mhurhangee/ep-ind-claims huggingface dataset:
A quadrupole mass spectrometer including: an ion source for ionizing a sample molecule; a quadrupole mass filter selectively allowing an ion having a specific mass to pass therethrough among ions generated in the ion source; and a detector for detecting ions having passed through the quadrupole mass filter, the quadrupole mass spectrometer comprising: a) a quadrupole driving means (13, 18, 19, 20) for applying, to respective electrodes (3a, 3b, 3c, 3d) forming the quadrupole mass filter, a voltage obtained by adding a direct current voltage and a radio-frequency voltage; and b) a control means for controlling the quadrupole driving means (13, 18, 19, 20) to sequentially change the direct current voltage and an amplitude of the radio-frequency voltage depending on the mass, characterized in that the control means are configured to change a ratio of the direct current voltage U to the amplitude V of the radio-frequency voltage depending on a scanning rate in such a manner that the higher the scanning rate is, the smaller the ratio U/V is, when a mass scanning is conducted in such a manner that the mass of ions passing through the quadrupole mass filter is sequentially changed, and to maintain an ion accelerating voltage determining a kinetic energy of ions introduced into the quadrupole mass filter constant regardless of the scanning rate. an ion source for ionizing a sample molecule; a quadrupole mass filter selectively allowing an ion having a specific mass to pass therethrough among ions generated in the ion source; and a detector for detecting ions having passed through the quadrupole mass filter, the quadrupole mass spectrometer comprising: a) a quadrupole driving means (13, 18, 19, 20) for applying, to respective electrodes (3a, 3b, 3c, 3d) forming the quadrupole mass filter, a voltage obtained by adding a direct current voltage and a radio-frequency voltage; and b) a control means for controlling the quadrupole driving means (13, 18, 19, 20) to sequentially change the direct current voltage and an amplitude of the radio-frequency voltage depending on the mass, characterized in that a) a quadrupole driving means (13, 18, 19, 20) for applying, to respective electrodes (3a, 3b, 3c, 3d) forming the quadrupole mass filter, a voltage obtained by adding a direct current voltage and a radio-frequency voltage; and b) a control means for controlling the quadrupole driving means (13, 18, 19, 20) to sequentially change the direct current voltage and an amplitude of the radio-frequency voltage depending on the mass, characterized in that the control means are configured to change a ratio of the direct current voltage U to the amplitude V of the radio-frequency voltage depending on a scanning rate in such a manner that the higher the scanning rate is, the smaller the ratio U/V is, when a mass scanning is conducted in such a manner that the mass of ions passing through the quadrupole mass filter is sequentially changed, and to maintain an ion accelerating voltage determining a kinetic energy of ions introduced into the quadrupole mass filter constant regardless of the scanning rate.
An exhaust liner assembly for a gas turbine engine comprising: an inner liner; and an outer liner spaced apart from said inner liner; characterised by comprising: a closeout member (40; 58) attached to said inner liner and said outer liner, said closeout member (40; 58) including at least one bend segment (45; 65) providing for relative movement between said inner liner and said outer liner; and in that said closeout member (40; 58) includes tab segments, said tab segments spacing a segment of said closeout member (40; 58) from said inner liner, and defining a plurality of air passages between said inner liner and said closeout member (40; 58); wherein said tab segments are attached to said inner liner; and wherein said closeout member (40; 58) includes a horizontal segment (44; 62) disposed between said bend segment (45; 65) and said inner liner, said horizontal segment (44; 62) movable radially for providing a compliant connection between said inner liner and said outer liner. an inner liner; and an outer liner spaced apart from said inner liner; characterised by comprising: a closeout member (40; 58) attached to said inner liner and said outer liner, said closeout member (40; 58) including at least one bend segment (45; 65) providing for relative movement between said inner liner and said outer liner; and in that said closeout member (40; 58) includes tab segments, said tab segments spacing a segment of said closeout member (40; 58) from said inner liner, and defining a plurality of air passages between said inner liner and said closeout member (40; 58); wherein said tab segments are attached to said inner liner; and wherein said closeout member (40; 58) includes a horizontal segment (44; 62) disposed between said bend segment (45; 65) and said inner liner, said horizontal segment (44; 62) movable radially for providing a compliant connection between said inner liner and said outer liner. a closeout member (40; 58) attached to said inner liner and said outer liner, said closeout member (40; 58) including at least one bend segment (45; 65) providing for relative movement between said inner liner and said outer liner; and in that said closeout member (40; 58) includes tab segments, said tab segments spacing a segment of said closeout member (40; 58) from said inner liner, and defining a plurality of air passages between said inner liner and said closeout member (40; 58); wherein said tab segments are attached to said inner liner; and wherein said closeout member (40; 58) includes a horizontal segment (44; 62) disposed between said bend segment (45; 65) and said inner liner, said horizontal segment (44; 62) movable radially for providing a compliant connection between said inner liner and said outer liner.
A communication device configured for wireless communications, the communication device comprising: a detector configured to perform demodulation on a plurality of received modulation symbols to identify a plurality of source transmitters for the plurality of received modulation symbols, wherein the identified plurality of source transmitters comprises each of a predefined set of transmitters; and a selector configured to compare spectrum envelopes of the plurality of received modulation symbols with a spectrum envelope of a target received modulation symbol to select one or more of the plurality of source transmitters, wherein the one or more of the plurality of source transmitters are a reduced subset of the plurality of source transmitters, wherein the target received modulation symbol is not part of the plurality of the received modulation symbols, and wherein the target received modulation symbol and the plurality of the received modulation symbols are in the same symbol period, the detector further configured to perform demodulation on the target received modulation symbol based on the selected one or more of the plurality of source transmitters to identify a source transmitter for the target received modulation symbol from the reduced subset. a detector configured to perform demodulation on a plurality of received modulation symbols to identify a plurality of source transmitters for the plurality of received modulation symbols, wherein the identified plurality of source transmitters comprises each of a predefined set of transmitters; and a selector configured to compare spectrum envelopes of the plurality of received modulation symbols with a spectrum envelope of a target received modulation symbol to select one or more of the plurality of source transmitters, wherein the one or more of the plurality of source transmitters are a reduced subset of the plurality of source transmitters, wherein the target received modulation symbol is not part of the plurality of the received modulation symbols, and wherein the target received modulation symbol and the plurality of the received modulation symbols are in the same symbol period, the detector further configured to perform demodulation on the target received modulation symbol based on the selected one or more of the plurality of source transmitters to identify a source transmitter for the target received modulation symbol from the reduced subset.
A clinker substitute which has the following composition: CaO: 31-48%, preferably 38-46% SiO 2: 25-40% Al 2 O 3: 13-24%, characterised in that it contains in addition at least 1%, preferably 3-14%, SO 3 as sulphate, which is burnt as well during the production of the clinker substitute. CaO: 31-48%, preferably 38-46% SiO 2: 25-40% Al 2 O 3: 13-24%,
A sealing membrane comprising • a thermoplastic barrier layer, especially containing thermoplastic polyolefins or polyvinyl chlorine, • as well as a tack-free solid epoxy resin layer, whereby the term "tack-free" is understood to mean, in the context of the solid epoxy resin layer, a surface tackiness in the sense of immediate adhesion or "tack" which is so low at room temperature that when a thumb is pressed with a pressure of approximately 5 kg for 1 second against the surface of the solid epoxy resin layer, the thumb does not remain stuck to the surface of the solid epoxy resin layer, or the solid epoxy resin layer cannot be removed. • a thermoplastic barrier layer, especially containing thermoplastic polyolefins or polyvinyl chlorine, • as well as a tack-free solid epoxy resin layer, whereby the term "tack-free" is understood to mean, in the context of the solid epoxy resin layer, a surface tackiness in the sense of immediate adhesion or "tack" which is so low at room temperature that when a thumb is pressed with a pressure of approximately 5 kg for 1 second against the surface of the solid epoxy resin layer, the thumb does not remain stuck to the surface of the solid epoxy resin layer, or the solid epoxy resin layer cannot be removed.
An edge bending method of a steel plate using an edge bending apparatus of a steel plate comprising: a pair of dies configured to be arranged corresponding to a widthwise edge (Sc, Sd) of a steel plate; an actuator configured to clamp the pair of dies with a predetermined pressing force; and a conveyance mechanism configured to convey the steel plate in a direction along a longitudinal direction of the steel plate as a conveyance direction, in which the widthwise edge (Sc, Sd) of the steel plate is subjected to edge bending across an entire length by performing edge bending of the widthwise edge (Sc, Sd) of the steel plate several times by the pair of dies while the steel plate is intermittently conveyed by the conveyance mechanism, characterized in that one of the pair of dies that contacts a surface positioned at the outer side of edge bending of the widthwise edge (Sc, Sc) of the steel plate to be bent has a flat part that contacts the surface positioned at the outer side of edge bending, wherein the flat part indicates a portion that is extended linearly along the conveyance direction, and edge bending is performed on the widthwise edge (Sc, Sd) of the steel plate with a center of the flat part in the conveyance direction being at a position displaced to a delivery side in the conveyance direction relative to a center of the pressing force generated by the actuator in the conveyance direction. a pair of dies configured to be arranged corresponding to a widthwise edge (Sc, Sd) of a steel plate; an actuator configured to clamp the pair of dies with a predetermined pressing force; and a conveyance mechanism configured to convey the steel plate in a direction along a longitudinal direction of the steel plate as a conveyance direction, in which the widthwise edge (Sc, Sd) of the steel plate is subjected to edge bending across an entire length by performing edge bending of the widthwise edge (Sc, Sd) of the steel plate several times by the pair of dies while the steel plate is intermittently conveyed by the conveyance mechanism, characterized in that one of the pair of dies that contacts a surface positioned at the outer side of edge bending of the widthwise edge (Sc, Sc) of the steel plate to be bent has a flat part that contacts the surface positioned at the outer side of edge bending, wherein the flat part indicates a portion that is extended linearly along the conveyance direction, and edge bending is performed on the widthwise edge (Sc, Sd) of the steel plate with a center of the flat part in the conveyance direction being at a position displaced to a delivery side in the conveyance direction relative to a center of the pressing force generated by the actuator in the conveyance direction.
A turbine engine (10, 502) comprising: a compressor (14, 16) having a mid-compression station and an exit pressure station; a low pressure turbine and a high pressure turbine; a first gas flow line interposed between the exit pressure station of the compressor (14, 16) and the high pressure turbine; a second gas flow line interposed between the mid compression station of the compressor (14, 16) and the low pressure turbine; a first valve coupled to the first gas flow line and configured to modulate a first flow rate of coolant in the first gas flow line; a second valve coupled to the second gas flow line and configured to modulate a second flow rate of coolant in the second flow line; a controller configured to operate the first and second valves (112, 114) based on an operating condition of the turbine engine (10, 502) and a stall margin of the turbine engine; and a computer programmed to instruct the controller to modulate the first and second valves (112, 114) based on the operating condition and the stall margin. a compressor (14, 16) having a mid-compression station and an exit pressure station; a low pressure turbine and a high pressure turbine; a first gas flow line interposed between the exit pressure station of the compressor (14, 16) and the high pressure turbine; a second gas flow line interposed between the mid compression station of the compressor (14, 16) and the low pressure turbine; a first valve coupled to the first gas flow line and configured to modulate a first flow rate of coolant in the first gas flow line; a second valve coupled to the second gas flow line and configured to modulate a second flow rate of coolant in the second flow line; a controller configured to operate the first and second valves (112, 114) based on an operating condition of the turbine engine (10, 502) and a stall margin of the turbine engine; and a computer programmed to instruct the controller to modulate the first and second valves (112, 114) based on the operating condition and the stall margin.
Heat-sensitive recording material comprising a) a carrier substrate and b) a fusible layer disposed on one side of the carrier substrate, wherein the fusible layer comprises i) an amide wax having a melting point in the range from 60°C to 180°C, wherein the amide wax is present in a total amount in the range from ≥ 40 to ≤ 78 per cent by mass, based on the dry mass of the fusible layer, ii) an inorganic pigment and iii) a polymeric binder, wherein the fusible layer comprises essentially no (colour) developers or leuco compounds. a) a carrier substrate and b) a fusible layer disposed on one side of the carrier substrate, i) an amide wax having a melting point in the range from 60°C to 180°C, wherein the amide wax is present in a total amount in the range from ≥ 40 to ≤ 78 per cent by mass, based on the dry mass of the fusible layer, ii) an inorganic pigment and iii) a polymeric binder, wherein the fusible layer comprises essentially no (colour) developers or leuco compounds.
A compound represented by the formula: wherein A is a benzene ring optionally substituted by 1 to 3 substituents selected from a C 1-6 alkoxy group and a halogen atom, X is CH or N, Y is a bond or -O-, L 1 is a C 2-6 alkenylene group, L 2 is a C 1-6 alkylene group, R 1 is a hydrogen atom, and R 2 is 1,3,4-oxadiazol-2-yl optionally substituted by a C 1-6 alkyl groups, or a salt thereof. A is a benzene ring optionally substituted by 1 to 3 substituents selected from a C 1-6 alkoxy group and a halogen atom, X is CH or N, Y is a bond or -O-, L 1 is a C 2-6 alkenylene group, L 2 is a C 1-6 alkylene group, R 1 is a hydrogen atom, and R 2 is 1,3,4-oxadiazol-2-yl optionally substituted by a C 1-6 alkyl groups,
A method of enhancing the growth of cells of a slow-growing Mycobacterial species, comprising culturing the cells in a growth medium comprising a cationic antimicrobial peptide, which peptide: (a) is from 6 to 20 amino acids in length; (b) includes 30-55% positively charged residues; (c) comprises 45-70% hydrophobic residues; (d) comprises at least one valine residue, at least one isoleucine residue and/or at least one arginine residue; and (e) reduces the lag phase for growth of the Mycobacterial species compared with a control which lacks the antimicrobial peptide. (a) is from 6 to 20 amino acids in length; (b) includes 30-55% positively charged residues; (c) comprises 45-70% hydrophobic residues; (d) comprises at least one valine residue, at least one isoleucine residue and/or at least one arginine residue; and (e) reduces the lag phase for growth of the Mycobacterial species compared with a control which lacks the antimicrobial peptide.
Poly(aryl-ether-ketone) (PAEK) composition, said composition being characterized in that it comprises an aromatic ether content of between 0 and 0.4% by weight, and a weight content of aluminium of less than 1000 ppm.
A plant for mixing materials, comprising: - a mixer having an infeed mouth for the materials to be mixed turned vertically upwards and an outfeed mouth for the mixed materials, and - a dosing device fixed above the infeed mouth of the mixer wherein the dosing device comprises: - an accommodating unit for a material to be dosed, and - measuring means adapted to measure the weight of the accommodating unit; wherein said accommodating unit comprises: - a container body, and - operating means adapted to operate the container body between a first configuration, wherein the container body makes available a concave surface for the material to be dosed, and a second configuration, wherein the container body removes said support allowing said material to fall downwards by gravity into the infeed mouth of the mixer. - a mixer having an infeed mouth for the materials to be mixed turned vertically upwards and an outfeed mouth for the mixed materials, and - a dosing device fixed above the infeed mouth of the mixer - an accommodating unit for a material to be dosed, and - measuring means adapted to measure the weight of the accommodating unit; - a container body, and - operating means adapted to operate the container body between a first configuration, wherein the container body makes available a concave surface for the material to be dosed, and a second configuration, wherein the container body removes said support allowing said material to fall downwards by gravity into the infeed mouth of the mixer.
A method, comprising: maintaining, by a provider edge device associated with a link aggregation group, LAG, and according to a link aggregation control protocol, LACP, a set of links that connect the provider edge device to a consumer edge device associated with the LAG; determining, by the provider edge device, that the provider edge device is not receiving link aggregation control protocol data units, LACPDUs, from the consumer edge device via the set of links; receiving, by the provider edge device, a message from another provider edge device associated with the LAG; processing the message to determine that the other provider edge device is not receiving LACPDUs from the consumer edge device; causing, by the provider edge device, and based on determining that the provider edge device is not receiving LACPDUs from the consumer edge device and determining that the other provider edge device is not receiving LACPDUs from the consumer edge device, the set of links to have a "maintain LAG" status, wherein causing the set of links to have the "maintain LAG" status causes the provider edge device to keep up the set of links and to cease maintaining the set of links according to the LACP; and routing, by the provider edge device and based on causing the set of links to have the "maintain LAG" status, one or more packets to or from the consumer edge device via the set of links maintaining, by a provider edge device associated with a link aggregation group, LAG, and according to a link aggregation control protocol, LACP, a set of links that connect the provider edge device to a consumer edge device associated with the LAG; determining, by the provider edge device, that the provider edge device is not receiving link aggregation control protocol data units, LACPDUs, from the consumer edge device via the set of links; receiving, by the provider edge device, a message from another provider edge device associated with the LAG; processing the message to determine that the other provider edge device is not receiving LACPDUs from the consumer edge device; causing, by the provider edge device, and based on determining that the provider edge device is not receiving LACPDUs from the consumer edge device and determining that the other provider edge device is not receiving LACPDUs from the consumer edge device, the set of links to have a "maintain LAG" status, wherein causing the set of links to have the "maintain LAG" status causes the provider edge device to keep up the set of links and to cease maintaining the set of links according to the LACP; and routing, by the provider edge device and based on causing the set of links to have the "maintain LAG" status, one or more packets to or from the consumer edge device via the set of links
A method for the operational control of a transformerless three-phase inverter designed for DC/AC voltage conversion that has at least one direct-voltage input and a link and that can be connected to a power supply grid via at least one alternating-voltage output (10, 11, 12), the inverter being involved in a power flow interaction with the grid, in such a manner that, during operation of the inverter, a leakage current I A can occur, wherein the direct-voltage input or inputs of the inverter does or do not have a galvanic connection to or with an N and/or PE potential of the power supply grid, a) wherein the operational control is carried out by means of a control device, b) wherein, during the operational control of the inverter for driving a power component assembly of the inverter that has power semiconductors, a pulse width modulation method with a pulse width modulation signal is used, characterized in that c) the pulse width modulation signal of the inverter is generated by a modified sine-delta modulation with time-variant offset, wherein the amplitude of the offset is always chosen to be just as large as is necessary for avoiding overmodulation of the generated PWM signal, and d) the leakage current I A is controlled by changing a target value setting U ZwK SOLL for a link voltage control of the link of the inverter. a) wherein the operational control is carried out by means of a control device, b) wherein, during the operational control of the inverter for driving a power component assembly of the inverter that has power semiconductors, a pulse width modulation method with a pulse width modulation signal is used, characterized in that c) the pulse width modulation signal of the inverter is generated by a modified sine-delta modulation with time-variant offset, wherein the amplitude of the offset is always chosen to be just as large as is necessary for avoiding overmodulation of the generated PWM signal, and d) the leakage current I A is controlled by changing a target value setting U ZwK SOLL for a link voltage control of the link of the inverter.