mhurhangee/ep-ind-claims huggingface dataset:
A humanized anti-CCR4 antibody for use in inhibiting or slowing tumor cell growth in a subject having a late stage cancer, the antibody comprising: a heavy chain with three CDRs comprising the amino acid sequences GYTFASAW (SEQ ID NO: 9), INPGNVNT (SEQ ID NO: 11), and STYYRPLDY (SEQ ID NO: 13); a light chain with three CDRs comprising the amino acid sequences QSILYSSNQKNY (SEQ ID NO: 10), WASTRE (SEQ ID NO: 12), and HQYMSSYT (SEQ ID NO: 14); and an IgG1 heavy chain constant region. a heavy chain with three CDRs comprising the amino acid sequences GYTFASAW (SEQ ID NO: 9), INPGNVNT (SEQ ID NO: 11), and STYYRPLDY (SEQ ID NO: 13); a light chain with three CDRs comprising the amino acid sequences QSILYSSNQKNY (SEQ ID NO: 10), WASTRE (SEQ ID NO: 12), and HQYMSSYT (SEQ ID NO: 14); and an IgG1 heavy chain constant region.
An apparatus comprising: a regenerator (112, 212) configured to transfer heat to a fluid and to absorb heat from the fluid as the fluid flows between a warm end and a cold end of a cryocooler (100, 200); wherein the regenerator (112, 212) comprises multiple anisotropic thermal layers (118, 218), each anisotropic thermal layer (118, 218) configured to reduce a flow of heat axially along the regenerator (112, 212) and to spread the absorbed heat radially or laterally in a plane of the anisotropic thermal layer (118, 218), each anisotropic thermal layer (118, 218) comprising at least one allotropic form of carbon; and one or more support layers (122, 222) configured to structurally support one or more of the anisotropic thermal layers (118, 218). a regenerator (112, 212) configured to transfer heat to a fluid and to absorb heat from the fluid as the fluid flows between a warm end and a cold end of a cryocooler (100, 200); wherein the regenerator (112, 212) comprises multiple anisotropic thermal layers (118, 218), each anisotropic thermal layer (118, 218) configured to reduce a flow of heat axially along the regenerator (112, 212) and to spread the absorbed heat radially or laterally in a plane of the anisotropic thermal layer (118, 218), each anisotropic thermal layer (118, 218) comprising at least one allotropic form of carbon; and one or more support layers (122, 222) configured to structurally support one or more of the anisotropic thermal layers (118, 218).
A method for uplink power control by a User Equipment, UE, in a wireless communication system supporting Time Division Duplexing, TDD, the method comprising: receiving, from a base station, first signaling information indicating a subframe configuration for a serving cell, and second signaling information comprising a first parameter set and a second parameter set for uplink power control; determining whether a subframe belongs to a first subframe set identified by the first signaling information; if the subframe belongs to the first subframe set, determining a first transmit power for an uplink data channel in the subframe based on the first parameter set and transmitting uplink data on the uplink data channel based on the first transmit power; and if the subframe does not belong to the first subframe set, determining a second transmit power for the uplink data channel in the subframe based on the second parameter set and transmitting uplink data on the uplink data channel based on the second transmit power. receiving, from a base station, first signaling information indicating a subframe configuration for a serving cell, and second signaling information comprising a first parameter set and a second parameter set for uplink power control; determining whether a subframe belongs to a first subframe set identified by the first signaling information; if the subframe belongs to the first subframe set, determining a first transmit power for an uplink data channel in the subframe based on the first parameter set and transmitting uplink data on the uplink data channel based on the first transmit power; and if the subframe does not belong to the first subframe set, determining a second transmit power for the uplink data channel in the subframe based on the second parameter set and transmitting uplink data on the uplink data channel based on the second transmit power.
A cartridge for attachment to a fluid delivery system, the cartridge comprising: a piercing device having a conduit, the piercing device being for piercing a liquid container and creating a fluid communication between the interior of the liquid container and the conduit, the conduit having an outlet connection, wherein the conduit comprises a pump component actuated by a fluid delivery system to which the cartridge is coupled for pumping liquid from the interior of the liquid container to the outlet connection, and characterised in that the cartridge further comprises a support device for supporting the liquid container, the support device comprising a receptacle configured to receive the liquid container and to support the liquid container at different locations within the receptacle, the receptacle being formed by a pair of lateral extensions (32, 33) that are curved and tapered such that when the liquid container is a larger container, the larger container is supported at a higher position within the receptacle than when the liquid container is a smaller container supported at a lower position. a piercing device having a conduit, the piercing device being for piercing a liquid container and creating a fluid communication between the interior of the liquid container and the conduit, the conduit having an outlet connection, wherein the conduit comprises a pump component actuated by a fluid delivery system to which the cartridge is coupled for pumping liquid from the interior of the liquid container to the outlet connection, and characterised in that the cartridge further comprises a support device for supporting the liquid container, the support device comprising a receptacle configured to receive the liquid container and to support the liquid container at different locations within the receptacle, the receptacle being formed by a pair of lateral extensions (32, 33) that are curved and tapered such that when the liquid container is a larger container, the larger container is supported at a higher position within the receptacle than when the liquid container is a smaller container supported at a lower position.
A display device comprising: a display panel; a module cover configured to cover the display panel from a rear side; a glass cover including a cover part located at a rear of the module cover and a deco part extending in the plane of the cover part from the cover part and configured not to overlap the display panel and the module cover in a front-rear direction; an electric component plate provided at a rear surface of the cover part; a back cover configured to cover the electric component plate from a rear side; and a stand fixed to the back cover and located at a rear of the glass cover. a display panel; a module cover configured to cover the display panel from a rear side; a glass cover including a cover part located at a rear of the module cover and a deco part extending in the plane of the cover part from the cover part and configured not to overlap the display panel and the module cover in a front-rear direction; an electric component plate provided at a rear surface of the cover part; a back cover configured to cover the electric component plate from a rear side; and a stand fixed to the back cover and located at a rear of the glass cover.
A coating composition comprising; (a) a first polyester material having a number-average molecular weight (Mn) of 500 to 5,500 Daltons, and a glass transition temperature (Tg) of from 40 to 120 °C, and (b) a second polyester material having a number-average molecular weight (Mn) of 6,000 to 100,000 Daltons, wherein the number-average molecular weight (Mn) is determined according to ASTM D6579-11 and the glass transition temperature (Tg) is measured according to ASTM D6604-00 (Heat-flux differential scanning calorimetry, sample pans: aluminium, reference: blank, calibration: indium and mercury, sample weight:10g, heating rate: 20°C/min). (a) a first polyester material having a number-average molecular weight (Mn) of 500 to 5,500 Daltons, and a glass transition temperature (Tg) of from 40 to 120 °C, and (b) a second polyester material having a number-average molecular weight (Mn) of 6,000 to 100,000 Daltons,
A system for filling a cushioning pod with a plurality of beads, the system comprising: a bead source configured to hold a plurality of beads; a filling station operatively coupled with the bead source, the filling station comprising: a fluid insertion nozzle to introduce a fluid from a fluid source into a fluid coupling of the system, wherein the fluid coupling is configured to transport the plurality of beads for at least a portion of the operative coupling from the bead source to the cushioning pod; and a bead nozzle, the bead nozzle coupled with the fluid coupling of the system and configured to interface with the cushioning pod to deposit the plurality of beads in the cushioning pod; and a weighing station operatively coupled between the bead source and the filling station, the weighing station being effective to apply a variable rate weighing, wherein the weighing station comprises a vibration generator (308, 310), characterized in that the vibration generator (308, 310) is configured to selectively generate at least a first vibration level and a second vibration level. a bead source configured to hold a plurality of beads; a filling station operatively coupled with the bead source, the filling station comprising: a fluid insertion nozzle to introduce a fluid from a fluid source into a fluid coupling of the system, wherein the fluid coupling is configured to transport the plurality of beads for at least a portion of the operative coupling from the bead source to the cushioning pod; and a bead nozzle, the bead nozzle coupled with the fluid coupling of the system and configured to interface with the cushioning pod to deposit the plurality of beads in the cushioning pod; and a fluid insertion nozzle to introduce a fluid from a fluid source into a fluid coupling of the system, wherein the fluid coupling is configured to transport the plurality of beads for at least a portion of the operative coupling from the bead source to the cushioning pod; and a bead nozzle, the bead nozzle coupled with the fluid coupling of the system and configured to interface with the cushioning pod to deposit the plurality of beads in the cushioning pod; and
A replay system of ship collision accidents using a free running model test comprising: a ship collision replay simulation system configured to replay ship collision accidents by receiving a navigation trajectory of the ship collision accidents; a free running model system configured to perform a free running model test of the collision accident ship using a free running model ship; and a free running control system configured to remotely perform the free running model test, wherein real-time navigation information of the free running model ship is transmitted as information scaled with the model ship scale of the free running control system and the transmitted information scaled with the model ship scale is converted to information scaled with the full ship scale to be expressed as the navigation trajectory of the collision ship on the ship collision replay simulation system, and wherein the replay of the ship collision accidents is performed by simultaneously performing a simulation in the ship collision replay simulation system and a free running model test in the free running model system. a ship collision replay simulation system configured to replay ship collision accidents by receiving a navigation trajectory of the ship collision accidents; a free running model system configured to perform a free running model test of the collision accident ship using a free running model ship; and a free running control system configured to remotely perform the free running model test, wherein real-time navigation information of the free running model ship is transmitted as information scaled with the model ship scale of the free running control system and the transmitted information scaled with the model ship scale is converted to information scaled with the full ship scale to be expressed as the navigation trajectory of the collision ship on the ship collision replay simulation system, and wherein the replay of the ship collision accidents is performed by simultaneously performing a simulation in the ship collision replay simulation system and a free running model test in the free running model system.
A machining estimation apparatus, comprising: a camera configured to photograph a part to be estimated and a dimension reference marker, the part to be estimated being produced by cutting a sheet metal in advance; an image processing unit configured to generate edge data by extracting an edge of the part photographed by the camera, and to enlarge or reduce the edge data based on a size of the dimension reference marker photographed by the camera such that a size of the edge corresponds to an actual size of the part; and a machining time calculation unit configured to calculate a length of a cutting line for cutting out the part from the sheet metal based on the edge of the edge data corresponding to the actual size of the part, and calculate a machining time for producing the part by cutting the cutting line in accordance with a material and a thickness of the sheet metal. a camera configured to photograph a part to be estimated and a dimension reference marker, the part to be estimated being produced by cutting a sheet metal in advance; an image processing unit configured to generate edge data by extracting an edge of the part photographed by the camera, and to enlarge or reduce the edge data based on a size of the dimension reference marker photographed by the camera such that a size of the edge corresponds to an actual size of the part; and a machining time calculation unit configured to calculate a length of a cutting line for cutting out the part from the sheet metal based on the edge of the edge data corresponding to the actual size of the part, and calculate a machining time for producing the part by cutting the cutting line in accordance with a material and a thickness of the sheet metal.
A ligand compound represented by the following Chemical Formula 1: wherein, in Chemical Formula 1, X is R 1 -N, O, or S, R 1 is a C1-20 alkyl group, a C6-40 aryl group, a C3-30 heteroaryl group, an arylalkyl group, optionally containing at least one heteroatom selected from N, O, F, S, and P, or hydrogen, R 2 to R 5 are independently a C6-40 aryl group, and R 6 and R 7 are H or a C1-20 alkyl group. X is R 1 -N, O, or S, R 1 is a C1-20 alkyl group, a C6-40 aryl group, a C3-30 heteroaryl group, an arylalkyl group, optionally containing at least one heteroatom selected from N, O, F, S, and P, or hydrogen, R 2 to R 5 are independently a C6-40 aryl group, and R 6 and R 7 are H or a C1-20 alkyl group.
Linear actuator configured to open or close a valve of a medical device, comprising a rotary electric motor having a rotor defining an axis, a piston and means interposed between the electric motor and the piston transforming a rotational movement of the motor into a linear displacement of the piston, said interposed means comprising: • a peripheral ramp disposed inside said piston, • a bearing means fastened to the rotor of said electric motor, said bearing means being designed so as to cooperate with said peripheral ramp, • a guiding means (203, 216) allowing the piston to guide the translational movement, wherein the ramp is designed so as to allow said piston to be kept in a first stationary position and a second stationary position and comprises: • a threshold located at the summit of said ramp that in cooperation with the bearing means allows the piston to be kept in the second stationary position and • a passage that allows the piston to free itself of the stresses exerted by said bearing means. • a peripheral ramp disposed inside said piston, • a bearing means fastened to the rotor of said electric motor, said bearing means being designed so as to cooperate with said peripheral ramp, • a guiding means (203, 216) allowing the piston to guide the translational movement, • a threshold located at the summit of said ramp that in cooperation with the bearing means allows the piston to be kept in the second stationary position and • a passage that allows the piston to free itself of the stresses exerted by said bearing means.
Occupant restraint system (3; 103) comprising a vehicle seat, an inflator adapted for secure attachment to said vehicle seat, a first inflatable portion, a second inflatable portion, said first and second inflatable portions (5, 7) being releasably attachable to each other and forming a part of an inflatable cushion, and a first gas duct fluidly connecting said inflator to said second inflatable portion, characterized in that said first gas duct is inflatable and configured to be mounted such that a portion thereof extends on the rear side of the seatback of said vehicle seat, and in that an upper part of said inflatable cushion is attached to the seatback of the vehicle seat at upper attachment portions of the inflatable cushion and a lower part of said inflatable cushion is attached to the seatback of the vehicle seat at lower attachment portions of the inflatable cushion. a vehicle seat, an inflator adapted for secure attachment to said vehicle seat, a first inflatable portion, a second inflatable portion, said first and second inflatable portions (5, 7) being releasably attachable to each other and forming a part of an inflatable cushion, and a first gas duct fluidly connecting said inflator to said second inflatable portion, characterized in that said first gas duct is inflatable and configured to be mounted such that a portion thereof extends on the rear side of the seatback of said vehicle seat, and in that an upper part of said inflatable cushion is attached to the seatback of the vehicle seat at upper attachment portions of the inflatable cushion and a lower part of said inflatable cushion is attached to the seatback of the vehicle seat at lower attachment portions of the inflatable cushion.
An apparatus (10, 310) for deploying an elongate medium in a bore, comprising: a housing (20, 320) defining an internal spool cavity and configured to be deployed in the bore; and a spool (17, 317) of elongate medium mounted within the spool cavity; wherein the housing (20, 320) defines an outlet to permit the elongate medium to be deployed from the spool cavity, and an inlet (13, 328) to permit bore fluid (42, 342) to enter the housing (20, 320) during deployment of the elongate medium from the spool cavity, wherein, in use, the housing (20, 320) comprises an isolating fluid (41, 341) to isolate the elongate medium from the bore fluid (42, 342) entering the housing (20, 320), wherein the inlet (13, 328) is positioned to permit bore fluid (42, 342) to enter into the housing (20, 320) relative to the spool cavity such that, in use, an interface is established between the isolating fluid (41, 341) and bore fluid (42, 342) entering the spool cavity, the interface advancing along the spool cavity as the elongate medium is deployed, wherein the spool (17, 317) of elongate medium is provided to be maintained in a non-contact relationship with the advancing interface, and wherein the spool (17, 317) of elongate medium is configured to be deployed such that the volume of the cavity occupied by the spool (17, 317) of elongate medium decreases from one end of the spool cavity to the other to maintain the spool (17, 317) of elongate medium in the non-contact relationship with the advancing interface. a housing (20, 320) defining an internal spool cavity and configured to be deployed in the bore; and a spool (17, 317) of elongate medium mounted within the spool cavity; wherein the housing (20, 320) defines an outlet to permit the elongate medium to be deployed from the spool cavity, and an inlet (13, 328) to permit bore fluid (42, 342) to enter the housing (20, 320) during deployment of the elongate medium from the spool cavity, wherein, in use, the housing (20, 320) comprises an isolating fluid (41, 341) to isolate the elongate medium from the bore fluid (42, 342) entering the housing (20, 320), wherein the inlet (13, 328) is positioned to permit bore fluid (42, 342) to enter into the housing (20, 320) relative to the spool cavity such that, in use, an interface is established between the isolating fluid (41, 341) and bore fluid (42, 342) entering the spool cavity, the interface advancing along the spool cavity as the elongate medium is deployed, wherein the spool (17, 317) of elongate medium is provided to be maintained in a non-contact relationship with the advancing interface, and wherein the spool (17, 317) of elongate medium is configured to be deployed such that the volume of the cavity occupied by the spool (17, 317) of elongate medium decreases from one end of the spool cavity to the other to maintain the spool (17, 317) of elongate medium in the non-contact relationship with the advancing interface.
A watch comprising: a first barrel complete including a first barrel arbor, a first mainspring, and a first barrel; and a second barrel complete that includes a second barrel arbor, a second mainspring, and a second barrel, and is disposed side by side in a planar direction orthogonal to a shaft direction of the first barrel arbor so that rotation of the first barrel complete is transmitted to the second barrel, wherein the thickness of the first barrel is greater than the thickness of the second barrel, characterized in that the tooth tip circle diameter of the second barrel complete is 1.5 to 2.0 times greater than the tooth tip circle diameter of the first barrel complete. a first barrel complete including a first barrel arbor, a first mainspring, and a first barrel; and a second barrel complete that includes a second barrel arbor, a second mainspring, and a second barrel, and is disposed side by side in a planar direction orthogonal to a shaft direction of the first barrel arbor so that rotation of the first barrel complete is transmitted to the second barrel, wherein the thickness of the first barrel is greater than the thickness of the second barrel, characterized in that the tooth tip circle diameter of the second barrel complete is 1.5 to 2.0 times greater than the tooth tip circle diameter of the first barrel complete.
Process for producing disilanes of general formula R a Si 2 Cl 6-a, which comprises reacting mixtures comprising the disilanes of general formula R b Si 2 Cl 6-b, where R represents an alkyl radical of 1 to 6 carbon atoms, a represents the values 1, 2 or 3, b represents the values 4, 5 or 6, with hydrogen chloride in the presence of an alumina catalyst which, per 100 parts by weight of alumina, contains from 1 to 10 parts by weight of aluminum chloride and from 0 to 10 parts by weight of a metal oxide selected from magnesium oxide, copper oxide, zinc oxide and mixtures thereof. R represents an alkyl radical of 1 to 6 carbon atoms, a represents the values 1, 2 or 3, b represents the values 4, 5 or 6, with hydrogen chloride in the presence of an alumina catalyst which, per 100 parts by weight of alumina, contains from 1 to 10 parts by weight of aluminum chloride and from 0 to 10 parts by weight of a metal oxide selected from magnesium oxide, copper oxide, zinc oxide and mixtures thereof.