mhurhangee/ep-ind-claims huggingface dataset:
A marker (1, 10), comprising: a two-dimensional pattern code; and a first posture detection pattern (Fy) having reflective surfaces (3a, 3b, 4a, 4b) which reflect light so as to provide a different visual color or pattern appearance depending on an observation direction of the two-dimensional pattern code at around a first axis on a two-dimensional plane formed by the two-dimensional pattern code, wherein the first posture detection pattern (Fy) reflects light so as to provide a mutually-different visual color or pattern appearance to two spaces obtained by being divided by a plane including a perpendicular line to the two-dimensional plane and the first axis. a two-dimensional pattern code; and a first posture detection pattern (Fy) having reflective surfaces (3a, 3b, 4a, 4b) which reflect light so as to provide a different visual color or pattern appearance depending on an observation direction of the two-dimensional pattern code at around a first axis on a two-dimensional plane formed by the two-dimensional pattern code, wherein the first posture detection pattern (Fy) reflects light so as to provide a mutually-different visual color or pattern appearance to two spaces obtained by being divided by a plane including a perpendicular line to the two-dimensional plane and the first axis.
An iron comprising a body; a tank which is filled with water so as to generate steam; a housing which is provided on the tank and wherein the body is placed; a cavity which is provided at the rear side of the housing and which is used for locking the rear side of the body; and a locking mechanism which is provided on the housing and which enables the body to be locked onto the tank, wherein the locking mechanism has an actuation member which is actuated by the user, a movement member with one end connected to the actuation member and the other end extending towards the housing, at least two locking arms which enable the soleplate of the body to be fixed, a connection member with one end connected to the movement member and the other end to the locking arm, which enables the movement of the movement member to be transferred to the locking arms, at least one spring which is connected to the movement member, characterized in that the iron further comprises a claw which is provided on the movement member, a recess which is positioned so as to align with the claw, and the locking mechanism which enables the locking arms to be fixed as the claw engages with the recess when the locking mechanism is in the first position.
A rotary vane steering gear, comprising a rotary vane hydraulic actuator, that has a body divided into a movable part that creates a rotor and a stationary part that creates a stator, where both parts together confine an internal hydraulic space in the shape of a toroid with the rotation axis (X-X), and of a rudder stock placed in the rotation axis (X-X), is characterised in that the body is divided by a plane (A-A), that crosses the space perpendicularly to the rotation axis (X-X), and in case of the space of circular toroid shape by plane (A-A) that crosses the space perpendicularly to the rotation axis (X-X) and the center point of the circle delimiting the space, into the rotor (1.1) and the stator (1.2) bound by two thrust rings (1.7a) and (1.7b), that are fastened concentrically on the both opposite sides of the hydraulic space each to the respective edge of one body part and that overlap the other body part radially, to create in conjunction with both body parts two concentric slewing bearings that keep the rotor (1.1) and the stator (1.2) in one axial and radial position to each other and enable the rotor to rotate in relation to the stator around the rotation axis (X-X).
An assembly for use with a valve assembly (100, 200) having a valve element (120, 220) disposed within a valve body flow passage, the assembly comprising: an actuator (130, 230) configured to be operably coupled to the valve element (120, 220), the actuator (130, 230) operable between a first position and a second position, to move the valve element (120, 220) between an opened position and a closed position, respectively; a receiver (156, 256); at least one lockout screw (153, 251) contained in the receiver (156, 256) and self-storing therein, the at least one lockout screw (153, 251) adapted to maintain the actuator (130, 230) in a desired position including at least one of the first position and the second position; and a cover (140, 240) disposed over the receiver (156, 256), the cover (140, 240) comprising an aperture (142, 242) configured to allow tool access to the at least one lockout screw (153, 251) in the receiver (156, 256), wherein the aperture (142, 242) has a width (145, 245), wherein a width (157, 257) of a head (154, 254) of the at least one lockout screw (153, 251) is smaller than the width (145, 245) of the aperture (142, 242), characterized in that: a width (158, 258) of a first set of threads (152, 252) of the at least one lockout screw (153, 251) is greater than the width (145, 245) of the aperture (142, 242) such that the at least one lockout screw (153, 251) is retained within the receiver (156, 256) by the cover (140, 240). an actuator (130, 230) configured to be operably coupled to the valve element (120, 220), the actuator (130, 230) operable between a first position and a second position, to move the valve element (120, 220) between an opened position and a closed position, respectively; a receiver (156, 256); at least one lockout screw (153, 251) contained in the receiver (156, 256) and self-storing therein, the at least one lockout screw (153, 251) adapted to maintain the actuator (130, 230) in a desired position including at least one of the first position and the second position; and a cover (140, 240) disposed over the receiver (156, 256), the cover (140, 240) comprising an aperture (142, 242) configured to allow tool access to the at least one lockout screw (153, 251) in the receiver (156, 256), wherein the aperture (142, 242) has a width (145, 245), wherein a width (157, 257) of a head (154, 254) of the at least one lockout screw (153, 251) is smaller than the width (145, 245) of the aperture (142, 242), characterized in that: a width (158, 258) of a first set of threads (152, 252) of the at least one lockout screw (153, 251) is greater than the width (145, 245) of the aperture (142, 242) such that the at least one lockout screw (153, 251) is retained within the receiver (156, 256) by the cover (140, 240).
Method for cleaning a detecting system with which a vehicle is equipped, the detecting system comprising a glazed area, at least one detecting device and a device for acquiring information from the detecting device, the vehicle comprising a cleaning device employing pulsed air directed onto the glazed area, the acquiring device capturing information from the detecting device at a given first frequency, characterized in that the cleaning device blows the pulsed air onto the glazed area at a second frequency identical to the first frequency, plus or minus 10%.
A part material for printing three-dimensional parts with an electrophotography-based additive manufacturing system, the part material comprising: a composition comprising: a semi-crystalline thermoplastic material wherein the semi-crystalline thermoplastic material comprises a polyamide, and wherein the polyamide comprises polycaprolactam, polyhexamethyleneaidpamide (PA6,6), poly-hexamethylenenonamide (PA6,9), polyhexamethylenesebacamide (PA6,10), polyamide 6/12 (PA6,12), polyenantholactam, polyundecanolactam, polylaurolactam, or mixtures thereof; and a charge control agent; wherein the part material is provided in a powder form having a D90/D50 particle size distribution and a D50/D10 particle size distribution each ranging from about 1.00 to about 1.40 and wherein the D90/D50 particle size distribution and the D50/D10 particle size distribution are within about 10% or less of each other and a D50 particle size ranging from about 5 micrometers to about 30 micrometers; and wherein the part material is configured for use in the electrophotography-based additive manufacturing system having a layer transfusion assembly for printing the three-dimensional parts in a layer-by-layer manner. a composition comprising: a semi-crystalline thermoplastic material wherein the semi-crystalline thermoplastic material comprises a polyamide, and wherein the polyamide comprises polycaprolactam, polyhexamethyleneaidpamide (PA6,6), poly-hexamethylenenonamide (PA6,9), polyhexamethylenesebacamide (PA6,10), polyamide 6/12 (PA6,12), polyenantholactam, polyundecanolactam, polylaurolactam, or mixtures thereof; and a charge control agent; a semi-crystalline thermoplastic material wherein the semi-crystalline thermoplastic material comprises a polyamide, and wherein the polyamide comprises polycaprolactam, polyhexamethyleneaidpamide (PA6,6), poly-hexamethylenenonamide (PA6,9), polyhexamethylenesebacamide (PA6,10), polyamide 6/12 (PA6,12), polyenantholactam, polyundecanolactam, polylaurolactam, or mixtures thereof; and a charge control agent; wherein the part material is provided in a powder form having a D90/D50 particle size distribution and a D50/D10 particle size distribution each ranging from about 1.00 to about 1.40 and wherein the D90/D50 particle size distribution and the D50/D10 particle size distribution are within about 10% or less of each other and a D50 particle size ranging from about 5 micrometers to about 30 micrometers; and wherein the part material is configured for use in the electrophotography-based additive manufacturing system having a layer transfusion assembly for printing the three-dimensional parts in a layer-by-layer manner.
An apparatus comprising: at least one processor; memory storing a program of instructions; wherein the memory storing the program of instructions is configured to, with the at least one processor, cause the apparatus to at least: at a master base station belonging to a wireless communication network comprising the master base station and a secondary cell group comprising at least one secondary base station, configure one or more secondary cell group bearers for a secondary base station, wherein configuring the secondary cell group bearer comprises configuring an inactivity timer for the secondary cell group, and wherein the inactivity timer is configured to indicate that, if no activity has occurred on the secondary cell group bearer during pendency of the inactivity timer, the secondary cell group bearer is to be released; and signal the configuration to the secondary base station. at least one processor; memory storing a program of instructions; wherein the memory storing the program of instructions is configured to, with the at least one processor, cause the apparatus to at least: at a master base station belonging to a wireless communication network comprising the master base station and a secondary cell group comprising at least one secondary base station, configure one or more secondary cell group bearers for a secondary base station, wherein configuring the secondary cell group bearer comprises configuring an inactivity timer for the secondary cell group, and wherein the inactivity timer is configured to indicate that, if no activity has occurred on the secondary cell group bearer during pendency of the inactivity timer, the secondary cell group bearer is to be released; and signal the configuration to the secondary base station. at a master base station belonging to a wireless communication network comprising the master base station and a secondary cell group comprising at least one secondary base station, configure one or more secondary cell group bearers for a secondary base station, wherein configuring the secondary cell group bearer comprises configuring an inactivity timer for the secondary cell group, and wherein the inactivity timer is configured to indicate that, if no activity has occurred on the secondary cell group bearer during pendency of the inactivity timer, the secondary cell group bearer is to be released; and signal the configuration to the secondary base station.
A method of monitoring an animal, comprising the steps of: a) orally administering to a ruminant animal a monitoring device and a first magnet contained inside of an inert bolus body, said animal monitoring device including: i) at least one sensor capable of generating a signal which varies in relation to change in a sensed animal characteristic; ii) a signal encoder which encodes said signal generated by said sensor as encoded sensed animal characteristic information; iii) a radio frequency signal generator which generates a radio frequency signal capable of carrying said encoded sensed animal characteristic information; iv) a power source which supplies power to said animal monitoring device; and v) an antenna capable of transmitting said radio frequency signal carrying said encoded sensed animal characteristic information; and b) accessing said encoded sensed animal characteristic information carried by said radio frequency signal; wherein said radio frequency generator comprises an oscillator which generates said radio frequency signal and a network frequency match element which compensates for demodulation of said radio frequency signal passing through the mass of said ruminant animal. a) orally administering to a ruminant animal a monitoring device and a first magnet contained inside of an inert bolus body, said animal monitoring device including: i) at least one sensor capable of generating a signal which varies in relation to change in a sensed animal characteristic; ii) a signal encoder which encodes said signal generated by said sensor as encoded sensed animal characteristic information; iii) a radio frequency signal generator which generates a radio frequency signal capable of carrying said encoded sensed animal characteristic information; iv) a power source which supplies power to said animal monitoring device; and v) an antenna capable of transmitting said radio frequency signal carrying said encoded sensed animal characteristic information; and i) at least one sensor capable of generating a signal which varies in relation to change in a sensed animal characteristic; ii) a signal encoder which encodes said signal generated by said sensor as encoded sensed animal characteristic information; iii) a radio frequency signal generator which generates a radio frequency signal capable of carrying said encoded sensed animal characteristic information; iv) a power source which supplies power to said animal monitoring device; and v) an antenna capable of transmitting said radio frequency signal carrying said encoded sensed animal characteristic information; and b) accessing said encoded sensed animal characteristic information carried by said radio frequency signal;
A method for converting an existing power-driven roller conveyor from a large-diameter-roller conveyor to a small-diameter-roller conveyor, comprising: training one or more belts around a plurality of adjacent power-driven rollers of a power-driven roller conveyor with enough tension for the power-driven rollers to drive the one or more belts; mounting a stationary array of smaller-diameter article-supporting rollers atop the one or more belts with the article-supporting rollers in frictional contact with the one or more belts so that the one or more belts can rotate the article-supporting rollers. training one or more belts around a plurality of adjacent power-driven rollers of a power-driven roller conveyor with enough tension for the power-driven rollers to drive the one or more belts; mounting a stationary array of smaller-diameter article-supporting rollers atop the one or more belts with the article-supporting rollers in frictional contact with the one or more belts so that the one or more belts can rotate the article-supporting rollers.
A centrifugal separator configured for separating a liquid phase from crankcase gases of an internal combustion engine, the centrifugal separator comprising a separation chamber, a rotor shaft extending through the separation chamber, a rotor connected to the rotor shaft inside the separation chamber,an inlet for crankcase gases, a gas outlet, and a liquid outlet for separated liquid phase, a liquid outlet chamber, a rotating member (18; 18'), wherein the liquid outlet chamber forms an individual chamber and is arranged in fluid communication with the separation chamber via a liquid passage, characterized in that the centrifugal separator comprises a check valve wherein the rotating member (18; 18') is connected to the rotor shaft and is arranged inside the liquid outlet chamber, and wherein the liquid outlet forms an outlet of the liquid outlet chamber, the check valve being arranged in the liquid outlet.
A liquid dispensing hair removal device comprising: a cartridge having at least one blade; a handle, the handle having a pair of opposing movable arms (56a, 56b) removably engaged to the cartridge; a dispensing unit within the handle; and a cover removably mounted to the handle, the cover having a closed position with a pair of cartridge retention members (66a, 66b) positioned between the pair of arms of the handle wherein the cartridge retention members contact the pair of arms preventing disengagement of the cartridge from the handle, wherein said cover secures said dispensing unit within the handle. a cartridge having at least one blade; a handle, the handle having a pair of opposing movable arms (56a, 56b) removably engaged to the cartridge; a dispensing unit within the handle; and a cover removably mounted to the handle, the cover having a closed position with a pair of cartridge retention members (66a, 66b) positioned between the pair of arms of the handle wherein the cartridge retention members contact the pair of arms preventing disengagement of the cartridge from the handle, wherein said cover secures said dispensing unit within the handle.
Oral dosage composition comprising: - a low-molecular weight heparin that has a weight average molecular weight which ranges from 2 kDa to 12 kDa; - a synergistically effective combination of chitosan and bromelain; and - an oral dosage delivery vehicle. - a low-molecular weight heparin that has a weight average molecular weight which ranges from 2 kDa to 12 kDa; - a synergistically effective combination of chitosan and bromelain; and - an oral dosage delivery vehicle.
A battery pack comprising: a plurality of secondary cells arranged in a vertical direction, each of the secondary cells comprising an electrode assembly, an electrolyte, and a pouch-type case; a plurality of cartridges accommodating the secondary cells in inner spaces thereof, comprising coupling holes, and stacked in the vertical direction; a lower end plate comprising a plate-shaped metallic material and placed on a lower portion of a stack of the secondary cells and the cartridges; a first fastening member comprising an insertion portion and a welding portion fixed to the lower end plate; and a second fastening member having an elongated shape so as to stand on the lower end plate in a direction perpendicular to the lower end plate, a lower end portion of the second fastening member being coupled to the first fastening member, the second fastening member passing through the coupling holes of the cartridges, wherein a through-hole is formed in the lower end plate, and the first fastening member comprises: an insertion portion inserted in the through-hole of the lower end plate; and a welding portion placed on a lower portion of the lower end plate and welded to a lower surface of the lower end plate wherein the first fastening member comprises a nut, and the second fastening member comprises a bolt. a plurality of secondary cells arranged in a vertical direction, each of the secondary cells comprising an electrode assembly, an electrolyte, and a pouch-type case; a plurality of cartridges accommodating the secondary cells in inner spaces thereof, comprising coupling holes, and stacked in the vertical direction; a lower end plate comprising a plate-shaped metallic material and placed on a lower portion of a stack of the secondary cells and the cartridges; a first fastening member comprising an insertion portion and a welding portion fixed to the lower end plate; and a second fastening member having an elongated shape so as to stand on the lower end plate in a direction perpendicular to the lower end plate, a lower end portion of the second fastening member being coupled to the first fastening member, the second fastening member passing through the coupling holes of the cartridges, wherein a through-hole is formed in the lower end plate, and the first fastening member comprises: an insertion portion inserted in the through-hole of the lower end plate; and a welding portion placed on a lower portion of the lower end plate and welded to a lower surface of the lower end plate wherein an insertion portion inserted in the through-hole of the lower end plate; and a welding portion placed on a lower portion of the lower end plate and welded to a lower surface of the lower end plate wherein the first fastening member comprises a nut, and the second fastening member comprises a bolt.
An apparatus comprising: a heat exchanger (122; 200; 300; 400) comprising: a body (202; 302) having a passage (123; 204; 304; 404) through the body, the passage defining apertures on multiple sides of the body, the passage configured to allow optical signals to pass through the body; one or more tapered edges (126; 212; 312) at least partially around one or more of the apertures, each tapered edge comprising a reflective surface configured to reflect optical radiation (118; 120; 214) occurring upon incidence of the optical signals inward into the passage; and one or more absorptive surfaces (210a, 210b; 310) within the passage, the one or more absorptive surfaces configured to absorb the reflected optical radiation; the heat exchanger configured to convert the absorbed optical radiation into heat; the body further comprising one or more cooling channels (124; 208a, 208b; 308a, 308b) configured to receive coolant that absorbs the heat. a heat exchanger (122; 200; 300; 400) comprising: a body (202; 302) having a passage (123; 204; 304; 404) through the body, the passage defining apertures on multiple sides of the body, the passage configured to allow optical signals to pass through the body; one or more tapered edges (126; 212; 312) at least partially around one or more of the apertures, each tapered edge comprising a reflective surface configured to reflect optical radiation (118; 120; 214) occurring upon incidence of the optical signals inward into the passage; and one or more absorptive surfaces (210a, 210b; 310) within the passage, the one or more absorptive surfaces configured to absorb the reflected optical radiation; a body (202; 302) having a passage (123; 204; 304; 404) through the body, the passage defining apertures on multiple sides of the body, the passage configured to allow optical signals to pass through the body; one or more tapered edges (126; 212; 312) at least partially around one or more of the apertures, each tapered edge comprising a reflective surface configured to reflect optical radiation (118; 120; 214) occurring upon incidence of the optical signals inward into the passage; and one or more absorptive surfaces (210a, 210b; 310) within the passage, the one or more absorptive surfaces configured to absorb the reflected optical radiation; the heat exchanger configured to convert the absorbed optical radiation into heat; the body further comprising one or more cooling channels (124; 208a, 208b; 308a, 308b) configured to receive coolant that absorbs the heat.