mhurhangee/ep-ind-claims huggingface dataset:
A light emitting module comprising: a circuit board; a light source unit disposed on the circuit board; and a reflective member disposed on the circuit board and disposed in a circumference of the light source unit, wherein: the light source unit includes a plurality of first (1A, 1B, 1C, 1D, and 1E), second (2A, 2B, 2C, and 2D) and third (3A and 3B) light emitting devices emitting light of different colors, the plurality of first light emitting devices (1A, 1B, 1C, 1D, and 1E) are disposed in an outer circumference of the second and third light emitting devices (2A, 2B, 2C, and 2D), the plurality of second light emitting devices (2A, 2B, 2C, and 2D) are disposed in both sides of the plurality of the third light emitting devices (3A and 3B), the plurality of first light emitting devices (1A, 1B, 1C, 1D, and 1E) are connected to each other in series and emits light having a wavelength longer than that of light emitted from the second and third light emitting devices, the plurality of second light emitting devices (2A, 2B, 2C, and 2D) are connected to each other in series and emits light having a wavelength longer than that of light emitted from the third light emitting devices, the plurality of third light emitting devices (3A and 3B) are connected to each other in series, and the numbers of the first to third light emitting devices are different from one another, the plurality of first light emitting devices are disposed to be more adjacent to the reflective member as compared to the second light emitting devices (2A, 2B, 2C, and 2D. a circuit board; a light source unit disposed on the circuit board; and a reflective member disposed on the circuit board and disposed in a circumference of the light source unit, wherein: the light source unit includes a plurality of first (1A, 1B, 1C, 1D, and 1E), second (2A, 2B, 2C, and 2D) and third (3A and 3B) light emitting devices emitting light of different colors, the plurality of first light emitting devices (1A, 1B, 1C, 1D, and 1E) are disposed in an outer circumference of the second and third light emitting devices (2A, 2B, 2C, and 2D), the plurality of second light emitting devices (2A, 2B, 2C, and 2D) are disposed in both sides of the plurality of the third light emitting devices (3A and 3B), the plurality of first light emitting devices (1A, 1B, 1C, 1D, and 1E) are connected to each other in series and emits light having a wavelength longer than that of light emitted from the second and third light emitting devices, the plurality of second light emitting devices (2A, 2B, 2C, and 2D) are connected to each other in series and emits light having a wavelength longer than that of light emitted from the third light emitting devices, the plurality of third light emitting devices (3A and 3B) are connected to each other in series, and the numbers of the first to third light emitting devices are different from one another, the plurality of first light emitting devices are disposed to be more adjacent to the reflective member as compared to the second light emitting devices (2A, 2B, 2C, and 2D.
A liquid nicotine formulation for use in an aerosol-generating system, the liquid nicotine formulation comprising: at least one of water and one or more water-miscible solvents; one or more partially water-soluble, water-immiscible solvents having a water solubility at 20°C of between about 20 mg/ml and about 100 mg/ml; and one or more water insoluble, water-immiscible solvents having a water solubility at 20°C of less than or equal to about 5 mg/ml, wherein the liquid nicotine formulation has a water-insoluble, water-immiscible solvent content of greater than or equal to about 2 percent by weight. at least one of water and one or more water-miscible solvents; one or more partially water-soluble, water-immiscible solvents having a water solubility at 20°C of between about 20 mg/ml and about 100 mg/ml; and one or more water insoluble, water-immiscible solvents having a water solubility at 20°C of less than or equal to about 5 mg/ml, wherein the liquid nicotine formulation has a water-insoluble, water-immiscible solvent content of greater than or equal to about 2 percent by weight.
A method for wireless communication, the method comprising: receiving, at an access point during a first transmit opportunity, TX_OP, used by a first device and a second device, at least a first data packet from the first device and a second data packet from the second device, the first data packet including a first data fragment (142, 144) and the second data packet including a second data fragment (146, 148); generating, at the access point, a block acknowledgement frame (700; 900) including at least a first block acknowledgement bitmap (706; 906) and a second block acknowledgement bitmap, wherein the first block acknowledgement bitmap indicates at least the first data fragment received from the first device, and wherein the second block acknowledgement bitmap indicates at least the second data fragment received from the second device and wherein the block acknowledgement frame includes one or more bits (620, 622) indicating whether the bitmaps relate to one or more data fragments or to all data fragments from the respective device (114, 126); and transmitting the block acknowledgement frame to the first device. receiving, at an access point during a first transmit opportunity, TX_OP, used by a first device and a second device, at least a first data packet from the first device and a second data packet from the second device, the first data packet including a first data fragment (142, 144) and the second data packet including a second data fragment (146, 148); generating, at the access point, a block acknowledgement frame (700; 900) including at least a first block acknowledgement bitmap (706; 906) and a second block acknowledgement bitmap, wherein the first block acknowledgement bitmap indicates at least the first data fragment received from the first device, and wherein the second block acknowledgement bitmap indicates at least the second data fragment received from the second device and wherein the block acknowledgement frame includes one or more bits (620, 622) indicating whether the bitmaps relate to one or more data fragments or to all data fragments from the respective device (114, 126); and transmitting the block acknowledgement frame to the first device.
Tomato plant that shows resistance to paraquat and the fruits of which have an improved shelf-life as compared to the fruits of a wild type tomato plant, which plant is obtainable by introgressing the increased shelf life trait from the mutant LePQ58 (deposit accession number NCIMB 41531) into a tomato plant with a normal shelf-life, wherein the increased shelf-life comprises a fruit that shows normal ripening and a firmness at 4 weeks post harvest that is decreased, when compared to red ripe harvested fruit stage, by less than 50%, preferably by less than 43%, more preferably by less than 38%, even more preferably by less than 32%, most preferably by less than 25%, and wherein the tomato plant is not exclusively obtained by an essentially biological process.
A method for producing a backrest rear panel from at least one organosheet, wherein a plurality of reinforcing beads and a frame-shaped bead which runs around them are shaped in at least one organosheet, and a rib structure is being molded in the peripheral frame-shaped bead on the rear side of the backrest rear panel in an injection molding die in such a way that a rib structure terminates flush with the rear side of the backrest rear panel, with the result that a planar surface is formed on the rear side of the backrest rear panel, an integral joint being formed between the organosheet and the rib structure, with the result that a single-piece component is formed.
Rolling tool for the finish rolling of bearing surfaces of a crankshaft rotatable about a crankshaft axis, having a finishing roller head and a support roller head, the finishing roller head having a finishing roller and a pressure roller which is mounted in a finishing roller head housing and supports the finishing roller, with the support roller head having two support rollers (10; 11) which are mounted in a support roller housing by means of which the crankshaft can be supported against a rolling force acting on the crankshaft via the finishing roller, with the finishing roller being guided on all sides in a roller cage and the finishing roller head having a finishing roller head frame, in which the finishing roller head housing is mounted such that it is pivotable around a first pivot axis which is perpendicular to the crankshaft axis and parallel to a tangent on a working side of the finishing roller and the support roller head has a support roller frame in which the support roller housing is mounted such that it is pivotable around a second pivot axis which is perpendicular to the crankshaft axis and parallel to the first pivot axis and around a third pivot axis which is perpendicular to the crankshaft axis and perpendicular to the first pivot axis, characterized in that the rolling tool is designed such that the first pivot axis during finish rolling of a bearing surface of a crankshaft is designed as a secant which runs through the crankshaft and whose distance from the tangent to the working side of the finishing roller is less than 10 millimetres, and in that the second pivot axis is designed as a secant which runs through the crankshaft and which is formed on the support rollers (10; 11) through the contact points or near the contact points of the crankshaft with a maximum deviation of 10 millimetres.
Optical unit intended to equip a vehicle and comprising a housing housing at least two light sources (Sj) each participating in different photometric functions, characterised in that said housing houses, downstream of said light sources (Sj), a one-piece support piece comprising a main part made by moulding an opaque material and comprising at least two openings (Oj) in the vicinity of which are respectively attached to the auxiliary parts (PAj) participating respectively in the said photometric functions and made by overmolding at least one non-opaque material allowing the passage of photons generated by said light sources (Sj); said main part comprises a front face opposite to said light sources (Sj) and on which at least one auxiliary part is attached in the vicinity of an associated opening, the opening is partially masked by a reflector reflecting photons generated by the associated light source towards this auxiliary part.
Bed for everyday use by at least one user, said bed exhibiting an anisotropic density and/ or elasticity distribution along an axis perpendicular to a plane defined by the largest surface of the bed, said bed comprising at least a first layer and at least a second layer located at different positions of the axis, wherein the first layer and the second layer have different densities and/ or elasticities, wherein the first layer exhibits a first recess enabling to rest and support the users head in a face down position, wherein the first recess is at least partly arranged in the first layer, wherein the first layer covers at least a distance of 80 mm along the axis, wherein the first recess is designed to be supplied with an air stream, wherein a passage is arranged from the first recess to a void arranged in the bed to receive a source for air supply, characterized in that the bed further comprises an air stream supply designed as a modular box, which is arranged to be moved in and out of the void.
A method of testing properties of a biofluid specimen (400, 500), comprising: placing the biofluid specimen (400, 500) onto a micropost array (114, 206) having a plurality of microposts extending outwards from a substrate, wherein each micropost includes a proximal end attached to the substrate and a distal end opposite the proximal end; generating an actuation force in proximity to the micropost array (114, 206) to actuate the microposts, thereby compelling at least some of the microposts to exhibit motion, wherein at least some of the microposts include at least one of a metallic, magnetic, and ferroelectric material (108, 118, 202), and wherein the material comprises a shell around at least a portion of the height of the at least some microposts; measuring the motion of at least one of the at least some microposts in response to the actuation force; and determining a property of the biofluid specimen (400, 500) based on the measured motion of the at least one micropost. placing the biofluid specimen (400, 500) onto a micropost array (114, 206) having a plurality of microposts extending outwards from a substrate, wherein each micropost includes a proximal end attached to the substrate and a distal end opposite the proximal end; generating an actuation force in proximity to the micropost array (114, 206) to actuate the microposts, thereby compelling at least some of the microposts to exhibit motion, wherein at least some of the microposts include at least one of a metallic, magnetic, and ferroelectric material (108, 118, 202), and wherein the material comprises a shell around at least a portion of the height of the at least some microposts; measuring the motion of at least one of the at least some microposts in response to the actuation force; and determining a property of the biofluid specimen (400, 500) based on the measured motion of the at least one micropost.
A method of wireless communication to be performed by an apparatus at a user equipment, UE, comprising: receiving (1105, 1205, 1305, 1405), by the apparatus, a first synchronization signal from a first cell on a common synchronization channel of the first cell, wherein the first synchronization signal is a waveform known to the UE prior to receiving the first synchronization signal; estimating (1110, 1210, 1310, 1410), by the apparatus, a symbol time of the first synchronization signal; determining (1115,1215,1315,1415), by the apparatus, a physical broadcast channel, PBCH, symbol time of the first cell based on the estimated symbol time of the first synchronization signal; receiving (1120, 1130, 1140, 1150), by the apparatus, a PBCH signal based at least in part on the PBCH symbol time; and determining (11,25, 1225, 1325, 1425), by the apparatus, a physical layer identification, ID, of the first cell based on the received PBCH signal. receiving (1105, 1205, 1305, 1405), by the apparatus, a first synchronization signal from a first cell on a common synchronization channel of the first cell, wherein the first synchronization signal is a waveform known to the UE prior to receiving the first synchronization signal; estimating (1110, 1210, 1310, 1410), by the apparatus, a symbol time of the first synchronization signal; determining (1115,1215,1315,1415), by the apparatus, a physical broadcast channel, PBCH, symbol time of the first cell based on the estimated symbol time of the first synchronization signal; receiving (1120, 1130, 1140, 1150), by the apparatus, a PBCH signal based at least in part on the PBCH symbol time; and determining (11,25, 1225, 1325, 1425), by the apparatus, a physical layer identification, ID, of the first cell based on the received PBCH signal.
An isolated polynucleotide encoding an HIV protein wherein the polynucleotide comprises a sequence selected from the group consisting of: SEQ ID NO:32 and SEQ ID NO:34.
Plastics injection moulding tool having a hot runner nozzle, the hot runner nozzle having an internally heatable nozzle body and a nozzle tip, and wherein a cooling action, associated with the nozzle tip, can be carried out, furthermore a cooling device being provided in a region of the nozzle body directly at or near the nozzle tip, the cooling action being carried out using a coolant, for which a supply line and a discharge line are provided, and the coolant being conducted through a central region of a heating cartridge which has an annular cross-section and is situated inside the nozzle body, characterised in that an exit for the coolant is provided directly in the nozzle tip, and the nozzle tip has, externally, a cone-like taper that results in a shut-off angle.
A sensor, for determining the concentration of at least one gas in a moist gas mixture, comprising a thermal conductivity measuring cell to which the gas mixture is subjected, said cell comprising - a membrane with low thermal inertia on which a heating resistance and a measuring resistance are arranged and delivering a signal provided by said measuring resistance (Vm), - a power source arranged to provide a current including an alternating component, intended to power said heating resistance, and - a circuit for determining said concentration, characterized in that said determining circuit comprises a first processing chain (20, 40) at a first frequency of said supplied signal (Vm) and at least one second processing chain (30, 50) for said signal (Vm), at a second frequency higher than that of the first chain, and in that the output signals (X1, X2) of said first and second chains are combined to extract the concentration of said at least one gas and that of the moisture. - a membrane with low thermal inertia on which a heating resistance and a measuring resistance are arranged and delivering a signal provided by said measuring resistance (Vm), - a power source arranged to provide a current including an alternating component, intended to power said heating resistance, and - a circuit for determining said concentration, characterized in that said determining circuit comprises a first processing chain (20, 40) at a first frequency of said supplied signal (Vm) and at least one second processing chain (30, 50) for said signal (Vm), at a second frequency higher than that of the first chain, and in that the output signals (X1, X2) of said first and second chains are combined to extract the concentration of said at least one gas and that of the moisture.
A primer, pigmented coating, clear coating, top coating, or image in film form on a substrate said film comprising a binder and optionally pigment and optionally filler, said film being characterized as a dried film from an aqueous polymer dispersion comprising said binder, wherein at least 30 wt.% of said binder in the film is amide repeat units characterized as having an amide linkage at one or more ends of each repeat unit, said amide repeat units being derived from amide condensation or ring opening polymerization of monomers selected from dicarboxylic acid, lactam, aminocarboxyic acid, and diamine monomers, wherein at least 60 mole % of the amide linkages of the binder polymer are tertiary amide linkages said tertiary amide linkages being characterized as nitrogen with a carbonyl group and two hydrocarbon groups chemically bonded to said nitrogen of said tertiary amide linkage, and wherein at least 5 wt.% of said binder is repeat units characterized as repeat units derived from polyisocyanates reacted with hydroxyl or amine groups to have urea or urethane linkages at two or more ends of each repeat unit derived from polyisocyanates.
Method for testing a switching installation for power transmission installations, wherein the switching installation comprises a switch which selectively connects a first side of the switch to a second side of the switch or disconnects it therefrom, and comprises two earthing switches (10, 11), wherein each of the two earthing switches (10, 11) is provided to selectively connect the first side or the second side to earth or to disconnect it from earth, wherein the method comprises: - generating a current through the switch, and - determining a magnitude of the current through the switch, wherein the two earthing switches (10, 11) are closed during the generation and determination steps, wherein, when the earthing switches (10, 11) are closed and the switch is closed, the generated current flows partly through the earthing switches (10, 11) and the switch and partly through earth, and wherein either the determining of the magnitude of the current through the switch comprises measuring a current discharging into the earth of the switching installation and determining a total current which is composed of the current through the switch and of the current discharging into the earth, or the current through the switch is measured directly in order to determine the magnitude of the current through the switch. wherein the switching installation comprises a switch which selectively connects a first side of the switch to a second side of the switch or disconnects it therefrom, and comprises two earthing switches (10, 11), wherein each of the two earthing switches (10, 11) is provided to selectively connect the first side or the second side to earth or to disconnect it from earth, wherein the method comprises: - generating a current through the switch, and - determining a magnitude of the current through the switch, - generating a current through the switch, and - determining a magnitude of the current through the switch, wherein the two earthing switches (10, 11) are closed during the generation and determination steps, wherein, when the earthing switches (10, 11) are closed and the switch is closed, the generated current flows partly through the earthing switches (10, 11) and the switch and partly through earth, and wherein either the determining of the magnitude of the current through the switch comprises measuring a current discharging into the earth of the switching installation and determining a total current which is composed of the current through the switch and of the current discharging into the earth, or the current through the switch is measured directly in order to determine the magnitude of the current through the switch.
A manufacturing method of a natural fiber composite material for injection molding using a reduced nozzle heating jig, comprising: combining natural fibers and synthetic fibers to form a combined yarn; heat-pressing the combined yarn while passing through a reduced nozzle heating jig 100 and melting and pressing the synthetic fibers and fusing the synthetic fibers to the natural fibers to form a mixed yarn; and pelletizing the mixed yarn, wherein the reduced nozzle heating jig 100 is configured to include a jig body 110, one or more reduced nozzles 120 formed in the jig body 110, and one or more heating heaters 130 installed in the jig body 110, and the reduced nozzle 120 is configured to further includes a derivation introduction unit 121, a reduced heating pressing unit 122 formed subsequently to the derivation introduction unit 121 and having an inner diameter which is gradually reduced, and a heat-pressing unit 123 formed subsequently to the reduced heat-pressing unit 122, and wherein an inner diameter d1 of the heat-pressing unit 123 is formed to be smaller than an outer diameter d0 of the combined yarn. combining natural fibers and synthetic fibers to form a combined yarn; heat-pressing the combined yarn while passing through a reduced nozzle heating jig 100 and melting and pressing the synthetic fibers and fusing the synthetic fibers to the natural fibers to form a mixed yarn; and pelletizing the mixed yarn, wherein the reduced nozzle heating jig 100 is configured to include a jig body 110, one or more reduced nozzles 120 formed in the jig body 110, and one or more heating heaters 130 installed in the jig body 110, and the reduced nozzle 120 is configured to further includes a derivation introduction unit 121, a reduced heating pressing unit 122 formed subsequently to the derivation introduction unit 121 and having an inner diameter which is gradually reduced, and a heat-pressing unit 123 formed subsequently to the reduced heat-pressing unit 122, and wherein an inner diameter d1 of the heat-pressing unit 123 is formed to be smaller than an outer diameter d0 of the combined yarn.
A composition comprising a TLR5 agonist, one or more antigens and a first plurality of particles to which the TLR5 agonist and the one or more antigens are attached through non-covalent interactions, said one or more antigens and said TLR5 agonist being at a ratio which increases immunogenicity to the one or more antigens and decreases reactogenicity to the TLR5 agonist, wherein the ratio of the TLR5 agonist to the antigen is less than 1:2 on a weight to weight basis.