mhurhangee/ep-ind-claims huggingface dataset:
A thermoplastic molding composition comprising: from 55 to 85% by weight of at least one copolymer A composed of styrene and/or α-methylstyrene A1 and of acrylonitrile A2, from 10 to 40% by weight of at least one graft copolymer B composed of B1: from 50 to 80% by weight, preferably from 60 to 70% by weight, based on B, of an elastomeric, crosslinked acrylate polymer B1 with average particle diameter (weight average) in the range from 300 to 700 nm as graft base B1, B2: a first graft shell B2 made of from 5 to 30% by weight, preferably from 10 to 20% by weight, based on B, of a vinylaromatic monomer B21, and B3: a second graft shell B3 made of from 15 to 40% by weight, preferably from 20 to 30% by weight, based on B, of a mixture of vinylaromatic monomers B31 and nitrile monomers B32, where the ratio by weight of these monomers B31 to B32 in the graft shell B3 is from 4:1 to 3:2, from 0 to 30% by weight of at least one small-particle graft copolymer B' with average particle diameter (weight average) from 80 to 200 nm, from 0 to 5% by weight of additives and/or auxiliaries C, where the content of nitrile monomer (unit) in copolymer component A of the thermoplastic molding composition and the content of nitrile monomer (unit) in the graft shell B3 differ by at least 8% by weight. from 55 to 85% by weight of at least one copolymer A composed of styrene and/or α-methylstyrene A1 and of acrylonitrile A2, from 10 to 40% by weight of at least one graft copolymer B composed of B1: from 50 to 80% by weight, preferably from 60 to 70% by weight, based on B, of an elastomeric, crosslinked acrylate polymer B1 with average particle diameter (weight average) in the range from 300 to 700 nm as graft base B1, B2: a first graft shell B2 made of from 5 to 30% by weight, preferably from 10 to 20% by weight, based on B, of a vinylaromatic monomer B21, and B3: a second graft shell B3 made of from 15 to 40% by weight, preferably from 20 to 30% by weight, based on B, of a mixture of vinylaromatic monomers B31 and nitrile monomers B32, where the ratio by weight of these monomers B31 to B32 in the graft shell B3 is from 4:1 to 3:2, B1: from 50 to 80% by weight, preferably from 60 to 70% by weight, based on B, of an elastomeric, crosslinked acrylate polymer B1 with average particle diameter (weight average) in the range from 300 to 700 nm as graft base B1, B2: a first graft shell B2 made of from 5 to 30% by weight, preferably from 10 to 20% by weight, based on B, of a vinylaromatic monomer B21, and B3: a second graft shell B3 made of from 15 to 40% by weight, preferably from 20 to 30% by weight, based on B, of a mixture of vinylaromatic monomers B31 and nitrile monomers B32, where the ratio by weight of these monomers B31 to B32 in the graft shell B3 is from 4:1 to 3:2, from 0 to 30% by weight of at least one small-particle graft copolymer B' with average particle diameter (weight average) from 80 to 200 nm, from 0 to 5% by weight of additives and/or auxiliaries C, where the content of nitrile monomer (unit) in copolymer component A of the thermoplastic molding composition and the content of nitrile monomer (unit) in the graft shell B3 differ by at least 8% by weight.
A process for preparing a polyglycerol ether of fatty alcohol comprising the steps of: a) contacting a fatty alcohol having from 8 to 40 carbon atoms with glycerine, in the presence of an: (i) acid/alkaline catalyst, (ii) a solvent, and (iii) a short chain alcohol having from 1 to 7 carbon atoms, emulsifier or a combination thereof; and b) distilling off the short chain alcohol, emulsifier or combination thereof at reduced pressure. a) contacting a fatty alcohol having from 8 to 40 carbon atoms with glycerine, in the presence of an: (i) acid/alkaline catalyst, (ii) a solvent, and (iii) a short chain alcohol having from 1 to 7 carbon atoms, emulsifier or a combination thereof; and (i) acid/alkaline catalyst, (ii) a solvent, and (iii) a short chain alcohol having from 1 to 7 carbon atoms, emulsifier or a combination thereof; and b) distilling off the short chain alcohol, emulsifier or combination thereof at reduced pressure.
An air intake of an aircraft turbojet engine nacelle extending along an axis X in which an air stream circulates from upstream to downstream, the air intake extending circumferentially about axis X and comprising an internal wall pointing to axis X to guide an internal air stream INT and an external wall which is opposite to the internal wall, to guide an external air stream EXT, the walls (21, 22) being connected through a leading edge and an internal partition wall so as to delimit an annular cavity, the air intake comprising means for injecting at least one hot air stream FAC into the internal cavity and at least one ventilation opening formed in the external wall to allow exhaust of the hot air stream FAC after heating the internal cavity, which air intake is characterized in that the ventilation opening comprises an upstream edge the circumferential profile of which is discontinuous to generate turbulences and a downstream edge the radial profile of which is aerodynamic to limit formation of pressure fluctuations.
An automatic splicing device comprising: a tape connecting mechanism configured to automatically connect at a splicing position using splicing tape a first tape provided with indexing holes and component storage cavities (Ct) at a fixed interval and a second tape provided with indexing holes and component storage cavities (Ct) at a fixed interval; a reading device configured to read identification information affixed to each of a first reel around which the first tape is wound and a second reel around which the second tape is wound, the identification information recording information of each of the components stored in cavities (Ct) in each of the first tape and the second tape; characterized by: a communication device configured to communicate with the reading device and component mounter or a host computer connected to the component mounter such that communication is possible; and a control device configured to control the tape connecting mechanism via the communication device, wherein the control device is configured to detect the quantity of empty cavities (Ct) at a connection position of the first and second tapes and send it to the component mounter or the host computer connected to the mounter via the communication device. a tape connecting mechanism configured to automatically connect at a splicing position using splicing tape a first tape provided with indexing holes and component storage cavities (Ct) at a fixed interval and a second tape provided with indexing holes and component storage cavities (Ct) at a fixed interval; a reading device configured to read identification information affixed to each of a first reel around which the first tape is wound and a second reel around which the second tape is wound, the identification information recording information of each of the components stored in cavities (Ct) in each of the first tape and the second tape; characterized by: a communication device configured to communicate with the reading device and component mounter or a host computer connected to the component mounter such that communication is possible; and a control device configured to control the tape connecting mechanism via the communication device, wherein the control device is configured to detect the quantity of empty cavities (Ct) at a connection position of the first and second tapes and send it to the component mounter or the host computer connected to the mounter via the communication device. a communication device configured to communicate with the reading device and component mounter or a host computer connected to the component mounter such that communication is possible; and a control device configured to control the tape connecting mechanism via the communication device, wherein the control device is configured to detect the quantity of empty cavities (Ct) at a connection position of the first and second tapes and send it to the component mounter or the host computer connected to the mounter via the communication device.
Process for the catalytic hydrogenation of succinonitrile in the presence of an amine and a liquid-rinsed Raney-type catalyst that is contacted with an alkaline solution comprising potassium hydroxide and/or rubidium hydroxide, characterized in that the catalyst is contacted with at least a part of the alkaline solution prior to contacting the catalyst with the amine.
Non-rail-bound vehicle, in particular a lorry or bus, comprising a current collector for injecting electrical energy from a two-pole overhead line system arranged along a traffic lane, with contact wires embodied as go-and-return lines, wherein the current collector has at least one collector strip per contact wire, with a working area for contacting the contact wires, detection means for detecting the relative position of the current collector to the contact wires and a steering assistance system for automatically steering the vehicle as a function of the detected relative position, characterised in that the detection means comprise a position determination system for determining a current vehicle position of the vehicle in the traffic lane and a database containing stored contact wire positions of the contact wires along the traffic lane, and in that the detection means are designed to calculate the relative position from the currently determined vehicle position and from the associated contact wire position, wherein the position determination system has a receiving device for receiving the vehicle position determined by a video system external to the vehicle, wherein the video system comprises a video camera for recording video images of a vehicle travelling in the traffic lane and an evaluation device for determining an image position of a characteristic vehicle feature in a video image, and wherein the evaluation device is designed to determine the current vehicle position and/or its direction of travel from the location and recording direction of the video camera and from recording times and certain image positions of the characteristic vehicle feature.
A pharmaceutical composition comprising a therapeutically effective amount of adherent stromal cells from placental or adipose tissue for use in treating a condition that may benefit from the facilitation of hematopoietic stem cell engraftment in a subject, wherein the adherent stromal cells from placental or adipose tissue were cultured under three dimensional culturing conditions supporting cell expansion.
A method for identifying a switching state of an impedance sensor with - a measuring probe that can be influenced in a capacitance by a medium surrounding the measuring probe, - a measuring resonant circuit in which the measuring probe is disposed as a capacitance-determining element, - an electronic unit with a signal generator for exciting the measuring resonant circuit and a signal detector for determining a response signal of the measuring resonant circuit, and - an evaluation and control unit connected to the electronic unit, comprising the following steps: - controlling the signal generator with an input signal, - determining the response signal of the measuring resonant circuit, - outputting a switching state on the basis of an output value, - determining a number of amplitude minima of the frequency response, - for the case that exactly one amplitude minimum is determined, outputting the amplitude minimum as the output value, characterized by the step - for the case that more than one amplitude minimum is determined from the frequency response, determining at least one approximation curve (401, 402, 403) to the amplitude minima and/or amplitude maxima, and determining the output value on the basis of the at least one approximation curve. - a measuring probe that can be influenced in a capacitance by a medium surrounding the measuring probe, - a measuring resonant circuit in which the measuring probe is disposed as a capacitance-determining element, - an electronic unit with a signal generator for exciting the measuring resonant circuit and a signal detector for determining a response signal of the measuring resonant circuit, and - an evaluation and control unit connected to the electronic unit, comprising the following steps: - controlling the signal generator with an input signal, - determining the response signal of the measuring resonant circuit, - outputting a switching state on the basis of an output value, - determining a number of amplitude minima of the frequency response, - for the case that exactly one amplitude minimum is determined, outputting the amplitude minimum as the output value, - for the case that more than one amplitude minimum is determined from the frequency response,
A hydroxide containing double metal cyanide catalyst of the formula, M 1 x [M 2 6] y OH ·L wherein M 1 represents Zn +2, and M 2 represents Co +3, L represents an organic ligand, selected from the group consisting of isopropanol, sec-butanol and tert-butanol. x and y are chosen to maintain electroneutrality, and wherein the catalyst is crystalline. M 1 represents Zn +2, and M 2 represents Co +3, L represents an organic ligand, selected from the group consisting of isopropanol, sec-butanol and tert-butanol. x and y are chosen to maintain electroneutrality, and wherein the catalyst is crystalline.
Rail pair of a longitudinally adjustable vehicle seat comprising at least one bottom rail and one top rail which is longitudinally movable relative to the bottom rail, characterized in that a stiffening element (11.2) is arranged in the interior of the rail pair transversely to the longitudinal orientation, wherein the stiffening element (11.2) supports side flanks of the top rail on the inner face and/or on the outer face.
A pharmaceutical composition comprising an RPN2 inhibitor for use in the treatment or prevention of cancer containing or derived from cancer stem cells, wherein the cancer stem cells carry a mutated p53 gene, wherein the RPN2 inhibitor is anti-RPN2 antibody or fragments thereof, antisense RNA, ribozyme, small interfering RNA or micro RNA or a short hairpin RNA.
A brazing method of aluminum material for joining a brazing object including an aluminum alloy material, by use of an Al-Si-Mg brazing filler metal without the use of flux, the method comprising: (i) heating the brazing object including the aluminum alloy material in a brazing furnace to a temperature of at least 450°C under a first inert gas atmosphere having an oxygen concentration equal to or lower than a first predetermined value; and (ii) heating the filler metal at least to or above a temperature at which the filler metal starts to melt under a second inert gas atmosphere, the second inert gas atmosphere having an oxygen concentration equal to or lower than a second predetermined value; wherein the second predetermined value is lower than the first predetermined value, and wherein a nitrogen gas concentration in the second inert atmosphere is 10% by volume or less, characterised in that the first inert gas atmosphere is obtained by substituting the atmosphere by nitrogen gas, and the second inert gas atmosphere is obtained by substituting the first inert gas atmosphere by a rare gas or a mixed gas containing rare gas. (i) heating the brazing object including the aluminum alloy material in a brazing furnace to a temperature of at least 450°C under a first inert gas atmosphere having an oxygen concentration equal to or lower than a first predetermined value; and (ii) heating the filler metal at least to or above a temperature at which the filler metal starts to melt under a second inert gas atmosphere, the second inert gas atmosphere having an oxygen concentration equal to or lower than a second predetermined value;
A display device (10_2) comprising: a substrate; a first electrode on the substrate; a second electrode on the substrate and spaced apart from the first electrode; a plurality of light emitting elements, at least a portion of each of which is between the first electrode and the second electrode; and contact electrodes (26, 27) on the first electrode, the second electrode and the light emitting elements, the contact electrodes (26, 27) comprising a conductive polymer, wherein the contact electrodes (26, 27) comprise a first contact electrode which contacts an end portion of each of a first portion of the light emitting elements and the first electrode and a second contact electrode which contacts an end portion of each of a second portion of the light emitting elements and the second electrode, wherein the second contact electrode is spaced apart from the first contact electrode, wherein the conductive polymer comprises poly(3,4-ethylenedioxythiophene)polystyrene sulfonate (PEDOT:PSS), wherein the conductive polymer of each of the contact electrodes (26, 27) forms a polymer matrix, and silver (Ag) particles are dispersed in the polymer matrix, and wherein a thickness of each of the contact electrodes (26, 27) is in a range of 150 nm to 250 nm. a substrate; a first electrode on the substrate; a second electrode on the substrate and spaced apart from the first electrode; a plurality of light emitting elements, at least a portion of each of which is between the first electrode and the second electrode; and contact electrodes (26, 27) on the first electrode, the second electrode and the light emitting elements, the contact electrodes (26, 27) comprising a conductive polymer, wherein the contact electrodes (26, 27) comprise a first contact electrode which contacts an end portion of each of a first portion of the light emitting elements and the first electrode and a second contact electrode which contacts an end portion of each of a second portion of the light emitting elements and the second electrode, wherein the second contact electrode is spaced apart from the first contact electrode, wherein the conductive polymer comprises poly(3,4-ethylenedioxythiophene)polystyrene sulfonate (PEDOT:PSS), wherein the conductive polymer of each of the contact electrodes (26, 27) forms a polymer matrix, and silver (Ag) particles are dispersed in the polymer matrix, and wherein a thickness of each of the contact electrodes (26, 27) is in a range of 150 nm to 250 nm.
A method for optimal query scheduling, the method comprising: receiving requests to schedule queries against a database and scheduling execution of each one of the received queries in a query schedule, where each one of the received queries a respective time for execution is scheduled; receiving in an information retrieval data processing system, a request to accelerate query execution of a specified query of the received queries to a time prior to the scheduled time; identifying in the specified query, a specific field corresponding to data in the database; retrieving a freshness of data requirement for the specific field and a frequency of change the data corresponding to the specific field; determining if execution of the specific query at the time prior to the scheduled time instead of the scheduled time violates the freshness of data requirement based upon the frequency of change of the data corresponding of the specific field; and on condition that the execution of the specific query is determined not to violate the freshness of data requirement by scheduling the specific query at the time prior to the scheduled time, scheduling the specific query for execution at the time prior to the scheduled time, but otherwise maintaining the scheduled time for executing the specific query. receiving requests to schedule queries against a database and scheduling execution of each one of the received queries in a query schedule, where each one of the received queries a respective time for execution is scheduled; receiving in an information retrieval data processing system, a request to accelerate query execution of a specified query of the received queries to a time prior to the scheduled time; identifying in the specified query, a specific field corresponding to data in the database; retrieving a freshness of data requirement for the specific field and a frequency of change the data corresponding to the specific field; determining if execution of the specific query at the time prior to the scheduled time instead of the scheduled time violates the freshness of data requirement based upon the frequency of change of the data corresponding of the specific field; and on condition that the execution of the specific query is determined not to violate the freshness of data requirement by scheduling the specific query at the time prior to the scheduled time, scheduling the specific query for execution at the time prior to the scheduled time, but otherwise maintaining the scheduled time for executing the specific query.
Transport container for transporting temperature-sensitive goods, having a container wall arrangement which surrounds an interior space for receiving the goods and has a plurality of walls (5, 6, 7, 8) which adjoin one another at an angle, the container wall arrangement being self-supporting and having an opening for loading and unloading the interior space, which opening can be closed by means of a separate wall element and wherein the container wall arrangement encloses the interior space on all sides with the exception of the opening, wherein the container wall arrangement comprises an outer wall, an inner wall spaced therefrom and a vacuum chamber formed between the outer and inner walls (9,10), wherein the vacuum chamber is formed as a continuous vacuum chamber surrounding the interior space on all sides with the exception of the opening, wherein a plurality of insulation foils lying one above the other at a distance are arranged in the vacuum chamber, the foil plane of which foils extends essentially parallel to the plane of the outer and inner walls (9,10), characterized in that the insulation foils are held at a distance from one another by flat spacer elements, the flat spacer elements being formed by a textile sheet material, in particular being designed as a polyester nonwoven.
A reconfigurable analog front-end circuit, comprising: an analog signal input for receiving an analog input signal; an upstream analog-to-digital converter, ADC,; a shared analog-to-digital converter, ADC,; at least one signal-path switching element (400.1, 400.2, 400.3); and a digital signal output for outputting a digital output signal, which is a digital representation of the analog input signal, wherein the circuit is reconfigurable using the at least one signal-path switching element (400.1, 400.2, 400.3) controlled by a mode signal, which is indicative of one of a first mode and a second mode, wherein in response to the mode signal indicative of the first mode, a first signal path is selectively switched by the at least one signal-path switching element (400.1, 400.2, 400.3) and the analog input signal received at the analog signal input flows along the first signal path, which comprises the shared ADC, wherein in response to the mode signal indicative of the second mode, a second signal path is selectively switched by the at least one signal-path switching element (400.1, 400.2, 400.3) and the analog input signal received at the analog signal input flows along the second signal path, which comprises the upstream ADC and the shared ADC. an analog signal input for receiving an analog input signal; an upstream analog-to-digital converter, ADC,; a shared analog-to-digital converter, ADC,; at least one signal-path switching element (400.1, 400.2, 400.3); and a digital signal output for outputting a digital output signal, which is a digital representation of the analog input signal, a first signal path is selectively switched by the at least one signal-path switching element (400.1, 400.2, 400.3) and the analog input signal received at the analog signal input flows along the first signal path, which comprises the shared ADC, a second signal path is selectively switched by the at least one signal-path switching element (400.1, 400.2, 400.3) and the analog input signal received at the analog signal input flows along the second signal path, which comprises the upstream ADC and the shared ADC.