mhurhangee/ep-ind-claims huggingface dataset:
A light emitting module (100, 200, 300, 310, 400, 10) adapted to produce white output light, comprising: - at least one blue emitter (101, 201, 301, 401, 110) adapted to emit light having an emission peak in a first wavelength range; - at least one wavelength converting material (104, 204, 304, 306, 35, 85) arranged to receive light emitted by said blue emitter, and being capable of emitting light having an emission peak in the green to red wavelength range; and - at least one deep blue emitter (102, 202, 302, 402, 120) adapted to emit light having an emission peak in a second wavelength range, wherein - the white output light having an emission peak in the wavelength range from 400 to 440 nm, and - the first wavelength range being from 440 to 460 nm, and - the second wavelength range being from 400 to 440 nm, characterized in that - the at least one wavelength converting material having an absorption peak wavelength of higher than 440 nm, and - said light emitting module (100, 200, 300, 310, 400, 10), in use, produces a ratio (A'), of the integral spectral power distribution of light of the wavelength range from 380 to 430 nm to the integral spectral power distribution of the total output light produced by the light emitting module defined by Equation 1b: ∫ 380 430 E λ d λ 430 − λ ∫ 380 780 E λ dλ = A ' wherein 0.6 ≤ A' ≤ 3. - at least one blue emitter (101, 201, 301, 401, 110) adapted to emit light having an emission peak in a first wavelength range; - at least one wavelength converting material (104, 204, 304, 306, 35, 85) arranged to receive light emitted by said blue emitter, and being capable of emitting light having an emission peak in the green to red wavelength range; and - at least one deep blue emitter (102, 202, 302, 402, 120) adapted to emit light having an emission peak in a second wavelength range, wherein - the white output light having an emission peak in the wavelength range from 400 to 440 nm, and - the first wavelength range being from 440 to 460 nm, and - the second wavelength range being from 400 to 440 nm, characterized in that - the second wavelength range being from 400 to 440 nm, characterized in that - the at least one wavelength converting material having an absorption peak wavelength of higher than 440 nm, and - said light emitting module (100, 200, 300, 310, 400, 10), in use, produces a ratio (A'), of the integral spectral power distribution of light of the wavelength range from 380 to 430 nm to the integral spectral power distribution of the total output light produced by the light emitting module defined by Equation 1b: ∫ 380 430 E λ d λ 430 − λ ∫ 380 780 E λ dλ = A '
Two-phase system, comprising a lipophilic phase and an aqueous phase, wherein - the two-phase system contains lecithins; - the two-phase system contains 0.02 wt.% to 7.77 wt.%, particularly preferably 0.02 wt.% to 7.52 wt.%, of lipid; - the total wt.% of lecithins and lipid in the two-phase system is from 0.5 wt.% to 8.25 wt.%, particularly preferably from 0.5 wt.% to 8.0 wt.%; - the two-phase system contains 68 wt.% to 91 wt.% of glycerol, wherein the two-phase system does not contain ingredients of animal origin, wherein the lipophilic phase forms micelles with an average droplet size between 10 nm and 250 nm, wherein the aqueous phase contains 75 wt.% to 99 wt.% glycerol, wherein the two-phase system contains an ingredient selected from algae oil, soybean oil, sunflower oil, borage oil, linseed oil, wheat germ oil, saw palmetto oil, rye extract, ubiquinone-10 and ubiquinol. - the two-phase system contains lecithins; - the two-phase system contains 0.02 wt.% to 7.77 wt.%, particularly preferably 0.02 wt.% to 7.52 wt.%, of lipid; - the total wt.% of lecithins and lipid in the two-phase system is from 0.5 wt.% to 8.25 wt.%, particularly preferably from 0.5 wt.% to 8.0 wt.%; - the two-phase system contains 68 wt.% to 91 wt.% of glycerol, wherein the two-phase system does not contain ingredients of animal origin, wherein the lipophilic phase forms micelles with an average droplet size between 10 nm and 250 nm, wherein the aqueous phase contains 75 wt.% to 99 wt.% glycerol, wherein the two-phase system contains an ingredient selected from algae oil, soybean oil, sunflower oil, borage oil, linseed oil, wheat germ oil, saw palmetto oil, rye extract, ubiquinone-10 and ubiquinol.
A composition in the form of an oil-in-water emulsion, comprising from 65% to 74% by weight of oil, from 0.1 % to 10% by weight of acid, from 0.4% to 3.5% by weight of ground white or yellow mustard seed originating from the species Sinapis alba or Brassica hirta, wherein the ground white or yellow mustard seed is obtained by grinding white or yellow mustard seed in the presence of water and vinegar, wherein the weight ratio between mustard seed and [water and vinegar] ranges from 1:2 to 1:9, and wherein the ground mustard seed is used in the form of a paste, containing 10% to 30% ground mustard seed and 70% to 90% aqueous phase, including vinegar, and from 0.5% to 10% by weight of egg yolk, having a pH ranging from 3 to 5, and wherein the composition is a mayonnaise, and wherein the concentration of polymeric or oligomeric water structurants not originating from egg yolk or white mustard seed is maximally 1% by weight of the emulsion, and wherein the structurant is a compound or a mixture of compounds which is an oligomer (meaning a branched or unbranched molecule containing a maximum of 20 monomer units) or a polymer (meaning a branched or unbranched molecule containing more than 20 monomer units) which is dispersible in water or dissolves in water to thicken or bind the water and increase the viscosity of the mixture as compared to pure water, and wherein the structurant does not originate from egg yolk, whole egg, enzyme modified egg yolk, egg yolk modified with phospholipase, egg yolk modified with phospholipase A2, white or yellow mustard seed, and ground white or yellow mustard seed, and wherein the emulsion has a Stevens value at 20°C of at least 70 gram, wherein the Stevens value is determined by using a Stevens LFRA Texture Analyser (ex Brookfield Viscometers Ltd., UK) with a maximum load/measuring range of 1000 grams, and applying a penetration test of 25 mm using a grid, at 2 mm per second penetration rate, in a cup having a diameter of 65 mm, that contains the emulsion; wherein the grid comprises 76 square openings of approximately 3x3 mm, is made up of wire with a thickness of approximately 1 mm, and has a diameter of 40 mm.
A liquid composition comprising an essential oil from peel of a citrus fruit, citropten, and hesperidin, wherein a content of the essential oil from peel is in a range of 0.2-3.5% by volume of the total amount of the composition; wherein a concentration of the citropten with respect to acidity is in a range of 5-20 mg/kg/Acid; wherein a concentration of the hesperidin with respect to acidity is 300 mg/kg/Acid or more; and wherein the liquid composition comprises 1 % by weight or less of ethanol.
A cultivation device comprising at least one spacer element and a drainage collection channel, where the spacer element is arranged in the drainage collection channel, and a substrate contained inside a container element (4,5) is arranged on the spacer element; characterized in that the spacer element comprises: - a grid structure on the upper face of which is arranged the container element (4,5); wherein the grid structure comprises longitudinal and transverse profiles with a T section, except for peripheral profiles which have an angular section; - supporting legs which extend from the lower face of the grid structure and stand on the bottom of the drainage collection channel, the supporting legs extend from junction points where longitudinal and transverse profiles converge, composing the grid structure; where the spacer element is arranged in the inner space of the drainage collection channel, generating a large drainage space between the grid structure and the encasing structure of the drainage collection channel, the supporting legs being located in this large drainage space. - a grid structure on the upper face of which is arranged the container element (4,5); wherein the grid structure comprises longitudinal and transverse profiles with a T section, except for peripheral profiles which have an angular section; - supporting legs which extend from the lower face of the grid structure and stand on the bottom of the drainage collection channel, the supporting legs extend from junction points where longitudinal and transverse profiles converge, composing the grid structure;
A semiconductor component comprising: a semiconductor substrate having a circuit side, a back side, an integrated circuit, a substrate contact in electrical communication with the integrated circuit, and a redistribution layer, RDL, contact on the circuit side in electrical communication with the substrate contact; a through wire interconnect on the semiconductor substrate comprising a via through the RDL contact and the substrate contact to the back side, a wire in the via, a contact ball on the wire in the via proximate to the back side, and a bonded contact on the circuit side between the wire and the RDL contact; a stud bump on the bonded contact; and a terminal contact on the circuit side in electrical communication with the bonded contact. a semiconductor substrate having a circuit side, a back side, an integrated circuit, a substrate contact in electrical communication with the integrated circuit, and a redistribution layer, RDL, contact on the circuit side in electrical communication with the substrate contact; a through wire interconnect on the semiconductor substrate comprising a via through the RDL contact and the substrate contact to the back side, a wire in the via, a contact ball on the wire in the via proximate to the back side, and a bonded contact on the circuit side between the wire and the RDL contact; a stud bump on the bonded contact; and a terminal contact on the circuit side in electrical communication with the bonded contact.
A root canal filler having an extracellular matrix containing dental pulp stem cells, wherein the dental pulp stem cells include at least one of CD31-negative/CD146-negative cells, CD24-positive cells, CD105-positive cells and CD150-positive cells.
A composition that simultaneously inhibits activity and/or expression of FKBP52 and CD147 for use in a method for inhibiting pro-inflammatory cytokine production in a human having a chronic inflammatory disease, said method comprising administering an effective amount of a said composition, wherein the composition comprises (i) one or more siRNA molecules that silence expression of FKBP52 and CD147, or (ii) one or more antibodies or functional fragments thereof that inhibit the activity of FKBP52 and CD147. (i) one or more siRNA molecules that silence expression of FKBP52 and CD147, or (ii) one or more antibodies or functional fragments thereof that inhibit the activity of FKBP52 and CD147.
Transmission for a motor vehicle, with an electric machine and a traction mechanism drive which has a first traction mechanism wheel which is connected fixedly to a rotor shaft of the electric machine so as to rotate with it, a second traction mechanism wheel which can be connected fixedly to a transmission component so as to rotate with it and which is drive-connected to the first traction mechanism wheel by means of a traction mechanism, and a bearing journal for supporting the first traction mechanism wheel, the first traction mechanism wheel being supported on the bearing journal in the radial direction by means of a bearing, characterized in that an oil line extends through the bearing journal, through which oil line oil can be fed to the electric machine, the oil line extending in the bearing journal in the axial direction.
A system to detect impending cardiac decompensation of a patient, the system comprising: circuitry (130, 134, 136, 138, 152), supported by an external patch on the patient; and a processor system (100, 102, 106, or 146) comprising a tangible medium in communication with the circuitry, characterised in that the circuitry (130, 134, 136,138, 152) is configured to measure an electrocardiogram signal of the patient and a hydration signal of the patient, wherein the circuitry is configured to place a voltage and/or a current at one or more electrodes having a frequency between 0.5kHz and about 20 kHz such that the measured hydration signal corresponds to an extracellular fluid of the patient; and that the processor system (100, 102, 106, or 146) is configured to combine the electrocardiogram signal and the hydration signal to detect the impending cardiac decompensation, wherein the electrocardiogram signal and the hydration signal are combined by a two-dimensional look-up table that relates heart a rate measured, derived from the measured electrocardiogram signal, with the measured hydration signal. circuitry (130, 134, 136, 138, 152), supported by an external patch on the patient; and a processor system (100, 102, 106, or 146) comprising a tangible medium in communication with the circuitry, characterised in that the circuitry (130, 134, 136,138, 152) is configured to measure an electrocardiogram signal of the patient and a hydration signal of the patient, wherein the circuitry is configured to place a voltage and/or a current at one or more electrodes having a frequency between 0.5kHz and about 20 kHz such that the measured hydration signal corresponds to an extracellular fluid of the patient; and that the processor system (100, 102, 106, or 146) is configured to combine the electrocardiogram signal and the hydration signal to detect the impending cardiac decompensation, wherein the electrocardiogram signal and the hydration signal are combined by a two-dimensional look-up table that relates heart a rate measured, derived from the measured electrocardiogram signal, with the measured hydration signal.
A method of providing communications via a wireless communications system comprising at least one first transceiver comprising M transmit antennas and at least one second transceiver comprising N receive antennas, the method comprising: receiving signals from M transmit antennas of a first transceiver on the N receive antennas of a second transceiver, wherein M is greater than N; determining channel estimates for MxN channels at the second transceiver, each channel being associated with a respective one of the M transmit antennas and a respective one of the N receive antennas; processing the channel estimates to produce control information, wherein said processing the channel estimates comprises selecting N transmit antennas from the M transmit antennas of the first transceiver at the second transceiver based on the channel estimates, wherein said processing the channel estimates further comprises identifying redundant transmit antennas other than the selected N transmit antennas to provide beam-forming and determining respective weighting factors based on the channel estimates; and transmitting the control information from the second transceiver to the first transceiver, to enable the first transceiver to select the N transmit antennas from the M transmit antennas for transmission to the N receive antennas, wherein said transmitting the control information from the second transceiver to the first transceiver comprises transmitting information conveying the selected N transmit antennas, wherein said transmitting the control information from the second transceiver to the first transceiver further comprises transmitting information conveying the respective weighting factors. receiving signals from M transmit antennas of a first transceiver on the N receive antennas of a second transceiver, wherein M is greater than N; determining channel estimates for MxN channels at the second transceiver, each channel being associated with a respective one of the M transmit antennas and a respective one of the N receive antennas; processing the channel estimates to produce control information, wherein said processing the channel estimates comprises selecting N transmit antennas from the M transmit antennas of the first transceiver at the second transceiver based on the channel estimates, wherein said processing the channel estimates further comprises identifying redundant transmit antennas other than the selected N transmit antennas to provide beam-forming and determining respective weighting factors based on the channel estimates; and transmitting the control information from the second transceiver to the first transceiver, to enable the first transceiver to select the N transmit antennas from the M transmit antennas for transmission to the N receive antennas, wherein said transmitting the control information from the second transceiver to the first transceiver comprises transmitting information conveying the selected N transmit antennas, wherein said transmitting the control information from the second transceiver to the first transceiver further comprises transmitting information conveying the respective weighting factors.
Bag, particular rubbish sack, made from a plastics material film or a biologically degradable film or paper, wherein a carrier layer with activated carbon for odour absorption is arranged regionally in the bag and is adhered to the bag material in a section of 1 to 400 square centimetres, preferably approximately 50 square centimetres, area, characterised in that the carrier layer is a lattice and is occupied or permeated by activated carbon.
A full face respiratory protection device that comprises: (a) a face seal; (b) one or more parts for supplying clean air to the interior gas space; (c) a harness for supporting the mask on a wearer's face; and (d) a lens that is cylindrical about an upright axis with respect to a wearer and that is coupled to the face seal and that assists in establishing an effective field of view greater than 95% and a peripheral field of view greater than 60%. (a) a face seal; (b) one or more parts for supplying clean air to the interior gas space; (c) a harness for supporting the mask on a wearer's face; and (d) a lens that is cylindrical about an upright axis with respect to a wearer and that is coupled to the face seal and that assists in establishing an effective field of view greater than 95% and a peripheral field of view greater than 60%.
An implantable medical device (200, 406) comprising: a plurality of components disposed on a substrate (201, 408) having at least a first three-dimensional portion with a first surface; characterised by: a low surface energy layer (210, 410) deposited over at least the first portion of the components, the low surface energy layer conforming to at least the first portion of the components; and a biocompatible hermetic coating conforming to and sealingly covering at least the low surface energy layer (210, 410). a low surface energy layer (210, 410) deposited over at least the first portion of the components, the low surface energy layer conforming to at least the first portion of the components; and a biocompatible hermetic coating conforming to and sealingly covering at least the low surface energy layer (210, 410).
A package for household appliances, comprising a box-shaped body made of a paper material; said box-shaped body comprising: - a first pair of mutually substantially parallel side walls (3, 4), and - a second pair of mutually substantially parallel side walls (5, 6); - an upper wall and a lower wall, each of which is rotatable with respect to at least one side wall; a tubular member in paper material said tubular member comprising two mutually opposite end portions (12a, 12b), each of which abuts against a corresponding side wall (5, 6) of a pair of side walls, so that said tubular member lies substantially parallel to the upper and/or lower walls, characterized in that it comprises at least an appendix in paper material projecting into said box-shaped body and comprising a through opening, said tubular member passing through said through opening of the appendix. - a first pair of mutually substantially parallel side walls (3, 4), and - a second pair of mutually substantially parallel side walls (5, 6); - an upper wall and a lower wall, each of which is rotatable with respect to at least one side wall;
A nuclear steam generator support and alignment structure for supporting a steam generator in a vertical orientation, from a floor or an internal wall of a nuclear containment and aligning an inlet nozzle and an outlet nozzle of the steam generator with a primary coolant loop piping of a reactor system, comprising: a support fixture configured to be supported on and extend from the floor or internal wall of the nuclear containment and to be attached to at least two sides of the steam generator to secure and support the entire weight of the steam generator in the vertical orientation, on the support fixture, the support fixture including: a base configured to be supported on the floor or internal wall; a support section configured to be attached to a portion of the circumference of a side of the steam generator, the support section forming a part of the support fixture; and a means (44, 48) connected between the base and the support section, the means being configured to raise, lower, laterally move and rotate the support section relative to the base with the steam generator secured within the support section, the raising and lowering being in increments as little as 0.08cm, to align the steam generator inlet nozzle and outlet nozzle with the primary coolant loop piping of the reactor system. a support fixture configured to be supported on and extend from the floor or internal wall of the nuclear containment and to be attached to at least two sides of the steam generator to secure and support the entire weight of the steam generator in the vertical orientation, on the support fixture, the support fixture including: a base configured to be supported on the floor or internal wall; a support section configured to be attached to a portion of the circumference of a side of the steam generator, the support section forming a part of the support fixture; and a means (44, 48) connected between the base and the support section, the means being configured to raise, lower, laterally move and rotate the support section relative to the base with the steam generator secured within the support section, the raising and lowering being in increments as little as 0.08cm, to align the steam generator inlet nozzle and outlet nozzle with the primary coolant loop piping of the reactor system. a base configured to be supported on the floor or internal wall; a support section configured to be attached to a portion of the circumference of a side of the steam generator, the support section forming a part of the support fixture; and a means (44, 48) connected between the base and the support section, the means being configured to raise, lower, laterally move and rotate the support section relative to the base with the steam generator secured within the support section, the raising and lowering being in increments as little as 0.08cm, to align the steam generator inlet nozzle and outlet nozzle with the primary coolant loop piping of the reactor system.