mhurhangee/ep-ind-claims huggingface dataset:
A dynamic damper device (1; 201; 301) comprising: a planetary gear mechanism including a plurality of differentially rotatable rotating elements; an elastic member that couples a rotating shaft rotated by being transmitted with a power with a first rotating element of the planetary gear mechanism; and a rotation control device (40; 240; 340) that is coupled with a rotating element different from the first rotating element of the planetary gear mechanism and controls a rotation of the planetary gear mechanism by adjusting torque acting on the first rotating element, the rotation control device (40; 240; 340) including a speed control device that is coupled with a second rotating element different from the first rotating element of the planetary gear mechanism and controls a rotation speed of the second rotating element, and the rotation control device (40; 240; 340) including a torque control device that is coupled with a third rotating element different from the first rotating element and the second rotating element of the planetary gear mechanism and controls torque acting on the third rotating element, characterized in that when a torque change of the rotating shaft is less than a predetermined change, the vibration damping control is executed by a speed control of the speed control device, and when a torque change of the rotating shaft is equal to or more than a predetermined change, the vibration damping control is executed by a torque control of the torque control device. a planetary gear mechanism including a plurality of differentially rotatable rotating elements; an elastic member that couples a rotating shaft rotated by being transmitted with a power with a first rotating element of the planetary gear mechanism; and a rotation control device (40; 240; 340) that is coupled with a rotating element different from the first rotating element of the planetary gear mechanism and controls a rotation of the planetary gear mechanism by adjusting torque acting on the first rotating element, the rotation control device (40; 240; 340) including a speed control device that is coupled with a second rotating element different from the first rotating element of the planetary gear mechanism and controls a rotation speed of the second rotating element, and the rotation control device (40; 240; 340) including a torque control device that is coupled with a third rotating element different from the first rotating element and the second rotating element of the planetary gear mechanism and controls torque acting on the third rotating element, characterized in that when a torque change of the rotating shaft is less than a predetermined change, the vibration damping control is executed by a speed control of the speed control device, and when a torque change of the rotating shaft is equal to or more than a predetermined change, the vibration damping control is executed by a torque control of the torque control device.
Medicament container in combination with a compression means, the medicament container comprising a bag (2.1) with an outlet (2.2), the bag (2.1) being compressible by said compression means, characterized in that the bag (2.1) skin is made of a material which is essentially inflexible and is arranged for turning flexible in an area subjected to said compression means in order to avoid temporary expansion of the bag (2.1) in the areas not subjected to the compression means due to the increased internal pressure during bag (2.1) compression.
An electronic endoscope comprising: a distal end portion of an insertion portion which incorporates an image pickup unit; a first metal frame which holds an observation window provided in front of the image pickup unit; a second metal frame (33, 35) which holds an objective optical system (32, 34) of the image pickup unit; a third metal frame which is made to fit with a rear portion of the second metal frame (33, 35) and holds an electronic component (42, 43, 45, 46) of the image pickup unit; an anti-fogging unit which prevents fogging of the observation window; and a non-metal thermal insulation member which thermally insulates the anti-fogging unit and the second metal frame (33, 35) from each other to inhibit transmission of heat generated in the anti-fogging unit to the third metal frame, characterized in that an outer circumferential face of the thermal insulation member is in surface contact with and adhered to an inner circumferential face of the first metal frame, and an inner circumferential face of the thermal insulation member is in surface contact with and adhered to an outer circumferential face of the second metal frame (33, 35), wherein a groove portion, in which a flexible printed board of the anti-fogging unit is arranged, is formed in an outer circumferential portion of the thermal insulation member, and the flexible printed board is fastened to the groove portion with adhesive for dampproofing. a distal end portion of an insertion portion which incorporates an image pickup unit; a first metal frame which holds an observation window provided in front of the image pickup unit; a second metal frame (33, 35) which holds an objective optical system (32, 34) of the image pickup unit; a third metal frame which is made to fit with a rear portion of the second metal frame (33, 35) and holds an electronic component (42, 43, 45, 46) of the image pickup unit; an anti-fogging unit which prevents fogging of the observation window; and a non-metal thermal insulation member which thermally insulates the anti-fogging unit and the second metal frame (33, 35) from each other to inhibit transmission of heat generated in the anti-fogging unit to the third metal frame, characterized in that an outer circumferential face of the thermal insulation member is in surface contact with and adhered to an inner circumferential face of the first metal frame, and an inner circumferential face of the thermal insulation member is in surface contact with and adhered to an outer circumferential face of the second metal frame (33, 35), wherein a groove portion, in which a flexible printed board of the anti-fogging unit is arranged, is formed in an outer circumferential portion of the thermal insulation member, and the flexible printed board is fastened to the groove portion with adhesive for dampproofing.
Myo-inositol and probiotics for use in the prevention of excess body weight of an infant, wherein said myo-inositol and probiotics are administered simultaneously, separately or sequentially to said infant in-utero and optionally also after birth wherein, said probiotics comprises a combination of Lactobacillus and Bifidobacterium, and wherein the Lactobacillus is the Lactobacillus rhamnosus GG strain available under the deposit number CGMCC 1.3724, and the Bifidobacterium is the Bifidobacterium lactis BB12 strain deposited as CNCM 1-3446.
A method of operating a wind turbine including a rotor having at least one blade, comprising: sensing an icing hazard for the at least one blade; and moving the at least one blade into a position to reduce the icing hazard; wherein the moving step further comprises yawing the rotor substantially into a sun direction; and wherein the moving step comprises yawing the rotor substantially perpendicular to a wind direction; and wherein the moving step further comprises pitching the at least one blade about 180 degrees, so that each side of the at least one blade receives a certain amount of time facing the sun depending on the temperature, time of day, and/or icing hazard conditions. sensing an icing hazard for the at least one blade; and moving the at least one blade into a position to reduce the icing hazard; wherein the moving step further comprises yawing the rotor substantially into a sun direction; and wherein the moving step comprises yawing the rotor substantially perpendicular to a wind direction; and wherein the moving step further comprises pitching the at least one blade about 180 degrees, so that each side of the at least one blade receives a certain amount of time facing the sun depending on the temperature, time of day, and/or icing hazard conditions.
A pharmaceutical formulation comprising: an oil, wherein the oil is predominantly medium chain fatty acid mono- and di-glycerides, wherein the medium chain fatty acids are predominantly C6-C12 fatty acids; solubilized estradiol; progesterone, wherein the progesterone is fully solubilized or partially solubilized; and a non-ionic surfactant; wherein the pharmaceutical formulation comprises: 55 to 75 wt% of the oil; 0.1 to 0.4 wt% estradiol; 30 to 35 wt% progesterone; and 0.5 to 10 wt% of the non-ionic surfactant. an oil, wherein the oil is predominantly medium chain fatty acid mono- and di-glycerides, wherein the medium chain fatty acids are predominantly C6-C12 fatty acids; solubilized estradiol; progesterone, wherein the progesterone is fully solubilized or partially solubilized; and a non-ionic surfactant; wherein the pharmaceutical formulation comprises: 55 to 75 wt% of the oil; 0.1 to 0.4 wt% estradiol; 30 to 35 wt% progesterone; and 0.5 to 10 wt% of the non-ionic surfactant. 0.1 to 0.4 wt% estradiol; 30 to 35 wt% progesterone; and 0.5 to 10 wt% of the non-ionic surfactant.
An exhaust purification system for an internal combustion engine, comprising: a particulate filter configured to be provided in an engine exhaust passage; a selective reduction catalyst configured to be provided in the engine exhaust passage at a downstream side from said particulate filter in a direction of exhaust flow; an ammonia ingredient feed device for feeding an ammonia ingredient to said selective reduction catalyst; a control device for controlling the amount of feed of ammonia ingredient from said ammonia ingredient feed device so that the amount of the ammonia ingredient which is adsorbed at said selective reduction catalyst becomes a target adsorption amount; and a filter regeneration system (27,33,34) configured so as to perform filter regeneration processing to remove particulate matter which has built up on said particulate filter, the exhaust purification system being characterized in that the filter regeneration system is configured so that, when removal of particulate matter which has built up on said particulate filter is demanded, so long as the execution start condition of the filter regeneration processing by said filter regeneration system does not stand, said target adsorption amount is decreased a plurality of times in stages, said execution start condition of the filter regeneration processing is changed to a different condition at each stage of said target adsorption amount, and said filter regeneration processing is performed when the execution start condition of the filter regeneration processing stands. a particulate filter configured to be provided in an engine exhaust passage; a selective reduction catalyst configured to be provided in the engine exhaust passage at a downstream side from said particulate filter in a direction of exhaust flow; an ammonia ingredient feed device for feeding an ammonia ingredient to said selective reduction catalyst; a control device for controlling the amount of feed of ammonia ingredient from said ammonia ingredient feed device so that the amount of the ammonia ingredient which is adsorbed at said selective reduction catalyst becomes a target adsorption amount; and a filter regeneration system (27,33,34) configured so as to perform filter regeneration processing to remove particulate matter which has built up on said particulate filter, the exhaust purification system being characterized in that the filter regeneration system is configured so that, when removal of particulate matter which has built up on said particulate filter is demanded, so long as the execution start condition of the filter regeneration processing by said filter regeneration system does not stand, said target adsorption amount is decreased a plurality of times in stages, said execution start condition of the filter regeneration processing is changed to a different condition at each stage of said target adsorption amount, and said filter regeneration processing is performed when the execution start condition of the filter regeneration processing stands.
A method for separating solid particles from a liquid mixture in a centrifugal separator, wherein said separator comprises a rotor body which is rotatable around an axis of rotation, the rotor body having a separation chamber for separating solid particles from the liquid mixture and an inlet (13, 15) for the liquid mixture and a screw conveyor adapted to rotate in the rotor body around the axis of rotation for transporting the separated solid particles in the separation chamber towards and out of a sludge outlet, said method comprising the steps of a) operating said separator in a separation phase, in which solid particles are separated from said liquid mixture, and b) operating said separator in an ejection phase, in which separated solid particles are transported towards said sludge outlet and further ejected out of said sludge outlet, wherein an ejection liquid is introduced in said separation chamber during said ejection phase via the inlet for the liquid mixture that is to be separated, and wherein the method further comprises rotating the rotor body at a first speed during said separation phase and at a second speed, which is lower than the first speed, during said ejection phase, and rotating the screw conveyor at a different speed than the rotor body during step b) and increasing the differential speed between the screw conveyor and the rotor body in step b) compared to step a) whereby the sludge will be discharged at an increased rate. a) operating said separator in a separation phase, in which solid particles are separated from said liquid mixture, and b) operating said separator in an ejection phase, in which separated solid particles are transported towards said sludge outlet and further ejected out of said sludge outlet, wherein an ejection liquid is introduced in said separation chamber during said ejection phase via the inlet for the liquid mixture that is to be separated, and wherein the method further comprises rotating the rotor body at a first speed during said separation phase and at a second speed, which is lower than the first speed, during said ejection phase, and rotating the screw conveyor at a different speed than the rotor body during step b) and increasing the differential speed between the screw conveyor and the rotor body in step b) compared to step a) whereby the sludge will be discharged at an increased rate.
A blade comprising a blade body and a blade de-icer located on the leading edge of the blade body, wherein the blade de-icer comprises: a first heater part bonded to an external surface of a face side of the blade body; and a separate second heater part bonded to an external surface of a camber side of the blade body, wherein each heater part (26, 28) comprises an electrical heating element arranged therein sandwiched between an inner layer and an outer layer of the heater part (26, 28), characterised in that the first and second heater parts (26, 28) each have an electrical input terminal and an output terminal at a base end of the respective first and second heater parts (26, 28), wherein each of the first and second heater parts (26, 28) comprises a flange at its base end, the flange being angled, for example at an angle of 90°, relative to a longitudinal axis of the heater part (26, 28) whereby the flange is configured to overlie a radially inwardly facing surface formed at a root end of the blade body. a first heater part bonded to an external surface of a face side of the blade body; and a separate second heater part bonded to an external surface of a camber side of the blade body, wherein each heater part (26, 28) comprises an electrical heating element arranged therein sandwiched between an inner layer and an outer layer of the heater part (26, 28), characterised in that the first and second heater parts (26, 28) each have an electrical input terminal and an output terminal at a base end of the respective first and second heater parts (26, 28), wherein each of the first and second heater parts (26, 28) comprises a flange at its base end, the flange being angled, for example at an angle of 90°, relative to a longitudinal axis of the heater part (26, 28) whereby the flange is configured to overlie a radially inwardly facing surface formed at a root end of the blade body.
A herbicidal composition comprising a herbicidally effective amount of (a) (±)-2-exo-(2-Methylbenzyloxy)-1-methyl-4-isopropyl-7-oxabicyclo[2.2.1]heptane, any of its individual enantiomers or any non-racemic mixture thereof (herbicide A) and (b) at least one photosystem II inhibitor (PS II inhibitor) selected from the group consisting of terbuthylazine (B.2), chlorotoluron (B.3), and isoproturon (B.4) (herbicide B).
A low-molecular gum ghatti having a weight average molecular weight within the range of 0.040×10 6 to 0.60×10 6 and a molecular weight distribution, which is a ratio of a weight average molecular weight to a number average molecular weight, within the range of 1.1 to 13, the weight average molecular weight and the molecular weight distribution being determined by the method indicated in the section "Method for Measuring Molecular Weight and Molecular Weight Distribution" of the description. a weight average molecular weight within the range of 0.040×10 6 to 0.60×10 6 and a molecular weight distribution, which is a ratio of a weight average molecular weight to a number average molecular weight, within the range of 1.1 to 13, the weight average molecular weight and the molecular weight distribution being determined by the method indicated in the section "Method for Measuring Molecular Weight and Molecular Weight Distribution" of the description.
Rotary dynamo-electric machine with an electrically excited rotor whose axial extension comprises a slip ring unit rotating about the same axis as the rotor, wherein the slip ring unit for the electrically excited rotor of the rotary dynamo-electric machine, said slip ring unit being rotatable about the axis and having at least one circumferential slip contact surface which is connected in an electrically conductive manner to at least one electrical terminal protruding axially from an end face of the slip ring unit, wherein an electrical connection between a winding system of the rotor and the slip ring unit takes place via wire conductors, which are electrically connected to the terminal, wherein an end face of the slip ring unit is equipped with an electrically insulated support element which substantially matches the cross section of the slip ring unit while axially surrounding and radially supporting the terminal, wherein the slip ring unit, comprising an axial series of insulation elements and slip contact surfaces that are axially retained by end plates (25,26), axially adjoins the support element, wherein the support element is designed as an integral support ring.
Cosmetic oil-in-water emulsion (O/W emulsion) comprising polyglyceryl-4 diisostearate/polyhydroxystearate/ sebacate in an amount of 0.05% to 5% by weight, based on the total weight of the preparation, where the preparation is free of 2-ethylhexyl 2-cyano-3,3-diphenylacrylate; 2-ethylhexyl 4- methoxycinnamate; isoamyl 4-methoxycinnamate; 2-hydroxy-4-methoxybenzophenone; 2-hydroxy-4-methoxy-4'-methylbenzophenone; 3-(4-methylbenzylidene)-camphor and 3-benzylidenecamphor, propyl- and butyl-parabens, isothiazolinones, imidazolidinyl urea and 3-iodopropargyl N-butylcarbamat (IPBC).
A medical ablation device cooling system, comprising: an outlet tube configured to be coupled to an outlet fluid port of an ablation probe and an inlet tube configured to be coupled to an inlet fluid port of the ablation probe; a reservoir containing a cooling fluid and configured to be coupled to the ablation probe via the outlet and inlet tubes; and characterised in that the reservoir includes a thermochromic material which is thermally coupled to the cooling fluid of the reservoir, wherein the thermochromic material is configured to exhibit a first color when the cooling fluid is below a threshold temperature, and a second color when the cooling fluid is above the threshold temperature. an outlet tube configured to be coupled to an outlet fluid port of an ablation probe and an inlet tube configured to be coupled to an inlet fluid port of the ablation probe; a reservoir containing a cooling fluid and configured to be coupled to the ablation probe via the outlet and inlet tubes; and characterised in that the reservoir includes a thermochromic material which is thermally coupled to the cooling fluid of the reservoir, wherein the thermochromic material is configured to exhibit a first color when the cooling fluid is below a threshold temperature, and a second color when the cooling fluid is above the threshold temperature.
An audio system comprising: a receiver for receiving an input audio signal; a decomposer for at least partially decomposing the input audio signal into at least a transient component signal and a non-transient component signal; and a first circuit (105, 107, 109) for generating a first output audio signal in response to a weighted combination of the transient component signal and the non-transient component signal, wherein a weighting of the transient component signal is different than a weighting of the non-transient component signal, said audio system characterized by the input audio signal being a signal of a first spatial audio channel, and the first output signal being a signal of a second spatial audio channel associated with a nominal position that is different than the nominal position of the first spatial audio channel, wherein the nominal position is a position from which a spatial audio channel is rendered. a receiver for receiving an input audio signal; a decomposer for at least partially decomposing the input audio signal into at least a transient component signal and a non-transient component signal; and a first circuit (105, 107, 109) for generating a first output audio signal in response to a weighted combination of the transient component signal and the non-transient component signal, wherein a weighting of the transient component signal is different than a weighting of the non-transient component signal, said audio system characterized by the input audio signal being a signal of a first spatial audio channel, and the first output signal being a signal of a second spatial audio channel associated with a nominal position that is different than the nominal position of the first spatial audio channel, wherein the nominal position is a position from which a spatial audio channel is rendered.
A method for use in a wireless device, for receiving one or more synchronization sequences of a synchronization signal, transmitted in a beam sweep, the method comprising: - monitoring a spectrum for synchronisation sequences; and when a first synchronisation sequence is detected then: - obtaining, by analysing the content of the detected first synchronisation sequence, a timing indication defining a time of an event, wherein the timing indication corresponds to a synchronization signal index whereby the synchronization signal index enables determination of the time of an event in the receiving wireless device, wherein the time of an event comprises the time of a random access window where the wireless device is allowed to transmit an uplink, UL, signal.. - monitoring a spectrum for synchronisation sequences; and when a first synchronisation sequence is detected then: - obtaining, by analysing the content of the detected first synchronisation sequence, a timing indication defining a time of an event, wherein the timing indication corresponds to a synchronization signal index whereby the synchronization signal index enables determination of the time of an event in the receiving wireless device, wherein the time of an event comprises the time of a random access window where the wireless device is allowed to transmit an uplink, UL, signal..