mhurhangee/ep-ind-claims huggingface dataset:
A lubrication system for a fan drive gear system of a turbofan engine comprising: a main lubrication system including a main pump to provide lubricant to the gear system; and an auxiliary lubrication system including an auxiliary pump for communicating lubricant to bearings of the gear system; characterised in that: the lubrication system further comprises a deaerator disposed between a lubricant source and an inlet of the auxiliary pump for separating gases contained within the lubricant, the deaerator including a vane section for inducing a radial flow in the lubricant for separating gas from the lubricant. a main lubrication system including a main pump to provide lubricant to the gear system; and an auxiliary lubrication system including an auxiliary pump for communicating lubricant to bearings of the gear system; characterised in that: the lubrication system further comprises a deaerator disposed between a lubricant source and an inlet of the auxiliary pump for separating gases contained within the lubricant, the deaerator including a vane section for inducing a radial flow in the lubricant for separating gas from the lubricant.
A powder coating composition for low temperature curing comprising: a. a poly-acid functional polyester component A, b. a poly-epoxy functional component B, c. a poly-anhydride functional component C; d. a curing catalyst D - wherein component A has an acid number AV of 20 to 50 mg KOH/g and a hydroxyl number OHV of less than 15 mg KOH/g, wherein the acid number and the hydroxyl number are measured as indicated in the specification. a. a poly-acid functional polyester component A, b. a poly-epoxy functional component B, c. a poly-anhydride functional component C; d. a curing catalyst D - wherein component A has an acid number AV of 20 to 50 mg KOH/g and a hydroxyl number OHV of less than 15 mg KOH/g, wherein the acid number and the hydroxyl number are measured as indicated in the specification. - wherein component A has an acid number AV of 20 to 50 mg KOH/g and a hydroxyl number OHV of less than 15 mg KOH/g, wherein the acid number and the hydroxyl number are measured as indicated in the specification.
A hyaluronic acid hydrogel filler, which comprises a hyaluronic acid, or its salt, and has a complex viscosity of 6x10 4 mPa.s (6x10 4 cP) or more at an angular velocity of 1Hz when measured by a rheometer, and exhibits a storage elastic modulus G' of 400 Pa or more, and has cohesivity of 0.2942 N or more, wherein the hyaluronic acid is a crosslinked hyaluronic acid having a molecular weight of 2,500,000 Da or more and in the form of particles having an average diameter of 300 to 400 μm, a degree of modification of the hyaluronic acid as represented by the following Equation 1 is in the range of 1 to 7: Degree of modification = total number of moles of crosslinking agent / total number of moles of N-acetyl-D-glucosamine, a crosslinking ratio (CrR) as represented by the following Equation 2 is in the range of 0.1 to 0.2: Crosslinking ratio = number of moles of crosslinked crosslinking agent / number of moles of total crosslinking agent, and the hyaluronic acid or its salt is comprised in the range from 1 to 3 wt% based on the total filler weight. wherein the hyaluronic acid is a crosslinked hyaluronic acid having a molecular weight of 2,500,000 Da or more and in the form of particles having an average diameter of 300 to 400 μm, a degree of modification of the hyaluronic acid as represented by the following Equation 1 is in the range of 1 to 7: Degree of modification = total number of moles of crosslinking agent / total number of moles of N-acetyl-D-glucosamine, a crosslinking ratio (CrR) as represented by the following Equation 2 is in the range of 0.1 to 0.2: Crosslinking ratio = number of moles of crosslinked crosslinking agent / number of moles of total crosslinking agent, and the hyaluronic acid or its salt is comprised in the range from 1 to 3 wt% based on the total filler weight.
A process for preparing an air-oxidative type hair dye composition comprising a melanin precursor wherein the process comprises an oxidation step for converting, into the melanin precursor, a tyrosine or derivative thereof used as a starting substance by using an enzyme or cell that is derived from a fungus selected from the group consisting of fungi belonging to the genera Aspergillus, Neurospora, Rhizomucor, Trichoderma, and Penicillium and which exhibits a catechol oxidase activity, wherein the tyrosine or derivative thereof is: D-tyrosine and L-tyrosine, D-DOPA and L-DOPA, Dopamine, C1-4 alkyl esters of tyrosines, C1-4 alkyl esters of DOPAs, and N-alkoxylated or N-alkylated DOPAs, and tyrosines, or isomers of any of these compounds; and a step to remove the enzyme or cell. wherein the process comprises an oxidation step for converting, into the melanin precursor, a tyrosine or derivative thereof used as a starting substance by using an enzyme or cell that is derived from a fungus selected from the group consisting of fungi belonging to the genera Aspergillus, Neurospora, Rhizomucor, Trichoderma, and Penicillium and which exhibits a catechol oxidase activity, an oxidation step for converting, into the melanin precursor, a tyrosine or derivative thereof used as a starting substance by using an enzyme or cell that is derived from a fungus selected from the group consisting of fungi belonging to the genera Aspergillus, Neurospora, Rhizomucor, Trichoderma, and Penicillium and which exhibits a catechol oxidase activity, wherein the tyrosine or derivative thereof is: D-tyrosine and L-tyrosine, D-DOPA and L-DOPA, Dopamine, C1-4 alkyl esters of tyrosines, C1-4 alkyl esters of DOPAs, and N-alkoxylated or N-alkylated DOPAs, and tyrosines, or isomers of any of these compounds; and a step to remove the enzyme or cell. D-tyrosine and L-tyrosine, D-DOPA and L-DOPA, Dopamine, C1-4 alkyl esters of tyrosines, C1-4 alkyl esters of DOPAs, and N-alkoxylated or N-alkylated DOPAs, and tyrosines, or isomers of any of these compounds; and a step to remove the enzyme or cell.
An optical measurement device, comprising: a sample holder defining a sample plane, wherein the sample holder is configured to arrange a sample carrier including an array of measurement positions in the sample plane; an illumination unit (2a; 2b) configured to illuminate the sample plane; a detector; an optical imaging system configured to image the sample plane including the array of measurement positions onto the detector, wherein the optical imaging system includes two or more curved reflective elements (31; 32) adapted to image the sample plane onto the detector with a magnification of between 2:1 and 1:2, and wherein the detector is configured to take an image of all measurement positions of the array of measurement positions at a time, characterized in that: the illumination unit is configured as trans-illumination unit. a sample holder defining a sample plane, wherein the sample holder is configured to arrange a sample carrier including an array of measurement positions in the sample plane; an illumination unit (2a; 2b) configured to illuminate the sample plane; a detector; an optical imaging system configured to image the sample plane including the array of measurement positions onto the detector, wherein the optical imaging system includes two or more curved reflective elements (31; 32) adapted to image the sample plane onto the detector with a magnification of between 2:1 and 1:2, and wherein the detector is configured to take an image of all measurement positions of the array of measurement positions at a time, characterized in that: the illumination unit is configured as trans-illumination unit.
A wiper movement detecting device comprising: an optical sensor that is installed to face a glass surface in a vehicle and detect illuminance in an area of the glass surface where the wiper that reciprocates along the glass surface passes through; and a movement detecting unit configured to detect a reduction time in which the illuminance detected by the optical sensor temporarily reduces due to the passing of the wiper, characterised by the movement detecting unit determining the movement of the wiper from an interval cycle based upon an interval between the reduction times. an optical sensor that is installed to face a glass surface in a vehicle and detect illuminance in an area of the glass surface where the wiper that reciprocates along the glass surface passes through; and a movement detecting unit configured to detect a reduction time in which the illuminance detected by the optical sensor temporarily reduces due to the passing of the wiper, characterised by the movement detecting unit determining the movement of the wiper from an interval cycle based upon an interval between the reduction times.
A method for processing a packet in a virtual network device, the virtual network device comprising first and second packet forwarding network devices (122, 122) interconnected via a virtual network device link and configured to operate as a single virtual packet forwarding network device, the method comprising: receiving a packet at the second network device from the first network device via the virtual network device link, the packet comprising a unicast destination address and a source address; and performing an egress lookup for the packet in a lookup table on a first line card of the second network device in response to receiving the packet, wherein performing the egress lookup comprises allocating a non-primary entry indicating that packets addressed to the source address should be forwarded to the first network device via the virtual network device link. receiving a packet at the second network device from the first network device via the virtual network device link, the packet comprising a unicast destination address and a source address; and performing an egress lookup for the packet in a lookup table on a first line card of the second network device in response to receiving the packet, wherein performing the egress lookup comprises allocating a non-primary entry indicating that packets addressed to the source address should be forwarded to the first network device via the virtual network device link.
A chamber for encapsulating secreting cells producing at least one substance of therapeutic interest, comprising a closed shell made of a semi-permeable membrane, delimiting a space capable of containing said secreting cells producing at least one substance of therapeutic interest, characterized in that said membrane comprises a layer of biocompatible non-woven polymer located between two layers of porous biocompatible polymers.
A system for recycling fluidized bed boiler bed material, comprising: a. a bottom ash removal device for removing bed material from a fluidized bed boiler, b. a mechanical classifier comprising a mesh size from 200 to 1,000 μm designed to separate a coarse and a fine particle size fraction, c. a magnetic separator designed to magnetically classify the fine particle fraction from the mechanical classifier, d. a device for recirculating the magnetic particle fraction into the boiler. a. a bottom ash removal device for removing bed material from a fluidized bed boiler, b. a mechanical classifier comprising a mesh size from 200 to 1,000 μm designed to separate a coarse and a fine particle size fraction, c. a magnetic separator designed to magnetically classify the fine particle fraction from the mechanical classifier, d. a device for recirculating the magnetic particle fraction into the boiler.
An assembly for applying therapy by pressure to a patient as a function of a patient condition, the assembly comprising: a pressure apparatus configured to be applied to a surface of the body of a patient; means for securing (208, 210, 212, 270) the pressure apparatus to the surface of the patient's body; a patient condition sensor (100, 100A, 100B, 100C, 100D) including at least one of an accelerometer, magnetometer, gyroscope, inclination sensor, tilt sensor, goniometer, or flex sensor configured to be placed on the patient's body for providing information for a condition of the patient's body; and an input element configured to receive the information from the patient condition sensor about the condition of the patient; characterized by: comprising a controller (116, 118) configured to evaluate a change in an estimated internal hydrostatic pressure arising from a change in the condition of the patient and to apply and/or change a pressure or compression therapy as a function of a patient's internal hydrostatic pressure. a pressure apparatus configured to be applied to a surface of the body of a patient; means for securing (208, 210, 212, 270) the pressure apparatus to the surface of the patient's body; a patient condition sensor (100, 100A, 100B, 100C, 100D) including at least one of an accelerometer, magnetometer, gyroscope, inclination sensor, tilt sensor, goniometer, or flex sensor configured to be placed on the patient's body for providing information for a condition of the patient's body; and an input element configured to receive the information from the patient condition sensor about the condition of the patient; characterized by: comprising a controller (116, 118) configured to evaluate a change in an estimated internal hydrostatic pressure arising from a change in the condition of the patient and to apply and/or change a pressure or compression therapy as a function of a patient's internal hydrostatic pressure.
An apparatus (120, 320, 410) comprising at least one processor and at least one memory including computer program code, the at least one memory and the computer program code being configured to, with the at least one processor, cause the apparatus to at least: determine at least one reference value configured to evaluate at least one beam change condition based on at least one measurement; determine (113, 209, 315), for evaluation of fulfillment of the at least one beam change condition, whether at least one beam has changed based on the at least one reference value; upon determining that at least one timer T has expired, determine that the at least one beam change condition has been fulfilled; and determine, based at least on fulfilment of the at least one beam change condition, whether at least one condition for adapting (115, 317) radio resource management measurements is fulfilled. determine at least one reference value configured to evaluate at least one beam change condition based on at least one measurement; determine (113, 209, 315), for evaluation of fulfillment of the at least one beam change condition, whether at least one beam has changed based on the at least one reference value; upon determining that at least one timer T has expired, determine that the at least one beam change condition has been fulfilled; and determine, based at least on fulfilment of the at least one beam change condition, whether at least one condition for adapting (115, 317) radio resource management measurements is fulfilled.
A method for producing a composite material for positive electrodes of lithium batteries containing a positive electrode active material and a conductive material, the method comprising: a dispersing step of dispersing at least the positive electrode active material and the conductive material 1 in a solvent to be in a forcibly dispersed state; wherein the positive electrode material includes Li-Mn-based composite oxides, Li-Co-based composite oxides, Li-Ni-based composite oxides, Li-Fe-based composite oxides, MnO 2, α-V 2 O 5, or TiS 2 and a subsequent composite particle-forming step of obtaining composite particles containing the positive electrode active material and the conductive material 1 by a process of leaving the materials to allow autoagglutination of the conductive material 1 together with the positive electrode active material in the solvent or by a process for removing the solvent, wherein the conductive material 1 comprises carbon black, fibrous carbon or carbon nanotube, and wherein the composite particle-forming step removes the solvent from a slurry obtained in the dispersing step to obtain the composite particles containing the positive electrode active material and the conductive material 1, and the method further comprises a mixing step of mixing at least the composite particles and a conductive material 2, being carbon black having an aspect ratio of 2 to 10 after the composite particle-forming step. a dispersing step of dispersing at least the positive electrode active material and the conductive material 1 in a solvent to be in a forcibly dispersed state; wherein the positive electrode material includes Li-Mn-based composite oxides, Li-Co-based composite oxides, Li-Ni-based composite oxides, Li-Fe-based composite oxides, MnO 2, α-V 2 O 5, or TiS 2 and a subsequent composite particle-forming step of obtaining composite particles containing the positive electrode active material and the conductive material 1 by a process of leaving the materials to allow autoagglutination of the conductive material 1 together with the positive electrode active material in the solvent or by a process for removing the solvent, wherein the conductive material 1 comprises carbon black, fibrous carbon or carbon nanotube, and wherein the composite particle-forming step removes the solvent from a slurry obtained in the dispersing step to obtain the composite particles containing the positive electrode active material and the conductive material 1, and the method further comprises a mixing step of mixing at least the composite particles and a conductive material 2, being carbon black having an aspect ratio of 2 to 10 after the composite particle-forming step.
Method for generating a resonance signal indicating the presence of a ferroresonant oscillation in an electrical system, in which - digital voltage measured values which indicate a voltage present at a measurement point of the electrical system are captured; - the sequence of digital voltage measured values is examined for the presence of a ferroresonant oscillation in the electrical system and the resonance signal is generated if a ferroresonant oscillation is present; and - the digital voltage measured values are filtered using a digital filter so as to form filtered voltage measured values; characterized in that - with respect to such filtered voltage measured values which describe half an oscillation period of the voltage, an amplitude value indicating the amplitude of the voltage during this half an oscillation period is determined; - the amplitude value is compared with a threshold value; and - the resonance signal is generated if the amplitude value exceeds the threshold value. - digital voltage measured values which indicate a voltage present at a measurement point of the electrical system are captured; - the sequence of digital voltage measured values is examined for the presence of a ferroresonant oscillation in the electrical system and the resonance signal is generated if a ferroresonant oscillation is present; and - the digital voltage measured values are filtered using a digital filter so as to form filtered voltage measured values; characterized in that - with respect to such filtered voltage measured values which describe half an oscillation period of the voltage, an amplitude value indicating the amplitude of the voltage during this half an oscillation period is determined; - the amplitude value is compared with a threshold value; and - the resonance signal is generated if the amplitude value exceeds the threshold value.
A geared drive assembly comprising: a driven gear; first and second driving gears for driving the driven gear in opposite directions, each driving gear (14, 30) comprising a toothed pulley wheel (24, 32) rigidly and coaxially connected to the respective driving gear; a rotary actuator; and a toothed pulley belt, whose teeth are complimentary with the teeth of the toothed pulley wheels (24, 32), which connects the toothed pulley wheels (24, 32) to the rotary actuator via a further toothed pulley wheel of the rotary actuator, characterised by: parts of the toothed pulley belt between the further pulley wheel of the rotary actuator and the toothed pulley wheels (24, 32) being tensioned so as to bias, in opposite directions, the teeth of the driving gears (14, 30) into engagement with the teeth of the driven gear, and by a part of the toothed pulley belt between the driving gears (14, 30) being slack so as to not disengage the teeth of the driving gears (14, 30) from the teeth of the driven gear. a driven gear; first and second driving gears for driving the driven gear in opposite directions, each driving gear (14, 30) comprising a toothed pulley wheel (24, 32) rigidly and coaxially connected to the respective driving gear; a rotary actuator; and a toothed pulley belt, whose teeth are complimentary with the teeth of the toothed pulley wheels (24, 32), which connects the toothed pulley wheels (24, 32) to the rotary actuator via a further toothed pulley wheel of the rotary actuator, characterised by: parts of the toothed pulley belt between the further pulley wheel of the rotary actuator and the toothed pulley wheels (24, 32) being tensioned so as to bias, in opposite directions, the teeth of the driving gears (14, 30) into engagement with the teeth of the driven gear, and by a part of the toothed pulley belt between the driving gears (14, 30) being slack so as to not disengage the teeth of the driving gears (14, 30) from the teeth of the driven gear. parts of the toothed pulley belt between the further pulley wheel of the rotary actuator and the toothed pulley wheels (24, 32) being tensioned so as to bias, in opposite directions, the teeth of the driving gears (14, 30) into engagement with the teeth of the driven gear, and by a part of the toothed pulley belt between the driving gears (14, 30) being slack so as to not disengage the teeth of the driving gears (14, 30) from the teeth of the driven gear.