mhurhangee/ep-ind-claims huggingface dataset:
A pressure-sensitive adhesive composition, comprising: a polymer comprising a polymerization unit of a monomer of Formula 1, a polymerization unit of a nitrogen-containing monomer, a polymerization unit of a first monomer represented by Formula 2, in which alkylene groups of A and B of Formula 2 have 1 to 3 carbon atoms, and a polymerization unit of a second monomer represented by Formula 2, in which alkylene groups of A and B of Formula 2 have 4 to 8 carbon atoms, in which a ratio (A/B) of a weight of the polymerization unit of the first monomer and a weight of the polymerization unit of the second monomer is more than 1; and an ionic compound; and an aliphatic isocyanate crosslinking agent; wherein the polymer comprises 0.1 to 6.0 parts by weight of the monomer of Formula 1, 1 to 30 parts by weight of the nitrogen-containing monomer, 0.1 to 15 parts by weight of the first monomer and 0.1 to 5 parts by weight of the second monomer: where Q is hydrogen or an alkyl group, U is an alkylene group, Z is an alkyl group, or an aryl group, m is a number of 1 to 20, A and B are each independently an alkylene group, and n is a number of 0 to 10. a polymer comprising a polymerization unit of a monomer of Formula 1, a polymerization unit of a nitrogen-containing monomer, a polymerization unit of a first monomer represented by Formula 2, in which alkylene groups of A and B of Formula 2 have 1 to 3 carbon atoms, and a polymerization unit of a second monomer represented by Formula 2, in which alkylene groups of A and B of Formula 2 have 4 to 8 carbon atoms, in which a ratio (A/B) of a weight of the polymerization unit of the first monomer and a weight of the polymerization unit of the second monomer is more than 1; and an ionic compound; and an aliphatic isocyanate crosslinking agent; wherein the polymer comprises 0.1 to 6.0 parts by weight of the monomer of Formula 1, 1 to 30 parts by weight of the nitrogen-containing monomer, 0.1 to 15 parts by weight of the first monomer and 0.1 to 5 parts by weight of the second monomer: where Q is hydrogen or an alkyl group, U is an alkylene group, Z is an alkyl group, or an aryl group, m is a number of 1 to 20, A and B are each independently an alkylene group, and n is a number of 0 to 10.
A needle shield puller for removing a needle shield having a needle shield diameter from a syringe having a needle and a longitudinal axis, the needle shield puller comprising: a deformable, generally tubular body having a proximal end with a proximal opening, a distal end, and an opening extending from the proximal opening toward the distal end, the opening having an opening diameter and being shaped to accommodate at least a portion of the needle shield, the body having an initial state and a tension state, the body being configured such that the opening diameter is greater in the initial state than in the tension state; a cinch secured to the body at the proximal opening to secure the needle shield puller to the needle shield in a mounted configuration, the cinch having a cinch diameter, the cinch biasing the cinch diameter to a relaxed cinch diameter, the relaxed cinch diameter being less than the needle shield diameter; a handle at a distal end of the body, the handle being graspable to allow a user to exert a tensile force on the body and place the body in the tension state; and an installation aid comprising an arm releasably engageable with the cinch and the proximal opening, the arm has a generally L-shape, the installation aid graspable by the user for pulling in a direction radially away from the longitudinal axis in a mounted configuration to expand the cinch diameter so that the cinch diameter is greater than the relaxed cinch diameter and the needle shield diameter. a deformable, generally tubular body having a proximal end with a proximal opening, a distal end, and an opening extending from the proximal opening toward the distal end, the opening having an opening diameter and being shaped to accommodate at least a portion of the needle shield, the body having an initial state and a tension state, the body being configured such that the opening diameter is greater in the initial state than in the tension state; a cinch secured to the body at the proximal opening to secure the needle shield puller to the needle shield in a mounted configuration, the cinch having a cinch diameter, the cinch biasing the cinch diameter to a relaxed cinch diameter, the relaxed cinch diameter being less than the needle shield diameter; a handle at a distal end of the body, the handle being graspable to allow a user to exert a tensile force on the body and place the body in the tension state; and an installation aid comprising an arm releasably engageable with the cinch and the proximal opening, the arm has a generally L-shape, the installation aid graspable by the user for pulling in a direction radially away from the longitudinal axis in a mounted configuration to expand the cinch diameter so that the cinch diameter is greater than the relaxed cinch diameter and the needle shield diameter.
A multicast service receiving method, performed by a terminal and comprising: receiving configuration information of a multicast broadcast service, MBS, service sent by a network-side device, wherein the configuration information of the MBS service comprises information for determining whether to enable reordering for a packet data convergence protocol, PDCP, layer and/or a radio link control, RLC, layer; and receiving the MBS service based on the configuration information of the MBS service; wherein the information for determining whether to enable reordering for the PDCP layer and/or the RLC layer comprises: first configuration information, used to implicitly indicate whether to enable reordering for the PDCP layer and/or the RLC layer, wherein the first configuration information comprises at least one of the following: a hybrid automatic repeat request, HARQ, feedback configuration parameter, a quality of service, QoS, related parameter, a block error rate, and whether to enable an in-order delivery function for a service layer; and the HARQ feedback configuration parameter comprises at least one of the following: whether the MBS service requires a HARQ feedback; and a parameter used for the HARQ feedback. receiving configuration information of a multicast broadcast service, MBS, service sent by a network-side device, wherein the configuration information of the MBS service comprises information for determining whether to enable reordering for a packet data convergence protocol, PDCP, layer and/or a radio link control, RLC, layer; and receiving the MBS service based on the configuration information of the MBS service; wherein the information for determining whether to enable reordering for the PDCP layer and/or the RLC layer comprises: first configuration information, used to implicitly indicate whether to enable reordering for the PDCP layer and/or the RLC layer, wherein the first configuration information comprises at least one of the following: a hybrid automatic repeat request, HARQ, feedback configuration parameter, a quality of service, QoS, related parameter, a block error rate, and whether to enable an in-order delivery function for a service layer; and the HARQ feedback configuration parameter comprises at least one of the following: whether the MBS service requires a HARQ feedback; and a parameter used for the HARQ feedback. first configuration information, used to implicitly indicate whether to enable reordering for the PDCP layer and/or the RLC layer, wherein the first configuration information comprises at least one of the following: a hybrid automatic repeat request, HARQ, feedback configuration parameter, a quality of service, QoS, related parameter, a block error rate, and whether to enable an in-order delivery function for a service layer; and the HARQ feedback configuration parameter comprises at least one of the following: whether the MBS service requires a HARQ feedback; and a parameter used for the HARQ feedback.
Mounting device for electronic apparatus for data transmission for fastening to a metallurgical vessel, comprising: a housing with a base plate and side walls, wherein the housing bounds an interior space for reception of the electronic apparatus; and thermal insulating material in the interior space of the housing, wherein the thermal insulating material has the form of a thermal insulating layer which is applied at least partly to the inner side of the housing, wherein the housing is bowl-shaped and constructed from steel; and a layer of refractory concrete is applied to the side, which faces the interior space, of the thermal insulating layer so that the layer of refractory concrete bounds the interior space of the mounting device; characterised by fibre material with which the interior space of the mounting device is at least partly filled for embedding of the electronic apparatus. a housing with a base plate and side walls, wherein the housing bounds an interior space for reception of the electronic apparatus; and thermal insulating material in the interior space of the housing, wherein the thermal insulating material has the form of a thermal insulating layer which is applied at least partly to the inner side of the housing, wherein the housing is bowl-shaped and constructed from steel; and a layer of refractory concrete is applied to the side, which faces the interior space, of the thermal insulating layer so that the layer of refractory concrete bounds the interior space of the mounting device; characterised by fibre material with which the interior space of the mounting device is at least partly filled for embedding of the electronic apparatus.
A method for producing a rare earth sintered magnet, comprising the steps of: 1) preparing a slurry including an alloy powder and a dispersion medium at a predetermined ratio, the alloy powder containing a rare earth element, iron and boron; 2) preparing a cavity enclosed with a mold, and an upper punch (1,1A) and a lower punch, at least one of the upper punch (1,1A) and the lower punch being movable in a direction toward and away from the other one in the mold, at least one of the upper punch (1,1A) and the lower punch including an outlet for discharging the dispersion medium of the slurry; 3) applying a magnetic field of 1.5 T or more in the cavity in the direction parallel to the direction in which at least one of the upper punch (1,1A) and the lower punch is movable, and, in a state where the magnetic field of 1.5 T or more is applied, supplying the slurry at a flow rate of 20 to 600 cm 3 /second to fill the cavity with the slurry; 4) producing a molded body of the alloy powder by press molding in the magnetic field, the upper punch (1,1A) and the lower punch coming closer to each other while applying the magnetic field; and 5) sintering the molded body. 1) preparing a slurry including an alloy powder and a dispersion medium at a predetermined ratio, the alloy powder containing a rare earth element, iron and boron; 2) preparing a cavity enclosed with a mold, and an upper punch (1,1A) and a lower punch, at least one of the upper punch (1,1A) and the lower punch being movable in a direction toward and away from the other one in the mold, at least one of the upper punch (1,1A) and the lower punch including an outlet for discharging the dispersion medium of the slurry; 3) applying a magnetic field of 1.5 T or more in the cavity in the direction parallel to the direction in which at least one of the upper punch (1,1A) and the lower punch is movable, and, in a state where the magnetic field of 1.5 T or more is applied, supplying the slurry at a flow rate of 20 to 600 cm 3 /second to fill the cavity with the slurry; 4) producing a molded body of the alloy powder by press molding in the magnetic field, the upper punch (1,1A) and the lower punch coming closer to each other while applying the magnetic field; and 5) sintering the molded body.
A modification method for reducing emissions from an annular shaped combustor of a gas turbine plant having uniformly spaced circumferentially mounted premix burners and an air distribution system, the method including the steps of: a) removing at least one of said burners thereby disrupting the spatial uniformity of the remaining burners and creating a modified combustor; and b) modifying said combustor air distribution system so as to compensate for increased burner pressure drop of the remaining burners and enable said modified combustor to operate at a load equivalent to the unmodified combustor. a) removing at least one of said burners thereby disrupting the spatial uniformity of the remaining burners and creating a modified combustor; and b) modifying said combustor air distribution system so as to compensate for increased burner pressure drop of the remaining burners and enable said modified combustor to operate at a load equivalent to the unmodified combustor.
A method to flush a heating system, the heating system including a pressure balancing valve for pressure regulation of the heating system, where the valve comprises a membrane adapted to deflect under the influence of a differential pressure across said membrane to change the opening of the valve thus changing the flow rate through the valve and thereby forming the pressure regulation of the heating system, and first means and second means to communicate pressures to the opposing sides of the membrane, characterized in the method being when flushing the heating system to close the one of the first means and second means communicating a pressure to the membrane in the closing direction of the valve with an auxiliary valve, the auxiliary valve being operated manually or by an actuator, leaving only one of the two opposing sides of the membrane to be in pressure communication by the first means or second means, such that the pressure from the flushing fluid ensures to keep the valve open.
Refrigerator comprising a first compartment and a second compartment, wherein said first compartment and said second compartment do not exchange air between them, a refrigeration system including a compressor, a condenser, a first evaporator for the first compartment, a second evaporator for the second compartment in series to the first evaporator, an electrovalve for by-passing, in a predetermined configuration of the system, said first evaporator, and a fan (24, 24a) associated to said second evaporator, characterized in that said compressor is a variable speed compressor and in that the refrigerator comprises at least a sensor for detecting the speed of the variable speed compressor, and a control system for adjusting said operational speed of the compressor based on a signal received from said sensor and a temperature set-point chosen by a user, wherein said control system is adapted to adjust the working condition of the fan (24, 24a) so that cold air is not blown or blown at a very low speed in the second compartment when the compressor remains turned on at its minimum speed in order to avoid the switch off of the variable speed compressor.
A construct having: a donor label and an acceptor label positioned to provide an electronic coupling such that the donor can transfer energy to the acceptor by dipole-dipole coupling mechanism; a linker disposed between the donor and the acceptor, wherein the linker comprises a cleavage site sequence selected from the group consisting of a SNARE protein, a SNARE motif and a SNARE mutein, wherein the cleavage site sequence includes a cleavage site, a first spacer positioned between the donor and the cleavage site sequence, wherein the first spacer comprises a peptide sequence selected from the group consisting of (GGGGS)n and (EAAAK)n, where n is 1 to 3, and a second spacer positioned between the acceptor and the cleavage site sequence, wherein the second spacer comprises a peptide sequence selected from the group consisting of (GGGGS)n and (EAAAK)n, where n is 1 to 3, wherein the first and second spacers provide increased electronic coupling between the donor label and the acceptor label relative to a corresponding construct without the first and second spacers. a donor label and an acceptor label positioned to provide an electronic coupling such that the donor can transfer energy to the acceptor by dipole-dipole coupling mechanism; a linker disposed between the donor and the acceptor, wherein the linker comprises a cleavage site sequence selected from the group consisting of a SNARE protein, a SNARE motif and a SNARE mutein, wherein the cleavage site sequence includes a cleavage site, a first spacer positioned between the donor and the cleavage site sequence, wherein the first spacer comprises a peptide sequence selected from the group consisting of (GGGGS)n and (EAAAK)n, where n is 1 to 3, and a second spacer positioned between the acceptor and the cleavage site sequence, wherein the second spacer comprises a peptide sequence selected from the group consisting of (GGGGS)n and (EAAAK)n, where n is 1 to 3, a cleavage site sequence selected from the group consisting of a SNARE protein, a SNARE motif and a SNARE mutein, wherein the cleavage site sequence includes a cleavage site, a first spacer positioned between the donor and the cleavage site sequence, wherein the first spacer comprises a peptide sequence selected from the group consisting of (GGGGS)n and (EAAAK)n, where n is 1 to 3, and a second spacer positioned between the acceptor and the cleavage site sequence, wherein the second spacer comprises a peptide sequence selected from the group consisting of (GGGGS)n and (EAAAK)n, where n is 1 to 3, wherein the first and second spacers provide increased electronic coupling between the donor label and the acceptor label relative to a corresponding construct without the first and second spacers.
Cysteine protease inhibitors for use in the oral treatment of a Trichomonas gallinae infection of an animal, selected from the orders Galliformes, Passeriformes, Psittaciformes, Columbiformes and Falconiformes, wherein the cysteine protease inhibitors are selected from the group consisting of E-64 (trans-Epoxysuccinyl-L-leucylamido(4-guanidino)butane), L-trans-3-Carboxyoxiran-2-carbonyl-L-leucylagmatine, N-(trans-Epoxysuccinyl)-L-leucine 4-guanidinobutylamide), TLCK (tosyl-L-lysine chloromethyl ketone), TPCK (tosyl-L-phenylalanine chloromethyl ketone), or mixtures thereof.
Expanded thermoplastic polyurethane beads, consisting of components of the following parts by weight: 100 parts of a thermoplastic polyurethane, 1 - 10 parts of a cell size stabilizer, and 5 - 30 parts of a melt viscosity modifier, wherein the cell size stabilizer is selected from the group consisting of sorbitan monolaurate, sorbitan monopalmitate, sorbitan monostearate, and sucrose fatty acid ester, or a mixture thereof, the melt viscosity modifier is selected from the group consisting of ethylene - vinyl acetate copolymer, polypropylene - butadiene - styrene resin, and polystyrene - polyethylene - polybutylene - polystyrene, or a mixture thereof, wherein the expanded thermoplastic polyurethane beads are obtainable by the following steps: mixing 100 parts by weight of a thermoplastic polyurethane, 1 - 10 parts by weight of said cell size stabilizer, and 5 - 30 parts by weight of said melt viscosity modifier; introducing the mixture into an extruder for melting; obtaining thermoplastic polyurethane particles by cutting the cooled extruded strips in a water tank, or by performing underwater pelletizing on the melt extruded via a die; and adding the thermoplastic polyurethane particles obtained in step, a volatile foaming agent, and water into a pressure vessel; raising the temperature to 115 - 118°C; maintaining the pressure in the pressure vessel at 18 - 26 bar; after maintaining the constant temperature and pressure in the pressure vessel for 20 minutes, discharging the suspension from the pressure vessel into the atmospheric environment, obtaining expanded thermoplastic polyurethane beads. mixing 100 parts by weight of a thermoplastic polyurethane, 1 - 10 parts by weight of said cell size stabilizer, and 5 - 30 parts by weight of said melt viscosity modifier; introducing the mixture into an extruder for melting; obtaining thermoplastic polyurethane particles by cutting the cooled extruded strips in a water tank, or by performing underwater pelletizing on the melt extruded via a die; and adding the thermoplastic polyurethane particles obtained in step, a volatile foaming agent, and water into a pressure vessel; raising the temperature to 115 - 118°C; maintaining the pressure in the pressure vessel at 18 - 26 bar; after maintaining the constant temperature and pressure in the pressure vessel for 20 minutes, discharging the suspension from the pressure vessel into the atmospheric environment, obtaining expanded thermoplastic polyurethane beads.
A ribosomal display reaction system comprising a mRNA encoding a protein of interest without an operable stop codon, a cell free translation system, and a concentration of λGam protein sufficient to stabilize the mRNA encoding the protein of interest, wherein the λGam protein comprises a sequence having at least 80% identity to λGamL of GenBank Accession No. NP_040618 or λGamS of SEQ ID NO: 1.
Amplifier device for high frequency signals comprising: a) a high frequency input and a low or intermediate frequency input for different incoming signals, wherein the incoming signals have low, intermediate frequency incoming signals and high frequency incoming signals, b) an incoming line, c) a pre-distortion unit, d) an amplifier unit, e) a transmission line, f) a feedback unit, and g) an output, wherein the output is connected to the amplifier unit via the transmission line, wherein the inputs (12, 14) are connected to the pre-distortion unit such that two incoming branch lines (20, 22) are provided, wherein the two incoming branch lines (20, 22) are interconnected by a switching unit, wherein the high frequency input is connected to a first branch line, wherein the low or intermediate frequency input is connected to a second branch line, wherein the first incoming branch line of the incoming branch lines (20, 22) comprises a down-converter, wherein the down-converter is arranged between the high frequency input and the switching unit, wherein both of said incoming branch lines (20, 22) are configured to process said different incoming signals fed into the high frequency input and the low or intermediate frequency input, and wherein the first incoming branch line is configured to process the high frequency incoming signals and the second incoming branch line is configured to process low or intermediate frequency incoming signals. a) a high frequency input and a low or intermediate frequency input for different incoming signals, wherein the incoming signals have low, intermediate frequency incoming signals and high frequency incoming signals, b) an incoming line, c) a pre-distortion unit, d) an amplifier unit, e) a transmission line, f) a feedback unit, and g) an output,