mhurhangee/ep-ind-claims huggingface dataset:
A drying machine comprising: a housing; a storage configured to accommodate clothing; a heat pump device configured to dry the clothing in the storage; a supporting member (61, 63) configured to support the heat pump device; wherein at least part of the heat pump device is disposed in an upper space formed above the storage in the housing; and wherein the heat pump device includes a compressor configured to compress refrigerant, characterized in that the drying machine further comprises: a confining member disposed above the heat pump device; and a second fixing member (71, 72) configured to fix the heat pump device to the confining member, wherein the supporting member (61, 63) is disposed between the confining member and the compressor, and the confining member confines upward displacement of the heat pump device. a housing; a storage configured to accommodate clothing; a supporting member (61, 63) configured to support the heat pump device; wherein at least part of the heat pump device is disposed in an upper space formed above the storage in the housing; and wherein the heat pump device includes a compressor configured to compress refrigerant, characterized in that the drying machine further comprises: a confining member disposed above the heat pump device; and a second fixing member (71, 72) configured to fix the heat pump device to the confining member, wherein the supporting member (61, 63) is disposed between the confining member and the compressor, and the confining member confines upward displacement of the heat pump device. a confining member disposed above the heat pump device; and a second fixing member (71, 72) configured to fix the heat pump device to the confining member, wherein the supporting member (61, 63) is disposed between the confining member and the compressor, and the confining member confines upward displacement of the heat pump device.
A method of controlling a tire inflation system comprising: checking an inflation pressure of a tire; categorizing a type of pressure drop of the tire when the inflation pressure is less than a target tire pressure; and adjusting a tire pressure sampling interval based on the type of pressure drop; characterized in that the type of pressure drop comprises a minor pressure drop, a moderate pressure drop or a major pressure drop, wherein the type of pressure drop is the major pressure drop when the inflation pressure does not reach the target tire pressure when the tire is inflated or when the inflation pressure does not reach the target tire pressure within a predetermined inflation period of time, and the predetermined inflation period of time is greater than a threshold inflation time that is used to distinguish a minor pressure drop from a moderate pressure drop. checking an inflation pressure of a tire; categorizing a type of pressure drop of the tire when the inflation pressure is less than a target tire pressure; and adjusting a tire pressure sampling interval based on the type of pressure drop; characterized in that the type of pressure drop comprises a minor pressure drop, a moderate pressure drop or a major pressure drop, wherein the type of pressure drop is the major pressure drop when the inflation pressure does not reach the target tire pressure when the tire is inflated or when the inflation pressure does not reach the target tire pressure within a predetermined inflation period of time, and the predetermined inflation period of time is greater than a threshold inflation time that is used to distinguish a minor pressure drop from a moderate pressure drop.
An elevator traction engine for elevator system comprises, an electric engine having a stator and a rotor; a body carrying the said electrical engine; a rotatable driveshaft is driven by the electrical engine and having at least two traction zones and at least a brake, characterized by the said body having two integrated body parts wherein body parts comprise: a carrier portion formed to fix the stator in the body by contacting at least one portion of the outer surface of stator when they connect to each other, and a mounting extension provided with a bending portion at the section of which the carrier portion ends to provide connection of the body to a fixed point. an electric engine having a stator and a rotor; a body carrying the said electrical engine; a rotatable driveshaft is driven by the electrical engine and having at least two traction zones and at least a brake, characterized by the said body having two integrated body parts wherein body parts comprise: a carrier portion formed to fix the stator in the body by contacting at least one portion of the outer surface of stator when they connect to each other, and a mounting extension provided with a bending portion at the section of which the carrier portion ends to provide connection of the body to a fixed point. a carrier portion formed to fix the stator in the body by contacting at least one portion of the outer surface of stator when they connect to each other, and a mounting extension provided with a bending portion at the section of which the carrier portion ends to provide connection of the body to a fixed point.
A process for the preparation of a polymer from at least one monomer A which is a vinyl halide monomer and at least one monomer B by free radical polymerization in aqueous medium, wherein the monomer B is a monomer whose polymer has a T g lower than that of the polymer produced by polymerizing the at least one vinyl halide monomer, and the ratio of the at least one vinyl halide monomer A to the at least another monomer B in wt% in the polymer is from 99.7/0.3 to 40/60, the process comprising the following steps: a) mixing water, at least one amphiphilic substance, from 10 to 100 wt% of the total amount of the at least one monomer B, optionally a buffer, and optionally from 0.1 to 10 wt % of the at least one monomer A with respect to the at least one monomer B in step a), at an appropriate temperature to carry out the polymerization of monomer B, and adding a thermal or a redox initiator in order to start polymerization and allowing the system to react until reaching a conversion from 10 to 80 mol% of monomer B, b) adding from 20 to 100 wt% of the remaining amount of monomer A to be added, optionally, an additional amount of the amphiphilic substance, optionally, an additional amount of the initiator, optionally, a buffer; and the remaining amount of the at least one monomer B, allowing the mixture to react until the conversion of the monomers reaches a value higher than 20 wt%, c) adding the remaining amount of the at least one monomer A, optionally, an additional amount of the amphiphilic substance, optionally, an additional amount of the initiator, and optionally an additional amount of the buffer, allowing the system to react until reaching a conversion higher than 70%. a) mixing water, at least one amphiphilic substance, from 10 to 100 wt% of the total amount of the at least one monomer B, optionally a buffer, and optionally from 0.1 to 10 wt % of the at least one monomer A with respect to the at least one monomer B in step a), at an appropriate temperature to carry out the polymerization of monomer B, and adding a thermal or a redox initiator in order to start polymerization and allowing the system to react until reaching a conversion from 10 to 80 mol% of monomer B, b) adding from 20 to 100 wt% of the remaining amount of monomer A to be added, optionally, an additional amount of the amphiphilic substance, optionally, an additional amount of the initiator, optionally, a buffer; and the remaining amount of the at least one monomer B, allowing the mixture to react until the conversion of the monomers reaches a value higher than 20 wt%, c) adding the remaining amount of the at least one monomer A, optionally, an additional amount of the amphiphilic substance, optionally, an additional amount of the initiator, and optionally an additional amount of the buffer, allowing the system to react until reaching a conversion higher than 70%.
A hearing aid comprising power supply means and at least one microphone (3, 4) for transforming an acoustic signal in the surroundings of a hearing aid user into an electric signal, said hearing aid further comprising - a base part to be arranged outside the ear canal of a hearing aid user, said base part comprising signal processing means, - an ear plug part to be arranged in the ear canal of a hearing aid user, said ear plug part comprising acoustic transmitting means (5, 10) for transmitting sound into the ear canal, said ear plug part comprising an ear canal microphone for transforming an acoustic signal in the ear canal into an electric signal, and the ear plug part further comprising an electronic module connected to said ear canal microphone, and - an elongated member connecting said ear plug part with said base part, said elongated member comprising electrical wires (15, 17, 42, 43) adapted for providing power supply from the base part to the ear plug part, or, from the ear plug part to the base part, wherein the signal from the ear canal microphone is transferred to the signal processing means in said base part by a serial databus connected through a data line arranged in said elongated member, said databus being a one line bidirectional serial databus. - a base part to be arranged outside the ear canal of a hearing aid user, said base part comprising signal processing means, - an ear plug part to be arranged in the ear canal of a hearing aid user, said ear plug part comprising acoustic transmitting means (5, 10) for transmitting sound into the ear canal, said ear plug part comprising an ear canal microphone for transforming an acoustic signal in the ear canal into an electric signal, and the ear plug part further comprising an electronic module connected to said ear canal microphone, and - an elongated member connecting said ear plug part with said base part, said elongated member comprising electrical wires (15, 17, 42, 43) adapted for providing power supply from the base part to the ear plug part, or, from the ear plug part to the base part,
Method for driving an LED backlight comprising at least a first and a second segment (S1, S2), comprising the following steps: - providing a supply voltage (Vied) and a first driving current to the first segment, - providing the supply voltage (Vied) and a second driving current to the second segment; characterized in that the method further comprises - reducing stepwise a level of the supply voltage (Vied) until a specifiable second level of the supply voltage (Vled) is reached or until a first predefined condition in the first or second segment (S1, S2) is fulfilled, wherein the first predefined condition in the first or second segment (S1, S2) is fulfilled as soon as a first or a second signal (Sgl, Sg2) is below a predefined threshold, wherein the first signal is indicative of a voltage drop across the first segment and the second signal is indicative of a voltage drop across the second segment; whereby as soon as the first or the second signal is below the predefined threshold or when the supply voltage has reached the specified lower level, the method further comprises - sensing the first signal; - sensing the second signal; - determining the maximum of the voltages (Vfl, Vf2) dropping across the first and second segment (S1, S2) by evaluating the first and the second signal; - reducing stepwise the driving current (I1, I2) of the segment (S1, S2) with the maximum voltage drop (Vfl, Vf2) until a second predefined condition in the first or second segment (S1, S2) is reached, wherein the second predefined condition is fulfilled as soon as the first or the second signal (Sgl, Sg2) reaches the predefined threshold. - providing a supply voltage (Vied) and a first driving current to the first segment, - providing the supply voltage (Vied) and a second driving current to the second segment; characterized in that the method further comprises - reducing stepwise a level of the supply voltage (Vied) until a specifiable second level of the supply voltage (Vled) is reached or until a first predefined condition in the first or second segment (S1, S2) is fulfilled, wherein the first predefined condition in the first or second segment (S1, S2) is fulfilled as soon as a first or a second signal (Sgl, Sg2) is below a predefined threshold, wherein the first signal is indicative of a voltage drop across the first segment and the second signal is indicative of a voltage drop across the second segment; whereby as soon as the first or the second signal is below the predefined threshold or when the supply voltage has reached the specified lower level, the method further comprises - sensing the first signal; - sensing the second signal; - determining the maximum of the voltages (Vfl, Vf2) dropping across the first and second segment (S1, S2) by evaluating the first and the second signal; - reducing stepwise the driving current (I1, I2) of the segment (S1, S2) with the maximum voltage drop (Vfl, Vf2) until a second predefined condition in the first or second segment (S1, S2) is reached, wherein the second predefined condition is fulfilled as soon as the first or the second signal (Sgl, Sg2) reaches the predefined threshold.
Holographic optical element (10, 10', 40) for measuring the size and position of an object with the aid of a deflected laser beam which sweeps across a particular angle range, said element having in one section an interference pattern (25, 26, 27, 43, 44, 45) which is obtainable in a manner known per se by simultaneous exposure to a fan-shaped reference wavefront coming from a monochromatic, coherent laser light source and to a parallel wavefront which likewise comes from said monochromatic, coherent laser light source and which impinges on the element at a different angle than the reference wavefront, and by subsequent development, characterized in that the holographic optical element (10, 10', 40) has at least two different interference patterns (25, 26, 27, 43, 44, 45) which are each assigned to a section (11, 12, 13, 41), and in that a number of parallel partial wavefronts (15, 16, 17) corresponding to the number of interference patterns is used for the exposure, said partial wavefronts coming from the same laser light source and running in such a way that, in the virtual extension through the holographic optical element (10, 10', 40), they intersect one another after the holographic optical element (10, 10', 40) in the centre of a measurement field.
A packaging system having a peelable seal section, the peelable seal section including a first sealing layer and a second sealing layer such that the first sealing layer contacts the second sealing layer to form a peelable seal, the first sealing layer includes: a thermoplastic polymer; an organoclay dispersed within the thermoplastic polymer; and calcium carbonate, dispersed within the thermoplastic polymer, wherein the combined weight of the organoclay and the calcium carbonate is from 10 weight % to 35 weight % of the combined weight of the thermoplastic polymer and the organoclay and the calcium carbonate, the organoclay being present in an amount from 5 weight % to 20 weight % of the combined weight of the thermoplastic polymer and the organoclay and the calcium carbonate, and the calcium carbonate being present in an amount from 6 weight % to 25 weight % of the combined weight of the thermoplastic polymer and the organoclay and the calcium carbonate, the peelable seal having a peel force between 87.6 N/m and 875.6 N/m (0.5 lbs per inch and 5 lbs per inch) of sealing width. a thermoplastic polymer; an organoclay dispersed within the thermoplastic polymer; and calcium carbonate, dispersed within the thermoplastic polymer, wherein the combined weight of the organoclay and the calcium carbonate is from 10 weight % to 35 weight % of the combined weight of the thermoplastic polymer and the organoclay and the calcium carbonate, the organoclay being present in an amount from 5 weight % to 20 weight % of the combined weight of the thermoplastic polymer and the organoclay and the calcium carbonate, and the calcium carbonate being present in an amount from 6 weight % to 25 weight % of the combined weight of the thermoplastic polymer and the organoclay and the calcium carbonate, the peelable seal having a peel force between 87.6 N/m and 875.6 N/m (0.5 lbs per inch and 5 lbs per inch) of sealing width.
A fastener (202, 300) comprising: a fastener body having a longitudinal axis (A-A') and a first external male threaded portion, and two or more through-holes (312a, 312b) perpendicular to the longitudinal axis (A-A') of the fastener body in the first external male threaded portion, wherein each of the through-holes (312a, 312b) is adapted to receive a pin, and characterised in that the locations of the two or more through-holes (312a, 312b) form a spiral along the length of the fastener body such that each such through-hole (312a, 312b) is on a different plane and angle from an adjacent through-hole (312a, 312b) and such that each such through-hole (312a, 312b) partially intersects an adjacent through-hole (312a, 312b).
A backlight unit, comprising: at least one light emitting component; reflection support components; and a backplate; wherein the at least one light emitting component comprises a plurality of element surfaces, which are disposed obliquely with respect to the backplate and form a pyramid structure, and a plurality of luminophors disposed on the element surfaces; wherein each reflection support component comprises a plurality of reflective surfaces (21, 22, 23), which are disposed obliquely with respect to the backplate and also form a pyramid structure; characterized in that each of the element surfaces of one of the at least one light emitting component is disposed facing a reflective surface (21, 22, 23) of the reflection support components. at least one light emitting component; reflection support components; and a backplate; wherein the at least one light emitting component comprises a plurality of element surfaces, which are disposed obliquely with respect to the backplate and form a pyramid structure, and a plurality of luminophors disposed on the element surfaces; wherein each reflection support component comprises a plurality of reflective surfaces (21, 22, 23), which are disposed obliquely with respect to the backplate and also form a pyramid structure; characterized in that each of the element surfaces of one of the at least one light emitting component is disposed facing a reflective surface (21, 22, 23) of the reflection support components.
A surroundings monitoring system for a work machine, the surroundings monitoring system comprising: an image capturing unit configured to capture an image of surroundings of the work machine; and a display device configured to display the image of the surroundings of the work machine captured by the image capturing unit and a mark representing a position of a monitoring target, wherein the display device is configured to display the mark in two or more different display forms. an image capturing unit configured to capture an image of surroundings of the work machine; and a display device configured to display the image of the surroundings of the work machine captured by the image capturing unit and a mark representing a position of a monitoring target, wherein the display device is configured to display the mark in two or more different display forms.
A wastegate assembly adapted for use with a turbocharger that uses exhaust gas flow to drive a turbine wheel housed in a turbine housing, the wastegate assembly comprising: a wastegate port in the turbine housing for exhaust gas flow bypassing the turbine wheel; a valve having a pivotable arm connected to a valve head, the valve head including a valve margin, the valve operable to pivot relative to the wastegate port for selectively blocking and unblocking the wastegate port thereby controlling the exhaust gas flow through the wastegate port; and a valve seat that surrounds the wastegate port and is operable with the valve head to selectively block the wastegate port, and a contoured side wall that is adjacent to the wastegate port, extends from the turbine housing and is radially offset from the valve margin, the contoured side wall having a concave portion that is adjacent to an outer end of the valve head and that corresponds to desired flow areas at specific valve opening angles, wherein the exhaust gas flow is choked in a throat area (A t) between the valve head and the contoured side wall instead of a valve curtain area (A vc) between the valve head and the valve seat; wherein some exhaust gas flow can bypass the turbine wheel to control turbine work when the valve is in an open position relative to the wastegate port. a wastegate port in the turbine housing for exhaust gas flow bypassing the turbine wheel; a valve having a pivotable arm connected to a valve head, the valve head including a valve margin, the valve operable to pivot relative to the wastegate port for selectively blocking and unblocking the wastegate port thereby controlling the exhaust gas flow through the wastegate port; and a valve seat that surrounds the wastegate port and is operable with the valve head to selectively block the wastegate port, and a contoured side wall that is adjacent to the wastegate port, extends from the turbine housing and is radially offset from the valve margin, the contoured side wall having a concave portion that is adjacent to an outer end of the valve head and that corresponds to desired flow areas at specific valve opening angles, wherein the exhaust gas flow is choked in a throat area (A t) between the valve head and the contoured side wall instead of a valve curtain area (A vc) between the valve head and the valve seat; wherein some exhaust gas flow can bypass the turbine wheel to control turbine work when the valve is in an open position relative to the wastegate port.
Method for the acetylation of wood comprising: - treating the wood with an acetylation medium under wood acetylation reaction conditions, wherein the acetylation reaction conditions comprise a pressure of at least 1 barg; and - drying the acetylated wood, wherein the drying comprises at least two steps, wherein the wood is first dried with a first drying medium and then with a second drying medium, wherein the first drying medium comprises an acetylation medium vapour, wherein the second drying medium is an inert gas; wherein the drying in the first step is carried out at a pressure that is lower than the acetylation reaction pressure; wherein the drying temperature in the first drying step is in the range 150-190°C or wherein the first drying medium comprises superheated acetylation medium vapour. - treating the wood with an acetylation medium under wood acetylation reaction conditions, wherein the acetylation reaction conditions comprise a pressure of at least 1 barg; and - drying the acetylated wood, wherein the drying comprises at least two steps, wherein the wood is first dried with a first drying medium and then with a second drying medium, wherein the first drying medium comprises an acetylation medium vapour, wherein the second drying medium is an inert gas; wherein the drying in the first step is carried out at a pressure that is lower than the acetylation reaction pressure; wherein the drying temperature in the first drying step is in the range 150-190°C or wherein the first drying medium comprises superheated acetylation medium vapour.