mhurhangee/ep-ind-claims huggingface dataset:
A process for producing a cavitated microparticulated ideal whey protein preparation comprising the steps of: - providing an ideal whey protein preparation which is a microfiltration permeate obtained from microfiltration of a milk raw material, or a concentrated form of the microfiltration permeate, - providing a cavitator, - optionally preheating the ideal whey protein preparation containing whey proteins in their native form and β-caseins, β-lactoglobulin and α-lactalbumin, - treating the optionally preheated ideal whey protein preparation with the cavitator for providing the cavitated microparticulated ideal whey protein preparation, wherein the cavitated microparticulated ideal whey protein preparation contains β-lactoglobulin polymers having a size of >200 kDa and a denaturation level in the range of 90-95%, wherein the cavitation is performed under the following conditions: - the temperature at the output of the cavitator is in the range of about 73-93°C, - the cavitation time is in the range of 3-60 s, and/or - the frequency in the cavitator is in the range of about 50-60 Hz. - providing an ideal whey protein preparation which is a microfiltration permeate obtained from microfiltration of a milk raw material, or a concentrated form of the microfiltration permeate, - providing a cavitator, - optionally preheating the ideal whey protein preparation containing whey proteins in their native form and β-caseins, β-lactoglobulin and α-lactalbumin, - treating the optionally preheated ideal whey protein preparation with the cavitator for providing the cavitated microparticulated ideal whey protein preparation, wherein the cavitated microparticulated ideal whey protein preparation contains β-lactoglobulin polymers having a size of >200 kDa and a denaturation level in the range of 90-95%, wherein the cavitation is performed under the following conditions: - the temperature at the output of the cavitator is in the range of about 73-93°C, - the cavitation time is in the range of 3-60 s, and/or - the frequency in the cavitator is in the range of about 50-60 Hz. - the temperature at the output of the cavitator is in the range of about 73-93°C, - the cavitation time is in the range of 3-60 s, and/or - the frequency in the cavitator is in the range of about 50-60 Hz.
An electronic component (51, 81, 91, 101) in which a semiconductor element is mounted on an upper surface of a board, a ground electrode is formed in a region surrounding the semiconductor element on the upper surface of the board, a conductive cap overlaps the board such that the semiconductor element is covered therewith, and a whole periphery of a lower surface of the conductive cap is joined to the ground electrode by a conductive joining member, wherein the conductive cap includes a pressing portion in part of the lower surface thereof, and the lower surface of the conductive cap and the ground electrode are joined by the conductive joining member on an outer peripheral side of the pressing portion, characterized in that a coating member is provided on an inner peripheral portion of the ground electrode, wherein the pressing portion abuts on the coating member forming a wall between the conductive joining member and the interior of the conductive cap.
A marine seismic source, comprising: a housing having a central axis, an open end, and a closed end opposite the open end; a piston extending coaxially through the open end of the housing, wherein the piston is adapted to axially reciprocate relative to the housing and the piston has a first end distal the housing and a second end disposed within the housing; an air-spring assembly disposed within the housing, wherein the air-spring assembly is coupled to the piston and is axially positioned between the piston and the closed end of the housing; and a shaft extending axially between the second end of the piston and the air-spring assembly; wherein the air-spring assembly comprises: an air-spring cylinder; an air-spring piston coaxially disposed in the air-spring cylinder, wherein the air-spring piston is fixed to the shaft; an annular squeeze piston positioned about the shaft and coaxially disposed in the air-spring cylinder and axially spaced apart from the air-spring piston, wherein the air-spring piston is axially positioned between the squeeze piston and the piston; and a linear actuator coupled to the annular squeeze piston, wherein the shaft extends axially through the linear actuator, and the linear actuator is adapted to move the squeeze piston axially relative to the shaft. a housing having a central axis, an open end, and a closed end opposite the open end; a piston extending coaxially through the open end of the housing, wherein the piston is adapted to axially reciprocate relative to the housing and the piston has a first end distal the housing and a second end disposed within the housing; an air-spring assembly disposed within the housing, wherein the air-spring assembly is coupled to the piston and is axially positioned between the piston and the closed end of the housing; and a shaft extending axially between the second end of the piston and the air-spring assembly; wherein the air-spring assembly comprises: an air-spring cylinder; an air-spring piston coaxially disposed in the air-spring cylinder, wherein the air-spring piston is fixed to the shaft; an annular squeeze piston positioned about the shaft and coaxially disposed in the air-spring cylinder and axially spaced apart from the air-spring piston, wherein the air-spring piston is axially positioned between the squeeze piston and the piston; and a linear actuator coupled to the annular squeeze piston, wherein the shaft extends axially through the linear actuator, and the linear actuator is adapted to move the squeeze piston axially relative to the shaft. an air-spring cylinder; an air-spring piston coaxially disposed in the air-spring cylinder, wherein the air-spring piston is fixed to the shaft; an annular squeeze piston positioned about the shaft and coaxially disposed in the air-spring cylinder and axially spaced apart from the air-spring piston, wherein the air-spring piston is axially positioned between the squeeze piston and the piston; and a linear actuator coupled to the annular squeeze piston, wherein the shaft extends axially through the linear actuator, and the linear actuator is adapted to move the squeeze piston axially relative to the shaft.
An expansive material, characterized by being obtained by heat treatment of clinker or pulverized clinker containing free lime, a hydraulic compound and calcium sulfate anhydrite in a carbon dioxide gas atmosphere to form calcium carbonate in a content of 0,5 to 10 parts per 100 parts of clinker therein. heat treatment of clinker or pulverized clinker containing free lime, a hydraulic compound and calcium sulfate anhydrite free lime, a hydraulic compound and calcium sulfate anhydrite in a carbon dioxide gas atmosphere to form calcium carbonate in a content of 0,5 to 10 parts per 100 parts of clinker therein.
A kit comprising: an isolated internal control nucleic acid template for nucleic acid amplification comprising a sequence having at least 97% identity to SEQ ID NO: 1 or the reverse complement thereof; a first primer comprising an oligonucleotide having at least 85% identity to at least one of SEQ ID NO: 3 or SEQ ID NO: 5 and being fully complementary to the internal control nucleic acid template or reverse complement thereof; and a second primer comprising an oligonucleotide having at least 85% identity to at least one of SEQ ID NO: 4 or SEQ ID NO: 6 and being fully complementary to the internal control nucleic acid template or reverse complement thereof. an isolated internal control nucleic acid template for nucleic acid amplification comprising a sequence having at least 97% identity to SEQ ID NO: 1 or the reverse complement thereof; a first primer comprising an oligonucleotide having at least 85% identity to at least one of SEQ ID NO: 3 or SEQ ID NO: 5 and being fully complementary to the internal control nucleic acid template or reverse complement thereof; and a second primer comprising an oligonucleotide having at least 85% identity to at least one of SEQ ID NO: 4 or SEQ ID NO: 6 and being fully complementary to the internal control nucleic acid template or reverse complement thereof.
A method of generating a desired haptic sensation and providing a desired touch sensitivity in a touch sensitive device, the touch sensitive device comprising a touch sensitive member and at least one transducer connected to the touch sensitive member, the method comprising: processing electrical signals to be applied to one or more of said at least one transducer connected to the touch sensitive member by applying appropriate algorithms comprising a transfer function to provide the desired haptic sensation; and processing electrical signals from one or more of said at least one transducer connected to the touch sensitive member by applying appropriate algorithms comprising a transfer function to generate output signals to provide the desired touch sensitivity; characterised in that the said appropriate algorithms to provide the desired haptic sensation correspond to the said appropriate algorithms to provide the desired touch sensitivity; wherein the transfer functions in said appropriate algorithms are the same except for a scaling factor. processing electrical signals to be applied to one or more of said at least one transducer connected to the touch sensitive member by applying appropriate algorithms comprising a transfer function to provide the desired haptic sensation; and processing electrical signals from one or more of said at least one transducer connected to the touch sensitive member by applying appropriate algorithms comprising a transfer function to generate output signals to provide the desired touch sensitivity; characterised in that the said appropriate algorithms to provide the desired haptic sensation correspond to the said appropriate algorithms to provide the desired touch sensitivity; wherein the transfer functions in said appropriate algorithms are the same except for a scaling factor.
An aircraft nacelle comprising: an outer aerodynamic wall comprising an upstream air inlet lip, an inner aerodynamic wall, the air inlet lip connecting upstream both outer and inner aerodynamic walls, a front partition located immediately downstream of the lip and connecting both outer and inner aerodynamic walls, a network for circulating a first coolant of a second fluid comprising at least two air/oil type heat exchangers (2, 3), at least one air/air type exchanger characterized in that the circulating network comprises at least one dynamic scoop for bleeding air coming from outside the nacelle, at least one port for bleeding cool air coming from a fan and at least one port for exit of the air out of the nacelle.
A method of repartitioning data in a distributed network, the method comprising: executing, by one or more processors, a first pass of a data set from a plurality of first sources to a plurality of first sinks, each first sink collecting data from one or more of the first sources; and executing, by the one or more processors, a second pass of the data set from a plurality of second sources to a plurality of second sinks, each one of the plurality of first sinks corresponding to one of the plurality of second sources, and wherein executing the second pass comprises executing a plurality of shuffle operations in which each second sink collecting data from one or more of the second sources, wherein executing the second pass comprises executing a plurality of shuffle operations, divided into multiple passes, and wherein at least one pass of the shuffle operations divided into multiple passes is a sink split in which data from each given source is distributed among multiple sinks and each sink reads data from only one source; wherein executing said first and second passes causes the data set to be repartitioned such that one or more second sinks collect data that originated from two or more of the first sources. executing, by one or more processors, a first pass of a data set from a plurality of first sources to a plurality of first sinks, each first sink collecting data from one or more of the first sources; and executing, by the one or more processors, a second pass of the data set from a plurality of second sources to a plurality of second sinks, each one of the plurality of first sinks corresponding to one of the plurality of second sources, and wherein executing the second pass comprises executing a plurality of shuffle operations in which each second sink collecting data from one or more of the second sources, wherein executing the second pass comprises executing a plurality of shuffle operations, divided into multiple passes, and wherein at least one pass of the shuffle operations divided into multiple passes is a sink split in which data from each given source is distributed among multiple sinks and each sink reads data from only one source; wherein executing said first and second passes causes the data set to be repartitioned such that one or more second sinks collect data that originated from two or more of the first sources.
A nucleic acid construct which comprises a polynucleotide encoding the C-E3-E2-6K-E1 structural proteins of a Chikungunya virus (CHIKV), said polynucleotide being operably linked, in particular cloned into a cDNA molecule which encodes the nucleotide sequence of the full-length, infectious antigenomic (+) RNA strand of a measles virus.
An oscillator comprising an electronic circuit, supported by a substrate or a plurality of substrates coupled to one another, and configured to initiate and obtain periodic oscillations, at least two resonators supported by at least one of the substrates, each of which has a substantial planar mounting surface and an acceleration sensitivity with a vector, which has a magnitude and a direction, wherein the at least two resonators are operatively coupled to the electronic circuit and function as a combined resonator, in order to control the frequency of the oscillation, and wherein the planes of the mounting surfaces of the resonators are arranged substantially parallel to one another, wherein the direction of the vector of the acceleration sensitivity of at least a first resonator of the at least two resonators, relative to its mounting surface, substantially corresponds to the direction of the vector of the acceleration sensitivity of at least a second resonator of the at least two resonators, relative to that one's mounting surface, when the direction of the vector of the acceleration sensitivity of said second resonator is mirrored at a mirror plane and said first resonator is arranged in a mechanically rotated manner relative to said second resonator, rotated by 180° around the axis which is perpendicular to said mirror plane, characterized in that said mirror plane is perpendicular or parallel to the plane of the mounting surfaces of the resonators.
An x-ray apparatus comprising: a vacuum box which is sealed at its periphery, and the interior thereof is high vacuum; a plurality of thermionic cathode electron transmitting units arranged in a linear array and installed on the side wall of the vacuum box, each electron transmitting unit is independent to each other; an anode installed inside the vacuum box, and in the direction of length, the anode is parallel to the linear array of the thermionic cathode electron transmitting units, and in the direction of width, the anode has a predetermined angle with respect to the plane of the electron transmitting units facing the anode, wherein each thermionic cathode electron transmitting unit of the plurality of thermionic cathode electron transmitting units is entirely located outside the vacuum box; and the electron beam current from the thermionic cathode electron transmitting unit bombards the anode so as to transmit x-rays at the position of the target spot on the anode, characterised in that the anode is installed in the center inside the vacuum box and the electron transmitting units are installed in two rows on the two side walls of the vacuum box opposing to each other. a vacuum box which is sealed at its periphery, and the interior thereof is high vacuum; a plurality of thermionic cathode electron transmitting units arranged in a linear array and installed on the side wall of the vacuum box, each electron transmitting unit is independent to each other; an anode installed inside the vacuum box, and in the direction of length, the anode is parallel to the linear array of the thermionic cathode electron transmitting units, and in the direction of width, the anode has a predetermined angle with respect to the plane of the electron transmitting units facing the anode, wherein each thermionic cathode electron transmitting unit of the plurality of thermionic cathode electron transmitting units is entirely located outside the vacuum box; and the electron beam current from the thermionic cathode electron transmitting unit bombards the anode so as to transmit x-rays at the position of the target spot on the anode,
A block moulding machine with a machine frame (2, 3), on which at least one lifting device (4, 5) for a support element (6, 7) is arranged, wherein the support element (6, 7) is movably mounted on the machine frame (2, 3) by means of a linear guide, which includes at least one linear guide element (8a, 8b, 9a, 9b) and a guide means (10, 11, 12, 13, 14, 15) cooperating with it, characterised in that fastened to the support element (6, 7) there is a first longitudinal guide element (8a, 8b), which is movably mounted by means of at least one frame guide means (10, 11, 12, 13) arranged on the machine frame (2, 3), and arranged on the machine frame (2, 3) there is a second longitudinal guide element (9a, 9b), on which the support element (6, 7) is movably mounted by means of a support element guide means (14, 15) arranged on it.
Method for the in vitro diagnosis of active tuberculosis, comprising: - a step of contacting a sample of purified B lymphocytes of a patient suspected to have an active tuberculosis with at least one protein of mycobacteria, said protein being an enzyme having a lipolytic activity which is chosen among the following proteins: - the triacylglycerol hydrolase LipY, - the phospholipase Rv3452, and - the lipase Rv1984c, said sample being devoid of serum or of any fluid liable to contain soluble antibodies, - a step of incubation during a determined time to allow the purified B lymphocytes to secrete specific antibodies directed against said enzyme having a lipolytic activity, and - a step of detecting the presence of an immune complex comprising said antibodies and said enzyme having a lipolytic activity. - a step of contacting a sample of purified B lymphocytes of a patient suspected to have an active tuberculosis with at least one protein of mycobacteria, said protein being an enzyme having a lipolytic activity which is chosen among the following proteins: - the triacylglycerol hydrolase LipY, - the phospholipase Rv3452, and - the lipase Rv1984c, said sample being devoid of serum or of any fluid liable to contain soluble antibodies, - a step of incubation during a determined time to allow the purified B lymphocytes to secrete specific antibodies directed against said enzyme having a lipolytic activity, and - a step of detecting the presence of an immune complex comprising said antibodies and said enzyme having a lipolytic activity.
A process for manufacturing a pack of products having a bottom side and an opposite top side, comprising a handle formed over the top side and adapted to be grasped by hand, wherein the process comprises the following steps: - providing the products to be packaged; - fitting a binding structure around the products to bind them; - forming a handle by wrapping a plastic film around the bound products over at least one turn in which the plastic film covers at least most of the bottom side and is gathered to a reduced width over the top side to form the handle, characterized in that the step of fitting a binding structure around the products to bind them comprises wrapping a plastic film around the products over at least one turn, and the step of forming the handle comprises wrapping the same plastic film around the bound products over at least one subsequent turn. - providing the products to be packaged; - fitting a binding structure around the products to bind them; - forming a handle by wrapping a plastic film around the bound products over at least one turn in which the plastic film covers at least most of the bottom side and is gathered to a reduced width over the top side to form the handle,
A method of manufacturing a zirconium alloy cladding with improved oxidation resistance at a high temperature, the method comprising: (a) a step of manufacturing a target comprising Cr and Al; and (b) a step of depositing a Cr-Al thin film on a zirconium alloy cladding through arc ion plating in which a current and a bias voltage are applied to the target; characterised in that, in step (a), the content of Al in the target is 7 % by weight to 23 % by weight and wherein the thickness of the Cr-Al thin film is 5 μm to 100 μm and, wherein, in step (b), the applied current is 30 A to 120 A, and the applied bias voltage is 100 V to 400 V and, wherein, in step (b), a working pressure during the deposition is maintained at 0,67 Pa to 6,67 Pa (5mTorr to 50 mTorr) and wherein an arithmetical average roughness (Ra) of the thin film deposited in step (b) is 5 μm or less. (a) a step of manufacturing a target comprising Cr and Al; and (b) a step of depositing a Cr-Al thin film on a zirconium alloy cladding through arc ion plating in which a current and a bias voltage are applied to the target; in step (a), the content of Al in the target is 7 % by weight to 23 % by weight and wherein the thickness of the Cr-Al thin film is 5 μm to 100 μm and, wherein, in step (b), the applied current is 30 A to 120 A, and the applied bias voltage is 100 V to 400 V and, wherein, in step (b), a working pressure during the deposition is maintained at 0,67 Pa to 6,67 Pa (5mTorr to 50 mTorr) and wherein an arithmetical average roughness (Ra) of the thin film deposited in step (b) is 5 μm or less.
A refrigeration cycle equipment comprising: a compressor; a four-way valve; an outdoor heat exchanger; an expansion valve; an indoor heat exchanger; a refrigerant pipe line which sequentially connects the compressor, the four-way valve, the outdoor heat exchanger, the expansion valve, and the indoor heat exchanger; a bypass pipe line connecting the refrigerant pipe line between the outdoor heat exchanger and the expansion valve and the refrigerant pipe line between a suction port of the compressor and the four-way valve; an open/close valve mechanism provided for the bypass pipe line; an outdoor temperature sensor provided for the outdoor heat exchanger to detect an outdoor temperature; and a control unit controlling the compressor, the four-way valve, the expansion valve, and the open/close valve mechanism, characterized in that the control unit is configured to control the open/close valve mechanism of the bypass pipe line to be opened at a time when the outdoor temperature is detected to be more than a predetermined temperature in a defrosting operation of the refrigeration cycle equipment.