mhurhangee/ep-ind-claims huggingface dataset:
An acid gas absorbent comprising at least one kind of secondary amine compound represented by the following general formula, where R 1 indicates a cyclopentyl group or a cyclohexyl group in which a hydrogen atom may be substituted by a substituted or non-substituted alkyl group having 1 to 3 carbon atoms, R 2 and R 3 each indicate an alkylene group having 2 to 4 carbon atoms, and, R 2 and R 3 may each be the same or different, and be a straight chain or have a side chain, wherein a content of the secondary amine compound represented by the general formula is 10 mass% to 55 mass%. where R 1 indicates a cyclopentyl group or a cyclohexyl group in which a hydrogen atom may be substituted by a substituted or non-substituted alkyl group having 1 to 3 carbon atoms, R 2 and R 3 each indicate an alkylene group having 2 to 4 carbon atoms, and, R 2 and R 3 may each be the same or different, and be a straight chain or have a side chain, wherein a content of the secondary amine compound represented by the general formula is 10 mass% to 55 mass%.
A secondary battery comprising: a case; a first electrode assembly housed inside of the case and having a first multi-tab (161, 171); a second electrode assembly housed inside of the case side by side with the first electrode assembly and having a second multi-tab (162, 172); the first and second electrode assembly (120A, 120B) each including a first electrode plate, a separator and a second electrode plate, wherein the separator is positioned between the first electrode plate and the second electrode plate, a cap plate closing the case and having electrode terminals (140,150) electrically connected to the first and second multi-tabs (161, 162, 171, 172) of the first and second electrode assemblies (120A, 120B), wherein the first and second multi-tabs (161, 171, 162, 172) are formed to be symmetrical to each other with respect to a mutual boundary region of the first and second electrode assemblies (120A, 120B), characterized in that, an insulating layer (280, 380) is coated on the surfaces of the first and second multi-tabs, and wherein a topmost height of the insulating layer (280, 380) is equal to a topmost height of each of the separators. a case; a first electrode assembly housed inside of the case and having a first multi-tab (161, 171); a second electrode assembly housed inside of the case side by side with the first electrode assembly and having a second multi-tab (162, 172); the first and second electrode assembly (120A, 120B) each including a first electrode plate, a separator and a second electrode plate, wherein the separator is positioned between the first electrode plate and the second electrode plate, a cap plate closing the case and having electrode terminals (140,150) electrically connected to the first and second multi-tabs (161, 162, 171, 172) of the first and second electrode assemblies (120A, 120B), wherein the first and second multi-tabs (161, 171, 162, 172) are formed to be symmetrical to each other with respect to a mutual boundary region of the first and second electrode assemblies (120A, 120B), characterized in that, an insulating layer (280, 380) is coated on the surfaces of the first and second multi-tabs, and wherein a topmost height of the insulating layer (280, 380) is equal to a topmost height of each of the separators.
A method for electrostatic printing comprising: (i) providing an ink composition comprising: a hydrocarbon carrier liquid and particles comprising a resin and a colorant, and wherein the ink composition contains less than 0.3 mg of charge director per g of solids in the ink composition; (ii) adding a charge director to the ink composition, such that the total amount of charge director in the ink composition is at least 0.6 mg per g of solids in the ink composition, and, (iii) within a predetermined time of adding the charge director, printing the ink onto a print medium in an electrostatic printing process, wherein the predetermined time is 90 minutes or less, and wherein in step (i) and (ii), the charge director is defined as a director that imparts a negative charge on the particles comprising the resin and the colorant, and aluminium salts, including aluminium stearate, are not charge directors. (i) providing an ink composition comprising: a hydrocarbon carrier liquid and particles comprising a resin and a colorant, and wherein the ink composition contains less than 0.3 mg of charge director per g of solids in the ink composition; a hydrocarbon carrier liquid and particles comprising a resin and a colorant, and wherein the ink composition contains less than 0.3 mg of charge director per g of solids in the ink composition; (ii) adding a charge director to the ink composition, such that the total amount of charge director in the ink composition is at least 0.6 mg per g of solids in the ink composition, and, (iii) within a predetermined time of adding the charge director, printing the ink onto a print medium in an electrostatic printing process, wherein the predetermined time is 90 minutes or less, and wherein in step (i) and (ii), the charge director is defined as a director that imparts a negative charge on the particles comprising the resin and the colorant, and aluminium salts, including aluminium stearate, are not charge directors.
Implant, especially implant for the vascular system, provided with a coating comprising a nucleotide-aptamer, characterized in that the nucleotide-aptamer is chemically or physically bonded to an amino-functionalized parylene coat, the nucleotide-aptamer having a specific bonding affinity with CD34-positive cells and the nucleotide-aptamer comprises one of the following sequences: ccg ccg tgc ggg gta att tct ttt cca taa cga t (Seq. 1) tcc tgc agc ttc ctg atg ct (Seq. 2) gat tgc ctg acg tca tag ag (Seq. 3) cgg cgg ctg acg tca gag ccg (Seq. 4) ccg tcg ttt tgt cgt ttt gtc (Seq. 5). ccg ccg tgc ggg gta att tct ttt cca taa cga t (Seq. 1) tcc tgc agc ttc ctg atg ct (Seq. 2) gat tgc ctg acg tca tag ag (Seq. 3) cgg cgg ctg acg tca gag ccg (Seq. 4) ccg tcg ttt tgt cgt ttt gtc (Seq. 5).
Power MOSFET (200, 300) comprising a substrate having a substrate surface into which a trench structure is introduced, wherein first trenches (204, 304) with a gate oxide on the trench surface and second trenches (212, 312) form the trench structure in that the first trenches (204, 304) and the second trenches (212, 312) are arranged alternately, the first trenches (204, 304) are at least partly filled with a polycrystalline silicon, forming a gate terminal, as first doping region (206, 306) and the second trenches (212, 312) are filled with polycrystalline silicon as second doping region (213, 313), wherein the polycrystalline silicon in the first trench (204, 304) has a first conductivity type and the polycrystalline silicon in the second trench (206, 306) has a second conductivity type, wherein the first conductivity type and the second conductivity type are different, wherein the substrate comprises at least a source layer (207, 307), a body layer (203, 303), an epitaxial layer (202, 302) and a silicon layer (201, 301), wherein the source layer (207, 307) is arranged directly on the body layer (203, 303), the body layer (203, 303) is arranged directly on the epitaxial layer (202, 302), and the epitaxial layer (202, 302) is arranged on the silicon layer (201, 301), wherein the source layer (207, 307) comprises a third doping region, the epitaxial layer (202, 302) comprises a fifth doping region and the silicon layer (201, 301) comprises a sixth doping region, wherein the third doping region, the fifth doping region and the sixth doping region have the first conductivity type, and the body layer (203, 303) comprises a fourth doping region, wherein the fourth doping region has the second conductivity type, wherein the first trenches (204, 304) and the second trenches (212, 312) extend at least right into the epitaxial layer (202, 302), wherein an intermediate layer is arranged between the epitaxial layer (202, 302) and the silicon layer (201, 301), said intermediate layer having a higher doping than the epitaxial layer (202, 302), wherein the intermediate layer has a seventh doping region having the first conductivity type, wherein a direct contact of the second trenches (212, 312) and the intermediate layer produces a p/n junction.
A beta titanium alloy comprising: molybdenum in an amount ranging between 13.0 wt.% to 20.0 wt.%; niobium in an amount ranging between 2.0 wt.% to 4.0 wt.%; silicon in an amount ranging between 0.1 wt.% to 0.4 wt.%; aluminum in an amount ranging between 3.0 wt.% to 5.0 wt.%; zirconium in an amount up to 3.0 wt.%; tin in an amount up to 5.0 wt.%; oxygen in an amount up to 0.25 wt.%; optionally at least one of chromium in an amount up to 1.5 wt.% and tantalum in an amount up to 2.0 wt.%; and a balance of titanium and incidental impurities, the ranges for each element satisfies the conditions of: 6.0 wt. % ≤ X wt. % ≤ 7.5 wt. %; and 3.5 wt. % ≤ Y wt. % ≤ 5.15 wt. %, where X wt. % = aluminum + tin / 3 + zirconium / 6 + 10 * oxygen + nitrogen + carbon, and Y wt.% = aluminum + silicon* zirconium + tin. molybdenum in an amount ranging between 13.0 wt.% to 20.0 wt.%; niobium in an amount ranging between 2.0 wt.% to 4.0 wt.%; silicon in an amount ranging between 0.1 wt.% to 0.4 wt.%; aluminum in an amount ranging between 3.0 wt.% to 5.0 wt.%; zirconium in an amount up to 3.0 wt.%; tin in an amount up to 5.0 wt.%; oxygen in an amount up to 0.25 wt.%; optionally at least one of chromium in an amount up to 1.5 wt.% and tantalum in an amount up to 2.0 wt.%; and a balance of titanium and incidental impurities, the ranges for each element satisfies the conditions of: 6.0 wt. % ≤ X wt. % ≤ 7.5 wt. %; and 3.5 wt. % ≤ Y wt. % ≤ 5.15 wt. %, where X wt. % = aluminum + tin / 3 + zirconium / 6 + 10 * oxygen + nitrogen + carbon, and Y wt.% = aluminum + silicon* zirconium + tin. 6.0 wt. % ≤ X wt. % ≤ 7.5 wt. %; and 3.5 wt. % ≤ Y wt. % ≤ 5.15 wt. %, where X wt. % = aluminum + tin / 3 + zirconium / 6 + 10 * oxygen + nitrogen + carbon, and Y wt.% = aluminum + silicon* zirconium + tin. X wt. % = aluminum + tin / 3 + zirconium / 6 + 10 * oxygen + nitrogen + carbon, and Y wt.% = aluminum + silicon* zirconium + tin.
A storage container comprising a receiving receptacle that is closed by a closure cap, the closure cap being designed to simultaneously close at least two openings, which are each formed by a rim, on the receiving receptacle, which may have multiple parts, and being frictionally connected and/or preferably connected in an interlocking manner to the receiving receptacle when the storage container is in the closed state, characterized in that a separate closure region is present or formed on the closure cap for each opening and, when the storage container is in the closed state, the relevant closure region comes into contact flush against the rim of the corresponding opening in a sealing manner,.and in that, when the storage container is in the closed state, the closure cap assumes a precisely defined closure position on the receiving receptacle, in which position the closure regions comes into contact with the rims under the effect of slight axial contact pressure.
A method of forming a flow restriction in a fluid communication system, the method comprising the steps of: - providing a flow restricting section having a cross sectional area and a length, - measuring the flow resistivity of the flow restricting section, and - modifying the cross sectional area and/or the length of the flow restricting section until a desired flow resistivity of the flow restricting section is obtained. - providing a flow restricting section having a cross sectional area and a length, - measuring the flow resistivity of the flow restricting section, and - modifying the cross sectional area and/or the length of the flow restricting section until a desired flow resistivity of the flow restricting section is obtained.
An apparatus for treating a tumor in a subject's body and facilitating delivery of a substance across cell membranes of the cancer cells in the subject's body, the apparatus comprising: an AC voltage generator configured to operate at a first frequency between 50 and 500 kHz and a second frequency between 50 and 500 kHz, the first frequency for increasing permeability of the cell membranes of the cancer cells, the second frequency for reducing viability of the cancer cells, the second frequency being different from the first frequency, wherein the AC voltage generator has a control input and is configured to output the first frequency when the control input is in a first state and output the second frequency when the control input is in a second state; and a controller programmed to: place the control input in the second state so that the AC voltage generator outputs the second frequency; accept a request to switch the AC voltage generator to output the first frequency; upon receipt of the request, place the control input in the first state so that the AC voltage generator outputs the first frequency for an interval of time; and after the interval of time has elapsed, place the control input in the second state so that the AC voltage generator outputs the second frequency; wherein the interval of time is between 12 and 72 hours. an AC voltage generator configured to operate at a first frequency between 50 and 500 kHz and a second frequency between 50 and 500 kHz, the first frequency for increasing permeability of the cell membranes of the cancer cells, the second frequency for reducing viability of the cancer cells, the second frequency being different from the first frequency, wherein the AC voltage generator has a control input and is configured to output the first frequency when the control input is in a first state and output the second frequency when the control input is in a second state; and a controller programmed to: place the control input in the second state so that the AC voltage generator outputs the second frequency; accept a request to switch the AC voltage generator to output the first frequency; upon receipt of the request, place the control input in the first state so that the AC voltage generator outputs the first frequency for an interval of time; and after the interval of time has elapsed, place the control input in the second state so that the AC voltage generator outputs the second frequency; wherein the interval of time is between 12 and 72 hours. place the control input in the second state so that the AC voltage generator outputs the second frequency; accept a request to switch the AC voltage generator to output the first frequency; upon receipt of the request, place the control input in the first state so that the AC voltage generator outputs the first frequency for an interval of time; and after the interval of time has elapsed, place the control input in the second state so that the AC voltage generator outputs the second frequency; wherein the interval of time is between 12 and 72 hours.
A method for automatically determining whether a detected issue in a computing system is a bug, comprising: receiving information about a detected issue from a stack trace or a crash dump; storing the information about the detected issue in a storage device; generating, by each of one or more feature generators, a feature vector for the detected issue, wherein the one or more feature generators are used to determine whether a particular word is present in the information or a number of times a particular error is present in the information, wherein each of the one or more feature generators is configured to generate a feature vector for an associated model of one or more models of an evaluation component, and wherein each model is configured to look for a specific type of bug; providing each feature vector to its associated model of the evaluation component; analyzing, by the one or more models of the evaluation component, the respective feature vector to determine a probability that the detected issue is a bug; when the probability is above a threshold, reporting the detected issue to a client device; receiving feedback from a user indicating whether the reported detected issue is a bug, comprising providing a fix to the detected issue if the detected issue is a bug; training the one or more models of the evaluation component based on the received feedback; and when it is determined that the probability is not above the threshold, automatically resolving the issue by the computing system. receiving information about a detected issue from a stack trace or a crash dump; storing the information about the detected issue in a storage device; generating, by each of one or more feature generators, a feature vector for the detected issue, wherein the one or more feature generators are used to determine whether a particular word is present in the information or a number of times a particular error is present in the information, wherein each of the one or more feature generators is configured to generate a feature vector for an associated model of one or more models of an evaluation component, and wherein each model is configured to look for a specific type of bug; providing each feature vector to its associated model of the evaluation component; analyzing, by the one or more models of the evaluation component, the respective feature vector to determine a probability that the detected issue is a bug; when the probability is above a threshold, reporting the detected issue to a client device; receiving feedback from a user indicating whether the reported detected issue is a bug, comprising providing a fix to the detected issue if the detected issue is a bug; training the one or more models of the evaluation component based on the received feedback; and when it is determined that the probability is not above the threshold, automatically resolving the issue by the computing system.
A method for remote monitoring and controlling of medical fluid management devices comprising at least one input and output device, preferably a touchscreen display, wherein a data transmission takes place, in the case of which at least parts of the information content of the at least one input and output device of a medical fluid management device are transmitted and output to at least one remote control device, and wherein operator inputs, which control the medical fluid management device, can be input on at least one input and output device of the at least one remote control device, preferably a touchscreen, characterized in that the medical fluid management device automatically assumes a secure state by clamping off the extracorporeal blood circulation from the vascular system of the patient when a connection termination between fluid management device and remote control device is detected, wherein the connection termination is detected in that a confirmation message sent by the remote control device to the medical fluid management device upon properly receiving a transmission from the medical fluid management device is not received by the medical fluid management device, or when a confirmation message sent by the remote control device with a time indication to the medical fluid management device upon properly receiving a transmission from the medical fluid management device is received late by the medical fluid management device compared with an expected time.
Electrical power supply method for a hybrid motor vehicle with two electrical energy storage devices (2, 6) of the type consisting in providing said vehicle both with an electrical power network comprising an electric motor-generator and a first electrical energy storage device having a first nominal voltage, and with an electrical service network comprising a second electrical energy storage device having a second nominal voltage that is lower than said first nominal voltage, said electrical power network and said electrical service network being connected to one another by a reversible DC-to-DC converter, in which method a first optimal current (I ESS1), flowing through said first storage device, and a second optimal current (I ESS2), flowing through said second storage device, are determined according to operating parameters of said first and second electrical energy storage devices (2, 6) so as to minimize losses through thermal dissipation, said method being characterized in that said first and second optimal currents (I ESS1, I ESS2) are further determined according to an efficiency of said reversible DC-to-DC converter and according to an operating current (I inv) flowing through one branch of said electrical power network comprising said motor-generator.
A surgical aid for joints, comprising: a first element, intended to be positioned in contact with a first bone of a joint; a second element, intended to be positioned in contact with a second bone of the joint; the first and second element (10,20) are movable relative to one another along at least a first direction; a displacement sensor predisposed for measuring a relative displacement between the first and second element (10, 20); an actuator or motor predisposed for exerting a force that tends to move away the first element and second element from one another; a force sensor suitable for detecting the force exerted by the actuator or motor; a processing module which receives in input the signals emitted by the displacement sensors and pressure sensors and which is predisposed for controlling the actuator or motor; wherein the processing module is predisposed for detecting the signals of the displacement sensor (30 and of the force sensor and for processing a force/displacement diagram, which puts into correspondence a force value applied by the actuator or motor, which force is obtained from the value detected by the force sensor, with a corresponding displacement value detected by the displacement sensor; wherein the processing module is arranged to store, in at least two bending positions, the force/displacement diagram by detecting the displacement wherein the diagram exhibits a change of slope; characterized in that the processing module is provided with an algorithm to process the displacement values recorded and stored for each angular position to obtain a displacement which corresponds to a maximum tibiofemoral distance in which the capsule-ligamentous tissues are maintained in conditions of isometric tension.
Apparatus for generating steam, the apparatus comprising: an evaporation surface; a heater disposed adjacent to the evaporation surface to heat the evaporation surface, a water inlet positioned relative to the evaporation surface so that water is fed onto the evaporation surface from the water inlet and forms a film on the evaporation surface such that said film is evaporated from said evaporation surface, and a scale collection region, wherein the evaporation surface and the scale collection region are configured such that the scale collection region is positioned below the evaporation surface during use of the apparatus so that scale dislodged from the evaporation surface falls away from said evaporation surface and drops into said scale collection region, and characterised in that the heater is configured to heat the evaporation surface to a temperature that is higher than the temperature of the scale collection region. a water inlet positioned relative to the evaporation surface so that water is fed onto the evaporation surface from the water inlet and forms a film on the evaporation surface such that said film is evaporated from said evaporation surface, and a scale collection region, wherein the evaporation surface and the scale collection region are configured such that the scale collection region is positioned below the evaporation surface during use of the apparatus so that scale dislodged from the evaporation surface falls away from said evaporation surface and drops into said scale collection region, and characterised in that the heater is configured to heat the evaporation surface to a temperature that is higher than the temperature of the scale collection region.