mhurhangee/ep-ind-claims huggingface dataset:
A guide wire (1,1A-1E) comprising: a core shaft (10,10A,10E); a coil body (20,20C) formed by winding a wire around the core shaft (10,10A, 10E), the coil body (20,20C) being curved from the proximal end side to the distal end side of the guide wire; and a fixing portion fixing the core shaft (10,10A,10E) to the coil body (20,20C), wherein the core shaft (10,10A,10E) includes: a first contact part in contact with only an inner surface of the coil body (20,20C) on an opposite side to the curving direction; and a second contact part in contact with only the inner surface of the coil body (20,20C) in the curving direction, at a position closer to the distal end than the first contact part, and the fixing portion includes: a first fixing portion fixing the core shaft (10,10A,10E) to the coil body (20,20C) at a position closer to the proximal end than the first contact part; and a second fixing portion (51,51D) fixing a distal end of the core shaft (10,10A,10E) to a distal end of the coil body (20,20C) at a position closer to the distal end than the second contact part. a core shaft (10,10A,10E); a coil body (20,20C) formed by winding a wire around the core shaft (10,10A, 10E), the coil body (20,20C) being curved from the proximal end side to the distal end side of the guide wire; and a fixing portion fixing the core shaft (10,10A,10E) to the coil body (20,20C), wherein the core shaft (10,10A,10E) includes: a first contact part in contact with only an inner surface of the coil body (20,20C) on an opposite side to the curving direction; and a second contact part in contact with only the inner surface of the coil body (20,20C) in the curving direction, at a position closer to the distal end than the first contact part, and a first contact part in contact with only an inner surface of the coil body (20,20C) on an opposite side to the curving direction; and a second contact part in contact with only the inner surface of the coil body (20,20C) in the curving direction, at a position closer to the distal end than the first contact part, and the fixing portion includes: a first fixing portion fixing the core shaft (10,10A,10E) to the coil body (20,20C) at a position closer to the proximal end than the first contact part; and a second fixing portion (51,51D) fixing a distal end of the core shaft (10,10A,10E) to a distal end of the coil body (20,20C) at a position closer to the distal end than the second contact part. a first fixing portion fixing the core shaft (10,10A,10E) to the coil body (20,20C) at a position closer to the proximal end than the first contact part; and a second fixing portion (51,51D) fixing a distal end of the core shaft (10,10A,10E) to a distal end of the coil body (20,20C) at a position closer to the distal end than the second contact part.
Use of an electromagnetic energy-absorbing optical product, wherein said optical product is a composite, comprising: a) a polymeric substrate and b) a composite coating, said composite coating comprising a first layer comprising a polyionic binder and a second layer comprising an electromagnetic energy-absorbing insoluble particle, wherein each of said first layer and said second layer include a binding group component which together form a complimentary binding group pair; wherein said electromagnetic energy-absorbing insoluble particle is a pigment, and wherein the term "insoluble" means that the particle does not substantially dissolve in the composition used to form the second layer and exists as a particle in the optical product structure; for coloring an opaque article by application thereto, wherein the opaque article is a vehicle; a vehicle panel, a vehicle part and a portion thereof. a) a polymeric substrate and b) a composite coating, said composite coating comprising a first layer comprising a polyionic binder and a second layer comprising an electromagnetic energy-absorbing insoluble particle, wherein each of said first layer and said second layer include a binding group component which together form a complimentary binding group pair; wherein said electromagnetic energy-absorbing insoluble particle is a pigment, and wherein the term "insoluble" means that the particle does not substantially dissolve in the composition used to form the second layer and exists as a particle in the optical product structure;
A candle wick assembly comprising: a multiple candle wick construction; and a wax sheath covering the multiple candle wick construction, wherein the multiple candle wick construction comprises: (i) at least first and second spaced-apart candle wicks (14a, 14b); and (ii) a ladder filament connected to and extending back and forth between the first and second candle wicks (14a, 14b) so as to establish respective crossing portions that are spaced apart from one another along a lengthwise direction of the wick assembly, wherein the crossing portions of the ladder filament are folded so that the candle wick assembly is in a generally U-shaped configuration, wherein the crossing portions include a generally concave central region when the candle wick assembly is in the generally U-shaped configuration, and wherein the wax sheath includes a concavity generally corresponding to the concave central region of the crossing portions extending along the lengthwise direction of the wick assembly. a multiple candle wick construction; and a wax sheath covering the multiple candle wick construction, the multiple candle wick construction comprises: (i) at least first and second spaced-apart candle wicks (14a, 14b); and (ii) a ladder filament connected to and extending back and forth between the first and second candle wicks (14a, 14b) so as to establish respective crossing portions that are spaced apart from one another along a lengthwise direction of the wick assembly, wherein the crossing portions of the ladder filament are folded so that the candle wick assembly is in a generally U-shaped configuration, (i) at least first and second spaced-apart candle wicks (14a, 14b); and (ii) a ladder filament connected to and extending back and forth between the first and second candle wicks (14a, 14b) so as to establish respective crossing portions that are spaced apart from one another along a lengthwise direction of the wick assembly, wherein the crossing portions of the ladder filament are folded so that the candle wick assembly is in a generally U-shaped configuration, wherein the crossing portions include a generally concave central region when the candle wick assembly is in the generally U-shaped configuration, and wherein the wax sheath includes a concavity generally corresponding to the concave central region of the crossing portions extending along the lengthwise direction of the wick assembly.
Process to operate an oven comprising: - a first chamber and a second chamber, which are separated by separation means - conveyor means for guiding products from the inlet through these chambers (3, 4) to the outlet, - temperature control means (15-19, 22-66, 27, 28) for controlling the temperature and/or humidity in each chamber individually using a fluid, respectively, and - a tube (2.1) in the separation means through which the conveyor means are directed from the first chamber to the second chamber, characterized in, that an air flow is injected into the tube (2.1) which results in a higher pressure in the tube 30, wherein this higher pressure forces the air to flow to the left towards the first chamber and to the right towards the second chamber and wherein the magnitude of air flow is preferably controllable such that a leakage between the first chamber and the second chamber or vice versa is either reduced to zero or has a desired magnitude and a desired direction. - a first chamber and a second chamber, which are separated by separation means - conveyor means for guiding products from the inlet through these chambers (3, 4) to the outlet, - temperature control means (15-19, 22-66, 27, 28) for controlling the temperature and/or humidity in each chamber individually using a fluid, respectively, and - a tube (2.1) in the separation means through which the conveyor means are directed from the first chamber to the second chamber,
A riding grass mower comprising: a traveling vehicle body with a hydraulic oil supply source; a mower device provided at a lower portion of the traveling vehicle body; a grass collecting container configured to be detachably supported to the traveling vehicle body; a plurality of hydraulic cylinders (553,554) configured to raise and lower the grass collecting container and to change an orientation of the grass collecting container; a hydraulic oil supply/discharge passage extending from the hydraulic oil supply source provided in the traveling vehicle body to the plurality of hydraulic cylinders (553,554); a valve provided in said hydraulic oil supply/discharge passage and configured to control supply and discharge of hydraulic oil to and from the hydraulic cylinders; and a coupler that is configured to be capable of connecting and disconnecting the hydraulic oil supply/discharge passage, wherein a rollover protection structure (ROPS) is provided upright at a rear end portion of the traveling vehicle body, wherein the grass collecting container is detachably supported to the ROPS; the riding grass mower being characterized in that the valve is an electromagnetic valve, in that the coupler is provided between the hydraulic oil supply source and the electromagnetic valve, in that the electromagnetic valve is supported to the traveling vehicle body via a holder device, and the holder device is configured to enable attachment and detachment of the electromagnetic valve to and from the traveling vehicle body, and in that the holder device is provided in the ROPS. a traveling vehicle body with a hydraulic oil supply source; a mower device provided at a lower portion of the traveling vehicle body; a grass collecting container configured to be detachably supported to the traveling vehicle body; a plurality of hydraulic cylinders (553,554) configured to raise and lower the grass collecting container and to change an orientation of the grass collecting container; a hydraulic oil supply/discharge passage extending from the hydraulic oil supply source provided in the traveling vehicle body to the plurality of hydraulic cylinders (553,554); a valve provided in said hydraulic oil supply/discharge passage and configured to control supply and discharge of hydraulic oil to and from the hydraulic cylinders; and a coupler that is configured to be capable of connecting and disconnecting the hydraulic oil supply/discharge passage, wherein a rollover protection structure (ROPS) is provided upright at a rear end portion of the traveling vehicle body, wherein the grass collecting container is detachably supported to the ROPS; the riding grass mower being characterized in that the valve is an electromagnetic valve, in that the coupler is provided between the hydraulic oil supply source and the electromagnetic valve, in that the electromagnetic valve is supported to the traveling vehicle body via a holder device, and the holder device is configured to enable attachment and detachment of the electromagnetic valve to and from the traveling vehicle body, and in that the holder device is provided in the ROPS.
A knitted cloth comprising a fiber having on a surface a polyacetal copolymer comprising oxymethylene unit(s) and oxyalkylene unit(s) represented by the general formula below, wherein the fiber is a single-layer fiber of the polyacetal copolymer, wherein the fiber has a single filament fineness of not more than 2.5 dtex, wherein the polyacetal copolymer contains 0.2 to 5.0% by mole of the oxyalkylene unit(s), based on total moles of the oxymethylene unit(s) and oxyalkylene unit(s), wherein the polyacetal copolymer has a degree of orientation of molecular chains of at least 80%, determined by the method disclosed in the description, and wherein the cloth exhibits a q max value determined by the method disclosed in the description of at least 0.2 W/cm 2, in which the q max value indicates a maximum in a heat flux curve obtained by plotting, relative to time t, a heat flux q (t) per unit area which transfers from a heat storing plate of 40°C to the cloth, when the cloth is brought into contact with the heat storing plate under a contact pressure of 0.098 N/cm 2 in an environment at a temperature of 20°C and at a relative humidity of 65%: wherein each of R 0 and R 0 ' represents a hydrogen atom, an alkyl group having 1 to 8 carbon atoms, an organic group having an alkyl group having 1 to 8 carbon atoms, a phenyl group, or an organic group having a phenyl group, and a plurality of R 0 s and R 0 's are the same or different, and m represents an integer of 2 to 6. wherein the fiber is a single-layer fiber of the polyacetal copolymer, wherein the fiber has a single filament fineness of not more than 2.5 dtex, wherein the polyacetal copolymer contains 0.2 to 5.0% by mole of the oxyalkylene unit(s), based on total moles of the oxymethylene unit(s) and oxyalkylene unit(s), wherein the polyacetal copolymer has a degree of orientation of molecular chains of at least 80%, determined by the method disclosed in the description, and wherein the cloth exhibits a q max value determined by the method disclosed in the description of at least 0.2 W/cm 2, in which the q max value indicates a maximum in a heat flux curve obtained by plotting, relative to time t, a heat flux q (t) per unit area which transfers from a heat storing plate of 40°C to the cloth, when the cloth is brought into contact with the heat storing plate under a contact pressure of 0.098 N/cm 2 in an environment at a temperature of 20°C and at a relative humidity of 65%: wherein each of R 0 and R 0 ' represents a hydrogen atom, an alkyl group having 1 to 8 carbon atoms, an organic group having an alkyl group having 1 to 8 carbon atoms, a phenyl group, or an organic group having a phenyl group, and a plurality of R 0 s and R 0 's are the same or different, and m represents an integer of 2 to 6.
A laundry treatment apparatus comprising: a cabinet; a drawer configured to be drawn into and out from the cabinet and including a drying chamber; a first rack arranged in the drying chamber for supporting clothes and having a first vent portion configured to allow air flow through the first rack; a second rack arranged in the drying chamber for supporting clothes between the first rack and a bottom surface of the drawer and having a second vent portion configured to allow air flow through the second rack; a supply port penetrating a rear surface of the drawer; an air supply unit located outside the drying chamber; and a guide arranged in the supply port and configured to guide air supplied from the air supply unit to at least one of a space between the first rack and the second rack and a space between the second rack and the bottom surface of the drawer, characterized in that the guide comprises a first guide arranged in the supply port and configured to guide air supplied from the air supply unit into the space between the second rack and the bottom surface of the drawer, and the first guide comprises a first first-guide board arranged in a width direction of the rear surface and a second first-guide board arranged in the width direction of the rear surface and located above the first first-guide board, wherein an inclination angle of an upper surface of the first first-guide board is set to be greater than an inclination angle of an upper surface of the second first-guide board. a cabinet; a drawer configured to be drawn into and out from the cabinet and including a drying chamber; a first rack arranged in the drying chamber for supporting clothes and having a first vent portion configured to allow air flow through the first rack; a second rack arranged in the drying chamber for supporting clothes between the first rack and a bottom surface of the drawer and having a second vent portion configured to allow air flow through the second rack; a supply port penetrating a rear surface of the drawer; an air supply unit located outside the drying chamber; and a guide arranged in the supply port and configured to guide air supplied from the air supply unit to at least one of a space between the first rack and the second rack and a space between the second rack and the bottom surface of the drawer, characterized in that the guide comprises a first guide arranged in the supply port and configured to guide air supplied from the air supply unit into the space between the second rack and the bottom surface of the drawer, and the first guide comprises a first first-guide board arranged in a width direction of the rear surface and a second first-guide board arranged in the width direction of the rear surface and located above the first first-guide board, wherein an inclination angle of an upper surface of the first first-guide board is set to be greater than an inclination angle of an upper surface of the second first-guide board.
An engine fuel composition comprising: at least one liquid hydrocarbon fraction from one or more sources selected from the group consisting of mineral, animal, plant and synthetic sources, and from 1 to 10,000 ppm by weight of an additive which comprises at least 6% by weight, with respect to the total weight of the additive, of one or more compounds selected from free sterols and/or sterol esters and from 70% to 94% by weight, with respect to the total weight of the additive, of free fatty acids. at least one liquid hydrocarbon fraction from one or more sources selected from the group consisting of mineral, animal, plant and synthetic sources, and from 1 to 10,000 ppm by weight of an additive which comprises at least 6% by weight, with respect to the total weight of the additive, of one or more compounds selected from free sterols and/or sterol esters and from 70% to 94% by weight, with respect to the total weight of the additive, of free fatty acids.
A dual mode communication terminal comprising: a first communication module configured to communicate with a first base station; a second communication module configured to communicate with a second base station; a first antenna connected to the first communication module to transmit/receive a first base station signal to/from the first base station; and a second antenna configured to transmit/receive either the first base station signal to/from the first base station or to transmit/receive a second base station signal to/from the second base station, characterized in that: the second antenna includes a switching module to connect the second antenna to either the first communication module or the second communication module, wherein in response to receiving a command from the first base station, the second communication module measures quality of the second base station signal received from the second base station, while receiving the first base station signal from the first base station over the first antenna, wherein the switching module switches the second antenna to the second communication module from the first communication module, and wherein if the second antenna is switched to the second communication module, the first communication module receives the first base station signal using the first antenna and the second communication module performs a quality measurement of the second base station signal using the second antenna. a first communication module configured to communicate with a first base station; a second communication module configured to communicate with a second base station; a first antenna connected to the first communication module to transmit/receive a first base station signal to/from the first base station; and a second antenna configured to transmit/receive either the first base station signal to/from the first base station or to transmit/receive a second base station signal to/from the second base station, the second antenna includes a switching module to connect the second antenna to either the first communication module or the second communication module, wherein in response to receiving a command from the first base station, the second communication module measures quality of the second base station signal received from the second base station, while receiving the first base station signal from the first base station over the first antenna, wherein the switching module switches the second antenna to the second communication module from the first communication module, and wherein if the second antenna is switched to the second communication module, the first communication module receives the first base station signal using the first antenna and the second communication module performs a quality measurement of the second base station signal using the second antenna.
A method implemented at a user equipment, UE, the method comprising: performing a random access procedure for one or more first pending scheduling requests, SRs, in response to a first event, wherein performing the random access procedure for the one or more first pending SRs comprises: switching to a first bandwidth part, BWP, configured with physical random access channel, PRACH, resource, in response to the first event occurring in currently active second BWP configured with no PRACH resource; and performing the random access procedure in the first BWP, wherein the method further comprises switching back to the second BWP and performing one or more physical uplink control channel, PUCCH, based SR transmission procedures for one or more second pending SRs in response to a second event; wherein the random access procedure is performed in parallel with the one or more PUCCH based SR transmission procedures. performing a random access procedure for one or more first pending scheduling requests, SRs, in response to a first event, wherein performing the random access procedure for the one or more first pending SRs comprises: switching to a first bandwidth part, BWP, configured with physical random access channel, PRACH, resource, in response to the first event occurring in currently active second BWP configured with no PRACH resource; and performing the random access procedure in the first BWP, wherein the method further comprises switching back to the second BWP and switching to a first bandwidth part, BWP, configured with physical random access channel, PRACH, resource, in response to the first event occurring in currently active second BWP configured with no PRACH resource; and performing the random access procedure in the first BWP, wherein the method further comprises switching back to the second BWP and performing one or more physical uplink control channel, PUCCH, based SR transmission procedures for one or more second pending SRs in response to a second event; wherein the random access procedure is performed in parallel with the one or more PUCCH based SR transmission procedures.
A vascular or biological lumen occlusion device for occluding at a target location comprising a plurality of individual coiling members, the coiling members being made of a material that is configured to recover to a desired shape, each member having a proximal end and a distal end; a proximal retaining feature coupled to the proximal ends of the plurality of coiling members to join the proximal ends together; and a distal retaining feature coupled to the distal ends of the plurality of coiling members to join the distal ends together, wherein in a predeployed state, the individual coiling members are elongate and parallel; and wherein the individual coiling members are configured to curl in non-uniform variations of curl diameters to form a random, chaotic dense coil pack upon deployment.