mhurhangee/ep-ind-claims huggingface dataset:
A stent comprising a plurality of serpentine bands, each band formed from a plurality of straight sections connected by curved end portions (16 a, 16 b), at least some of the end portions having a curable composition. disposed thereon, characterised in that the curable composition is positioned on the curved end portions only, wherein said curable composition is strategically positioned on all or on alternate end portions (16a, 16b) or on end portions (16a, 16b), which are further attached by a connector, or wherein the curable composition is randomly placed on the end portions (16a, 16b), or wherein one side of a serpentine band of the plurality of serpentine bands is provided with the curable composition on end portions only, and another serpentine band of the plurality of serpentine bands is provided with the curable composition on end portions only.
A multispectral cooling material adapted for use with bodywear, comprising: a base fabric having an externally facing surface and having a performance characteristic; and one or more multispectral cooling elements coupled to the externally facing surface of the base fabric, the one or more multispectral cooling elements comprising a discontinuous array of high refractive index foil elements containing metal oxide particles and a polymeric binder, wherein the foil elements have a thickness from 0.1 μm to 20.0 μm, wherein the placement and spacing of the one or more multispectral cooling elements leaves a portion of the base fabric uncovered and enables the base material to retain at least partial performance of the performance characteristic, and wherein the multispectral cooling material reflects greater than 50% more of the solar energy in the 0.25 μm to 0.78 μm wavelength range compared to the base fabric alone, has a greater than 20% reduction in transmitted solar energy in the 0.25 μm to 2.5 μm wavelength range compared to the base fabric alone, and has a greater than 1% increase in energy emission in a 5 μm to 40 μm wavelength range compared to the base fabric alone. a base fabric having an externally facing surface and having a performance characteristic; and one or more multispectral cooling elements coupled to the externally facing surface of the base fabric, the one or more multispectral cooling elements comprising a discontinuous array of high refractive index foil elements containing metal oxide particles and a polymeric binder, wherein the foil elements have a thickness from 0.1 μm to 20.0 μm, wherein the placement and spacing of the one or more multispectral cooling elements leaves a portion of the base fabric uncovered and enables the base material to retain at least partial performance of the performance characteristic, and wherein the multispectral cooling material reflects greater than 50% more of the solar energy in the 0.25 μm to 0.78 μm wavelength range compared to the base fabric alone, has a greater than 20% reduction in transmitted solar energy in the 0.25 μm to 2.5 μm wavelength range compared to the base fabric alone, and has a greater than 1% increase in energy emission in a 5 μm to 40 μm wavelength range compared to the base fabric alone.
Foaming apparatus for products having sandwiched components, such as household appliances, comprising a fixed frame on which a first containment jig is supported, at least one foaming unit, and a loading trolley provided with a controlled conveyor for transferring said components from an inlet line (Li) inside said containment jig, and further including at least a second containment jig arranged above said first containment jig constrained to the same fixed frame, a removal trolley arranged on the side opposite said loading trolley with respect to said containment jigs (1, 10), between said containment jigs (1, 10) and an outlet line (Lu), characterized in that said loading trolley and removal trolley are vertically independently movable on said fixed frame, by means of respective controlled lifters (22, 32), between a lower position and one or more service positions in which they are arranged adjacent to an inlet and outlet side of said jigs (1, 10) respectively. a fixed frame on which a first containment jig is supported, at least one foaming unit, and a loading trolley provided with a controlled conveyor for transferring said components from an inlet line (Li) inside said containment jig, and further including at least a second containment jig arranged above said first containment jig constrained to the same fixed frame, a removal trolley arranged on the side opposite said loading trolley with respect to said containment jigs (1, 10), between said containment jigs (1, 10) and an outlet line (Lu), characterized in that said loading trolley and removal trolley are vertically independently movable on said fixed frame, by means of respective controlled lifters (22, 32), between a lower position and one or more service positions in which they are arranged adjacent to an inlet and outlet side of said jigs (1, 10) respectively.
A band-pass clock distribution circuit, the circuit comprising: a clock tree circuit comprising at least one clock buffer circuit, the clock tree circuit being configured to receive a first clock signal and to generate a second clock signal based on the first clock signal; and a low-pass filter configured to receive the second clock signal and to provide a third clock signal to one or more load circuits, wherein: the low-pass filter comprises a filtering resonant network including a first inductor and a second inductor coupled to one another at a center tap and is configurable to resonate with a parasitic capacitance (C par3) associated with the one or more load circuits, and a first high-pass filter is integrated with the clock tree circuit. a clock tree circuit comprising at least one clock buffer circuit, the clock tree circuit being configured to receive a first clock signal and to generate a second clock signal based on the first clock signal; and a low-pass filter configured to receive the second clock signal and to provide a third clock signal to one or more load circuits, wherein: the low-pass filter comprises a filtering resonant network including a first inductor and a second inductor coupled to one another at a center tap and is configurable to resonate with a parasitic capacitance (C par3) associated with the one or more load circuits, and a first high-pass filter is integrated with the clock tree circuit. the low-pass filter comprises a filtering resonant network including a first inductor and a second inductor coupled to one another at a center tap and is configurable to resonate with a parasitic capacitance (C par3) associated with the one or more load circuits, and a first high-pass filter is integrated with the clock tree circuit.
A green molded body composed of a honeycomb-shaped cylindrical body with a plurality of through holes being formed approximately in parallel with each other, wherein the cylindrical body comprises a ceramic raw material powder and a fluorine source, and wherein the ceramic raw material powder is one for forming an aluminum titanate-based ceramics by sintering.
A toy gun comprising: a gas cylinder housing portion which is provided in the grip portion of an air gun and houses a gas cylinder; a clamp which closes or opens the gas cylinder housing portion; a clamp pivot about which the clamp is rotated; a roller installed at the bottom portion of the gas cylinder housing portion; and a receptacle which is installed between the upper part of the roller and the bottom portion of the gas cylinder, is energized toward the roller, and has a surface shape matched with the bottom surface shape of the gas cylinder, wherein the clamp is configured to press the roller against the receptacle upon rotation about the clamp pivot, wherein the receptacle is provided in a central part with a hole so that the roller can slightly protrude from the hole and be abutted against the gas cylinder, and wherein the periphery of the receptacle is in a raised shape. a gas cylinder housing portion which is provided in the grip portion of an air gun and houses a gas cylinder; a clamp which closes or opens the gas cylinder housing portion; a clamp pivot about which the clamp is rotated; a roller installed at the bottom portion of the gas cylinder housing portion; and a receptacle which is installed between the upper part of the roller and the bottom portion of the gas cylinder, is energized toward the roller, and has a surface shape matched with the bottom surface shape of the gas cylinder, wherein the clamp is configured to press the roller against the receptacle upon rotation about the clamp pivot, wherein the receptacle is provided in a central part with a hole so that the roller can slightly protrude from the hole and be abutted against the gas cylinder, and wherein the periphery of the receptacle is in a raised shape.
Girth to set a saddle, which consists of two superimposed pieces (i.e. a piece and a piece) that can be fastened together by means of leather keepers sewn to the piece, with one of them planned to be in contact with the horse, while the other piece is provided with strips, straps and buckles, in order to be buckled to the corresponding saddle, wherein both piece in contact with the horse and piece to buckle to the saddle are symmetrical with regard to their longitudinal and transverse axes, characterized by both pieces (1, 2) being provided with two pairs of oblique cuts (6, 7) to favour the expansion of the horse's ribcage; wherein that piece to buckle to the saddle has four pairs of rings (12, 12') in right trapezoidal shape, with the two pairs of rings placed towards the centre and fastened by means of strips sewn to the piece, while the other two pairs of rings are positioned towards the exterior and placed on the free ends of respective elastic straps that relate the pairs of rings towards the centre with the pairs of exterior rings, and have in their interior nylon strips constituting the maximum extension limits of the elastic straps and safety elements in case of breakage of these elastic straps.
A blast furnace operation method including injecting pulverized coal through tuyeres of a blast furnace, the method comprising: adjusting coal containing moisture and volatile matter to form adjusted pulverized coal having a specific surface area within a range of 110 m 2 /g or more and 800 m 2 /g or less, a lower heating value of 27170 kJ/kg or more, and a volatile matter content within a range of 3 mass% or more and 25 mass% or less; and injecting, through the tuyeres of the blast furnace, pulverized coal in which the adjusted pulverized coal is mixed in a mixing ratio of 10 mass% or more. adjusting coal containing moisture and volatile matter to form adjusted pulverized coal having a specific surface area within a range of 110 m 2 /g or more and 800 m 2 /g or less, a lower heating value of 27170 kJ/kg or more, and a volatile matter content within a range of 3 mass% or more and 25 mass% or less; and injecting, through the tuyeres of the blast furnace, pulverized coal in which the adjusted pulverized coal is mixed in a mixing ratio of 10 mass% or more.
An eccentric core-sheath composite fiber comprising two kinds of polyesters that are ingredient A and ingredient B, the eccentric core-sheath composite fiber having a single-filament fineness of 1.0 dtex or less, determined as described herein, and a fineness unevenness (U%) of 1.5% or less, determined as described herein, wherein, in a cross-section of the composite fiber: the ingredient A is covered entirely by the ingredient B; a ratio S/D of a minimum thickness S of a thickness of the ingredient B, which covers the ingredient A, to a fiber diameter D is from 0.01 to 0.1; a portion where the ingredient B having a thickness up to 1.05 times the minimum thickness S has a peripheral length of at least two-fifths of the entire circumferential length of the fiber; and a fiber cross-section satisfies the following expression 1, wherein IFR is a radius of curvature of an interface between ingredient A and ingredient B in the fiber cross-section and R is a value obtained by dividing the fiber diameter D by 2, IFR / R ≥ 1 the ingredient A is covered entirely by the ingredient B; a ratio S/D of a minimum thickness S of a thickness of the ingredient B, which covers the ingredient A, to a fiber diameter D is from 0.01 to 0.1; a portion where the ingredient B having a thickness up to 1.05 times the minimum thickness S has a peripheral length of at least two-fifths of the entire circumferential length of the fiber; and a fiber cross-section satisfies the following expression 1, wherein IFR is a radius of curvature of an interface between ingredient A and ingredient B in the fiber cross-section and R is a value obtained by dividing the fiber diameter D by 2, IFR / R ≥ 1
A method of filling a device for administering a predefined number of predefined volume unit doses (Vu) of an opioid analgesic in liquid form drawn from a container containing a plurality of volume unit doses of the opioid analgesic via a dip tube, the device including: a closed container containing a predetermined fill volume (Vf) of the opioid analgesic; a dispenser connected to the container, the dispenser being operable to administer an individual one volume unit dose (Vu) repeatedly said predefined number of times; both the dispenser being adapted and the concentration of said opioid analgesic being chosen such that said volume unit dose is in the range 0.05 to 0.15ml, wherein the dispenser includes counting means operable to count the number of one volume unit doses administered and further includes dispenser deactivating means which is operated by the counting means to prevent further administration of one volume unit doses of the drug by the dispenser when the counting means has counted said predefined number of times; characterised in that the method comprises determining a fill volume (Vf) of the opioid analgesic in accordance with the formula Vf = Vu × N + P + Vr wherein P is the volume required for priming the pump that maintains a terminal end of the dip tube submerged beneath a surface of the liquid Vr is the residual volume of liquid opioid analgesic remaining in the container at the end of administering volume unit doses N times and which is sufficient to ensure N full volume unit doses are administered. a closed container containing a predetermined fill volume (Vf) of the opioid analgesic; a dispenser connected to the container, the dispenser being operable to administer an individual one volume unit dose (Vu) repeatedly said predefined number of times; both the dispenser being adapted and the concentration of said opioid analgesic being chosen such that said volume unit dose is in the range 0.05 to 0.15ml, wherein the dispenser includes counting means operable to count the number of one volume unit doses administered and further includes dispenser deactivating means which is operated by the counting means to prevent further administration of one volume unit doses of the drug by the dispenser when the counting means has counted said predefined number of times; characterised in that the method comprises determining a fill volume (Vf) of the opioid analgesic in accordance with the formula Vf = Vu × N + P + Vr wherein P is the volume required for priming the pump that maintains a terminal end of the dip tube submerged beneath a surface of the liquid Vr is the residual volume of liquid opioid analgesic remaining in the container at the end of administering volume unit doses N times and which is sufficient to ensure N full volume unit doses are administered.
Method for determining a vehicle position of a vehicle having at least one sensor unit, comprising the steps of: (a) capturing sensor data from a driving surface driven on by the vehicle by means of the at least one sensor unit of the vehicle; (b) extracting surface features of the driving surface from the captured sensor data or from occupancy grids computed on the basis of the sensor data; (bb) transmitting the captured sensor data or the extracted surface features via a wireless interface of the vehicle to a backend server; (c) determining the current vehicle position of the vehicle on the basis of the extracted surface features by means of a feature map, wherein the extracted surface features of the driving surface are compared with surface features taken from the feature map in order to determine the current vehicle position of the vehicle, characterized in that the surface features comprise surface markings and general edge information, wherein the general edge information comprises information about edges from: delineator posts, crash barriers, houses, tunnels and bridges. (a) capturing sensor data from a driving surface driven on by the vehicle by means of the at least one sensor unit of the vehicle; (b) extracting surface features of the driving surface from the captured sensor data or from occupancy grids computed on the basis of the sensor data; (bb) transmitting the captured sensor data or the extracted surface features via a wireless interface of the vehicle to a backend server; (c) determining the current vehicle position of the vehicle on the basis of the extracted surface features by means of a feature map, wherein the extracted surface features of the driving surface are compared with surface features taken from the feature map in order to determine the current vehicle position of the vehicle,
A method for channel sounding in a wireless local area network, WLAN, system performed by an access point, AP, (110, 410, 420) the method comprising: broadcasting a beacon comprising information on a sub-channel selective transmission, SST, sounding restricted access window, RAW, (210, 310, 320) for channel sounding; transmitting a plurality of null data packet, NDP, frames in the SST sounding RAW (210, 310, 320) to a station, STA; and receiving, from the STA, a report frame including information on at least one channel selected by the STA based on the NDP frames, wherein the beacon comprises a bit value indicating whether the channel sounding is performed through the SST sounding RAW (210, 310, 320) and a bit value to control the transmission by the STA in a duration of the SST sounding RAW (210, 310, 320) duration, and wherein the RAW is a duration of time in which access is permitted to predetermined STAs. broadcasting a beacon comprising information on a sub-channel selective transmission, SST, sounding restricted access window, RAW, (210, 310, 320) for channel sounding; transmitting a plurality of null data packet, NDP, frames in the SST sounding RAW (210, 310, 320) to a station, STA; and receiving, from the STA, a report frame including information on at least one channel selected by the STA based on the NDP frames, wherein the beacon comprises a bit value indicating whether the channel sounding is performed through the SST sounding RAW (210, 310, 320) and a bit value to control the transmission by the STA in a duration of the SST sounding RAW (210, 310, 320) duration, and wherein the RAW is a duration of time in which access is permitted to predetermined STAs.
A room door comprising a door frame, a door wing, and at least one door hinge comprising a frame part and a wing part, which are connected to one another via a first joint bracket and a second joint bracket, wherein, starting at a closed position, the door hinge has an opening angle of at least 135° until reaching a maximum open position, and wherein, in response to an opening movement from the closed position to the open position, the joint brackets (4, 5) rotate in a first direction of rotation with respect to the frame part, and the wing part likewise rotates in the first direction of rotation with respect to the joint brackets (4, 5), wherein the joint brackets (4, 5) form a four-axis joint assembly, in the case of which the first joint bracket is fastened to the frame part to rotate around a first frame part axis as well as to the wing part to rotate around a first wing part axis, and wherein the second joint bracket is fastened to the frame part to rotate around a second frame part axis as well as to the wing part to rotate around a second wing part axis, and that the two joint brackets (4, 5) are not directly connected to one another, wherein at their ends, the first and the second joint bracket (4, 5) are in each case connected to the frame part axes (9a, 9b) as well as to the wing part axes (10a, 10b) and have a U shape between their ends at a middle section, wherein, starting at a first connecting line between the first wing part axis and the first frame part axis, the largest distance (a 2) for the first joint bracket, which is determined perpendicular to the first connecting line all the way to the middle section, is at least 0.5-times the distance between the first frame part axis and the first wing part axis, and wherein, starting at a second connecting line between the second wing part axis and the second frame part axis, the largest distance (b 2) for the second joint bracket, which is determined perpendicular to the second connecting line all the way to the middle section, is at least 0.5-times the distance (b 1) between the second frame part axis and the second wing part axis, characterized in that the door wing is formed of glass without further apertures or openings, that the wing part has a clamping assembly, via which the door wing is fastened in a clamping manner to the wing part, and that in the open position, at least one of the joint brackets (4, 5) abuts against a stop surface (14a, 14b) of the wing part.
A catheter device comprising: a catheter body comprising: a tubular member having an inner lumen and an outer surface, said tubular member comprising a metal helix having a helical gap and a thermoset polymeric material disposed within the helical gap; an inner liner extending through the lumen of the tubular member and defining an inner lumen of the catheter; and an outer covering (108,109) on the outer surface of the tubular member, wherein the thermoset polymeric material disposed within the helical gap is different from the materials of the inner liner and the outer covering (108,109), and a hydrophilic coating on an outer surface of the outer covering (108,109); and wherein a distal region of the catheter body has an inner diameter to wall thickness ratio from about 16:1 to about 24:1 and a kink radius of about 4.42 millimeters (mm) +/- 0.203 mm (about 0.174 inch +/- 0.008 inch) or less. a tubular member having an inner lumen and an outer surface, said tubular member comprising a metal helix having a helical gap and a thermoset polymeric material disposed within the helical gap; an inner liner extending through the lumen of the tubular member and defining an inner lumen of the catheter; and an outer covering (108,109) on the outer surface of the tubular member, wherein the thermoset polymeric material disposed within the helical gap is different from the materials of the inner liner and the outer covering (108,109), and a hydrophilic coating on an outer surface of the outer covering (108,109); and wherein a distal region of the catheter body has an inner diameter to wall thickness ratio from about 16:1 to about 24:1 and a kink radius of about 4.42 millimeters (mm) +/- 0.203 mm (about 0.174 inch +/- 0.008 inch) or less.