mhurhangee/ep-ind-claims huggingface dataset:
Process for the manufacture of a molecule of the formula: X-[Ar 1 -SO 2 -Ar 2]-[Ar 3] n -[Ar 1 -SO 2 -Ar 2] m -X wherein n and m are independently 0, 1, 2, 3 or 4; wherein X is an halogen selected from F, Cl, Br, I; wherein Ar 1, Ar 2 are equal or different from each other and are aromatic moieties of the formula: wherein Ar 3 is selected from the group consisting of: wherein each Ri is independently selected from the group consisting of: hydrogen, halogen, alkyl, alkenyl, alkynyl, aryl, ether, thioether, carboxylic acid, ester, amide, imide, alkali or alkaline earth metal sulfonate, alkyl sulfonate, alkali or alkaline earth metal phosphonate, alkyl, phosphonate, amine and quaternary ammonium; by reacting together at least one acid selected from the group consisting of sulfuric acid, arene sulfonic acid or oleum, at least one fluorinated anhydride and at least one halobenzene; and wherein the process is carried out in the absence of any solvent or in the presence of a solvent selected from the group consisting of: alkanes, chloroalkanes, and halobenzenes. wherein X is an halogen selected from F, Cl, Br, I; wherein Ar 1, Ar 2 are equal or different from each other and are aromatic moieties of the formula: wherein Ar 3 is selected from the group consisting of: wherein each Ri is independently selected from the group consisting of: hydrogen, halogen, alkyl, alkenyl, alkynyl, aryl, ether, thioether, carboxylic acid, ester, amide, imide, alkali or alkaline earth metal sulfonate, alkyl sulfonate, alkali or alkaline earth metal phosphonate, alkyl, phosphonate, amine and quaternary ammonium; by reacting together at least one acid selected from the group consisting of sulfuric acid, arene sulfonic acid or oleum, at least one fluorinated anhydride and at least one halobenzene; and wherein the process is carried out in the absence of any solvent or in the presence of a solvent selected from the group consisting of: alkanes, chloroalkanes, and halobenzenes. hydrogen, halogen, alkyl, alkenyl, alkynyl, aryl, ether, thioether, carboxylic acid, ester, amide, imide, alkali or alkaline earth metal sulfonate, alkyl sulfonate, alkali or alkaline earth metal phosphonate, alkyl, phosphonate, amine and quaternary ammonium; by reacting together at least one acid selected from the group consisting of sulfuric acid, arene sulfonic acid or oleum, at least one fluorinated anhydride and at least one halobenzene; and wherein the process is carried out in the absence of any solvent or in the presence of a solvent selected from the group consisting of: alkanes, chloroalkanes, and halobenzenes.
A sensor for detecting metal parts, particularly metallic or semi-metallic wheels of a rail vehicle, comprising an electrical resonant circuit having at least one sensor capacitance and one sensor coil which generates a magnetic field, whereby same is an air-core coil, characterized in that the windings of the sensor coil are arranged relative their longitudinal axis such that a crossover point of the windings results, wherein the windings define two coil sections (7, 7') connected in series due to their circular arrangement in the longitudinal axis of the sensor coil, and/or wherein as current flows through the two coil sections (7, 7'), one coil section spans a magnetic north pole and the second coil section spans a magnetic south pole, wherein relative to its longitudinal axis, the sensor coil is arranged at an angle in the range of between 70° and 110° to a direction of movement of the metal parts of the rail vehicle, wherein voltages induced in the respective coil sections (7,7') cancel each other out due to different signs. the windings of the sensor coil are arranged relative their longitudinal axis such that a crossover point of the windings results, wherein the windings define two coil sections (7, 7') connected in series due to their circular arrangement in the longitudinal axis of the sensor coil, and/or wherein as current flows through the two coil sections (7, 7'), one coil section spans a magnetic north pole and the second coil section spans a magnetic south pole, wherein relative to its longitudinal axis, the sensor coil is arranged at an angle in the range of between 70° and 110° to a direction of movement of the metal parts of the rail vehicle, wherein voltages induced in the respective coil sections (7,7') cancel each other out due to different signs.
A method for locking a mobile phone keyboard, wherein at least one light sensing key (202, 302, 501) is disposed on each of the front face and the back face of the mobile phone, comprising: receiving (101, 401) a key event reported by each light sensing key (202, 302), when the light sensing key is blocked by a light-impenetrable object, judging (102, 402) whether the light sensing keys (202, 302) are all pressed when the key event is received; and if the light sensing keys arc all pressed, locking the mobile phone keyboard; if the light sensing keys are not all pressed, not locking the mobile phone keyboard. receiving (101, 401) a key event reported by each light sensing key (202, 302), when the light sensing key is blocked by a light-impenetrable object, judging (102, 402) whether the light sensing keys (202, 302) are all pressed when the key event is received; and if the light sensing keys arc all pressed, locking the mobile phone keyboard; if the light sensing keys are not all pressed, not locking the mobile phone keyboard.
An integrated circuit having two receiver circuits (207(0,1)) and respective first and second clock signals (210(0,1)) to each receive a data signal over respective signal lines (200(0,1)), each receiver circuit (207(0,1)) using the respective clock signal (210, 210) to sample a data signal over the respective signal line (200, 200), the integrated circuit characterized by: a clock recovery circuit (205) comprising means which provide the first clock signal (210) to one (207) of the receiver circuits to sample the respective signal line (200) in a manner locked to transitions in the respective data signal; and a phase adjust circuit (213) to provide the second clock signal (210) used by the other (207) of the receiver circuits to sample the respective signal line (210), the phase adjust circuit (213) varying phase of the second clock signal (210) in dependence upon phase changes to the first clock signal (210) effected by the clock recovery circuit (205), characterized in that the clock recovery circuit (205) is a first clock recovery circuit, and the phase adjust circuit (213) is part of a second clock recovery circuit (205) used to provide the second clock to the other receiver circuit (205), and in that the second clock recovery circuit (205) has a self-controlled mode in which the second clock recovery circuit causes the second clock signal to be locked to transitions in the respective data signal, and a slave mode, where the phase adjust circuit (213) varies phase of the second clock signal (210) in dependence upon phase changes to the first clock signal (210) effected by the clock recovery circuit (205). a clock recovery circuit (205) comprising means which provide the first clock signal (210) to one (207) of the receiver circuits to sample the respective signal line (200) in a manner locked to transitions in the respective data signal; and a phase adjust circuit (213) to provide the second clock signal (210) used by the other (207) of the receiver circuits to sample the respective signal line (210), the phase adjust circuit (213) varying phase of the second clock signal (210) in dependence upon phase changes to the first clock signal (210) effected by the clock recovery circuit (205), characterized in that the clock recovery circuit (205) is a first clock recovery circuit, and the phase adjust circuit (213) is part of a second clock recovery circuit (205) used to provide the second clock to the other receiver circuit (205), and in that the second clock recovery circuit (205) has a self-controlled mode in which the second clock recovery circuit causes the second clock signal to be locked to transitions in the respective data signal, and a slave mode, where the phase adjust circuit (213) varies phase of the second clock signal (210) in dependence upon phase changes to the first clock signal (210) effected by the clock recovery circuit (205).
A fuel injector, comprising: a dielectric body with a channel extending between a fuel reservoir and a fuel combustion chamber; a cable positioned within the channel, the cable including- an optical fiber (202, 210a, 350a), an electrically conductive strand (206, 210a, 210b, 350d) and a plurality of generally rigid filaments extending radially from the optical fiber (202, 210a, 350a) and the electrically conductive strand (206, 210a, 210b, 350d) and contacting the dielectric body to maintain the cable generally centered within the channel; a valve operably coupled to the cable and positioned between the channel and the fuel combustion chamber; a valve actuator connected to the cable and configured to move the cable in the channel to actuate the valve and permit fuel to enter the fuel combustion chamber from the channel; a sensor positioned on the valve and configured to detect a combustion event in the fuel combustion chamber, wherein the sensor is configured to relay a signal along the optical fiber (202, 210a) to report the combustion event. a dielectric body with a channel extending between a fuel reservoir and a fuel combustion chamber; a cable positioned within the channel, the cable including- an optical fiber (202, 210a, 350a), an electrically conductive strand (206, 210a, 210b, 350d) and a plurality of generally rigid filaments extending radially from the optical fiber (202, 210a, 350a) and the electrically conductive strand (206, 210a, 210b, 350d) and contacting the dielectric body to maintain the cable generally centered within the channel; a valve operably coupled to the cable and positioned between the channel and the fuel combustion chamber; a valve actuator connected to the cable and configured to move the cable in the channel to actuate the valve and permit fuel to enter the fuel combustion chamber from the channel; a sensor positioned on the valve and configured to detect a combustion event in the fuel combustion chamber, wherein the sensor is configured to relay a signal along the optical fiber (202, 210a) to report the combustion event.
A textile printing agent, comprising a polyhalogenated metallophthalocyanine pigment or a diketopyrrolopyrrole pigment; water; an organic solvent; a binder resin; and, as a pigment dispersant, a polymer having an anionic group, a solubility in water of 0.1 g/100 ml or less, and a number average molecular weight of 1,000 to 6,000, wherein the polymer forms fine particles having a particle diameter of 5 to 1,000 nm in water when the polymer is neutralized such that the neutralization rate of the anionic group by a basic compound is 100%, wherein - the solubility of the polymer in water is defined as follows: 0.5 g of a polymer, of which the particle diameter has been controlled to be of from 250 to 90 μm using sieves respectively having a sieve opening of 250 μm and a sieve opening of 90 μm, is contained in a bag obtained by processing a 400-mesh metal mesh, and immersed in 50 ml of water and allowed to stand at a temperature of 25 °C for 24 hours while gently stirring; after being immersed for 24 hours, the 400-mesh metal mesh containing therein the polymer is dried in a dryer set to 110 °C for 2 hours; with respect to the 400-mesh metal mesh containing therein the polymer before and after the immersion in water, a change of the weight is measured, and the solubility of the polymer is calculated from the following equation: Solubility g / 100 ml = Polymer-containing 400 − mesh metal mesh before immersion g − Polymer-containing 400 − mesh metal mesh after immersion g × 2; - the number average molecular weight of the polymer is measured by gel permeation chromatography; - the particle diameter is measured using a dynamic light-scattering particle diameter distribution measurement apparatus. - the solubility of the polymer in water is defined as follows: 0.5 g of a polymer, of which the particle diameter has been controlled to be of from 250 to 90 μm using sieves respectively having a sieve opening of 250 μm and a sieve opening of 90 μm, is contained in a bag obtained by processing a 400-mesh metal mesh, and immersed in 50 ml of water and allowed to stand at a temperature of 25 °C for 24 hours while gently stirring; after being immersed for 24 hours, the 400-mesh metal mesh containing therein the polymer is dried in a dryer set to 110 °C for 2 hours; with respect to the 400-mesh metal mesh containing therein the polymer before and after the immersion in water, a change of the weight is measured, and the solubility of the polymer is calculated from the following equation: Solubility g / 100 ml = Polymer-containing 400 − mesh metal mesh before immersion g − Polymer-containing 400 − mesh metal mesh after immersion g × 2; - the number average molecular weight of the polymer is measured by gel permeation chromatography; - the particle diameter is measured using a dynamic light-scattering particle diameter distribution measurement apparatus.
An injection molding machine comprising: a press member configured to press a compression core, which is configured to compress a molding material within a cavity of a mold unit; a drive circuit configured todrive the press member; and a controller configured tocontrol the drive circuit; wherein the drive circuit includes a restriction part (50, 150, 250) configured to restrict a drive pressure of the press member to be less than or equal to a predetermined value; and characterized by the controller is configured to operate in confirmation mode, which includes determining whether the drive pressure of the press member can be controlled. a press member configured to press a compression core, which is configured to compress a molding material within a cavity of a mold unit; a drive circuit configured todrive the press member; and a controller configured tocontrol the drive circuit; wherein the drive circuit includes a restriction part (50, 150, 250) configured to restrict a drive pressure of the press member to be less than or equal to a predetermined value; and characterized by the controller is configured to operate in confirmation mode, which includes determining whether the drive pressure of the press member can be controlled.
A method for producing comprising: circulating and/or pumping into a well on production a fluid including an oil based slurry including a base oil, an organophillic clay, a polar activator, a wetting agent and a winterizing composition comprising one or a plurality of polyol monoesters and/or polyol diesters wherein the polyol monoesters or polyol diesters are compounds selected from the group consisting of sorbitan monooleate, sorbitan sesquioleate, sorbitan monostearate, sorbitan sesquistearate, sorbitan monolinoleate, sorbitan sesquilinoleate, sorbitan monomyristoleate, sorbitan sesquimyristoleate, sorbitan monopalmitoleate, sorbitan sesquipalmitoleate, or mixtures and combinations thereof. circulating and/or pumping into a well on production a fluid including an oil based slurry including a base oil, an organophillic clay, a polar activator, a wetting agent and a winterizing composition comprising one or a plurality of polyol monoesters and/or polyol diesters wherein the polyol monoesters or polyol diesters are compounds selected from the group consisting of sorbitan monooleate, sorbitan sesquioleate, sorbitan monostearate, sorbitan sesquistearate, sorbitan monolinoleate, sorbitan sesquilinoleate, sorbitan monomyristoleate, sorbitan sesquimyristoleate, sorbitan monopalmitoleate, sorbitan sesquipalmitoleate, or mixtures and combinations thereof.
A synthetic polynucleotide for a soluble diiron monooxygenase enzyme which can be expressed in a microorganism of interest, comprising at least one monooxygenase coding region encoding a diiron monooxygenase enzyme, the at least one monooxygenase coding region linked to at least one promoter which will function in the microorganism of interest, further comprising at least one protein folding chaperone coding region encoding at least one protein folding chaperone, the at least one protein chaperone coding region linked to at least one promoter which will function in the microorganism of interest, wherein the at least one protein folding chaperone comprises groES/groEL. further comprising at least one protein folding chaperone coding region encoding at least one protein folding chaperone, the at least one protein chaperone coding region linked to at least one promoter which will function in the microorganism of interest, wherein the at least one protein folding chaperone comprises groES/groEL.
A transfer device for a patient care apparatus comprising: a first docking cup and a second docking cup, each of the first docking cup and the second docking cup sized to receive a receiver; and a security mechanism enclosed within the transfer device, to securely lock an engaged docking cone to the respective docking cup, wherein the transfer device further comprises a support shaft and a shaft brake mechanism engageable with the support shaft, wherein the shaft brake mechanism includes a brake pad, a plate, and a brake fastener, wherein the brake pad includes a "double-D" anti-rotation cutout fixing the rotational position of the brake pad by coupling the brake pad to support shaft, wherein the anti-rotation cutout matches the cross-sectional shape of the support shaft at the lower end where the support shaft defines a pair of flats and wherein the brake fastener is adapted to increase a force holding the brake pad to the plate when the brake fastener is tightened, fixing the rotational position of support shaft with respect to the transfer device. a first docking cup and a second docking cup, each of the first docking cup and the second docking cup sized to receive a receiver; and a security mechanism enclosed within the transfer device, to securely lock an engaged docking cone to the respective docking cup, wherein the transfer device further comprises a support shaft and a shaft brake mechanism engageable with the support shaft, wherein the shaft brake mechanism includes a brake pad, a plate, and a brake fastener, wherein the brake pad includes a "double-D" anti-rotation cutout fixing the rotational position of the brake pad by coupling the brake pad to support shaft, wherein the anti-rotation cutout matches the cross-sectional shape of the support shaft at the lower end where the support shaft defines a pair of flats and wherein the brake fastener is adapted to increase a force holding the brake pad to the plate when the brake fastener is tightened, fixing the rotational position of support shaft with respect to the transfer device.
A method (200, 500) for mapping a three-dimensional structure, the method comprising - injecting a plurality of motes into the structure causing the plurality of motes to travel through the three-dimensional structure, the motes comprising a sensor and a storage, the motes being arranged to obtain a time series of measured sensor-values in the storage by measuring sensor-values with the sensor and storing the sensor-values in the storage, thus, - retrieving at least part of the plurality of motes from the structure - obtaining from said retrieved motes the time series of measured sensor-values stored in the retrieved motes, thus obtaining a set of measured time series, - selecting a candidate-map for the three-dimensional structure, - simulating injecting a plurality of virtual motes into the candidate-map and the traveling of the plurality of virtual motes through the candidate-map, thereby obtaining a simulation, the method characterised by: - determining a goodness of fit between the candidate-map and the three-dimensional structure by determining the consistency between the set of measured time series and said simulation. - injecting a plurality of motes into the structure causing the plurality of motes to travel through the three-dimensional structure, the motes comprising a sensor and a storage, the motes being arranged to obtain a time series of measured sensor-values in the storage by measuring sensor-values with the sensor and storing the sensor-values in the storage, thus, - retrieving at least part of the plurality of motes from the structure - obtaining from said retrieved motes the time series of measured sensor-values stored in the retrieved motes, thus obtaining a set of measured time series, - selecting a candidate-map for the three-dimensional structure, - simulating injecting a plurality of virtual motes into the candidate-map and the traveling of the plurality of virtual motes through the candidate-map, thereby obtaining a simulation, - determining a goodness of fit between the candidate-map and the three-dimensional structure by determining the consistency between the set of measured time series and said simulation.
Switching device for an electrochemical energy store, with: a film transistor device, which includes at least one organic transistor (21, 22) and which is attached in planar manner to at least one electrode of the electrochemical energy store, and which is controllable by an external voltage source and is configured as a controllable electrical resistor in series with an in internal resistance of the electrochemical energy store, wherein the film transistor device is configured to be arranged in a cell of the electrochemical energy store.
An aerosol generating device comprising: a susceptor configured to heat an aerosol generating article; a coil surrounding the susceptor and configured to heat the susceptor by generating a magnetic field when an alternating current voltage is applied; and a controller electrically connected to the coil and configured to: apply a test voltage to the coil in response to a user input, measure an output current of the coil while changing a frequency of the test voltage, determine a frequency at which the output current becomes maximum, and apply an operating voltage having the determined frequency to the coil, wherein the controller is configured to determine the frequency at which the output current becomes maximum within a preset range by changing the frequency of the test voltage within the preset range, and characterised in that the controller, based on a maximum value of the output current measured within the preset range being less than a preset reference value, is configured to determine that the coil is abnormal, and is configured not to supply power to the coil. a susceptor configured to heat an aerosol generating article; a coil surrounding the susceptor and configured to heat the susceptor by generating a magnetic field when an alternating current voltage is applied; and a controller electrically connected to the coil and configured to: apply a test voltage to the coil in response to a user input, measure an output current of the coil while changing a frequency of the test voltage, determine a frequency at which the output current becomes maximum, and apply an operating voltage having the determined frequency to the coil, apply a test voltage to the coil in response to a user input, measure an output current of the coil while changing a frequency of the test voltage, determine a frequency at which the output current becomes maximum, and apply an operating voltage having the determined frequency to the coil, wherein the controller is configured to determine the frequency at which the output current becomes maximum within a preset range by changing the frequency of the test voltage within the preset range, and characterised in that the controller, based on a maximum value of the output current measured within the preset range being less than a preset reference value, is configured to determine that the coil is abnormal, and is configured not to supply power to the coil.