110, 112) formed in the second well; a first conductor formed over the first well over the first high-dose implant; and a second conductor formed over the second well over the second high-dose implant; wherein the first set of well-ties and the second conductor are commonly tied to a first electrical node, and the second set of well-ties and the first conductor are commonly tied to a second electrical node; charactrized in that at least one of the first set of well-ties and the second set of well-ties is asymmetrical with respect to dopant polarity; and in that the first high-dose implant and the second high-dose implant each have an active surface dopant concentration of at least 1E19/cm 3. a first well having a first dopant polarity and a first high-dose implant formed therein; a second well adjacent the first well and having a second dopant polarity opposite the first dopant polarity, the second well having a second high-dose implant formed therein; at least one insulating layer formed over the first high-dose implant and the second high-dose implant; a first set of well-ties (114, 116) formed in the first well; a second set of well-ties (110, 112) formed in the second well; a first conductor formed over the first well over the first high-dose implant; and a second conductor formed over the second well over the second high-dose implant; wherein the first set of well-ties and the second conductor are commonly tied to a first electrical node, and the second set of well-ties and the first conductor are commonly tied to a second electrical node; charactrized in that at least one of the first set of well-ties and the second set of well-ties is asymmetrical with respect to dopant polarity; and in that the first high-dose implant and the second high-dose implant each have an active surface dopant concentration of at least 1E19/cm 3.
A method of manufacturing an anode active material of a core-shell structure, said method comprising: forming a composite of a core-shell structure by coating a shell including a carbon material on a surface of a core including oxide of a (quasi)metal; forming a mixture by mixing the composite with lithium metal powder; and thermally treating the mixture, wherein the core, after thermally treating the mixture, comprises an alloyed (quasi) metal oxide-Li (MO x -Li y) where M represents a (quasi)metal selected from the group consisting of Si, Sn, and alloys thereof, x is greater than 0 and less than 1.5, and y is greater than 0 and less than 4, wherein a crystal grain size of a (quasi)metal in the (quasi)metal oxide included in the core ranges from 100nm to 200nm. forming a composite of a core-shell structure by coating a shell including a carbon material on a surface of a core including oxide of a (quasi)metal; forming a mixture by mixing the composite with lithium metal powder; and thermally treating the mixture,
A method of making a marker (300, 400, 500, 600), comprising: obtaining a marker housing (302, 402, 502, 602) having first and second cavities (324, 328, 420, 422, 520, 522 624, 626) formed therein; disposing a first resonator (306, 406, 506, 606) in the first cavity (324, 420, 520, 624) and a second resonator (316, 408, 508, 614) in a second cavity (328, 422, 522, 626); and placing a bias element (312, 412 516, 528, 530, 606, 608) at a location on or in the marker so that the first and second resonators are (a) equally spaced apart from the same bias element and (b) biased by the same bias element when the marker is in use to oscillate at a frequency of a received transmit burst. obtaining a marker housing (302, 402, 502, 602) having first and second cavities (324, 328, 420, 422, 520, 522 624, 626) formed therein; disposing a first resonator (306, 406, 506, 606) in the first cavity (324, 420, 520, 624) and a second resonator (316, 408, 508, 614) in a second cavity (328, 422, 522, 626); and placing a bias element (312, 412 516, 528, 530, 606, 608) at a location on or in the marker so that the first and second resonators are (a) equally spaced apart from the same bias element and (b) biased by the same bias element when the marker is in use to oscillate at a frequency of a received transmit burst.
An information processing device configured to generate an image for displaying execution results of a computer on a display unit of a terminal device connected via a network and to transmit the image to the network, the information processing device comprising: an update region extraction unit (105, 106) configured to extract a region, that is updated as a moving image, as a moving image update region from a screen stored in an image memory that holds a screen on which an image of the execution results of the computer is drawn; a division state determination unit (110,108,109) configured to determine a number of divisions of the moving image update region, so that both an I-frame and a P-frame can be transmitted in the same transmission, from information including a network bandwidth, a threshold value of the transmission time for the transmission set in advance, an average compression ratio of a frame encoded without using an inter-frame prediction, and an average compression ratio of a frame encoded by using the inter-frame prediction, wherein the transmission time for the transmission is shorter than the threshold value; an update region division unit configured to divide the update region that has been determined to be the moving image region in the determined number of divisions; and an update region transmission unit (111,112,113) configured to transmit divided update region data to the terminal device. an update region extraction unit (105, 106) configured to extract a region, that is updated as a moving image, as a moving image update region from a screen stored in an image memory that holds a screen on which an image of the execution results of the computer is drawn; a division state determination unit (110,108,109) configured to determine a number of divisions of the moving image update region, so that both an I-frame and a P-frame can be transmitted in the same transmission, from information including a network bandwidth, a threshold value of the transmission time for the transmission set in advance, an average compression ratio of a frame encoded without using an inter-frame prediction, and an average compression ratio of a frame encoded by using the inter-frame prediction, wherein the transmission time for the transmission is shorter than the threshold value; an update region division unit configured to divide the update region that has been determined to be the moving image region in the determined number of divisions; and an update region transmission unit (111,112,113) configured to transmit divided update region data to the terminal device.
A method for sending data, comprising: sending a training frame before sending a data frame of encapsulated data, wherein the training frame is used for training the convergence in data transmission from a sending terminal to a receiving terminal; and sending the data frame when it is determined that the data transmission from the sending terminal to the receiving terminal is convergent; characterized in that, determining that the data transmission from the sending terminal to the receiving terminal is convergent comprises: receiving a reply training frame from the receiving terminal, wherein the reply training frame is used for indicating that the receiving terminal has received the training frame and informing the sending terminal of a type of the training frame; and determining that the data transmission from the sending terminal to the receiving terminal is convergent, according to the training frame and the reply training frame. sending a training frame before sending a data frame of encapsulated data, wherein the training frame is used for training the convergence in data transmission from a sending terminal to a receiving terminal; and sending the data frame when it is determined that the data transmission from the sending terminal to the receiving terminal is convergent; characterized in that, determining that the data transmission from the sending terminal to the receiving terminal is convergent comprises: receiving a reply training frame from the receiving terminal, wherein the reply training frame is used for indicating that the receiving terminal has received the training frame and informing the sending terminal of a type of the training frame; and determining that the data transmission from the sending terminal to the receiving terminal is convergent, according to the training frame and the reply training frame.
A polyphenylene sulfide fiber comprising a polyphenylene sulfide resin having a weight average molecular weight of 50500 or more and 53000 or less, the polyphenylene sulfide fiber having a rigid amorphous content of 50% or more and a crystallite size in a direction of a crystal plane of 5 nm or more.
Hydraulic arrangement for a vehicle transmission, having a hydraulic system path that leads to a hydraulic system circuit with a system pressure (p_sys), a hydraulic lubrication path that leads to a hydraulic lubrication circuit with a lubrication pressure (p_lub), and a branching point, to the output side of which the two hydraulic paths (12, 14) are connected, wherein a variable displacement pump or a pump combination having at least two fixed displacement pumps (40-3, 40-4) is hydraulically connected to the input side of the branching point, characterized in that a pump assembly having at least two fixed displacement pumps (40-1, 40-2) is hydraulically connected to the output side of the branching point in a manner integrated into the system path, wherein a selection valve is connected to the output side of the pump assembly of the system path, said selection valve having a plurality of different switch positions (A1, A2) for different hydraulic connections of the pump assembly to the system circuit, wherein a boost valve that is switchable between different switch positions (V1, V2) is connected to the output side of the selection valve of the system path, said boost valve hydraulically closing or interrupting a parallel secondary path between the selection valve of the system path and the system circuit depending on the system pressure (p_sys).
A filament, comprising a polyester thermoplastic elastomer, said polyester thermoplastic elastomer having a Shore D hardness of 41 or greater measured according to ISO 868:2003 (1 second measurement) and comprising: a) 40 wt % to about 92 wt % hard segments, said hard segments prepared from: i) at least one dicarboxylic acid or diester; and ii) at least one aliphatic diol containing 2-8 carbon atoms; b) 8 wt % to 60 wt% soft segments, said soft segments prepared from: iii) at least one dicarboxylic acid or diester; and iv) at least one polyalkylene glycol or polyalkylene ether glycol; wherein said filament exhibits: a melting peak temperature, when the temperature is increased at a rate of 10°C/minute, in a range from about 130° C to about 205° C; a crystallization peak temperature, when the temperature is decreased at a rate of 10°C/minute, in a range from 50° C to about 140° C; as measured by DSC; and wherein melting peak temperature and crystallization peak temperature are measured according to ISO 11357-3:2001. a) 40 wt % to about 92 wt % hard segments, said hard segments prepared from: i) at least one dicarboxylic acid or diester; and ii) at least one aliphatic diol containing 2-8 carbon atoms; i) at least one dicarboxylic acid or diester; and ii) at least one aliphatic diol containing 2-8 carbon atoms; b) 8 wt % to 60 wt% soft segments, said soft segments prepared from: iii) at least one dicarboxylic acid or diester; and iv) at least one polyalkylene glycol or polyalkylene ether glycol; iii) at least one dicarboxylic acid or diester; and iv) at least one polyalkylene glycol or polyalkylene ether glycol; a melting peak temperature, when the temperature is increased at a rate of 10°C/minute, in a range from about 130° C to about 205° C; a crystallization peak temperature, when the temperature is decreased at a rate of 10°C/minute, in a range from 50° C to about 140° C; as measured by DSC; and wherein melting peak temperature and crystallization peak temperature are measured according to ISO 11357-3:2001.
Co-crystal of Ketoprofen Lysine (Form 4) characterized by having an X ray diffraction pattern with characteristic peaks at 13.6; 16.0; 16.5; 17.3; 19.1; 19.4; 20.5; 21.8; 22.9; 23.5; 24.9; 25.9; 27.6 °2theta ± 0.20 degrees.
An electric power-assisted steering system for motor vehicle, wherein a mechanical reducer with a worm screw and a worm wheel is interposed between an electric assist motor and a pinion gear, in turn engaged with a rack, the worm wheel having a peripheral toothing engaged with the worm screw and a central hub axially and rotatably connected with the pinion gear, characterized in that the worm wheel is bell-like shaped, its central hub being axially shifted with respect to its peripheral toothing, at the side opposite to the rack.