mhurhangee/ep-ind-claims huggingface dataset:
A device comprising: a controller having a memory protection unit; a privileged memory portion capable of interacting with the controller; an unprivileged memory portion capable of interacting with the controller; an interface in the memory protection unit that allows a privileged device to access the privileged memory portion and disallows an unprivileged device to access the privileged memory portion; an interrupt system, wherein when the unprivileged device makes an attempt to interact with the privileged memory portion, the memory protection unit takes an action associated with the unprivileged device; characterized by further comprising: a buffer in the privileged memory portion, wherein the action includes the controller using the buffer to handle the attempt and return a result to the unprivileged device. a controller having a memory protection unit; a privileged memory portion capable of interacting with the controller; an unprivileged memory portion capable of interacting with the controller; an interface in the memory protection unit that allows a privileged device to access the privileged memory portion and disallows an unprivileged device to access the privileged memory portion; an interrupt system, wherein when the unprivileged device makes an attempt to interact with the privileged memory portion, the memory protection unit takes an action associated with the unprivileged device;
A method for simulating neon lighting using a light emitting diode ("LED") device comprising: forming a rod into a desired shape, the rod including a groove running along the length of the rod, the rod being made from a light transmissive material that is rigid and includes light diffusing material for producing light that is similar to neon light; and after cooling of the rod inserting a light engine (12, 350) into the groove of the rod in a direction that is generally perpendicular to the length of the rod, the light engine including a plurality of light emitting diodes ("LEDs") (40, 354), the method characterized in that: the forming includes thermoforming, wherein the rod is formable when heated to retain a rigidly formed shape after being cooled; the LEDs (40, 354) are overmolded by a flexible material; and the light engine is retained by the rod in the groove via a frictional fit or a snap fit between the flexible material of the light engine and the rod. forming a rod into a desired shape, the rod including a groove running along the length of the rod, the rod being made from a light transmissive material that is rigid and includes light diffusing material for producing light that is similar to neon light; and after cooling of the rod inserting a light engine (12, 350) into the groove of the rod in a direction that is generally perpendicular to the length of the rod, the light engine including a plurality of light emitting diodes ("LEDs") (40, 354), the method characterized in that: the forming includes thermoforming, wherein the rod is formable when heated to retain a rigidly formed shape after being cooled; the LEDs (40, 354) are overmolded by a flexible material; and the light engine is retained by the rod in the groove via a frictional fit or a snap fit between the flexible material of the light engine and the rod. the forming includes thermoforming, wherein the rod is formable when heated to retain a rigidly formed shape after being cooled; the LEDs (40, 354) are overmolded by a flexible material; and the light engine is retained by the rod in the groove via a frictional fit or a snap fit between the flexible material of the light engine and the rod.
A method for evaluating an effect of a candidate for a therapeutic agent to treat Alzheimer's disease or mild cognitive impairment, the method comprising: (a) a step of measuring a desmosterol level and one or more additional biomarker level(s) in a blood sample of a subject before a candidate is administered; (b) a step of measuring a desmosterol level and one or more additional biomarker level(s) in the blood sample of the subject after the candidate is administered; and (c) a step of comparing the desmosterol level in the blood sample of the subject after the candidate is administered with the desmosterol level in the blood sample of the subject before the candidate is administered, and the level(s) of one or more additional biomarker in the blood sample of the subject after the candidate is administered with that/those before the candidate is administered; wherein the candidate has a potential to be effective in treating Alzheimer's disease or mild cognitive impairment when the desmosterol level in the blood sample of the subject after the candidate is administered is higher than the level before the candidate is administered; and the one or more additional biomarker is amyloid beta or gelsolin or a combination thereof. (a) a step of measuring a desmosterol level and one or more additional biomarker level(s) in a blood sample of a subject before a candidate is administered; (b) a step of measuring a desmosterol level and one or more additional biomarker level(s) in the blood sample of the subject after the candidate is administered; and (c) a step of comparing the desmosterol level in the blood sample of the subject after the candidate is administered with the desmosterol level in the blood sample of the subject before the candidate is administered, and the level(s) of one or more additional biomarker in the blood sample of the subject after the candidate is administered with that/those before the candidate is administered;
Method for generating a random number, comprising steps of: - generating a plurality of oscillator signals (P0-P7) substantially of the same mean frequency and having distinct respective phases, - sampling a state (S0-S7) of each of the oscillator signals, and - producing a random number from the states of each of the oscillator signals, characterized in that it comprises a step of receiving a binary data transmission signal (RxD) exhibiting a phase fluctuation, the state (S0-S7) of each of the oscillator signals (P0-P7) being sampled on the appearance of fronts in the binary signal (RxD). - generating a plurality of oscillator signals (P0-P7) substantially of the same mean frequency and having distinct respective phases, - sampling a state (S0-S7) of each of the oscillator signals, and - producing a random number from the states of each of the oscillator signals,
An electronic controller, comprising: a logic circuit that is reconfigurable based on a reconfiguration instruction; an arithmetic unit configured in the logic circuit; a processing controller configured to transmit a reconfiguration instruction of the arithmetic unit to the logic circuit, wherein the reconfigured arithmetic unit is configured to execute a predetermined processing; and a testing unit configured to acquire, based on information of a circuit type received from the processing controller, a number of tests, a test pattern, and a test data, and to execute an operation test for the arithmetic unit when the arithmetic unit is reconfigured and to transmit the result of the operation test to the processing controller as a notice, wherein the processing controller is configured to cause the arithmetic unit to execute the predetermined processing by employing sensor information based on the notice received from the testing unit, wherein the electronic controller is further comprising: a selector coupled to the arithmetic unit and which is configured to switch an input-output of the arithmetic unit to any of the processing controller and the testing unit, wherein, when the arithmetic unit is reconfigured, the testing unit couples the input-output to the testing unit, and when the operation test is completed, the testing unit couples the input-output to the processing controller. a logic circuit that is reconfigurable based on a reconfiguration instruction; an arithmetic unit configured in the logic circuit; a processing controller configured to transmit a reconfiguration instruction of the arithmetic unit to the logic circuit, wherein the reconfigured arithmetic unit is configured to execute a predetermined processing; and a testing unit configured to acquire, based on information of a circuit type received from the processing controller, a number of tests, a test pattern, and a test data, and to execute an operation test for the arithmetic unit when the arithmetic unit is reconfigured and to transmit the result of the operation test to the processing controller as a notice, wherein the processing controller is configured to cause the arithmetic unit to execute the predetermined processing by employing sensor information based on the notice received from the testing unit, wherein the electronic controller is further comprising: a selector coupled to the arithmetic unit and which is configured to switch an input-output of the arithmetic unit to any of the processing controller and the testing unit, wherein, when the arithmetic unit is reconfigured, the testing unit couples the input-output to the testing unit, and when the operation test is completed, the testing unit couples the input-output to the processing controller.
A method for reporting the supporting capability of a cell for downlink high-level modulation, which is used for a drift radio network controller, DRNC, reporting whether an associative cell supports downlink high-level modulation or not, wherein the method includes the following steps: after receiving a request message from a serving radio network controller, SRNC, the DRNC reports the supporting capability information of the associative cell for downlink high-level modulation through signaling to the SRNC, wherein the associative cell is an adjacent cell that successfully establishes or adds a link/links after receiving the request message by the DRNC. after receiving a request message from a serving radio network controller, SRNC, the DRNC reports the supporting capability information of the associative cell for downlink high-level modulation through signaling to the SRNC, wherein the associative cell is an adjacent cell that successfully establishes or adds a link/links after receiving the request message by the DRNC.
Process for the preparation of ethylene and propylene, wherein at least one oxygenate-containing reactant stream and one C 4+ -olefin-containing reactant stream are simultaneously reacted in at least one same reactor with the same catalyst to form a product mixture comprising low molecular weight olefins and gasoline hydrocarbons, characterized in that the ratio of oxygenates in the reactant stream to C 4+ olefins in the reactant stream is 0.05 to 0.5, whereby the ratio is calculated according to the formula V = ∑ j k Oxygenat − j * n Oxygenat − j ∑ i k Olefin − i * n Olefin − i + ∑ j k Oxygenat − j * n Oxygenat − j with: k oxygenate-j: carbon number of the oxygenate j n oxygenate j: mole current of the oxygenate j k olefin-i: Carbon number of olefin i n olefin-i: mole current of the olefin i and that the product mixture is separated in a first separating device into a C 3- -olefin-rich mixture and a C 4+ -olefin-containing stream, that in a second separating device the C 4+ -olefin-containing stream is separated into a substantially C 4 -fraction-containing stream, a stream rich in C 5+ gasoline hydrocarbons and a recycling stream containing mainly C 4 -C 6 -olefins and that the recycling stream is at least partially recycled to the at least one reactor, whereby the molar ratio between the recycling stream and the C 4+ -olefin-containing reactant stream is between 0.1 and 1.5, that the second separating device is operated at a pressure of 4-15 bar and the recycling stream is removed in gas form and returned directly into a line opening into the reactor. k oxygenate-j: carbon number of the oxygenate j n oxygenate j: mole current of the oxygenate j k olefin-i: Carbon number of olefin i n olefin-i: mole current of the olefin i and that the product mixture is separated in a first separating device into a C 3- -olefin-rich mixture and a C 4+ -olefin-containing stream, that in a second separating device the C 4+ -olefin-containing stream is separated into a substantially C 4 -fraction-containing stream, a stream rich in C 5+ gasoline hydrocarbons and a recycling stream containing mainly C 4 -C 6 -olefins and that the recycling stream is at least partially recycled to the at least one reactor, whereby the molar ratio between the recycling stream and the C 4+ -olefin-containing reactant stream is between 0.1 and 1.5, that the second separating device is operated at a pressure of 4-15 bar and the recycling stream is removed in gas form and returned directly into a line opening into the reactor.
A humanized antibody or antigen binding fragment thereof that specifically binds to an epitope in a SEMA domain of c-Met protein, wherein the epitope consists of SEQ ID NO: 3 or a portion of SEQ ID NO: 1 that comprises SEQ ID NO: 3, and the antibody or antigen binding fragment thereof has affinity to the epitope from 0.06nM to 2.19nM.
A heat exchanger, comprising - at least one electrical resistance heating element, in particular at least one PTC element, - at least two conductors, in particular conductor plates (6, 7), electrically conductively connected to the at least one electrical resistance heating element to conduct electrical current through the at least one electrical resistance heating element and thereby heat the electrical resistance heating element, - at least one heat-conducting element (11, 12) for transferring heat from the at least one electrical resistance heating element to a fluid to be heated, - at least one electrical insulating element that electrically insulates the at least two conductors and preferably the at least one electrical resistance heating element, - at least one tube having a tube opening, wherein - the at least two conductors, the at least one electrical insulating element, and the at least one electrical resistance heating element are arranged within at least one cavity bounded by the at least one tube, characterised in that the heat exchanger comprises an adapter plate having at least one opening, and in that each tube is arranged with one end at the tube opening within a respective opening of the adapter plate and each tube opening is arranged at a respective opening of the adapter plate and the at least one tube is preferably connected fluid-tight to the adapter plate, and wherein the tube is connected fluid-tight on an outer side to the adapter element. - at least one electrical resistance heating element, in particular at least one PTC element, - at least two conductors, in particular conductor plates (6, 7), electrically conductively connected to the at least one electrical resistance heating element to conduct electrical current through the at least one electrical resistance heating element and thereby heat the electrical resistance heating element, - at least one heat-conducting element (11, 12) for transferring heat from the at least one electrical resistance heating element to a fluid to be heated, - at least one electrical insulating element that electrically insulates the at least two conductors and preferably the at least one electrical resistance heating element, - at least one tube having a tube opening, wherein - the at least two conductors, the at least one electrical insulating element, and the at least one electrical resistance heating element are arranged within at least one cavity bounded by the at least one tube, characterised in that the heat exchanger comprises an adapter plate having at least one opening, and in that each tube is arranged with one end at the tube opening within a respective opening of the adapter plate and each tube opening is arranged at a respective opening of the adapter plate and the at least one tube is preferably connected fluid-tight to the adapter plate, and wherein the tube is connected fluid-tight on an outer side to the adapter element.
A starter air valve system comprising: an SAV; a pressure actuated SAV actuator configured to be operatively connected to the SAV; and a first pressure valve configured to selectively allow pressure from a pressure source to the SAV actuator when in fluid communication with the SAV actuator; the SAV system characterised by: a second pressure valve configured to selectively allow pressure from the pressure source to the SAV actuator when in fluid communication with the SAV actuator; and a manual override valve selector disposed between the first pressure valve, the second pressure valve, and the SAV actuator, the MOR valve selector configured to selectively fluidly connect the first pressure valve and the SAV actuator in a first position and to fluidly connect the second pressure valve and the SAV actuator in a second position. an SAV; a pressure actuated SAV actuator configured to be operatively connected to the SAV; and a first pressure valve configured to selectively allow pressure from a pressure source to the SAV actuator when in fluid communication with the SAV actuator; the SAV system characterised by: a second pressure valve configured to selectively allow pressure from the pressure source to the SAV actuator when in fluid communication with the SAV actuator; and a manual override valve selector disposed between the first pressure valve, the second pressure valve, and the SAV actuator, the MOR valve selector configured to selectively fluidly connect the first pressure valve and the SAV actuator in a first position and to fluidly connect the second pressure valve and the SAV actuator in a second position.
A resin composition comprising a polyacetal resin, a salt consisting of a carboxylic acid and an alkaline-earth metal, and a rubber-containing graft polymer, wherein when 2 parts by mass of the salt consisting of a carboxylic acid and an alkaline-earth metal is dissolved in 18 parts by mass of deionized water comprising a nonionic dispersant, the obtained solution has pH 8 to 12 as measured at 25 °C, characterized in that the amount of formaldehyde in an ISO-527 type 1A test piece formed by injection molding the resin composition at a molding temperature of 205°C according to a VDA 275 test is 0.10 ppm or less and the weight reduction rate of the resin composition measured by TG-DTA, after the resin composition has been retained under the air at 230°C for 20 minutes, is 4% or less, and wherein, or characterized in that the content of sodium and potassium in the resin composition is 200 ppm or less, or characterized in that, if salt and the rubber-containing graft polymer are comprised in a powder, the content of sodium and potassium in the powder is 1500 ppm or less. a polyacetal resin, a salt consisting of a carboxylic acid and an alkaline-earth metal, and a rubber-containing graft polymer, wherein when 2 parts by mass of the salt consisting of a carboxylic acid and an alkaline-earth metal is dissolved in 18 parts by mass of deionized water comprising a nonionic dispersant, the obtained solution has pH 8 to 12 as measured at 25 °C, characterized in that the amount of formaldehyde in an ISO-527 type 1A test piece formed by injection molding the resin composition at a molding temperature of 205°C according to a VDA 275 test is 0.10 ppm or less and the weight reduction rate of the resin composition measured by TG-DTA, after the resin composition has been retained under the air at 230°C for 20 minutes, is 4% or less, and wherein, or characterized in that the content of sodium and potassium in the resin composition is 200 ppm or less, or characterized in that, if salt and the rubber-containing graft polymer are comprised in a powder, the content of sodium and potassium in the powder is 1500 ppm or less.
Dielectric insulation medium comprising a) sulphur hexafluoride (SF 6) and/or tetrafluoro methane (CF 4) and/or trifluoroiodomethane (CF 3 I) and/or a nitrogen oxide (NO 2, NO, N 2 O), in a mixture with b) at least one further component being an at least partially fluorinated fluoroketone. a) sulphur hexafluoride (SF 6) and/or tetrafluoro methane (CF 4) and/or trifluoroiodomethane (CF 3 I) and/or a nitrogen oxide (NO 2, NO, N 2 O), in a mixture with b) at least one further component being an at least partially fluorinated fluoroketone.
A production method for a purified tea extract, comprising bringing a tea extract into contact with a hydrogen-type (H-type) cation exchange resin wherein the hydrogen ions have been exchanging for magnesium ions or lithium ions.
An adaptation device for adapting an UV-Vis or Raman cuvette, the cuvette having a bottom, to perform in-situ spectroanalytical characterization of redox processes using gas species or titrated redox active species in a controlled atmosphere, said device being configured so as to fit the open end of a UV-Vis cuvette intended to contain products to be measured during achievement of spectroanalytical measurements, characterized in that the device comprises: - A main body configured to form a plug closing the opened end of the cuvette; - a working, a counter and a reference electrode with removable parts (132, 142, 152) mounted removably at the respective ends of conductors (131, 141 151) passing through the main body; - a gas inlet tube passing through the main body which terminates in the cavity of the cuvette so that its termination inside the cavity can be immersed in the solution contained in the cuvette, said tube being intended to allow introduction of a gas reactant into the solution, - a gas outlet tube passing through the main body which is adapted to terminate in the cavity of the cuvette in the upper part of the cavity which is not filled with the solution, said tube being intended to let the gas in excess to flow out of the cuvette; the gas inlet tube being configured such that its termination located at its end adapted to be located inside the cavity of the cuvette is a double opened termination with a first upper termination directed towards the working electrode and a second lower termination directed towards the bottom of the cuvette, said second termination being arranged far enough from the bottom of the cuvette that the gas bubbles do not reach the lower part of the cavity where UV-Vis measurements are performed. - A main body configured to form a plug closing the opened end of the cuvette; - a working, a counter and a reference electrode with removable parts (132, 142, 152) mounted removably at the respective ends of conductors (131, 141 151) passing through the main body; - a gas inlet tube passing through the main body which terminates in the cavity of the cuvette so that its termination inside the cavity can be immersed in the solution contained in the cuvette, said tube being intended to allow introduction of a gas reactant into the solution, - a gas outlet tube passing through the main body which is adapted to terminate in the cavity of the cuvette in the upper part of the cavity which is not filled with the solution, said tube being intended to let the gas in excess to flow out of the cuvette;