mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a porous substrate with an inverse opal structure, comprising: preparing a colloid solution containing polymer particles; coating the colloid solution on a substrate to form a coating layer of the polymer particles with an opal structure; dispersing a polymer resin in a first organic solvent to obtain a polymer resin dispersion; filling the opal structure of the polymer particles with the polymer resin dispersion; and melting the polymer particles with a second solvent wherein the polymer resin is an engineering plastic resin with high heat-resistance selected from the group of consisting of polysulfone, polyethersulfone, polyetherimide, polyphenylenesulfide, polyether ether ketone (PEEK), polyacrylate, polyamideimide, polyimide, and a mixture thereof, characterized in that the first organic solvent is methylene chloride. preparing a colloid solution containing polymer particles; coating the colloid solution on a substrate to form a coating layer of the polymer particles with an opal structure; dispersing a polymer resin in a first organic solvent to obtain a polymer resin dispersion; filling the opal structure of the polymer particles with the polymer resin dispersion; and melting the polymer particles with a second solvent wherein the polymer resin is an engineering plastic resin with high heat-resistance selected from the group of consisting of polysulfone, polyethersulfone, polyetherimide, polyphenylenesulfide, polyether ether ketone (PEEK), polyacrylate, polyamideimide, polyimide, and a mixture thereof, characterized in that the first organic solvent is methylene chloride.
A pack for smoking articles comprising a lid and a body formed from a material having a thickness, the lid having a front wall with a lower front wall edge and a flap attached to a portion of said lower front wall edge by a fold-line, wherein the fold-line is linear, and said portion of the lower front wall edge to which the flap is attached is located between curved lower front wall edge sections, characterised in that at least a part of said fold-line being formed by partially cutting through the thickness of the material so that, when the flap is folded about said fold-line so as to lie against an inner surface of the lid front wall, said portion of the lower front wall edge to which the flap is attached is aligned with the remainder of the lower front wall edge, wherein the body comprises an upper edge having a similar profile to the lower front wall edge of the lid so that when the pack is in a closed position the upper edge of the body and the lower front wall edge abut across the width of the lid front wall.
A fuel cell constituted of: a membrane electrode assembly comprising a polyelectrolyte membrane, electrode layers placed on both the sides of the electrolyte membrane, and gas diffusion layers placed on the side opposite to the electrolyte membrane of the electrode layers; a gas sealing material placed surrounding the membrane electrode assembly; and separators sandwiching the foregoing, wherein the fuel cell comprises a peroxide decomposition catalyst immobilized on a support, the support is a clathrate compound having a three-dimensional network or a layered compound having an interlayer structure, and the peroxide decomposition catalyst is immobilized in pores of the clathrate comound having the three-dimensional network or in the interlayer structure of the layered compound. a membrane electrode assembly comprising a polyelectrolyte membrane, electrode layers placed on both the sides of the electrolyte membrane, and gas diffusion layers placed on the side opposite to the electrolyte membrane of the electrode layers; a gas sealing material placed surrounding the membrane electrode assembly; and separators sandwiching the foregoing, wherein the fuel cell comprises a peroxide decomposition catalyst immobilized on a support, the support is a clathrate compound having a three-dimensional network or a layered compound having an interlayer structure, and the peroxide decomposition catalyst is immobilized in pores of the clathrate comound having the three-dimensional network or in the interlayer structure of the layered compound.
A cooling device comprising: a first chamber; a second chamber separated from the first chamber and adapted to be in contact with ambient air; heat exchanger means comprising at least one heat exchanger, the heat exchanger means dividing the first chamber into an upper section and a lower section, a first end of each of the at least one heat exchanger being located in the first chamber, and a second end of each of the at least one heat exchanger being located in the second chamber, the heat exchanger means being adapted to transfer heat from the first chamber to the second chamber; and fan means; the first chamber comprises an inlet flow opening in the upper section of the first chamber, and an outlet flow opening in the lower section of the first chamber, the fan means comprises at least one first fan adapted to generate a first cooling medium flow inside the first chamber between the inlet flow opening and the outlet flow opening through the first end of the at least one heat exchanger, and the cooling device is adapted to be connected to a device chamber containing a heat generating apparatus, whereby the cooling device comprises a thermoelectric cooling element having a hot side and a cold side, the thermoelectric cooling element being adapted to condense moisture from the first chamber, characterized in that the heat exchanger means comprises a first heat exchanger, one of the sides of the thermoelectric cooling element being in heat transfer connection with a first end of the first heat exchanger. a first chamber; a second chamber separated from the first chamber and adapted to be in contact with ambient air; heat exchanger means comprising at least one heat exchanger, the heat exchanger means dividing the first chamber into an upper section and a lower section, a first end of each of the at least one heat exchanger being located in the first chamber, and a second end of each of the at least one heat exchanger being located in the second chamber, the heat exchanger means being adapted to transfer heat from the first chamber to the second chamber; and fan means; the first chamber comprises an inlet flow opening in the upper section of the first chamber, and an outlet flow opening in the lower section of the first chamber, the fan means comprises at least one first fan adapted to generate a first cooling medium flow inside the first chamber between the inlet flow opening and the outlet flow opening through the first end of the at least one heat exchanger, and the cooling device is adapted to be connected to a device chamber containing a heat generating apparatus, whereby the cooling device comprises a thermoelectric cooling element having a hot side and a cold side, the thermoelectric cooling element being adapted to condense moisture from the first chamber, characterized in that the heat exchanger means comprises a first heat exchanger, one of the sides of the thermoelectric cooling element being in heat transfer connection with a first end of the first heat exchanger.
An engine comprising: a first land, a first ring groove, a second land, a second ring groove, a third land, a third ring groove, and a piston skirt formed on a piston peripheral wall in this order from a side of a piston head; a first pressure ring fitted in the first ring groove; a seconds pressure ring fitted in the second ring groove; an oil ring fitted in the third ring groove; and an indentation formed at the second land, wherein a corner at a boundary between an outer peripheral face of the second land and a second-land-side end face of the second ring groove is planed off with a tapered face having a diameter reducing toward the second ring groove and the tapered face forms the indentation of the second land, characterized in that an angle (Θ) of the tapered face to a cylinder-side imaginary extension line of the second-land-side end face of the second ring groove is from 30° to 60° and value (C/D) obtained by dividing a depth of the tapered face in a radial direction of a piston by a depth of the second ring groove in the radial direction of the piston is 20% to 30%.
An electronic device holder of the type suitable to be fastened to the back of a seat seatback or to a holding surface in front of a user, which has a plate-like shape adhering to said holding surface, and which includes in its thickness an extendable arm projecting from the upper edge thereof, through an outlet hole, which can be extracted vertically and having: • a first holding element capable of rotating from a vertical position adhered to the extendable arm or to the holder to a position rotated upwards; and • a second holding element capable of rotating from a vertical position adhered to the extendable arm or to the holder to a position wherein it acts as resting bracket; said first and second holding elements (13, 23) being arranged to receive respective edges of an electronic device (S, T) and being provided with a respective first and second locking tooth (16, 29), characterized in that the second holding element is hinged to the lower end of a pivoting arm, in turn hinged in proximity of an outlet hole of said extendable arm from the holder, which is capable of rotating from a position adhered to the holder to a tilted position. • a first holding element capable of rotating from a vertical position adhered to the extendable arm or to the holder to a position rotated upwards; and • a second holding element capable of rotating from a vertical position adhered to the extendable arm or to the holder to a position wherein it acts as resting bracket;
A check-valve assembly for a vacuum system, comprising a body, a shaft, nozzles (116 and 117) and a flexible valve, characterized in that: the body including a shaft hole provided in a center thereof, with a plurality of mount holes (112a and 113a) provided on the body at respective positions spaced apart from the shaft hole by a same radius of rotation; the shaft is rotatably mounted to the body through the shaft hole; the nozzles (116 and 117) are inserted into the mount holes (112a and 113a) and provided with vacuum through-holes (112 and 113) therein; and the flexible valve is facing a lower portion of the through-holes (112 and 113) to interfere therewith, rotating along with the shaft by being locked to the shaft at a center thereof, and being formed with an intake hole on a side thereof to selectively communicate with one of the through-holes (112 and 113).
A stent graft delivery system comprising: a balloon; a flexible sleeve disposed over the balloon, wherein the flexible sleeve includes a weakened area between a first end and a second end of the flexible sleeve; and a stent graft mounted over the flexible sleeve, the stent graft including a plurality of stents (104, 204) coupled to a graft material (102, 202). a balloon; a flexible sleeve disposed over the balloon, wherein the flexible sleeve includes a weakened area between a first end and a second end of the flexible sleeve; and a stent graft mounted over the flexible sleeve, the stent graft including a plurality of stents (104, 204) coupled to a graft material (102, 202).
Subframe for a motor vehicle, comprising an upper shell, a lower shell made from a fibre-reinforced plastic and a rib structure for stiffening the upper shell, characterised in that the upper shell is composed of a metallic material and the rib structure is composed of a plastic reinforced with short fibres and is formed integrally from the lower shell.
A laundry detergent composition comprising methyl ester ethoxylate surfactant and an alkyl ether sulphate, a proportion of which AES comprises C18, wherein the MEE comprises at least 10% wt. of the total MEE, MEE with C18 wherein the AES comprises at least 10% wt. of the total AES of AES with C18.
A lubricating oil composition for an automatic transmission including: as low-viscosity base oils: (i) between 45 and 95 mass% of a Fischer-Tropsch synthetic low-viscosity base oil with a 100°C kinematic viscosity of between 1 mm 2 /s and 2 mm 2 /s, and between 0 and 25 mass% of other than a Fischer-Tropsch synthetic low-viscosity base oil with a 100°C kinematic viscosity of between 1 mm 2 /s and 2 mm 2 /s, and (ii) between 0 and 35 mass% of a base oil wherein the 100°C kinematic viscosity is greater that 2 mm 2 /s and no greater than 5 mm 2 /s; and (iii) between 5 and 55 mass% of an olefin polymer or co-polymer, as a high-viscosity base oil, wherein the 100°C kinematic viscosity is between 100 and 800 mm 2 /s, wherein: the 100°C kinematic viscosity of the composition is between 3.8 and 5.5 mm 2 /s, the viscosity index is no less than 190, the flashpoint is no less than 140°C, and the reduction ratio in the 100°C kinematic viscosity after KRL shear stability testing, at 60°C for 20 hours, according to CEC-L-45-A-99, is no greater than 3%.
Method for clock synchronization in a network, comprising - sending, by a first clock master, a first message addressed to a second clock master; - sending, by the second clock master, a second message addressed to the first clock master; - sending, by the first clock master, a third message (203, 610) addressed to at least one clock slave node (111, 112, 113, 114, 141, 142, 143, 144) in the network and the second clock master; - sending, by the second clock master a fourth message (204, 620) addressed to the at least one clock slave node (111, 112, 113, 114, 141, 142, 143, 144) in the network and the first clock master; wherein the third message (203, 610) and the fourth message (204, 620) contain synchronized time information for synchronizing a clock of the at least one clock slave node (111, 112, 113, 114, 141, 142, 143, 144); characterized in that the first message and the second message contain respective clock timing valules (C8M1(t), C8M2 (t)), indicated respectively by the first clock master and the second clock master at a point in time (t); wherein the first message and the second message are sent repeatedly and are only exchanged between the first clock master and the second clock master. - sending, by a first clock master, a first message addressed to a second clock master; - sending, by the second clock master, a second message addressed to the first clock master; - sending, by the first clock master, a third message (203, 610) addressed to at least one clock slave node (111, 112, 113, 114, 141, 142, 143, 144) in the network and the second clock master; - sending, by the second clock master a fourth message (204, 620) addressed to the at least one clock slave node (111, 112, 113, 114, 141, 142, 143, 144) in the network and the first clock master;
An artificial grass sport field comprising a substrate and a plurality of artificial fibres upstanding from the substrate and attached thereto, wherein the artificial fibres are of the monofilament-type and, seen in a sectional direction of the fibre, at least part of the fibre is provided with stiffness-enhancing means (53, 53a, 53b) extending in the longitudinal direction thereof, the fibre being built up of at least two fibre flange portions (50a, 50b, 60a, 60b, 70a-70c), whilst said at least two fibre flange portions have a uniform thickness, characterized in that said at least two fibre flange portions extend symmetrically with respect to the longitudinal axis (52, 62, 72) and each exhibiting one, two or multiple curves, which curves form the stiffness-enhancing means (53, 53a, 53b).
A lighting device comprising: at least two light-emitting diode, LED, filaments; and at least two optical modules, each optical module being arranged in relation to a corresponding one of the LED filaments to receive light emitted by the corresponding one of the LED filaments; wherein each optical module is configured to collimate the received light and produce a collimated light beam so as to increase the degree of collimation of the light produced by the optical module as compared to the light received by the optical module, wherein the light produced by each optical module is emitted from the lighting device, wherein the optical modules are arranged in relation to each other such that collimated light beams of the respective ones of the optical modules are oriented in different directions, characterised in that each or at least one of the at least two optical modules comprises or is constituted by, or is configured as, a lens. at least two light-emitting diode, LED, filaments; and at least two optical modules, each optical module being arranged in relation to a corresponding one of the LED filaments to receive light emitted by the corresponding one of the LED filaments; wherein each optical module is configured to collimate the received light and produce a collimated light beam so as to increase the degree of collimation of the light produced by the optical module as compared to the light received by the optical module, wherein the light produced by each optical module is emitted from the lighting device, wherein the optical modules are arranged in relation to each other such that collimated light beams of the respective ones of the optical modules are oriented in different directions, characterised in that each or at least one of the at least two optical modules comprises or is constituted by, or is configured as, a lens.
A biomaterial comprising a first plurality of geometric elements and a therapeutically-effective amount of a therapeutic agent, wherein: - a first geometric element of the first plurality of geometric elements is formed by a first porous border, wherein the first porous border comprises a polymer and the therapeutic agent; - a second geometric element of the first plurality of geometric elements is formed by a non-porous border and a first solid region comprising the polymer, wherein the therapeutic agent cannot diffuse into the second geometric element; - the first solid region is adjacent to and within the non-porous border, and; - a portion of the first porous border is adjacent to a portion of the non-porous border. - a first geometric element of the first plurality of geometric elements is formed by a first porous border, wherein the first porous border comprises a polymer and the therapeutic agent; - a second geometric element of the first plurality of geometric elements is formed by a non-porous border and a first solid region comprising the polymer, wherein the therapeutic agent cannot diffuse into the second geometric element; - the first solid region is adjacent to and within the non-porous border, and; - a portion of the first porous border is adjacent to a portion of the non-porous border.
A method comprising inserting fasteners into a stack of members and terminating the fasteners with parts having at least one of a dry dielectric coating and a dry dielectric seal at select locations to protect against electromagnetic effects, wherein inserting at least one of the fasteners includes fitting a fastener shaft into a through-hole in the stack, characterized in that the shaft is coated with a dry resin including electrically conductive particles.
Use of a polymer composition for the production of metal-plated articles, where the composition comprises by weight: a) 40-60% of a propylene homopolymer, or propylene copolymer containing up to 5% by weight of ethylene and/or another C 4 -C 10 α-olefin, and having a melting temperature of 155°C or higher and/or a fraction soluble in xylene at 25°C of 10% by weight or less; b) 10-20% of an ethylene-based elastoplastic copolymer (plastomer), optionally a copolymer of ethylene with C 4 -C 10 α-olefin; c) 2-6% of a styrene block copolymer; d) optionally up to 3% of a propylene homopolymer having a Melt Flow Rate (230°C/2.16 kg) of 500 g/10 min. or more; e) 15-40% of a filler; and, f) optionally up to 6% of a color pigment. a) 40-60% of a propylene homopolymer, or propylene copolymer containing up to 5% by weight of ethylene and/or another C 4 -C 10 α-olefin, and having a melting temperature of 155°C or higher and/or a fraction soluble in xylene at 25°C of 10% by weight or less; b) 10-20% of an ethylene-based elastoplastic copolymer (plastomer), optionally a copolymer of ethylene with C 4 -C 10 α-olefin; c) 2-6% of a styrene block copolymer; d) optionally up to 3% of a propylene homopolymer having a Melt Flow Rate (230°C/2.16 kg) of 500 g/10 min. or more; e) 15-40% of a filler; and, f) optionally up to 6% of a color pigment.
A mobile station, comprising: transmitting means for transmitting a signal; and transmission power limit setting means for setting a transmission power limit based on whether or not an external device is connected to said mobile station, wherein said transmitting means is adapted to transmit the signal in accordance with the transmission power limit set by said transmission power limit setting means, characterized in that said transmission power limit setting means is further adapted to set said transmission power limit based on a shape of said external device connected to said mobile station. transmitting means for transmitting a signal; and transmission power limit setting means for setting a transmission power limit based on whether or not an external device is connected to said mobile station, wherein said transmitting means is adapted to transmit the signal in accordance with the transmission power limit set by said transmission power limit setting means, said transmission power limit setting means is further adapted to set said transmission power limit based on a shape of said external device connected to said mobile station.