mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing a peptide, or a salt thereof, from a peptide-resin conjugate of Formula,,, or, wherein the Resin is a TFA cleavable polymer resin selected from trityl, 2-chloro-trityl, 4-methyl-trityl and 4-methoxy-trityl resins; and Pr 1 is a protecting group selected from the group consisting of Fmoc, Boc, Cbz, Npys and Alloc; said method comprising the steps of: (a) deprotecting the N-terminal α-amino function of said peptide-resin conjugate of Formula,,, or to remove protecting group Pr 1; (b) coupling an at least N-terminally protected amino acid or peptide having a free or activated carboxylic acid function with the deprotected α-amino function of step (a), thereby elongating the compound of formula,,, or, (c) optionally repeating steps (a) and (b) one or more times, wherein the at least N-terminally protected amino acid or peptide is identical or different to that of the preceding step (b); (d) cleaving the resulting peptide from the Resin; (e) guanylating the peptide obtained in step (d); (f) optionally removing all protecting groups which remain after step (d); (g) isolating and optionally purifying the peptide thus obtained. wherein the Resin is a TFA cleavable polymer resin selected from trityl, 2-chloro-trityl, 4-methyl-trityl and 4-methoxy-trityl resins; and Pr 1 is a protecting group selected from the group consisting of Fmoc, Boc, Cbz, Npys and Alloc; said method comprising the steps of: (a) deprotecting the N-terminal α-amino function of said peptide-resin conjugate of Formula,,, or to remove protecting group Pr 1; (b) coupling an at least N-terminally protected amino acid or peptide having a free or activated carboxylic acid function with the deprotected α-amino function of step (a), thereby elongating the compound of formula,,, or, (c) optionally repeating steps (a) and (b) one or more times, wherein the at least N-terminally protected amino acid or peptide is identical or different to that of the preceding step (b); (d) cleaving the resulting peptide from the Resin; (e) guanylating the peptide obtained in step (d); (f) optionally removing all protecting groups which remain after step (d); (g) isolating and optionally purifying the peptide thus obtained. (a) deprotecting the N-terminal α-amino function of said peptide-resin conjugate of Formula,,, or to remove protecting group Pr 1; (b) coupling an at least N-terminally protected amino acid or peptide having a free or activated carboxylic acid function with the deprotected α-amino function of step (a), thereby elongating the compound of formula,,, or, (c) optionally repeating steps (a) and (b) one or more times, wherein the at least N-terminally protected amino acid or peptide is identical or different to that of the preceding step (b); (d) cleaving the resulting peptide from the Resin; (e) guanylating the peptide obtained in step (d); (f) optionally removing all protecting groups which remain after step (d); (g) isolating and optionally purifying the peptide thus obtained.
A thermosensitive copolymer, comprising: a first repeating unit having a temperature-sensitive oligomer grafted thereto and a second repeating unit having an ionic moiety and a counter ion to the ionic moiety, wherein the temperature-sensitive oligomer is an oligomer comprising a repeating unit derived from a unsaturated monomer with a moiety represented by Chemical Formula 1 or Chemical Formula 2, or an oligomer comprising a repeating unit derived from a heterocyclic compound having C, N, and O and having a C=N bond in its ring: [Chemical Formula 1] *-C(=O)N(R 2)(R 3) wherein, in Chemical Formula 1, R 2 and R 3 are each independently hydrogen or a linear or branched C1 to C6 alkyl group, a C3 to C7 cycloalkyl group, or a C6 to C10 aryl group, R 2 and R 3 are not both hydrogen, and R 2 and R 3 may be combined to form a nitrogen containing heterocycle, wherein, in Chemical Formula 2, R 4 is a C2 to C5 alkylene group, wherein the thermosensitive copolymer has a lower critical solution temperature (LCST) and the thermosensitive copolymer is water-soluble below the LCST. a first repeating unit having a temperature-sensitive oligomer grafted thereto and a second repeating unit having an ionic moiety and a counter ion to the ionic moiety, wherein the temperature-sensitive oligomer is an oligomer comprising a repeating unit derived from a unsaturated monomer with a moiety represented by Chemical Formula 1 or Chemical Formula 2, or an oligomer comprising a repeating unit derived from a heterocyclic compound having C, N, and O and having a C=N bond in its ring: [Chemical Formula 1] *-C(=O)N(R 2)(R 3) wherein, in Chemical Formula 1, R 2 and R 3 are each independently hydrogen or a linear or branched C1 to C6 alkyl group, a C3 to C7 cycloalkyl group, or a C6 to C10 aryl group, R 2 and R 3 are not both hydrogen, and R 2 and R 3 may be combined to form a nitrogen containing heterocycle, wherein, in Chemical Formula 2, R 4 is a C2 to C5 alkylene group, wherein the thermosensitive copolymer has a lower critical solution temperature (LCST) and the thermosensitive copolymer is water-soluble below the LCST.
A tobacco industry product assembly machine comprising an apparatus for cutting and arranging rods for use in said tobacco industry product assembly machine, the apparatus comprising: a first cutting mechanism for cutting a four-length rod into first and second axially-aligned double-length rods (16, 17), each double-length rod having respective remote ends; a positioning mechanism for moving at least one of the first and second double-length rods such that said first and second double-length rods are moved from a first configuration in axial-alignment, to a second configuration in which the first and second double-length rods are out of axial alignment and the axes of the first and second double-length rods are parallel and spaced apart, and the remote ends of said first and second double-length rods are substantially aligned with each other; a rod making station disposed upstream of the first cutting mechanism and configured to produce said four-length rods to be provided to the first cutting mechanism; and a second cutting mechanism downstream of the first cutting mechanism and configured for cutting said first and second double-length rods into single-length rods (22, 23, 24, 25) prior to any further components of a tobacco industry product being provided to said single-length rods. a first cutting mechanism for cutting a four-length rod into first and second axially-aligned double-length rods (16, 17), each double-length rod having respective remote ends; a positioning mechanism for moving at least one of the first and second double-length rods such that said first and second double-length rods are moved from a first configuration in axial-alignment, to a second configuration in which the first and second double-length rods are out of axial alignment and the axes of the first and second double-length rods are parallel and spaced apart, and the remote ends of said first and second double-length rods are substantially aligned with each other; a rod making station disposed upstream of the first cutting mechanism and configured to produce said four-length rods to be provided to the first cutting mechanism; and a second cutting mechanism downstream of the first cutting mechanism and configured for cutting said first and second double-length rods into single-length rods (22, 23, 24, 25) prior to any further components of a tobacco industry product being provided to said single-length rods.
A reduction gear for a gas turbomachine with a longitudinal axis, comprising a ring gear and planet gear meshing with a sun gear and with the ring gear each mounted free in rotation about their axis on a planet carrier, each of the planet gears being configured to rotate about their axis through a pivot which comprises a first annular part including a lubrication axial passage and a second annular part mounted around the first annular part, the first annular part delimiting with the second annular part a lubrication circuit at least one oil inlet of which opens out inside the first annular part into the axial passage and at least one oil outlet of which opens radially outwards of the second annular part, wherein the first annular part comprises an annular wall in which a plurality of annular grooves (G1, G2, G3, G4, G5) are formed around which the second annular part is sealingly mounted, the annular grooves (G1, G2, G3, G4, G5) fluidly communicating by means of openings, such as slots, formed in annular partition walls of the annular grooves (G1, G2, G3, G4, G5), each annular groove (G1, G2, G3, G4, G5) comprising a radial wall (22, 24) joining two consecutive partition walls so as to prevent oil circulation over 360°, each radial wall (22, 24) circumferentially separating a first circumferential end of the annular groove (G1, G2, G3, G4, G5) and a second circumferential end of the annular groove, each annular groove (G1, G2, G3, G4, G5) comprising an oil inlet at its first circumferential end and an oil outlet at its second circumferential end. wherein the first annular part comprises an annular wall in which a plurality of annular grooves (G1, G2, G3, G4, G5) are formed around which the second annular part is sealingly mounted, the annular grooves (G1, G2, G3, G4, G5) fluidly communicating by means of openings, such as slots, formed in annular partition walls of the annular grooves (G1, G2, G3, G4, G5), each annular groove (G1, G2, G3, G4, G5) comprising a radial wall (22, 24) joining two consecutive partition walls so as to prevent oil circulation over 360°, each radial wall (22, 24) circumferentially separating a first circumferential end of the annular groove (G1, G2, G3, G4, G5) and a second circumferential end of the annular groove, each annular groove (G1, G2, G3, G4, G5) comprising an oil inlet at its first circumferential end and an oil outlet at its second circumferential end.
Control of the lighting of an elevator car, whereby the speed or a change in the speed of the elevator car is measured, and the lighting of the elevator car is controlled at least partly on the basis of determined information about a change in the speed of the elevator car, characterized in that the control of the lighting comprises a controlled power supply appliance for supplying power to the lighting of an elevator car, which power supply appliance comprises means for detecting a change in the speed of the elevator car, which means comprise an acceleration sensor, and which power supply appliance further comprises a main circuit, as well as a control unit, which control unit comprises an input for the measurement signal of the acceleration sensor, and which control unit is fitted to change with the power supply appliance the power supplied to the lighting with control criteria, which are selected at least partly on the basis of the measurement data received from the acceleration sensor.
A method for manufacturing a cylindrical part from composite material, comprising the following steps: a. putting in place a fibrous structure on a horizontal mandrel, b. forming an annular molding enclosure around the fibrous structure and the mandrel, c. supplying resin to the enclosure via a first axial end while keeping the second axial end of the enclosure at a pressure below the resin supply pressure, the molding enclosure being kept in a horizontal or substantially horizontal position, characterized in that the second end comprises at least two vent sectors (142 e1, 142 e2,...) in the form of ring sectors, each independently kept at a pressure below said supply pressure. a. putting in place a fibrous structure on a horizontal mandrel, b. forming an annular molding enclosure around the fibrous structure and the mandrel, c. supplying resin to the enclosure via a first axial end while keeping the second axial end of the enclosure at a pressure below the resin supply pressure, the molding enclosure being kept in a horizontal or substantially horizontal position, characterized in that the second end comprises at least two vent sectors (142 e1, 142 e2,...) in the form of ring sectors, each independently kept at a pressure below said supply pressure.
A total heat exchange element, comprising: a plurality of partition plates arranged at intervals, each of the partition plates including a base having a first principal surface and a second principal surface, and a moisture permeable membrane provided on or close to the first principal surface of the base, in such a way that first flow paths through which air flows and second flow paths through which air having a higher water vapor pressure than the air in the first flow paths flows are alternately arranged with an associated one of the partition plates sandwiched between adjacent ones of the first flow paths and the second flow paths, and in each of the plurality of partition plates, the first principal surface of the base faces a corresponding one of the first flow paths, and the second principal surface of the base faces a corresponding one of the second flow paths; characterized in that at least a portion of the moisture permeable membrane is exposed from the first principal surface of the base, and an exposed surface of the moisture permeable membrane is different in color from the second principal surface of the base. first flow paths through which air flows and second flow paths through which air having a higher water vapor pressure than the air in the first flow paths flows are alternately arranged with an associated one of the partition plates sandwiched between adjacent ones of the first flow paths and the second flow paths, and in each of the plurality of partition plates, the first principal surface of the base faces a corresponding one of the first flow paths, and the second principal surface of the base faces a corresponding one of the second flow paths; characterized in that at least a portion of the moisture permeable membrane is exposed from the first principal surface of the base, and an exposed surface of the moisture permeable membrane is different in color from the second principal surface of the base.
A blood collection device, comprising: a tubular container comprising a closed end and an open end opposite the closed end; a plug sealing the open end; and a partition (20, 40, 48, 50) within the tubular container, characterized in that: the partition (20, 40, 48, 50) separates the tubular container into a first chamber and a second chamber, the first chamber and the second chamber are evacuated such that a pressure within the first chamber and a pressure within the second chamber are lower than ambient pressure, the partition (20, 40, 48, 50) is impermeable to air and the first chamber and the second chamber are airtight, and a size of the first chamber and a size of the second chamber are approximately equal before blood collection. a tubular container comprising a closed end and an open end opposite the closed end; a plug sealing the open end; and a partition (20, 40, 48, 50) within the tubular container, characterized in that: the partition (20, 40, 48, 50) separates the tubular container into a first chamber and a second chamber, the first chamber and the second chamber are evacuated such that a pressure within the first chamber and a pressure within the second chamber are lower than ambient pressure, the partition (20, 40, 48, 50) is impermeable to air and the first chamber and the second chamber are airtight, and a size of the first chamber and a size of the second chamber are approximately equal before blood collection.
Igniter for ammunition, with an ignition device, with a striker and a movable deflection lever, on which the striker is arranged, characterized in that a striking mass is mounted longitudinally movably in the igniter, in that the striking mass can in its movement set the deflection lever in motion, and in that a safety means can restrict the movement of the deflection lever. with an ignition device, with a striker and a movable deflection lever, on which the striker is arranged, characterized in that a striking mass is mounted longitudinally movably in the igniter, in that the striking mass can in its movement set the deflection lever in motion, and in that a safety means can restrict the movement of the deflection lever.
An LED lighting device comprising: a step-up chopper which includes at least a first inductor and a first switching element, the step-up chopper serving to increase an output voltage applied from an external DC power supply and output the increased output voltage; a step-down chopper which includes at least a second inductor and a second switching element, the step-down chopper serving to decrease the output voltage from the step-up chopper and apply the decreased output voltage to a light source unit having one or more light emitting diodes; a controller which controls operations of the first switching element and the second switching element; a current limiter unit which includes a current limiting element for limiting current flowing therethrough and a current limiter unit switch for switching between a path passing through the current limiting element and a path not passing through the current limiting element on a front side of the step-up chopper; and a voltage detection unit which detects a load voltage applied to the light source unit, characterized in that the controller stops an operation of the first switching element when the voltage detection unit detects the voltage applied to the light source unit exceeding a predetermined voltage value, and the current limiter unit switch allows a current to flow through the path passing through the current limiting element when the operation of the first switching element is stopped. a step-up chopper which includes at least a first inductor and a first switching element, the step-up chopper serving to increase an output voltage applied from an external DC power supply and output the increased output voltage; a step-down chopper which includes at least a second inductor and a second switching element, the step-down chopper serving to decrease the output voltage from the step-up chopper and apply the decreased output voltage to a light source unit having one or more light emitting diodes; a controller which controls operations of the first switching element and the second switching element; a current limiter unit which includes a current limiting element for limiting current flowing therethrough and a current limiter unit switch for switching between a path passing through the current limiting element and a path not passing through the current limiting element on a front side of the step-up chopper; and a voltage detection unit which detects a load voltage applied to the light source unit, characterized in that the controller stops an operation of the first switching element when the voltage detection unit detects the voltage applied to the light source unit exceeding a predetermined voltage value, and the current limiter unit switch allows a current to flow through the path passing through the current limiting element when the operation of the first switching element is stopped.
Walk-behind floor cleaning machine, comprising a chassis which has a front end and a rear end, at least one cleaning tool which is arranged on the chassis in the region of the front end, a tank device for liquid, having at least one tank, which is arranged on the chassis and by way of which liquid is providable to the at least one cleaning tool, and a rear side which is arranged in the region of the rear end of the chassis and which is an operator side, wherein a blocking member is arranged on the at least one tank, characterized in that a rotational element is arranged on the rear side, in that the rotational element is connected to the blocking member by way of a rod, wherein a rotational position of the rotational element determines a position of the blocking member, and in that an orifice of the blocking member is in hose-free fluidic connection with the at least one cleaning tool.
Measuring device for measuring products, such as fruits, comprising: - a frame provided with a number of movable fruit carriers on which or between which products can be placed for carrying and with which the products can be moved in a transport direction; and - a sensor configured to perform a measurement or series of measurements on the products on or between the fruit carriers, wherein at least parts of the sensor are configured to enable the sensor to perform measurements over a measuring path, and wherein the measuring path is arranged at an angle to the transport direction so that a measurement can be performed over a distance over the product, characterised in that the angle lies in the range of 20 to 70 degrees to the transport direction. - a frame provided with a number of movable fruit carriers on which or between which products can be placed for carrying and with which the products can be moved in a transport direction; and - a sensor configured to perform a measurement or series of measurements on the products on or between the fruit carriers, wherein at least parts of the sensor are configured to enable the sensor to perform measurements over a measuring path, and wherein the measuring path is arranged at an angle to the transport direction so that a measurement can be performed over a distance over the product, characterised in that the angle lies in the range of 20 to 70 degrees to the transport direction.
A method comprising: receiving from a mobile terminal, at a terminal equipment (10, 20), Access Network Discovery and Selection Function, ANDSF, information defining one or more routing policies of a network operator including, at the terminal equipment (10, 20), at least a portion of the ANDSF information defining one or more routing policies of the network operator within an Internet Protocol, IP, connectivity stack along with other routing information; and characterised by: considering, at the terminal equipment (10, 20), both the one or more routing policies defined by the ANDSF information and the other routing information in determining utilisation of a plurality of access networks, using one or more rules for resolving conflicts between the ANDSF information defining the one or more routing policies by the network operator and the other routing information.
Locating apparatus, particularly a hand-held locating device, having a locating unit (26a, 26b, 26g) which has a computation unit, at least one first antenna (28a-g, 30a-g, 68d, 68f, 70d, 70f, 72f, 74f, 76f) and one second antenna (30a-g, 70d, 70f, 74f, 78f), wherein the antennas (28a-g, 68d, 68f, 72f, 76f, 78f) are of planar design, characterized in that the second antenna (30a-g, 70d, 70f, 74f, 78f) is provided for the purpose of receiving a signal from the first antenna (28a-g, 68d, 68f, 72f, 76f) in a second polarization, which is different than a polarization of the first antenna (28a-g, 68d, 68f, 72f, 76f), and the computation unit evaluates the received signal.