mhurhangee/ep-ind-claims huggingface dataset:
A distillation plant for separating components of a liquid mixture comprising a vertical rectifier column which is divided by installations into individual separation stages and which is moreover divided by the liquid mixture inflow into a stripper column and an enrichment column, wherein the lower boiling fraction is stripped in the stripper column from the vapor from the liquid mixture rising from a tower sump comprising an evaporator and wherein the vapor is enriched in the enrichment column with the lower boiling fraction which is extracted from a return liquid which is generated in that vapor removed at the tower head is precipitated at least in part in a condenser and is conducted back into the rectifier column and wherein the return liquid as well as the liquid mixture preferably supplied between two separation stages are conducted in the installations following one another vertically and connected to one another, wherein the installations each comprise at least one liquid passage which is separated from the vapor space of the rectifier column at least in part by a membrane wall which is vapor permeable and liquid tight at both sides, characterized in that vertically adjacent installations are each connected to one another via a return passage which is arranged between a liquid outlet provided in a lower region of a liquid passage of the upstream installation viewed in the flow direction of the liquid and a liquid inlet provided in an upper region of a liquid passage of the downstream installation and is conducted upwardly starting from the liquid outlet of the upstream installation initially at least up to the uppermost possible liquid level in this installation such that the liquid passages of the installations are each completely filled with liquid; in that the return passage is configured in the manner of a U pipe; and in that the upper region of the outflow part of the return passage configured in the manner of a U pipe comprises a passage section which is bounded at least in part by a further membrane wall which is preferably again vapor permeable and liquid tight at both sides and which comes into contact with the liquid, on the one hand, and with the vapor space of the rectifier column, on the other hand.
An organic light emitting diode display device, comprising: a pixel region defined by two neighboring gate lines and neighboring first and second data lines crossing the two neighboring gate lines and comprising an emitting area connected to the first data line and to one of the two neighboring gate lines and a transparent area; at least one driving element disposed in the emitting area; a power line overlapping the emitting area and the transparent area and connected to the at least one driving element; a first capacitor electrode disposed in the emitting area and overlapping the power line, wherein the power line and the first capacitor electrode form a first storage capacitor; and a second capacitor electrode disposed in the emitting area and overlapping the first capacitor electrode, wherein the first capacitor electrode and the second capacitor electrode form a second storage capacitor, wherein the transparent area is free from the at least one driving element, the first storage capacitor, the second storage capacitor, and a light emitting diode (De), wherein the power line is formed along a vertical direction parallel to the first and second data lines, wherein each of the emitting area, the power line, the first capacitor electrode and the second capacitor electrode has a rectangular shape with a short side and a long side, the long side extending along the vertical direction, wherein the power line is disposed adjacent to the first data line, and wherein a distance between the first data line and the power line is smaller than a quarter of the short side of the emitting area. a pixel region defined by two neighboring gate lines and neighboring first and second data lines crossing the two neighboring gate lines and comprising an emitting area connected to the first data line and to one of the two neighboring gate lines and a transparent area; at least one driving element disposed in the emitting area; a power line overlapping the emitting area and the transparent area and connected to the at least one driving element; a first capacitor electrode disposed in the emitting area and overlapping the power line, wherein the power line and the first capacitor electrode form a first storage capacitor; and a second capacitor electrode disposed in the emitting area and overlapping the first capacitor electrode, wherein the first capacitor electrode and the second capacitor electrode form a second storage capacitor, wherein the transparent area is free from the at least one driving element, the first storage capacitor, the second storage capacitor, and a light emitting diode (De), wherein the power line is formed along a vertical direction parallel to the first and second data lines, wherein each of the emitting area, the power line, the first capacitor electrode and the second capacitor electrode has a rectangular shape with a short side and a long side, the long side extending along the vertical direction, wherein the power line is disposed adjacent to the first data line, and wherein a distance between the first data line and the power line is smaller than a quarter of the short side of the emitting area.
A process for producing a quartz glass body, comprising the process steps of: i.) providing silicon dioxide particles; ii.) making a glass melt out of the silicon dioxide particles in an oven, wherein the silicon dioxide particles are warmed in a melting crucible made of a material comprising one or more metals selected from molybdenum, tungsten, rhenium, iridium, osmium; and iii.) making a quartz glass body out of at least part of the glass melt, wherein the oven comprises a gas outlet through which the gas is removed from the oven, wherein the dew point of the gas when exiting the oven through the gas outlet is less than 0°C. i.) providing silicon dioxide particles; ii.) making a glass melt out of the silicon dioxide particles in an oven, wherein the silicon dioxide particles are warmed in a melting crucible made of a material comprising one or more metals selected from molybdenum, tungsten, rhenium, iridium, osmium; and iii.) making a quartz glass body out of at least part of the glass melt, wherein the oven comprises a gas outlet through which the gas is removed from the oven, wherein the dew point of the gas when exiting the oven through the gas outlet is less than 0°C. wherein the oven comprises a gas outlet through which the gas is removed from the oven, wherein the dew point of the gas when exiting the oven through the gas outlet is less than 0°C.
A quadrature clock generator, comprising: a first injection-locked oscillator configured to generate a plurality of first clock signals (CLK ILO1) based at least in part on a first reference clock signal (CLK REF1); a first select circuit coupled to the first injection-locked oscillator and configured to select two of the first clock signals (CLK ILO1) as a transmit quadrature clock signal, wherein the transmit quadrature clock signal is provided to a transmit circuit; a phase interpolator coupled to the first injection-locked oscillator and configured to generate a second reference clock signal (CLK REF2) based on a selected pair of the first clock signals (CLK ILO1); a second injection-locked oscillator configured to generate a plurality of second clock signals (CLK ILO2) based at least in part on the second reference clock signal (CLK REF2); and a second select circuit coupled to the second injection-locked oscillator and configured to select two of the second clock signals (CLK ILO2) as a receive quadrature clock signal, wherein the receive quadrature clock signal is provided to a receive circuit. a first injection-locked oscillator configured to generate a plurality of first clock signals (CLK ILO1) based at least in part on a first reference clock signal (CLK REF1); a first select circuit coupled to the first injection-locked oscillator and configured to select two of the first clock signals (CLK ILO1) as a transmit quadrature clock signal, wherein the transmit quadrature clock signal is provided to a transmit circuit; a phase interpolator coupled to the first injection-locked oscillator and configured to generate a second reference clock signal (CLK REF2) based on a selected pair of the first clock signals (CLK ILO1); a second injection-locked oscillator configured to generate a plurality of second clock signals (CLK ILO2) based at least in part on the second reference clock signal (CLK REF2); and a second select circuit coupled to the second injection-locked oscillator and configured to select two of the second clock signals (CLK ILO2) as a receive quadrature clock signal, wherein the receive quadrature clock signal is provided to a receive circuit.
An isolated polypeptide comprising a sequence of amino acid residues selected from the group consisting of a. SEQ ID NO:1; SEQ ID NO:2; SEQ ID NO:3; SEQ ID NO:4; SEQ ID NO:5; SEQ ID NO:6; SEQ ID NO:7 and SEQ ID NO:8 or b. a sequence having at least 95% sequence identity to SEQ ID NO:1; SEQ ID NO:2; SEQ ID NO:3; SEQ ID NO:4; SEQ ID NO:5; SEQ ID NO:6; SEQ ID NO:7 and SEQ ID NO:8, wherein said polypeptide is capable of reducing or inhibiting the formation and/or growth of ice crystals. a. SEQ ID NO:1; SEQ ID NO:2; SEQ ID NO:3; SEQ ID NO:4; SEQ ID NO:5; SEQ ID NO:6; SEQ ID NO:7 and SEQ ID NO:8 or b. a sequence having at least 95% sequence identity to SEQ ID NO:1; SEQ ID NO:2; SEQ ID NO:3; SEQ ID NO:4; SEQ ID NO:5; SEQ ID NO:6; SEQ ID NO:7 and SEQ ID NO:8, wherein said polypeptide is capable of reducing or inhibiting the formation and/or growth of ice crystals.
Method for limiting an X-ray beam, wherein the X-ray beam is limited by a limiting unit comprising a couple of blades (5, 6) approaching each other or moving away from each other to adjust the width of a space between the blades (5, 6), the two blades (5, 6) being driven by an actuator linked to both blades (5, 6), characterized in that - the position of a symmetry axis of the space between the blades (5, 6) is set in a shifting step by changing the distance between the blades (5, 6) and by impeding the motion of one blade in comparison with the motion of the other blade resulting in an asymmetric motion of the blades with respect to an initial position of the symmetry axis, and - the desired width of the space between the blades (5, 6) is set in an adjustment step by an unimpeded symmetric motion of the blades (5, 6) with respect to the position of the symmetry axis set in the shifting step. - the position of a symmetry axis of the space between the blades (5, 6) is set in a shifting step by changing the distance between the blades (5, 6) and by impeding the motion of one blade in comparison with the motion of the other blade resulting in an asymmetric motion of the blades with respect to an initial position of the symmetry axis, and - the desired width of the space between the blades (5, 6) is set in an adjustment step by an unimpeded symmetric motion of the blades (5, 6) with respect to the position of the symmetry axis set in the shifting step.
A multi-blade cutting and drilling finishing tool or fine machining tool, in particular a reamer, for machining deep, in particular stepped bores, e.g., bores for accommodating hydraulic piston slide valves, with a first blade set having a predetermined nominal diameter measure and blades (32-1 to 32-n) distributed essentially uniformly over the circumference, wherein the first blade set has lying behind it in the advancing direction a guiding strip set in the form of preferably cylindrically ground inserts (36-1 to 36-n), characterized in that the guiding strip set is formed by inserts (36-1 to 36-n) which are very accurately positioned such that they are each axially aligned with the blades (32-1 to 32-n) of the first blade set and have a nominal diameter measure that differs from the nominal diameter measure of the first blade set by a value such that, when using the tool, a lubrication gap can form between each insert (36-1 to 36-n) and the bore wall machined by the first blade set, whereby each blade (32-1 to 32-n) of the first blade set can be respectively stabilized via an insert (36-1 to 36-n) which is diametrically and slightly axially offset and via the lubrication gap, which forms in use of the tool wherein the measure by which the nominal diameter measure of the guiding strip set is smaller than the nominal diameter measure of the first blade set lies within a range of between 0.0006 and 0.0016×D.
A system consisting of a prosthesis cosmetic element according to any one of the preceding claims and a prosthesis having a prosthesis joint which has an upper part and a lower part mounted thereon in a pivotal manner about a pivot axis, wherein the prosthesis cosmetic element includes a first frame part that includes at least one first securing means for fastening to the lower part and a second frame part that includes at least one second securing means (225, 226) for fastening to the upper part wherein the frame parts (21, 22) are pivotably supported relative to each other, characterized in that a rotational element is disposed on the prosthesis joint, that rotational element is fastened to one of the two frame parts (21, 22) and has an actuating element disposed thereon that is accessible from the outside.
Vacuum chamber machine for sealing pouches with a sealing bar, wherein the sealing bar comprises an electrically conductive sealing band, wherein the vacuum chamber machine has a controller controlling a heating device for the sealing band, characterized in that the controller is configured to specify a duration of a heating time for the sealing band in dependency of an electrical energy introduced into the sealing bar by sealing processes that happened already previously.
A cationic amphiphile compound of formula I wherein R is selected from the group consisting of shikimoyl and quinoyl group, R 1 and R 2 are each independently hydrogen or a lipophilic moiety and R 1 and R 2 are not hydrogen at the same time; R 3 is independently hydrogen, C 1 -C 5 alkyl, C 1 -C 5 hydroxy and C 1 -C 5 amino; X is chlorine; wherein lipophilic moiety is selected from the group consisting of C 8-24 alkyl, mono-, di- and tri-unsaturated alkenyl. R 1 and R 2 are each independently hydrogen or a lipophilic moiety and R 1 and R 2 are not hydrogen at the same time; R 3 is independently hydrogen, C 1 -C 5 alkyl, C 1 -C 5 hydroxy and C 1 -C 5 amino; X is chlorine; wherein lipophilic moiety is selected from the group consisting of C 8-24 alkyl, mono-, di- and tri-unsaturated alkenyl.
Apparatus for transporting containers between different plants for treating containers, with a transport device which transports a multiplicity of holding devices for the containers individually along a pre-defined transport path, wherein at least one of these holding devices has at least two holding elements (14a, 14b) for gripping the containers and the holding device can be rotated in relation to the transport device about a pre-defined common rotary axis, wherein the apparatus has a transport chain for transporting the holding devices, characterized in that at least two holding elements (14a, 14b) extend in different directions with respect to the rotation axis D, wherein by means of this rotation exact one holding element can be put in the situation to receive containers from other plants or to deliver the same to said plants.
A method for controlling a connecting process of a wind turbine, in which, in response to a connection signal, a rotational speed of a generator is increased, wherein a permissible connection period is specified, within which, following the occurrence of the connection signal, the wind turbine must have been coupled to the grid, wherein the permissible connection period is specified depending on the wind speed and the connecting process is interrupted if, within the permissible connection period, the wind turbine is not coupled to the grid, characterized in that a time-out counter is provided, which is adapted to increase its counter value by an incremental value if a connecting process has been interrupted, wherein the incremental value depends on the wind speed.
A joint sealing tape made of foam material, wherein the joint sealing tape has one or preferably more membrane layers, characterised in that the one or preferably more membrane layers are moisture-variable.
A composition, in particular a pharmaceutical composition, preferably for the particularly topical treatment of skin diseases, wherein the composition comprises - in effective amounts in each case, in particular in pharmaceutically effective amounts - a combination of (a) a mixture containing ectoine and hydroxyectoine in amounts of 1 to 8 wt.%, based on the composition, wherein the ectoine/hydroxyectoine ratio is 70: 30 to 99: 1; and (b) dexpanthenol and/or pantothenic acid and/or esters thereof in amounts of 0.1 to 10 wt.%, based on the composition, together with (c) urea in amounts of 0.001 to 15 wt.%, based on the composition; and/or (d) at least one ingredient of St John's wort ( hypericum perforatum L.) in amounts of 0.0001 to 5 wt.%, based on the composition, wherein the at least one ingredient of St John's wort ( hypericum perforatum L.) is selected from the group of hyperforin, hypericin and mixtures thereof. (a) a mixture containing ectoine and hydroxyectoine in amounts of 1 to 8 wt.%, based on the composition, wherein the ectoine/hydroxyectoine ratio is 70: 30 to 99: 1; and (b) dexpanthenol and/or pantothenic acid and/or esters thereof in amounts of 0.1 to 10 wt.%, based on the composition, together with (c) urea in amounts of 0.001 to 15 wt.%, based on the composition; and/or (d) at least one ingredient of St John's wort ( hypericum perforatum L.) in amounts of 0.0001 to 5 wt.%, based on the composition, wherein the at least one ingredient of St John's wort ( hypericum perforatum L.) is selected from the group of hyperforin, hypericin and mixtures thereof.
A fiber structure for a fiber-reinforced composite material, which includes a fiber structure of discontinuous fibers and matrix resin (Ma) impregnated into the fiber structure, the fiber structure comprising a section in which a width varies continuously along a central axis in a plan view, the fiber structure being characterized in that in a section in which the width increases continuously along the central axis, discontinuous fibers are aligned radially such that discontinuous fibers near the central axis extend along the central axis and discontinuous fibers near sides of the fiber structure extend along the sides, respectively, and both a thickness of the fiber structure and a density of the discontinuous fibers are uniform.
A heat-dissipating film comprising a heat-conductive layer comprising - fine graphene particles and carbon nanotube uniformly dispersed; - a mass ratio of said carbon nanotube to the total of said fine graphene particles and said carbon nanotube being 0.05 - 0.2; - said fine graphene particles being substantially aligned with said heat-conductive layer; and - said heat-conductive layer having a density of 1.9 g/cm 3 or more and thermal conductivity of 600 W/mK or more. - fine graphene particles and carbon nanotube uniformly dispersed; - a mass ratio of said carbon nanotube to the total of said fine graphene particles and said carbon nanotube being 0.05 - 0.2; - said fine graphene particles being substantially aligned with said heat-conductive layer; and - said heat-conductive layer having a density of 1.9 g/cm 3 or more and thermal conductivity of 600 W/mK or more.
A dryer provided with a heat pump cycle having a compressor, a condenser and an evaporator; and a blower passage to allow an air stream to pass in an order of the condenser, a drum to accommodate clothes to be dried, and the evaporator, the dryer comprising: a first water storage tank configured to store condensed water generated as the air stream passes through the evaporator; a second water storage tank connected to the first water storage tank, having a capacity larger than a capacity of the first water storage tank, and configured to store the condensed water transferred from the first water storage tank; a drain pipe having one end opening to the outside of the dryer at a position higher than the second water storage tank; a drain pump connected to the second water storage tank and the other end of the drain pipe, and configured to discharge the condensed water stored in the second water storage tank through the other end of the drain pipe to the outside of the dryer; a second water level detection unit configured to detect a water level of the second water storage tank; and a drain control unit configured to operate the drain pump for a predetermined time in a case when the water level of the second water storage tank is detected as a second predetermined water level by the second water level detection unit, such that the condensed water is discharged from the second water storage tank to the outside of the dryer; wherein the second predetermined water level is set to be lower than a highest water level of the second storage tank by a water level corresponding to a volume of the drain pipe. a first water storage tank configured to store condensed water generated as the air stream passes through the evaporator; a second water storage tank connected to the first water storage tank, having a capacity larger than a capacity of the first water storage tank, and configured to store the condensed water transferred from the first water storage tank; a drain pipe having one end opening to the outside of the dryer at a position higher than the second water storage tank; a drain pump connected to the second water storage tank and the other end of the drain pipe, and configured to discharge the condensed water stored in the second water storage tank through the other end of the drain pipe to the outside of the dryer; a second water level detection unit configured to detect a water level of the second water storage tank; and a drain control unit configured to operate the drain pump for a predetermined time in a case when the water level of the second water storage tank is detected as a second predetermined water level by the second water level detection unit, such that the condensed water is discharged from the second water storage tank to the outside of the dryer; wherein the second predetermined water level is set to be lower than a highest water level of the second storage tank by a water level corresponding to a volume of the drain pipe.