mhurhangee/ep-ind-claims huggingface dataset:
A supplemental fuel injection system for an internal combustion engine comprising: a supply of primary fuel; a device supplying said primary fuel to an internal combustion engine; an air compressor supplying air to said internal combustion engine; a pressure monitor in an air outlet side of said air compressor, said pressure monitor monitoring the pressure of air leaving said air compressor; a temperature sensor in an exhaust of said internal combustion engine, said temperature sensor measuring the temperature of said exhaust of said internal combustion engine; a device supplying supplemental fuel to said exhaust of said internal combustion engine, said supplemental fuel being a different fuel than said primary fuel; and a control device controlling said device supplying supplemental fuel, said control device including a programmable microprocessor connected to said device supplying supplemental fuel to vary the amount of supplemental fuel on an as needed, customized and preprogrammed basis wherein said amount of said supplemental fuel is for treatment of said exhaust of said internal combustion engine. a supply of primary fuel; a device supplying said primary fuel to an internal combustion engine; an air compressor supplying air to said internal combustion engine; a pressure monitor in an air outlet side of said air compressor, said pressure monitor monitoring the pressure of air leaving said air compressor; a temperature sensor in an exhaust of said internal combustion engine, said temperature sensor measuring the temperature of said exhaust of said internal combustion engine; a device supplying supplemental fuel to said exhaust of said internal combustion engine, said supplemental fuel being a different fuel than said primary fuel; and a control device controlling said device supplying supplemental fuel, said control device including a programmable microprocessor connected to said device supplying supplemental fuel to vary the amount of supplemental fuel on an as needed, customized and preprogrammed basis wherein said amount of said supplemental fuel is for treatment of said exhaust of said internal combustion engine. a device supplying said primary fuel to an internal combustion engine; an air compressor supplying air to said internal combustion engine; a pressure monitor in an air outlet side of said air compressor, said pressure monitor monitoring the pressure of air leaving said air compressor; a temperature sensor in an exhaust of said internal combustion engine, said temperature sensor measuring the temperature of said exhaust of said internal combustion engine; a device supplying supplemental fuel to said exhaust of said internal combustion engine, said supplemental fuel being a different fuel than said primary fuel; and a control device controlling said device supplying supplemental fuel, said control device including a programmable microprocessor connected to said device supplying supplemental fuel to vary the amount of supplemental fuel on an as needed, customized and preprogrammed basis wherein said amount of said supplemental fuel is for treatment of said exhaust of said internal combustion engine.
An apparatus for producing pulverulent poly(meth)acrylate, comprising a reactor for droplet polymerization comprising an apparatus for dropletization of a monomer solution for the production of the poly(meth)acrylate comprising holes through which the monomer solution is introduced, an addition point for a gas above the apparatus for dropletization, at least one gas withdrawal point on the circumference of the reactor and a fluidized bed, wherein above the gas withdrawal point the reactor comprises a region having a constant hydraulic internal diameter and below the gas withdrawal point the reactor has a hydraulic internal diameter that steadily decreases, wherein the reactor comprises a heating means in the region having a steadily decreasing hydraulic internal diameter, wherein the heating means supplies a heat output in the range of from 20 to 3000 W/m 2.
A computer-implemented prediction method that predicts, in an illuminating computation of a 3D scene performed by defining a plurality of ray-bundles for a light transport computation for predetermined ray directions, a number of ray-bundle light paths for the light transport computation storable in a predetermined memory region, the prediction method comprising: a first generation step (S204, S205) of generating a fragment number map having a predetermined number of pixels, and a mipmap of the fragment number map, for which a pixel value of each pixel is made to be a number of fragments in the 3D scene on a straight line of a ray direction corresponding to a position of the pixel; a derivation step of deriving, in a case where, for a pixel of one layer in the mipmap of the fragment number map generated in the first generation step, ray-bundles for the light transport computation are defined for a corresponding region in the 3D scene corresponding to the pixel, an estimated number of fragments included on average on one light path; and a prediction step of outputting, as a predicted number of light paths of ray-bundles for the light transport computation storable in the predetermined memory region for the pixel of the one layer, a value obtained from a size of the predetermined memory region being divided by the estimated number of fragments derived in the derivation step, wherein, in the derivation step, the estimated number of fragments is derived by a compensation value being added to a number of fragments, which is a pixel value of the pixel of the one layer, the compensation value corresponding to a layer of the pixel. a first generation step (S204, S205) of generating a fragment number map having a predetermined number of pixels, and a mipmap of the fragment number map, for which a pixel value of each pixel is made to be a number of fragments in the 3D scene on a straight line of a ray direction corresponding to a position of the pixel; a derivation step of deriving, in a case where, for a pixel of one layer in the mipmap of the fragment number map generated in the first generation step, ray-bundles for the light transport computation are defined for a corresponding region in the 3D scene corresponding to the pixel, an estimated number of fragments included on average on one light path; and a prediction step of outputting, as a predicted number of light paths of ray-bundles for the light transport computation storable in the predetermined memory region for the pixel of the one layer, a value obtained from a size of the predetermined memory region being divided by the estimated number of fragments derived in the derivation step, wherein,
Adapter plate alignment gauge system, comprising - an adapter plate for holding a crimping tool in different positions and - an alignment gauge for aligning the crimping tool in a fixedly predetermined crimping tool position relative to the alignment gauge, it being possible to arrange the adapter plate immovably in a crimping press which is designed to establish a crimping connection by means of the crimping tool, which connects a conductor end of a cable to a crimping contact, characterized in that the alignment gauge and the adapter plate are designed such that the alignment gauge can be fastened to the adapter plate such that the alignment gauge is arranged in a fixedly predetermined alignment gauge position relative to the adapter plate. - an adapter plate for holding a crimping tool in different positions and - an alignment gauge for aligning the crimping tool in a fixedly predetermined crimping tool position relative to the alignment gauge, it being possible to arrange the adapter plate immovably in a crimping press which is designed to establish a crimping connection by means of the crimping tool, which connects a conductor end of a cable to a crimping contact,
A metering chamber for dispensing a cryogenic liquid comprising: a. a liquid inlet line adapted to communicate with a source of cryogenic liquid so that the metering chamber may receive cryogenic liquid from the source; b. a meter run including a metering element, a dispensing line and a dispensing valve; c. a stabilizing column positioned within the metering chamber and including a sidewall defining an interior of the stabilizing column, said sidewall including a plurality of vertically spaced openings; d. a first pressure sensor in communication with the interior of the stabilizing column and configured to detect a first pressure within the interior of the stabilizing column; e. a second pressure sensor in communication with the interior of the stabilizing column, configured to detect a second pressure within the interior of the stabilizing column and vertically spaced from the first pressure sensor; and f. a controller in communication with the metering element, the first and second pressure sensors and the dispensing valve, said controller configured to determine a density of a cryogenic liquid in the metering chamber using pressures from the first and second pressure sensors. a. a liquid inlet line adapted to communicate with a source of cryogenic liquid so that the metering chamber may receive cryogenic liquid from the source; b. a meter run including a metering element, a dispensing line and a dispensing valve; c. a stabilizing column positioned within the metering chamber and including a sidewall defining an interior of the stabilizing column, said sidewall including a plurality of vertically spaced openings; d. a first pressure sensor in communication with the interior of the stabilizing column and configured to detect a first pressure within the interior of the stabilizing column; e. a second pressure sensor in communication with the interior of the stabilizing column, configured to detect a second pressure within the interior of the stabilizing column and vertically spaced from the first pressure sensor; and f. a controller in communication with the metering element, the first and second pressure sensors and the dispensing valve, said controller configured to determine a density of a cryogenic liquid in the metering chamber using pressures from the first and second pressure sensors.
Steam power plant comprising a conventional boiler for generating steam, at least one turbine (5, 9), a condenser connected downstream of the turbine (5, 9) on the waste steam side, and a water pipe system (14, 17) in order to supply water from the condenser to the boiler as feed water, wherein the water pipe system (14, 17) has, for pre-heating the feed water, a pre-heater arrangement that comprises at least one pre-heater (31, 32) operated using bleed steam, and a bypass line (34, 37, 40, 47) arranged parallel to this pre-heater (31, 32), characterized in that the pre-heater arrangement has a solar pre-heating device (35, 39, 45, 50) that is connected in parallel to the pre-heater (31, 32) operated using bleed steam, the solar pre-heating device (39, 50) is arranged in another line (38, 46) connected in parallel to the bypass line (37, 47), and the solar pre-heating device (35, 39) has at least one solar collector in order to directly preheat, using solar radiation, feed water running through it, wherein the solar collector is a parabolic trough collector.
A positioning system (100, 200) for determining a location of an object, the positioning system (100, 200) comprising: - a plurality of microphones configured to receive a sound input (122, 222) generated by a user (120, 220), - a localization module (102, 202) configured to determine a user (120, 220) location of the user (120, 220) relative to the plurality of microphones based on differences between the sound input (122, 222) received at different microphones of the plurality of microphones, and - a processor (104, 204) configured to receive an identifier of the object, identify the object based on the identifier, determine the location of the object by setting the location of the object equal to the user location, and store the location of the object in a memory, characterised in that the sound input is a voice input generated by the user. - a plurality of microphones configured to receive a sound input (122, 222) generated by a user (120, 220), - a localization module (102, 202) configured to determine a user (120, 220) location of the user (120, 220) relative to the plurality of microphones based on differences between the sound input (122, 222) received at different microphones of the plurality of microphones, and - a processor (104, 204) configured to receive an identifier of the object, identify the object based on the identifier, determine the location of the object by setting the location of the object equal to the user location, and store the location of the object in a memory, characterised in that the sound input is a voice input generated by the user.
A compound represented by the formula: wherein R is selected from the group consisting of (i) substituted or unsubstituted alkyl with C = 0 to 12 inclusive; (ii) substituted or unsubstituted aryl; and (iii) substituted and unsubstituted alkylaryl; wherein X 1, X 2, X 3 and X 4 are each selected from the group consisting of alkyl, aryl, alkylaryl groups and hydrogen; wherein R 1, R 2, R 3, and R 4 are each selected from the group consisting of alkyl, aryl, alkylaryl groups and hydrogen and R 2 and R 3 may optionally be bridged by a polymethylene group; wherein when C=0 in R, the combined group R 1 R 2 is the same as the combined group R 3 R 4; and wherein when C=1 in R, each of R 1, R 2, R 3, and R 4 are hydrogen; characterized in that the compound is N,N'-(1,4- phenylenebis(ethane-1,1-diyl))bis(N-phenylbenzene-1,4-diamine), N,N'-(1,3-phenylenebis(ethane-1,1-diyl))bis(N-phenylbenzene-1,4-diamine), N,N'-(1,4-phenylenebis(methylene))bis(N-phenylbenzene-1,4-diamine) or N,N'-(1,3- phenylenebis(methylene))bis(N-phenylbenzene-1,4-diamine). wherein R is selected from the group consisting of (i) substituted or unsubstituted alkyl with C = 0 to 12 inclusive; (ii) substituted or unsubstituted aryl; and (iii) substituted and unsubstituted alkylaryl; wherein X 1, X 2, X 3 and X 4 are each selected from the group consisting of alkyl, aryl, alkylaryl groups and hydrogen; wherein R 1, R 2, R 3, and R 4 are each selected from the group consisting of alkyl, aryl, alkylaryl groups and hydrogen and R 2 and R 3 may optionally be bridged by a polymethylene group; wherein when C=0 in R, the combined group R 1 R 2 is the same as the combined group R 3 R 4; and wherein when C=1 in R, each of R 1, R 2, R 3, and R 4 are hydrogen; N,N'-(1,4- phenylenebis(ethane-1,1-diyl))bis(N-phenylbenzene-1,4-diamine), N,N'-(1,3-phenylenebis(ethane-1,1-diyl))bis(N-phenylbenzene-1,4-diamine), N,N'-(1,4-phenylenebis(methylene))bis(N-phenylbenzene-1,4-diamine) or N,N'-(1,3- phenylenebis(methylene))bis(N-phenylbenzene-1,4-diamine).
A method for a wireless device, comprising: determining a synchronization source for the wireless device; determining a synchronization priority of the synchronization source; characterized by determining one or more rules for dropping transmissions of sidelink synchronization signals, the one or more rules corresponding to the synchronization priority of the synchronization source; wherein when the synchronization source has a first synchronization priority, the one or more rules corresponding to the first synchronization priority comprising a rule prohibiting the wireless device from dropping transmissions of sidelink synchronization signals for the purpose of detecting incoming synchronization signals; and when the synchronization source has a second synchronization priority that is lower than the first synchronization priority, the one or more rules corresponding to the second synchronization priority comprising a rule allowing the wireless device to drop a first amount of sidelink synchronization signal transmissions for the purpose of detecting incoming synchronization signals, wherein the first amount comprises one of a first fraction of sidelink synchronization signal transmissions and a first number of sidelink synchronization signal transmissions within a period of time. determining a synchronization source for the wireless device; determining a synchronization priority of the synchronization source; characterized by determining one or more rules for dropping transmissions of sidelink synchronization signals, the one or more rules corresponding to the synchronization priority of the synchronization source; wherein when the synchronization source has a first synchronization priority, the one or more rules corresponding to the first synchronization priority comprising a rule prohibiting the wireless device from dropping transmissions of sidelink synchronization signals for the purpose of detecting incoming synchronization signals; and when the synchronization source has a second synchronization priority that is lower than the first synchronization priority, the one or more rules corresponding to the second synchronization priority comprising a rule allowing the wireless device to drop a first amount of sidelink synchronization signal transmissions for the purpose of detecting incoming synchronization signals, wherein the first amount comprises one of a first fraction of sidelink synchronization signal transmissions and a first number of sidelink synchronization signal transmissions within a period of time.
A passively powered gas sensor for remotely reading and transmitting a gas pressure of a system, comprising: a hollow cylindrical body; a stem axially aligned and extending outwardly from a first surface of the hollow cylindrical body, the stem having an interior surface and a threaded exterior surface; a pressure sensing element in the stem; an antenna coupled to the pressure sensing element, where the antenna is located within the hollow cylindrical body and the stem; wherein the pressure sensing element is polled remotely by a polling device, and powered by the polling device; the passively powered gas sensor further comprising: a printed circuit board that carries the pressure sensing element. a hollow cylindrical body; a stem axially aligned and extending outwardly from a first surface of the hollow cylindrical body, the stem having an interior surface and a threaded exterior surface; a pressure sensing element in the stem; an antenna coupled to the pressure sensing element, where the antenna is located within the hollow cylindrical body and the stem; wherein the pressure sensing element is polled remotely by a polling device, and powered by the polling device; the passively powered gas sensor further comprising: a printed circuit board that carries the pressure sensing element.
Fastening device to be clamped in a profile rail by rotation about an axis of rotation which has a substantially C-shaped cross section and a longitudinal slot having opposite slot flanks, wherein the fastening device has a cover plate for resting on the profile rail, a threaded plate which has a threaded hole and has a length greater than the width of the longitudinal slot and a width smaller than the width of the longitudinal slot, and a holding device for the threaded plate, arranged on the cover plate, to be plugged into the profile rail, wherein spring arrangements located diametrically opposite with respect to the axis of rotation are provided between the cover plate and the threaded plate to make contact with the slot flanks of the longitudinal slot, wherein the spring arrangements are provided for clamping the fastening device against the slot flanks of the longitudinal slot and each have two curved spring lugs (58, 59) which extend radially outwards away from the holding device with respect to the axis of rotation, and each of which extends in opposite directions around the holding device with respect to a circumferential direction.
Composition comprising 1% by weight decylene glycol, 18% by weight urea, 9% by weight lactic acid, 3% by weight sodium hydroxide, 0.1% by weight mint hydrolate, and propylene glycol in such an amount that the total amount of the composition is 100% by weight.
An anhydrous cosmetic composition comprising: a) one or more silicone dendrimers with at least one group that reacts via free radical polymerization, b) One or more monomeric alkanes with a carbon chain length of at least C 10 or a siloxane, or mixtures of aforementioned monomeric alkanes with siloxans, c) One or more homopolymeric olefins, and d) One or more copolymers consisting of olefin and aromatic monomers. a) one or more silicone dendrimers with at least one group that reacts via free radical polymerization, b) One or more monomeric alkanes with a carbon chain length of at least C 10 or a siloxane, or mixtures of aforementioned monomeric alkanes with siloxans, c) One or more homopolymeric olefins, and d) One or more copolymers consisting of olefin and aromatic monomers.
A processor-implemented method for encrypting data, the method comprising: receiving one or more datasets; calculating the number of occurrences of the binary digit '1' in each byte of the one or more datasets; determining a slot value for the each byte of the one or more datasets based on a location of the each byte in a table selected from a plurality of tables, wherein the contents of each table of the plurality of tables is divided into one or more slots with each slot of the one or more slots having a predefined number of bytes and the slot value, wherein each table of the plurality of tables is differentiated based on the number of occurrences of the binary digit '1' in a byte; identifying a pattern index for the each byte based on the location of the each byte in the one or more slots; and generating an encrypted byte for the each byte of the one or more datasets comprising the corresponding slot value, a first segment indicative of binary representation of the number of occurrences of the binary digit '1' and a second segment indicative of a binary representation of the pattern index. receiving one or more datasets; calculating the number of occurrences of the binary digit '1' in each byte of the one or more datasets; determining a slot value for the each byte of the one or more datasets based on a location of the each byte in a table selected from a plurality of tables, wherein the contents of each table of the plurality of tables is divided into one or more slots with each slot of the one or more slots having a predefined number of bytes and the slot value, wherein each table of the plurality of tables is differentiated based on the number of occurrences of the binary digit '1' in a byte; identifying a pattern index for the each byte based on the location of the each byte in the one or more slots; and generating an encrypted byte for the each byte of the one or more datasets comprising the corresponding slot value, a first segment indicative of binary representation of the number of occurrences of the binary digit '1' and a second segment indicative of a binary representation of the pattern index.
A method for inducing cell death in pluripotent stem cells and cells other than cardiomyocytes derived from pluripotent stem cells by culturing a cell population including pluripotent stem cells, cells other than cardiomyocytes derived from pluripotent stem cells, and pluripotent stem cell-derived cardiomyocytes in a hypertonic solution having an osmotic pressure of 370 mOsm/kg or higher.