mhurhangee/patent-ind-claim-en huggingface dataset:
Container for storing and transporting liquefied gas, in particular cryogenic fluid such as helium, comprising a first, internal reservoir that extends in a longitudinal direction (A) and is intended to store the liquefied gas, a second, external reservoir that is disposed around the first reservoir with a vacuum insulated space between the first and the second reservoir, the container comprising a third, annular reservoir that is disposed around the first reservoir , between the first and the second reservoir, the third reservoir extending around at least a part of the first reservoir and containing a liquefied gas in order to form a heat shield for thermally insulating the first reservoir , the container comprising a device for holding the first and third reservoirs in the second reservoir , the holding system being configured to allow limited travel of the first and third reservoirs in the second reservoir in particular in the longitudinal direction (A) when they undergo dimensional variations caused by temperature variations, the holding system comprising a set of tie rods , characterized in that at least some of the tie rods have a first end connected in an articulated manner to the second reservoir and a second end connected rigidly to the first reservoir or to the third reservoir or to a structural component rigidly connected to said first or third reservoir, said articulated tie rods being movable between two given angular positions that respectively define two distinct positions of the second end of the tie rods and correspond respectively to the extremes of the dimensional variations of the first and third reservoirs with respect to the second reservoir .
An image forming apparatus comprising: a light source ; a laser scanning member configured to scan light emitted from the light source ; a light detecting portion configured to detect light incident on a predetermined position in a scanning path of the light scanned by the laser scanning member; a light source control portion configured to, each time the light detecting portion detects light, cause the light source to emit light corresponding to image data of a line, at a predetermined emission start timing; a scanning lens configured to cause the light scanned by the laser scanning member to be scanned at an equal speed on an image carrier ; a housing in which the laser scanning member, the light detecting portion, and the scanning lens are disposed; a temperature gradient detecting portion configured to detect a temperature gradient of the housing; a heater configured to heat the image carrier or a sheet before image transferring; characterized by a correction processing portion configured to correct the emission start timing based on the temperature gradient detected by the temperature gradient detecting portion and a predetermined expression, and change a content of the predetermined expression based on an operation state of the heater at a start of an image formation process. a light source ; a laser scanning member configured to scan light emitted from the light source ; a light detecting portion configured to detect light incident on a predetermined position in a scanning path of the light scanned by the laser scanning member; a light source control portion configured to, each time the light detecting portion detects light, cause the light source to emit light corresponding to image data of a line, at a predetermined emission start timing; a scanning lens configured to cause the light scanned by the laser scanning member to be scanned at an equal speed on an image carrier ; a housing in which the laser scanning member, the light detecting portion, and the scanning lens are disposed; a temperature gradient detecting portion configured to detect a temperature gradient of the housing; a heater configured to heat the image carrier or a sheet before image transferring; characterized by a correction processing portion configured to correct the emission start timing based on the temperature gradient detected by the temperature gradient detecting portion and a predetermined expression, and change a content of the predetermined expression based on an operation state of the heater at a start of an image formation process.
System for classifying objects in a flow of objects to be sorted, the flow of objects to be sorted being installed on a conveying device , said system comprising: - a device for acquiring an image in the visible spectrum installed so as to be able to acquire at least one image of a portion of the flow of objects to be sorted; - a first light source , emitting in the visible spectrum, installed overhanging and illuminating said portion of flow of objects to be sorted, said at least one image of which is acquired by the image acquisition device ; - a classification device able to classify the objects in said portion of the flow of objects to be sorted according to said at least one image acquired; characterized in that the system further comprises at least one second light source , with a nature distinct from the first light source , allowing the appearance of additional visual information in the visible spectrum on said at least one image acquired; the classification device further being adapted to classify said objects in said portion of the flow of objects according to said additional visual information. - a device for acquiring an image in the visible spectrum installed so as to be able to acquire at least one image of a portion of the flow of objects to be sorted; - a first light source , emitting in the visible spectrum, installed overhanging and illuminating said portion of flow of objects to be sorted, said at least one image of which is acquired by the image acquisition device ; - a classification device able to classify the objects in said portion of the flow of objects to be sorted according to said at least one image acquired; characterized in that the system further comprises at least one second light source , with a nature distinct from the first light source , allowing the appearance of additional visual information in the visible spectrum on said at least one image acquired; the classification device further being adapted to classify said objects in said portion of the flow of objects according to said additional visual information.
A power conversion device comprising: a DC voltage unit that is configured to smooth DC voltage; a power conversion unit that is configured to convert the DC voltage into AC voltage; an output control unit that is configured to control an output of the power conversion unit ; and a frequency command unit that is configured to output a command frequency to the output control unit , wherein when a command frequency output by the frequency command unit becomes a predetermined frequency or more, the output control unit controls the power conversion unit , determining a frequency obtained by fluctuating the command frequency as an output frequency; wherein the output control unit controls the power conversion unit based on the command frequency when the command frequency is less than the predetermined frequency; wherein the power conversion device further comprises a frequency fluctuation generation unit that is configured to superpose a plurality of waveforms having different periods to generate a fluctuating command of a predetermined fluctuating range or more, and wherein the frequency obtained by fluctuating the command frequency is generated by calculating the command frequency and the fluctuating command. a DC voltage unit that is configured to smooth DC voltage; a power conversion unit that is configured to convert the DC voltage into AC voltage; an output control unit that is configured to control an output of the power conversion unit ; and a frequency command unit that is configured to output a command frequency to the output control unit , wherein when a command frequency output by the frequency command unit becomes a predetermined frequency or more, the output control unit controls the power conversion unit , determining a frequency obtained by fluctuating the command frequency as an output frequency; wherein the output control unit controls the power conversion unit based on the command frequency when the command frequency is less than the predetermined frequency; wherein the power conversion device further comprises a frequency fluctuation generation unit that is configured to superpose a plurality of waveforms having different periods to generate a fluctuating command of a predetermined fluctuating range or more, and wherein the frequency obtained by fluctuating the command frequency is generated by calculating the command frequency and the fluctuating command.
A peptide consisting of the amino acid sequence according to SEQ ID No. 82.
Activator composition comprising a) between 0.5% and 50% by weight of a catalyst K which is liquid at 23°C for the crosslinking of two-component adhesives, b) between 40% and 99.5% by weight of an organic solvent L , c) between 0% and 10% by weight of at least one silane S having at least one hydrolyzable silane group and preferably at least one functional group selected from mercapto, epoxy, amino, methacryloyl, vinyl and alkyl group, characterized in that the catalyst K comprises a 1,3-ketoamidate complex of a metal, and in that the solvent L is selected from the group of acetone, methyl ethyl ketone, methyl n-propyl ketone, diisobutyl ketone, methyl isobutyl ketone, methyl n-amyl ketone, methyl isoamyl ketone, acetylacetone, mesityl oxide, cyclohexanone, methylcyclohexanone, ethyl acetate, propyl acetate, isopropyl acetate, butyl acetate, n-butyl propionate, diethyl malonate, 1-methoxy-2-propyl acetate, 3-methoxy-n-butyl acetate, ethyl 3-ethoxypropionate, diisopropyl ether, diethyl ether, dibutyl ether, diethylene glycol diethyl ether, ethylene glycol diethyl ether, ethylene glycol monopropyl ether, ethylene glycol mono-2-ethylhexyl ether, ethylbenzene, toluene, xylene, heptane, octane, naphtha, white spirit, petroleum ether, benzine, methylene chloride, methanol, ethanol, isopropanol, and mixtures of these solvents. a) between 0.5% and 50% by weight of a catalyst K which is liquid at 23°C for the crosslinking of two-component adhesives, b) between 40% and 99.5% by weight of an organic solvent L , c) between 0% and 10% by weight of at least one silane S having at least one hydrolyzable silane group and preferably at least one functional group selected from mercapto, epoxy, amino, methacryloyl, vinyl and alkyl group,
A method for dissociating ions in a quadrupole ion trap for mass spectrometric analysis, comprising: applying RF voltages of adjustable amplitude to the ion trap to generate an RF trapping field that confines ions within the ion trap, the quadrupole ion trap being configured such that the RF trapping field incorporates higher order non-linear components and applying an oscillatory excitation voltage to the ion trap for an excitation period to resonantly excite and fragment at least some of the confined ions; characterized in that the method further comprises monotonically varying the amplitude of the RF voltages during the excitation period so as to counteract the effect of the higher order field components and prolong the resonant excitation thereby. applying RF voltages of adjustable amplitude to the ion trap to generate an RF trapping field that confines ions within the ion trap, the quadrupole ion trap being configured such that the RF trapping field incorporates higher order non-linear components and applying an oscillatory excitation voltage to the ion trap for an excitation period to resonantly excite and fragment at least some of the confined ions; characterized in that the method further comprises monotonically varying the amplitude of the RF voltages during the excitation period so as to counteract the effect of the higher order field components and prolong the resonant excitation thereby.
A method comprising: selecting , in a network node, a downlink control channel scheme comprising different control channel pools within predefined control symbols, wherein each control channel pool comprises different control channels; applying , in the network node, time division multiplexing between the different control channels within each control channel pool; applying , in the network node, frequency division multiplexing between the different control channel pools; and allocating , in the network node, control channel resources for at least one of the different control channels of the different control channel pools based on a control channel type and/or aggregation level. selecting , in a network node, a downlink control channel scheme comprising different control channel pools within predefined control symbols, wherein each control channel pool comprises different control channels; applying , in the network node, time division multiplexing between the different control channels within each control channel pool; applying , in the network node, frequency division multiplexing between the different control channel pools; and allocating , in the network node, control channel resources for at least one of the different control channels of the different control channel pools based on a control channel type and/or aggregation level.
A heater system (10; 50; 150) comprising: a current source configured to generate an input current (I N ) and to receive a return current (IRTN); a heater (14; 52) configured to generate heat in response to the input current (I N ); and a plurality of current lead wires (16; 54, 56, 58; 102, 104, 106; 158, 160, 162) interconnecting the current source and the heater and being configured to provide the input current (I N ) to the heater and to conduct the return current (I RTN ) from the heater , wherein each of the plurality of current lead wires (16; 54, 56, 58; 102, 104, 106; 158, 160, 162) is arranged on a separate substrate layer such that each of the plurality of current lead wires (16; 54, 56, 58; 102, 104, 106; 158, 160, 162) are each spaced apart from each other, characterized in that at least one of the input current (I N ) and the return current (I RTN ) is divided to be conducted on two or more of the plurality of current lead wires, wherein at least one of the plurality of current lead wires (16; 54, 56, 58; 102, 104, 106; 158, 160, 162) configured to provide one of the input current (I N ) and the return current (I RTN ) is arranged on a layer between respective layers associated with each of at least one of the plurality of current lead wires configured to provide the other of the return current (I RTN ) and the input current (I N ). a current source configured to generate an input current (I N ) and to receive a return current (IRTN); a heater (14; 52) configured to generate heat in response to the input current (I N ); and a plurality of current lead wires (16; 54, 56, 58; 102, 104, 106; 158, 160, 162) interconnecting the current source and the heater and being configured to provide the input current (I N ) to the heater and to conduct the return current (I RTN ) from the heater , wherein each of the plurality of current lead wires (16; 54, 56, 58; 102, 104, 106; 158, 160, 162) is arranged on a separate substrate layer such that each of the plurality of current lead wires (16; 54, 56, 58; 102, 104, 106; 158, 160, 162) are each spaced apart from each other, characterized in that at least one of the input current (I N ) and the return current (I RTN ) is divided to be conducted on two or more of the plurality of current lead wires, wherein at least one of the plurality of current lead wires (16; 54, 56, 58; 102, 104, 106; 158, 160, 162) configured to provide one of the input current (I N ) and the return current (I RTN ) is arranged on a layer between respective layers associated with each of at least one of the plurality of current lead wires configured to provide the other of the return current (I RTN ) and the input current (I N ).
Commercial vehicle , in particular truck, trailer or semi-trailer, with a floor structure supporting a loading floor , wherein components assigned to two opposing longitudinal sides of the commercial vehicle and each extending downwards at least in sections are fixedly suspended on the floor structure , wherein at least one battery box for receiving at least one electric battery is provided between the components extending downwards at least in sections, characterised in that the components extending downwards at least in sections are designed as components of a support structure that can be adjusted from a position of non-use to a position of use for supporting the commercial vehicle on the ground.
A multi-stage flexible acrylic resin comprising: a) a first stage comprising a crosslinked core having a Tg ranging from -85 to -10° C.; b) a second stage comprising one or more layers comprising from 88.5 to 100 wt.% of units derived from one or more monomers selected from the group consisting of alkyl (meth)acrylate monomers, from 0 to 5 wt.% of units derived from a cross-linking monomer, a graft-linking monomer, or a combination of two or more thereof, optionally from 0 to 2 wt.% units of one or more chain transfer agents, wherein there is a compositional gradient between the intermediate layers such that the Tg transitions between a lower Tg and an upper Tg, wherein the lower Tg is at least 0° C. and the upper Tg is 70° C. or less over the width of the second stage; c) a third stage comprising one or more layers comprising from 98.5 to 100 wt.% units derived from one or more monomers selected from the group consisting of alkyl (meth)acrylate, styrenic monomers, and combinations of two or more thereof, and from 0 to 1.5 wt.% units derived from one or more chain transfer agents, wherein the third stage has a Tg ranging from 40° C. to 110° C; and d) a fourth stage comprising one or more layers comprising a branched polymer which is a reaction product of reactants comprising one or more monoethylenically unsaturated ester monomers, a chain transfer agent in an amount of 0.1 to 10 wt.%, and a crosslinker in an amount of 0.1 to 10 wt.%, wherein wt.% is based on total amount of reactants, provided the amount of crosslinker in moles is less than the amount of chain transfer agent in moles. a) a first stage comprising a crosslinked core having a Tg ranging from -85 to -10° C.; b) a second stage comprising one or more layers comprising from 88.5 to 100 wt.% of units derived from one or more monomers selected from the group consisting of alkyl (meth)acrylate monomers, from 0 to 5 wt.% of units derived from a cross-linking monomer, a graft-linking monomer, or a combination of two or more thereof, optionally from 0 to 2 wt.% units of one or more chain transfer agents, wherein there is a compositional gradient between the intermediate layers such that the Tg transitions between a lower Tg and an upper Tg, wherein the lower Tg is at least 0° C. and the upper Tg is 70° C. or less over the width of the second stage; c) a third stage comprising one or more layers comprising from 98.5 to 100 wt.% units derived from one or more monomers selected from the group consisting of alkyl (meth)acrylate, styrenic monomers, and combinations of two or more thereof, and from 0 to 1.5 wt.% units derived from one or more chain transfer agents, wherein the third stage has a Tg ranging from 40° C. to 110° C; and d) a fourth stage comprising one or more layers comprising a branched polymer which is a reaction product of reactants comprising one or more monoethylenically unsaturated ester monomers, a chain transfer agent in an amount of 0.1 to 10 wt.%, and a crosslinker in an amount of 0.1 to 10 wt.%, wherein wt.% is based on total amount of reactants, provided the amount of crosslinker in moles is less than the amount of chain transfer agent in moles.
Assembly unit having at least one assembly rail , on which at least one retaining clamp can be fixed in a releasable manner, wherein the at least one retaining clamp acts on the longitudinal rail edges , which delimit at least one longitudinal rail side , and, for this purpose, the at least one retaining clamp has two clamp parts (6, 7; 206, 207) which each have at least one clamp claw , which engages behind an adjacent longitudinal rail edge of the longitudinal rail edges , which bound the longitudinal rail side , and of which a first clamp part , which engages behind the one longitudinal rail edge , bears at least one convexity , which is delimited by at least one run-on slope , and a second clamp part , which engages behind the other longitudinal rail edge , bears at least one concavity or aperture, which is delimited by at least one mating slope , wherein, in the retaining position of the retaining clamp , the convexity and the concavity or aperture of the abutting clamp parts (6, 7;, 206, 207) are positioned in a form-fitting manner on one another, wherein the first and the second clamp parts (6, 7; 206, 207) can be displaced and/or pivoted relative to one another between a retaining and pre-assembly position, in which the close-together clamp claws can engage behind the longitudinal rail edges , and an open position, in which the clamp claws , in contrast, have been moved a distance apart, and wherein the displacement and/or pivoting movement of the clamp parts (6, 7; 206, 207) of the at least one retaining clamp from the retaining or pre-assembly position into the open position, or vice versa, takes place counter to the force of at least one spring element .
A compound of formula (XA): wherein R 5 a is fluoro and R 5 b is hydrogen; or R 5 a is hydrogen and R 5 b is fluoro; or R 5 a and R 5 b are fluoro; or a compound of formula (XB): wherein R 5 a is fluoro or hydrogen; and R 5 b is fluoro or hydrogen; or a compound of formula (XC): wherein R 5 a is fluoro and R 5 b is hydrogen; or R 5 a is hydrogen and R 5 b is fluoro; or R 5 a and R 5 b are fluoro; or a compound of formula (XD): wherein R 5 a is fluoro or hydrogen; and R 5 b is fluoro or hydrogen. wherein R 5 a is fluoro and R 5 b is hydrogen; or R 5 a is hydrogen and R 5 b is fluoro; or R 5 a and R 5 b are fluoro; or a compound of formula (XB): wherein R 5 a is fluoro or hydrogen; and R 5 b is fluoro or hydrogen; or a compound of formula (XC): wherein R 5 a is fluoro and R 5 b is hydrogen; or R 5 a is hydrogen and R 5 b is fluoro; or R 5 a and R 5 b are fluoro; or a compound of formula (XD): wherein R 5 a is fluoro or hydrogen; and R 5 b is fluoro or hydrogen.
A remote seal assembly for connecting a pressure transmitter with a process fluid , the remote seal assembly comprising: a process flange including a pressure diaphragm for interfacing with the process fluid; a capillary tube for communicating a pressure of the process fluid from the pressure diaphragm to the pressure transmitter via a fill fluid; and a slack take-up device for selectively adjusting a relative length of the capillary tube between the remote seal assembly and the pressure transmitter, characterised in that the slack take-up device comprises a spool configured for bi-directionally winding the capillary tube , wherein the spool includes a channel for uninterruptedly receiving the capillary tube , the channel extending continuously through an interior of the spool. a process flange including a pressure diaphragm for interfacing with the process fluid; a capillary tube for communicating a pressure of the process fluid from the pressure diaphragm to the pressure transmitter via a fill fluid; and a slack take-up device for selectively adjusting a relative length of the capillary tube between the remote seal assembly and the pressure transmitter, characterised in that the slack take-up device comprises a spool configured for bi-directionally winding the capillary tube , wherein the spool includes a channel for uninterruptedly receiving the capillary tube , the channel extending continuously through an interior of the spool.