mhurhangee/ep-ind-claims huggingface dataset:
An air-conditioning apparatus, comprising a mounting device for the air-conditioning apparatus, the mounting device including: a mounting device main plate; an upper support piece disposed at an upper end of the mounting device main plate; and a lower support piece disposed at a lower end of the mounting device main plate, wherein the upper support piece includes: one upper end portion; right and left end portions including a right end portion and a left end portion, a first end of the right end portion and a first end of the left end portion being respectively contiguous to first and second ends of the upper end portion; and two base portions, a first end of one of the base portions and a first end of the other base portion being respectively contiguous to a second end of the right end portion and a second end of the left end portion, the base portions being each partially contiguous to an upper end of the mounting device main plate, and wherein the upper support piece has a two-ply structure that includes the upper end portion and that is folded double, characterized in that the two-ply structure of the upper support piece also includes the right and left end portions and the two base portions. a mounting device main plate; an upper support piece disposed at an upper end of the mounting device main plate; and a lower support piece disposed at a lower end of the mounting device main plate, wherein one upper end portion; right and left end portions including a right end portion and a left end portion, a first end of the right end portion and a first end of the left end portion being respectively contiguous to first and second ends of the upper end portion; and two base portions, a first end of one of the base portions and a first end of the other base portion being respectively contiguous to a second end of the right end portion and a second end of the left end portion, the base portions being each partially contiguous to an upper end of the mounting device main plate, and wherein
Method for producing brushes using a brush production machine, wherein a control unit of the brush production machine autonomously triggers a response on the basis of an input variable in order to control the brush production machine at least indirectly into a defined target state, wherein a degree of wear of a wearable part (5, 6) of the brush production machine is used as input variable, wherein the degree of wear is ascertained at least indirectly with the aid of at least one sensor (3, 12, 16) and wherein, as a response, a drive power of the brush production machine is set to a defined value when the degree of wear or a value derived therefrom has reached a defined limit value, wherein a degree of wear of at least one cutting device of the brush production machine is determined as degree of wear on the basis of a power consumption, vibration measurement, cutting time, knife temperature and/or cutting force as ascertained using an appropriate sensor (3, 12, 16) and/or is determined on the basis of a geometry of a wire cut by the cutting device, and wherein the brush production machine reduces a number of cutting procedures per time unit in order to extend the expected service life of the cutting device when increased wear of the cutting device is detected.
An apparatus comprising: a plurality of signal processing units (410, 420) to process signals received from a plurality of antennae (125 0, 125 1), the signal processor units being controlled by operational mode control signals, wherein the operational mode control signals activate and deactivate antennae; a channel estimator to estimate channel responses using the processed signals according to an operational mode; an equalizer and combiner coupled to the channel estimator to generate an equalized and combined signal using the processed signals and the estimated channel responses; and a Carrier to Interference Noise Ratio (CINR) estimator coupled to the equalizer and combiner to estimate CINR from the equalized and combined signal, the estimated CINR being used to generate the operational mode control signals. a plurality of signal processing units (410, 420) to process signals received from a plurality of antennae (125 0, 125 1), the signal processor units being controlled by operational mode control signals, wherein the operational mode control signals activate and deactivate antennae; a channel estimator to estimate channel responses using the processed signals according to an operational mode; an equalizer and combiner coupled to the channel estimator to generate an equalized and combined signal using the processed signals and the estimated channel responses; and a Carrier to Interference Noise Ratio (CINR) estimator coupled to the equalizer and combiner to estimate CINR from the equalized and combined signal, the estimated CINR being used to generate the operational mode control signals.
A method of low-temperature cooking of food by means of the following steps: - introducing the food to be cooked into a cooking chamber, wherein the food is detected and wherein cooking time-relevant parameters, in particular a geometric shape of the food, are detected by means of a camera and an image evaluation module or are queried by means of an operator interface; - calculating, by a control module, a temperature profile of a cooking process including a cooking phase and a pasteurization phase on the basis of the geometric shape, wherein a predefined maximum duration of the cooking phase is observed, which is a maximum of four hours, and wherein the cooking chamber temperature is lowered on average to the target core temperature during the pasteurization phase; - determining the duration of the cooking phase using the following formula: t = a * ln GT − T 0 * bx 2 where a is an empirically determined factor of cooking time per temperature difference and surface area, GT is the cooking chamber temperature, T 0 is an initial temperature, b is an empirically determined factor that is representative of a change in shape of the food to be cooked during the cooking process, and x is a characteristic length of the food; - calculating, by the control module, a minimum duration of the pasteurization phase as a function of the food to be cooked and of the core temperature of the ready-cooked food; - cooking the food using the calculated temperature profile; - informing an operator that the cooking process has been completed. - introducing the food to be cooked into a cooking chamber, wherein the food is detected and wherein cooking time-relevant parameters, in particular a geometric shape of the food, are detected by means of a camera and an image evaluation module or are queried by means of an operator interface; - calculating, by a control module, a temperature profile of a cooking process including a cooking phase and a pasteurization phase on the basis of the geometric shape, wherein a predefined maximum duration of the cooking phase is observed, which is a maximum of four hours, and wherein the cooking chamber temperature is lowered on average to the target core temperature during the pasteurization phase; - determining the duration of the cooking phase using the following formula: t = a * ln GT − T 0 * bx 2 where a is an empirically determined factor of cooking time per temperature difference and surface area, GT is the cooking chamber temperature, T 0 is an initial temperature, b is an empirically determined factor that is representative of a change in shape of the food to be cooked during the cooking process, and x is a characteristic length of the food; - calculating, by the control module, a minimum duration of the pasteurization phase as a function of the food to be cooked and of the core temperature of the ready-cooked food; - cooking the food using the calculated temperature profile; - informing an operator that the cooking process has been completed.
A method of making a pumpable composition, comprising: (a) applying a starting composition to a filtration means, said filtration means having a pore size of 100 nanometers (nm) or smaller, wherein the starting composition is a broth or an extract prepared from an animal source, (b) allowing the starting composition to pass through the filtration means, and (c) collecting permeate that passes through said filtration means to obtain said pumpable composition having a viscosity of 50 Pa·s (50000 cP) or lower at 25 °C, wherein the starting composition comprises collagen and is not pumpable at refrigeration temperature, wherein the permeate from step (c) has a collagen concentration of 10% (w/w) or lower, being less collagen than in the starting composition, and is pumpable at a refrigeration temperature being a temperature of 4 °C, wherein hydroxyproline constitutes less than 3% (w/w) of total amino acids in said composition obtained in step (c), and wherein said pumpable composition obtained in step (c) has at least 50% (w/w) solids. (a) applying a starting composition to a filtration means, said filtration means having a pore size of 100 nanometers (nm) or smaller, wherein the starting composition is a broth or an extract prepared from an animal source, (b) allowing the starting composition to pass through the filtration means, and (c) collecting permeate that passes through said filtration means to obtain said pumpable composition having a viscosity of 50 Pa·s (50000 cP) or lower at 25 °C, wherein the starting composition comprises collagen and is not pumpable at refrigeration temperature, wherein the permeate from step (c) has a collagen concentration of 10% (w/w) or lower, being less collagen than in the starting composition, and is pumpable at a refrigeration temperature being a temperature of 4 °C, wherein hydroxyproline constitutes less than 3% (w/w) of total amino acids in said composition obtained in step (c), and wherein said pumpable composition obtained in step (c) has at least 50% (w/w) solids.
A cooling assembly of an electric motor with a centric stator and a double-sided rotor mounted on a shaft of the stator characterized in that a flange with a centric hole extending into the shaft of the stator and with a radial tubular connector for a cold air blower is coaxially arranged on the stator, wherein a cooling air channel is arranged in the stator and led past the hole in the shaft of the stator and leads directly into a space, wherein on the stator two annular supports of coil boxes are disposed at a distance and the coil boxes are arranged in cut-outs in both annular supports, and that the coil boxes are circumferentially provided with helically arranged grooves foreseen for receiving a winding such that wires of the winding form electrically non-conductive gaps, wherein at their external edge, both rotor parts are connected with a suction turbine.
Insert designed to be incorporated in the composition of a fitting element of a curing mould for tyres, and to form part of the moulding surface of the said fitting element, the said moulding surface comprising at least one intersection of at least a first and a second projecting pattern, the insert being characterised in that it comprises a junction which is designed to be joined with a moulding element integral with the body of the fitting element, the junction dividing the second pattern into a first and a second part, the insert forming the first pattern and the first part of the second pattern, and the moulding element forming the second part of the second pattern, the junction going away from the intersection. the said moulding surface comprising at least one intersection of at least a first and a second projecting pattern, the insert being characterised in that it comprises a junction which is designed to be joined with a moulding element integral with the body of the fitting element, the junction dividing the second pattern into a first and a second part, the insert forming the first pattern and the first part of the second pattern, and the moulding element forming the second part of the second pattern, the junction going away from the intersection.
A cleaning head, in particular for mounting inside a tank, said head being provided with a turbine which is driven by a source of pressure liquid for causing rotation of a gear, which in turn causes the gear housing and a hub, mounted thereon and having nozzles, to rotate, said liquid being conveyed from the turbine and to the nozzles in operation, said gear housing being mounted on a stationary mounting part so that the liquid from the turbine bypasses the gear housing and flows to the nozzles, and that the rotation of the turbine is transferred to the input shaft of the gear by means of a magnetic coupling having coupling parts, the driving coupling part of which being disposed outside the gear housing, and the driven coupling part of which being disposed inside the gear housing, characterized in that the rotation of the turbine is transferred to the gear in the gear housing via a hysteresis coupling comprising a magnetic inductor in the liquid space which is driven by the turbine, and which drives a hysteresis part which is mounted in the gear housing, and which is connected with the input shaft of the gear, the gear housing being mounted below the stationary mounting part such that liquid-wise the housing is separated by a partition from the liquid space, the gear thereby being separated from the liquid.
An adsorption rotor comprising honeycomb-shaped adsorption elements (1, 6), the honeycomb-shaped adsorption elements (1, 6) being installed in a metal aggregate (3, 3a, 4-8) which is combined with a boss, characterized in that the adsorption rotor comprises at least two layers of honeycomb-shaped adsorption elements (1, 6), the thickness of one honeycomb-shaped adsorption element layer, which is located at a surface side of the adsorption rotor, being smaller than the thickness of the other honeycomb-shaped adsorption element layer and in that said thinner honeycomb-shaped adsorption element is divided into two or more fan-shaped sectors which are detachably and replaceably installed to the metal aggregate.
Apparatus for calibrating a pressure regulator disposed in a fluid flow passage, the pressure regulator having a stem attached to and moving with a diaphragm and a throttling element moveable in the flow passage attached to a bottom end of the stem, the apparatus comprising: a first pressure sensor in fluid communication upstream of the throttling element for measuring an upstream pressure; a second pressure sensor in fluid communication downstream of the throttling element for measuring a downstream pressure; a travel sensor for determining a throttling element position; a flow meter disposed downstream of the throttling element for reading and calibrating a fluid flow value; a processor associated with the first pressure sensor, second pressure sensor, travel sensor, and flow meter, characterized in that: the processor has a stored program for determining a stem position coefficient correction based on the upstream pressure, the downstream pressure, the throttling element position, a calculated fluid flow value, and the measured fluid flow value, wherein the stem position coefficient correction includes a calculation of a plurality of stem position coefficient correction factors for a plurality of throttling element positions, and wherein the stem position coefficient correction factors are stored in a lookup table. a first pressure sensor in fluid communication upstream of the throttling element for measuring an upstream pressure; a second pressure sensor in fluid communication downstream of the throttling element for measuring a downstream pressure; a travel sensor for determining a throttling element position; a flow meter disposed downstream of the throttling element for reading and calibrating a fluid flow value; a processor associated with the first pressure sensor, second pressure sensor, travel sensor, and flow meter, characterized in that: the processor has a stored program for determining a stem position coefficient correction based on the upstream pressure, the downstream pressure, the throttling element position, a calculated fluid flow value, and the measured fluid flow value, wherein the stem position coefficient correction includes a calculation of a plurality of stem position coefficient correction factors for a plurality of throttling element positions, and wherein the stem position coefficient correction factors are stored in a lookup table. the processor has a stored program for determining a stem position coefficient correction based on the upstream pressure, the downstream pressure, the throttling element position, a calculated fluid flow value, and the measured fluid flow value, wherein the stem position coefficient correction includes a calculation of a plurality of stem position coefficient correction factors for a plurality of throttling element positions, and wherein the stem position coefficient correction factors are stored in a lookup table.
A system configured to provide thermal regulation and vibration isolation, the system comprising: a sensor chassis defining an interior chamber; an electronics housing in the interior chamber of the sensor chassis; an insulating material in the interior chamber of the sensor chassis, the insulating material extending around the electronics housing; a thermoelectric cooler coupled between the sensor chassis and the electronics housing; characterized by a thermal strap coupled to a portion of an outer surface of the sensor chassis; and at least one vibration isolator (205, 206) coupled to the sensor chassis. a sensor chassis defining an interior chamber; an electronics housing in the interior chamber of the sensor chassis; an insulating material in the interior chamber of the sensor chassis, the insulating material extending around the electronics housing; a thermoelectric cooler coupled between the sensor chassis and the electronics housing; characterized by a thermal strap coupled to a portion of an outer surface of the sensor chassis; and at least one vibration isolator (205, 206) coupled to the sensor chassis.
A power conversion device that is configured to perform power conversion between a DC circuit and an AC circuit, the power conversion device comprising: a power conversion circuit unit including a plurality of leg circuits (4u, 4v, 4w) corresponding to a plurality of phases of the AC circuit, each of the leg circuits including a plurality of converter cells (7a, 7b) each having a capacitor and connected in series to each other, each of the plurality of converter cells being a first converter cell including at least two switching elements or a second converter cell including at least four switching elements; and a control device configured to control operations of the plurality of converter cells, characterized in that the control device is configured to operate a plurality of the first converter cells that are controlled not based on a circulating current circulating between the plurality of leg circuits as a voltage source that outputs a circulating voltage according to a circulating voltage instruction value in a circulating circuit indicating a closed circuit not including the DC circuit and the AC circuit, and is configured to operate a plurality of the second converter cells to control the circulating current in the circulating circuit to balance the voltage of the capacitors of the first and second converter cells. a power conversion circuit unit including a plurality of leg circuits (4u, 4v, 4w) corresponding to a plurality of phases of the AC circuit, each of the leg circuits including a plurality of converter cells (7a, 7b) each having a capacitor and connected in series to each other, each of the plurality of converter cells being a first converter cell including at least two switching elements or a second converter cell including at least four switching elements; and a control device configured to control operations of the plurality of converter cells, characterized in that the control device is configured to operate a plurality of the first converter cells that are controlled not based on a circulating current circulating between the plurality of leg circuits as a voltage source that outputs a circulating voltage according to a circulating voltage instruction value in a circulating circuit indicating a closed circuit not including the DC circuit and the AC circuit, and is configured to operate a plurality of the second converter cells to control the circulating current in the circulating circuit to balance the voltage of the capacitors of the first and second converter cells.
A vending machine comprising: a vending tray; a plurality of channels formed on the vending tray; and a cartridge disposed in at least one of the plurality of channels, the cartridge including an auger in the form of a helix disposed within an open cylindrical sleeve, the cartridge having a length dimension substantially equal to a length dimension of the at least one of the plurality of channels and a width dimension substantially equal to a width dimension of the at least one of the plurality of channels, the vending machine characterised by; the sleeve including a generally cylindrical sidewall formed with a longitudinally-extending circumferential gap therein and a base wall extending tangentially from the cylindrical sidewall, wherein the gap is located generally diametrically opposite the base wall. a vending tray; a plurality of channels formed on the vending tray; and a cartridge disposed in at least one of the plurality of channels, the cartridge including an auger in the form of a helix disposed within an open cylindrical sleeve, the cartridge having a length dimension substantially equal to a length dimension of the at least one of the plurality of channels and a width dimension substantially equal to a width dimension of the at least one of the plurality of channels, the vending machine characterised by; the sleeve including a generally cylindrical sidewall formed with a longitudinally-extending circumferential gap therein and a base wall extending tangentially from the cylindrical sidewall, wherein the gap is located generally diametrically opposite the base wall.
A device for detecting an analyte in a sample, comprising: a cartridge having: a microfluidic channel comprising a first end and a second end and between the first and the second end an inlet region, a detection region in fluid communication with the inlet region, and an opening configured to vent the microfluidic channel; a microfluidic flow path having an at least partially deformable wall and in fluid communication with the detection region of the channel, characterized in that the inlet region is movable with respect to the opening and the opening, in a first relative position of the inlet region within the microfluidic channel, is in fluid communication with the inlet region, and, in a second relative position of the inlet region within the microfluidic channel, is closed. a cartridge having: a microfluidic channel comprising a first end and a second end and between the first and the second end an inlet region, a detection region in fluid communication with the inlet region, and an opening configured to vent the microfluidic channel; a microfluidic flow path having an at least partially deformable wall and in fluid communication with the detection region of the channel, a microfluidic channel comprising a first end and a second end and between the first and the second end an inlet region, a detection region in fluid communication with the inlet region, and an opening configured to vent the microfluidic channel; a microfluidic flow path having an at least partially deformable wall and in fluid communication with the detection region of the channel, characterized in that the inlet region is movable with respect to the opening and the opening, in a first relative position of the inlet region within the microfluidic channel, is in fluid communication with the inlet region, and, in a second relative position of the inlet region within the microfluidic channel, is closed.