mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid supply apparatus comprising: a compressed air supply source to compress air; a pressurizing tank to be supplied with the compressed air from the compressed air supply source and accumulate liquid pressurized by the compressed air; a feeder to feed the liquid accumulated in the pressurizing tank to a liquid flow path ; a discharge head including an internal flow path through which the liquid fed from the liquid flow path flows, the discharge head having a nozzle to discharge the liquid from the internal flow path; a mitigation device (131, 131-2, 131-3) installed on the liquid flow path at a position downstream from the pressurizing tank and upstream from the discharge head , the mitigation device (131, 131-2, 131-3) to absorb a fluctuation in pressure of the liquid flowing through the liquid flow path , wherein the mitigation device is a piston pressing mechanism which includes an accumulator, a subtank, or a shock absorber; and a circulation path in which the feeder circulates the liquid in the liquid flow path in an order of the pressurizing tank , the mitigation device, the discharge head , and the pressurizing tank , characterized in that the feeder is a pump that is installed on the liquid flow path at a position downstream from the pressurizing tank and upstream from the mitigation device, to pressure-feed the liquid in the pressurizing tank toward the mitigation device and to the liquid flow path . a compressed air supply source to compress air; a pressurizing tank to be supplied with the compressed air from the compressed air supply source and accumulate liquid pressurized by the compressed air; a feeder to feed the liquid accumulated in the pressurizing tank to a liquid flow path ; a discharge head including an internal flow path through which the liquid fed from the liquid flow path flows, the discharge head having a nozzle to discharge the liquid from the internal flow path; a mitigation device (131, 131-2, 131-3) installed on the liquid flow path at a position downstream from the pressurizing tank and upstream from the discharge head , the mitigation device (131, 131-2, 131-3) to absorb a fluctuation in pressure of the liquid flowing through the liquid flow path , wherein the mitigation device is a piston pressing mechanism which includes an accumulator, a subtank, or a shock absorber; and a circulation path in which the feeder circulates the liquid in the liquid flow path in an order of the pressurizing tank , the mitigation device, the discharge head , and the pressurizing tank , characterized in that the feeder is a pump that is installed on the liquid flow path at a position downstream from the pressurizing tank and upstream from the mitigation device, to pressure-feed the liquid in the pressurizing tank toward the mitigation device and to the liquid flow path .
A gas turbine engine , comprising: a compressor ; a turbine comprising radial inflow impellor blades ; and an array of transition combustor assemblies arranged circumferentially adjacent about the radial inflow impellor blades and comprising inner surfaces that are adjacent to combustion gases , wherein the inner surfaces of the array are configured to accelerate and orient, for delivery directly onto the radial inflow impellor blades , a plurality of discrete flows of the combustion gases ; wherein the array inner surfaces define respective combustion gas flow axes , wherein each combustion gas flow axis is straight from a point of ignition until no longer bound by the array inner surfaces , and wherein each combustion gas flow axis intersects a unique location on a circumference defined by a sweep of the radial inflow impellor blades . a compressor ; a turbine comprising radial inflow impellor blades ; and an array of transition combustor assemblies arranged circumferentially adjacent about the radial inflow impellor blades and comprising inner surfaces that are adjacent to combustion gases , wherein the inner surfaces of the array are configured to accelerate and orient, for delivery directly onto the radial inflow impellor blades , a plurality of discrete flows of the combustion gases ; wherein the array inner surfaces define respective combustion gas flow axes , wherein each combustion gas flow axis is straight from a point of ignition until no longer bound by the array inner surfaces , and wherein each combustion gas flow axis intersects a unique location on a circumference defined by a sweep of the radial inflow impellor blades .
A method for producing a biodegradable non-woven fabric, comprising the steps of: (a) forming a fibrous web comprising biodegradable fibers, wherein the biodegradable fibers have an average fiber length of from 15 to 60 mm; (b) entangling at least a part of the biodegradable fibers with each other such that individual biodegradable fibers are in contact with each other at entangling points by subjecting the fibrous web to a water-jet treatment or needle punching; (c) applying a biodegradable binder in the form of a solution or a dispersion to the entangled fibrous web without fully soaking the web such that at least a part of the entangling points of the entangled fibrous web are enriched with the biodegradable binder; and (d) drying the entangled fibrous web, wherein the drying comprises through-air drying, wherein the term "biodegradable" means that the material concerned complies with the requirements for industrial compostability in accordance with EN 13432. (a) forming a fibrous web comprising biodegradable fibers, wherein the biodegradable fibers have an average fiber length of from 15 to 60 mm; (b) entangling at least a part of the biodegradable fibers with each other such that individual biodegradable fibers are in contact with each other at entangling points by subjecting the fibrous web to a water-jet treatment or needle punching; (c) applying a biodegradable binder in the form of a solution or a dispersion to the entangled fibrous web without fully soaking the web such that at least a part of the entangling points of the entangled fibrous web are enriched with the biodegradable binder; and (d) drying the entangled fibrous web, wherein the drying comprises through-air drying,
Method of forming a thin film of molecular organic semiconductor material (OSCM) for integration into a device for applications in electronics or optoelectronics, comprising the following steps: (a) providing a specified amount of the molecular OSCM in the form of a melt on the surface of a carrier so as to form a thin film, the molecular OSCM being at a temperature above its melting point; (b) cooling in accordance with a specified temperature profile in order to cause solidification of the thin film; characterised in that the temperature of the surface of the carrier is above or equal to the melting point of the molecular OSCM at the time at which step (a) is carried out, and in that the temperature profile of step (b) comprises: - a first part corresponding to controlled and sufficiently slow cooling of the molecular OSCM to a temperature close to the crystallisation temperature of the molecular OSCM in order to cause the appearance of only a single seed in the thin film in the molten state; and - a second part corresponding to controlled cooling so that at least one monocrystalline domain grows starting from that seed, the thin film finally obtained being monocrystalline. (a) providing a specified amount of the molecular OSCM in the form of a melt on the surface of a carrier so as to form a thin film, the molecular OSCM being at a temperature above its melting point; (b) cooling in accordance with a specified temperature profile in order to cause solidification of the thin film; - a first part corresponding to controlled and sufficiently slow cooling of the molecular OSCM to a temperature close to the crystallisation temperature of the molecular OSCM in order to cause the appearance of only a single seed in the thin film in the molten state; and - a second part corresponding to controlled cooling so that at least one monocrystalline domain grows starting from that seed, the thin film finally obtained being monocrystalline.
A washing machine comprising: a rotating tub configured to accommodate laundry; a water supply pipe configured to spray water over a surface of the laundry; and a controller , characterised in that the controller is configured to: execute an air discharge cycle to discharge air contained in the laundry, and when the air discharge cycle has terminated, execute a water supply cycle in which an operation of each of the rotating tub and the water supply pipe is controlled and water is supplied to the rotating tub for a wash cycle, and when the water supply cycle has terminated, execute the wash cycle in which the laundry is washed, wherein in the air discharge cycle the rotating tub is rotated faster than a rotational speed in the wash cycle such that air in the laundry is discharged before the controller starts the water supply cycle. a rotating tub configured to accommodate laundry; a water supply pipe configured to spray water over a surface of the laundry; and a controller , characterised in that the controller is configured to: execute an air discharge cycle to discharge air contained in the laundry, and when the air discharge cycle has terminated, execute a water supply cycle in which an operation of each of the rotating tub and the water supply pipe is controlled and water is supplied to the rotating tub for a wash cycle, and when the water supply cycle has terminated, execute the wash cycle in which the laundry is washed, execute an air discharge cycle to discharge air contained in the laundry, and when the air discharge cycle has terminated, execute a water supply cycle in which an operation of each of the rotating tub and the water supply pipe is controlled and water is supplied to the rotating tub for a wash cycle, and when the water supply cycle has terminated, execute the wash cycle in which the laundry is washed, wherein in the air discharge cycle the rotating tub is rotated faster than a rotational speed in the wash cycle such that air in the laundry is discharged before the controller starts the water supply cycle.
A method of determining fatigue load of at least one operative wind turbine based on an acceleration measurement, comprising the steps of: - providing a transfer function that associates an obtained at least one measured acceleration value of a first sensor which comprises an accelerometer to an obtained at least one measured strain value of a second sensor which comprises a strain gauge the at least one measured acceleration value of the first sensor and the at least one measured strain value of the second sensor being obtained by use of a reference wind turbine at which the first sensor and the second sensor are located - obtaining at least one measured acceleration value of a third sensor which comprises an accelerometer, wherein the third sensor is located at the at least one operative wind turbine, and wherein the third sensor corresponds in type and position to the first sensor at the reference wind turbine; - Calculating at least one transfer function value corresponding to the obtained at least one measurement value of the third sensor by use of the provided transfer function where the transfer function value is a value representing strain; - Calculating the fatigue load of the at least one operative wind turbine based on the calculated transfer function value representing strain. - providing a transfer function that associates an obtained at least one measured acceleration value of a first sensor which comprises an accelerometer to an obtained at least one measured strain value of a second sensor which comprises a strain gauge the at least one measured acceleration value of the first sensor and the at least one measured strain value of the second sensor being obtained by use of a reference wind turbine at which the first sensor and the second sensor are located - obtaining at least one measured acceleration value of a third sensor which comprises an accelerometer, wherein the third sensor is located at the at least one operative wind turbine, and wherein the third sensor corresponds in type and position to the first sensor at the reference wind turbine; - Calculating at least one transfer function value corresponding to the obtained at least one measurement value of the third sensor by use of the provided transfer function where the transfer function value is a value representing strain; - Calculating the fatigue load of the at least one operative wind turbine based on the calculated transfer function value representing strain.
Carding machine having an entry side for fibre tufts, which are fed to a rotating drum by means of rolls and are opened up to individual fibres, aligned and cleaned between fixed carding elements and revolving flat bars and the drum , and the fibre web created thereby is transferred from the drum to a doffer , downstream of which there is disposed at least one delivery unit for further processing or depositing the fibre web , wherein the delivery unit is formed as at least one conveyor belt , which removes the fibre web directly from the doffer , wherein the transfer of the fibre web from the doffer onto the at least one conveyor belt is assisted by induced suction, characterised in that the at least one conveyor belt is disposed to be drivable transversely to the direction of rotation of the doffer and at least a smaller upper part of the conveyor belt is of concave form and is adapted at least partially to the curvature of the doffer .
An aerosol provision device comprising: a housing delimiting an opening at one end, the opening being configured to receive aerosol generating material therein; a lid moveable from an open position where the opening is exposed, to a closed position where the opening is covered, via an intermediate position; and a spring , characterised in that : a first end of the spring is connected to the lid at a first pivot point and the first end is rotatable about the first pivot point as the lid moves between the open and closed positions; a second end of the spring is connected to the housing at a second pivot point and the second end is rotatable about the second pivot point as the lid moves between the open and closed positions; and wherein the spring is configured such that: the spring biases the lid towards the open position when the lid is between the open position and the intermediate position; and the spring biases the lid towards the closed position when the lid is between the intermediate position and the closed position. a housing delimiting an opening at one end, the opening being configured to receive aerosol generating material therein; a lid moveable from an open position where the opening is exposed, to a closed position where the opening is covered, via an intermediate position; and a spring , characterised in that : a first end of the spring is connected to the lid at a first pivot point and the first end is rotatable about the first pivot point as the lid moves between the open and closed positions; a second end of the spring is connected to the housing at a second pivot point and the second end is rotatable about the second pivot point as the lid moves between the open and closed positions; and wherein the spring is configured such that: the spring biases the lid towards the open position when the lid is between the open position and the intermediate position; and the spring biases the lid towards the closed position when the lid is between the intermediate position and the closed position. a first end of the spring is connected to the lid at a first pivot point and the first end is rotatable about the first pivot point as the lid moves between the open and closed positions; a second end of the spring is connected to the housing at a second pivot point and the second end is rotatable about the second pivot point as the lid moves between the open and closed positions; and wherein the spring is configured such that: the spring biases the lid towards the open position when the lid is between the open position and the intermediate position; and the spring biases the lid towards the closed position when the lid is between the intermediate position and the closed position.
A method for preparing a ferrite-based coating catalyst, the method comprising: mixing a support, a ferrite-based catalyst, and water in a coating machine which is a rotating body, wherein a weight ratio of the water based on a total weight of the support is 0.15 to 0.3, wherein the support comprises one or more of alumina, silica, cordierite, titania, zirconia, silicon nitride, and silicon carbide, and wherein the ferrite-based catalyst is represented by the following Formula 1: [Formula 1] AFe 2 O 4 in Formula 1, Ais Cu, Ra, Ba, Sr, Ca, Cu, Be, Zn, Mg, Mn, Co, or Ni. mixing a support, a ferrite-based catalyst, and water in a coating machine which is a rotating body, wherein a weight ratio of the water based on a total weight of the support is 0.15 to 0.3, wherein the support comprises one or more of alumina, silica, cordierite, titania, zirconia, silicon nitride, and silicon carbide, and
Optical and/or electronic device comprising a suspended, germanium-based membrane and comprising an active zone placed under tension by tensioning arms , said device being characterized in that it comprises at least three tensioning arms comprising nonparallel lateral sides , the width of which increases with distance from the active zone , and the lateral sides of which make an obtuse angle to the active zone at the junction between the tensioning arm and the active zone .
A method for preparing graphene by using a molten inorganic salt reaction bed, comprising the following steps: using phthalocyanine substance as a reaction raw material, well-mixing an inorganic salt with the phthalocyanine substance in an inorganic salt reaction bed, performing pyrolysis of the resulting mixture of phthalocyanine substance with the inorganic salt by using a temperature programmed method in an atmosphere furnace under a protective gas, and washing the obtained product with water to remove the inorganic salt and to obtain a highly planar-oriented graphene material. using phthalocyanine substance as a reaction raw material, well-mixing an inorganic salt with the phthalocyanine substance in an inorganic salt reaction bed, performing pyrolysis of the resulting mixture of phthalocyanine substance with the inorganic salt by using a temperature programmed method in an atmosphere furnace under a protective gas, and washing the obtained product with water to remove the inorganic salt and to obtain a highly planar-oriented graphene material.
A method for preparing a first component of a chewing gum, wherein the first component is an encapsulate composition, the method comprising: forming an extrudate of the first component; cooling said extrudate to a first temperature above a glass transition temperature of the first component; cutting said extrudate cooled to the first temperature into a plurality of substantially identical pieces ; and further cooling said plurality of substantially identical pieces to a second temperature, the first temperature being greater than the second temperature. forming an extrudate of the first component; cooling said extrudate to a first temperature above a glass transition temperature of the first component; cutting said extrudate cooled to the first temperature into a plurality of substantially identical pieces ; and further cooling said plurality of substantially identical pieces to a second temperature, the first temperature being greater than the second temperature.
A computer-implemented method for calculating blood pressure based on pulse return wave transmission time, comprising steps of: S1: collecting pulse waveform data at a fingertip by means of a pulse sensor and storing the pulse waveform data by a processor ; S2: processing said pulse waveform data, by the processor , to obtain a heart rate and parameters of a plurality of pulse periods, detecting time axis coordinates of a primary wave start point SPL1 of a pulse wave and a growth point SPL2 of a return wave in each of said pulse periods, and calculating a corresponding pulse return wave transmission time RWTT: RWTT = SPL2 - SPL1; S3: calculating, by the processor , the pulse return wave transmission time RWTT in each of said pulse periods to form a RWTT array; characterized in that the method further comprises the step of: S4: calculating, by the processor , systolic and diastolic pressures based on said RWTT array and the heart rate, wherein the step of calculating the systolic pressure comprises establishing a systolic pressure SYS formula according to said RWTT array SYS = K s ⋅ 266 ⋅ height 2 RWTT 2 , where K S is 1.2-1.8. S1: collecting pulse waveform data at a fingertip by means of a pulse sensor and storing the pulse waveform data by a processor ; S2: processing said pulse waveform data, by the processor , to obtain a heart rate and parameters of a plurality of pulse periods, detecting time axis coordinates of a primary wave start point SPL1 of a pulse wave and a growth point SPL2 of a return wave in each of said pulse periods, and calculating a corresponding pulse return wave transmission time RWTT: RWTT = SPL2 - SPL1; S3: calculating, by the processor , the pulse return wave transmission time RWTT in each of said pulse periods to form a RWTT array; S4: calculating, by the processor , systolic and diastolic pressures based on said RWTT array and the heart rate, wherein the step of calculating the systolic pressure comprises establishing a systolic pressure SYS formula according to said RWTT array SYS = K s ⋅ 266 ⋅ height 2 RWTT 2 , where K S is 1.2-1.8.
A teeth bleaching method comprising applying to the teeth to be bleached a layer of gel, wherein the gel comprises (percentages w/w are based on the weight of the final bleaching gel composition): hydrogen peroxide, wherein the amount of hydrogen peroxide is 1 to 35% w/w, or sodium perborate or sodium percarbonate as a peroxide releasing compound, wherein the amount of the peroxide releasing compound is 1 to 35% w/w; a cross-linked polyacrylate polymer, wherein the amount of cross-linked polyacrylate polymer is 1 to 5% w/w; an aqueous vehicle, wherein the amount of glycerine is 20 to 30% w/w; and/or wherein the amount of water is 25 to 50% w/w; and at least one gel electrical conductivity enhancing ingredient consisting of alkali nitrate in an amount of 1 to 5% w/w and/or alkali hydroxide in an amount of 1 to 5% w/w; applying to the teeth covered by the layer of gel with electrical conductivity higher than 250 microsiemens/cm electric current of at least 1 milliampere; and bleaching the teeth. hydrogen peroxide, wherein the amount of hydrogen peroxide is 1 to 35% w/w, or sodium perborate or sodium percarbonate as a peroxide releasing compound, wherein the amount of the peroxide releasing compound is 1 to 35% w/w; a cross-linked polyacrylate polymer, wherein the amount of cross-linked polyacrylate polymer is 1 to 5% w/w; an aqueous vehicle, wherein the amount of glycerine is 20 to 30% w/w; and/or wherein the amount of water is 25 to 50% w/w; and at least one gel electrical conductivity enhancing ingredient consisting of alkali nitrate in an amount of 1 to 5% w/w and/or alkali hydroxide in an amount of 1 to 5% w/w; applying to the teeth covered by the layer of gel with electrical conductivity higher than 250 microsiemens/cm electric current of at least 1 milliampere; and bleaching the teeth.