mhurhangee/ep-ind-claims huggingface dataset:
An electrically operated smoking system comprising: a storage portion for storing an aerosol-forming substrate; an aerosol generating element for generating an aerosol from the aerosol-forming substrate, wherein the aerosol generating element is an electric heater comprising a heating element; control circuitry in communication with the storage portion or the aerosol generating element; and disabling means for rendering the storage portion inoperable in the aerosol generating system in response to a disable signal from the control circuitry, wherein the control circuitry is configured to determine or estimate when an amount of aerosol-forming substrate in the storage portion is below a threshold amount, and to issue the disable signal in response to a determination that the temperature of the heating element has exceeded a predetermined threshold when the amount of aerosol-forming substrate in the storage portion is determined or estimated to be below the threshold amount. a storage portion for storing an aerosol-forming substrate; an aerosol generating element for generating an aerosol from the aerosol-forming substrate, wherein the aerosol generating element is an electric heater comprising a heating element; control circuitry in communication with the storage portion or the aerosol generating element; and disabling means for rendering the storage portion inoperable in the aerosol generating system in response to a disable signal from the control circuitry, wherein the control circuitry is configured to determine or estimate when an amount of aerosol-forming substrate in the storage portion is below a threshold amount, and to issue the disable signal in response to a determination that the temperature of the heating element has exceeded a predetermined threshold when the amount of aerosol-forming substrate in the storage portion is determined or estimated to be below the threshold amount.
A clothes treatment device comprising: a housing tub for housing clothing; and a steam supply mechanism for supplying steam to the housing tub, wherein the steam supply mechanism includes a water supply valve, and a steam generating part, the steam generating part includes a heater which heats a wall surface defining a chamber for generating steam, a water supply mechanism which injects water to the wall surface, an inlet port through which the water is injected into the chamber, and a discharge port through which the steam is discharged from the inside of the chamber, and an uneven shape (440, 441) is formed on the wall surface of a steam flow passage from the inlet port to the discharge port, characterized in that in the steam flow passage, as a distance from a middle portion of the steam flow passage is increased toward the discharge port, the number of the uneven shapes is decreased, such that a number of the uneven shapes (440, 441) on a side close to the inlet port is larger than a number of the uneven shapes (440, 441) on a side close to the discharge port. a housing tub for housing clothing; and a steam supply mechanism for supplying steam to the housing tub, wherein the steam supply mechanism includes a water supply valve, and a steam generating part, the steam generating part includes a heater which heats a wall surface defining a chamber for generating steam, a water supply mechanism which injects water to the wall surface, an inlet port through which the water is injected into the chamber, and a discharge port through which the steam is discharged from the inside of the chamber, and an uneven shape (440, 441) is formed on the wall surface of a steam flow passage from the inlet port to the discharge port, characterized in that in the steam flow passage, as a distance from a middle portion of the steam flow passage is increased toward the discharge port, the number of the uneven shapes is decreased, such that a number of the uneven shapes (440, 441) on a side close to the inlet port is larger than a number of the uneven shapes (440, 441) on a side close to the discharge port.
Vertical axis wind turbine rotor comprising a plurality of parallel rotor blades arranged along the generatrices of a vertical cylinder and connected by means of a radial-arm structure to a central shaft passing along the axis of the cylinder, said shaft being able to be associated with a machine for converting the movement into electric energy, whereby each rotor blade of said plurality of blades comprises three elongated bodies arranged in cascade and having the same wing profile, said elongated bodies being arranged vertical and parallel to each other and to the central shaft, wherein the three elongated bodies which define each rotor blade are held together by pairs of parallel plates arranged transverse with respect to the elongated bodies, characterized in that the radial-arm structure comprises a plurality of tie-rods which connect the plates to the central shaft of the rotor, at least one tie-rod being provided for each pair of plates, said tie-rod engaging between the two plates with a vertical bracket joined to a coupling piece and engaged between the plates via second openings, said plates being provided with holes for fixing the vertical bracket by means of bolts.
A method for mixing a drilling fluid, comprising: formulating a mixed drilling fluid in a mixing chamber, comprising: establishing a flow path for a base fluid; adding drilling fluid additives to the base fluid to create an unmixed drilling fluid; flowing the unmixed drilling fluid into the mixing chamber; injecting a first aerating gas into the mixing chamber; and injecting a compressible driving fluid into the mixing chamber at a flow rate that increases the velocity of the driving fluid and the unmixed drilling fluid to produce a shock wave in the mixing chamber and form the mixed drilling fluid. formulating a mixed drilling fluid in a mixing chamber, comprising: establishing a flow path for a base fluid; adding drilling fluid additives to the base fluid to create an unmixed drilling fluid; flowing the unmixed drilling fluid into the mixing chamber; injecting a first aerating gas into the mixing chamber; and injecting a compressible driving fluid into the mixing chamber at a flow rate that increases the velocity of the driving fluid and the unmixed drilling fluid to produce a shock wave in the mixing chamber and form the mixed drilling fluid. establishing a flow path for a base fluid; adding drilling fluid additives to the base fluid to create an unmixed drilling fluid; flowing the unmixed drilling fluid into the mixing chamber; injecting a first aerating gas into the mixing chamber; and injecting a compressible driving fluid into the mixing chamber at a flow rate that increases the velocity of the driving fluid and the unmixed drilling fluid to produce a shock wave in the mixing chamber and form the mixed drilling fluid.
An electrical system comprising: a body (15, 35, 55, 75, 85, 95) including two intertwined helically wound runners (16, 17, 36, 37, 57, 58, 76, 77, 88, 89, 97, 98), wherein a first runner (16, 36, 57, 76, 88, 97) is coupled to a second runner (17, 37, 58, 77, 89, 98) by struts (18, 38, 59, 79, 90), wherein the body (15, 35, 55, 75, 85, 95) is arranged in a toroidal shape; and a first conductive wire (86, 96) spirally wound around at least one runner (88, 89, 97, 98) of the body (15, 35, 55, 75, 85, 95). a body (15, 35, 55, 75, 85, 95) including two intertwined helically wound runners (16, 17, 36, 37, 57, 58, 76, 77, 88, 89, 97, 98), wherein a first runner (16, 36, 57, 76, 88, 97) is coupled to a second runner (17, 37, 58, 77, 89, 98) by struts (18, 38, 59, 79, 90), wherein the body (15, 35, 55, 75, 85, 95) is arranged in a toroidal shape; and a first conductive wire (86, 96) spirally wound around at least one runner (88, 89, 97, 98) of the body (15, 35, 55, 75, 85, 95).
Method for operating a plurality of domestic appliances which are combined in a domestic appliance network and communicatively connected to one another, wherein, within the communicatively connected domestic appliances, a first group of the domestic appliances is set up to use a first communication protocol and a second group of the domestic appliances is set up to use a second communication protocol, and wherein at least one domestic appliance from the first group which functions as a coordinator is also set up to use the second communication protocol, wherein the or each coordinator functions as a receiver of a telegram which is received from outside the domestic appliance network and is intended for a domestic appliance in the second group, i.e. the addressee, and the coordinator forwards a payload from the telegram to the relevant addressee in the second group in accordance with the second communication protocol once a telegram of this type has been received, wherein the telegram intended for the addressee contains a first external datagram that can be interpreted in accordance with the first communication protocol, and a second internal datagram which can be interpreted in accordance with the second communication protocol, and wherein the coordinator extracts the second datagram from the telegram when a telegram which is intended for an addressee within the second group of domestic appliances is received, and forwards the second datagram to the relevant addressee in the second group in accordance with the second communication protocol, wherein the telegram received from outside the domestic appliance network indicates, in the first and in the second datagram (34, 36), the relevant addressee in the second group, wherein the coordinator comprises a database containing address information for the domestic appliances in the second group, and wherein the coordinator also receives telegrams by means of the database which are denoted in the first datagram as being intended for a particular addressee in the second group, wherein the coordinator forwards a telegram received for an addressee in the second group to the addressee in the second group on the basis of address information contained in the second datagram.
A VAR compensating system comprising: voltage detection means (21, 61) configured to detect voltage fluctuations in a power distribution system, the VAR compensating system being configured to stabilize the voltage in the power distribution system by controlling reactive power to be injected into the power distribution system based on an output signal from the voltage detection means (21, 61), characterized in that the voltage detection means (21, 61) includes deviation intermediate value computing means configured to compute an intermediate value between a voltage value of a phase having a maximum voltage and a voltage value of a phase having a minimum voltage out of three-phase voltages (V AB, V BC, V CA) in the power distribution system, a circuit configured to output a voltage command reference value in which a proper voltage value in the power distribution system is reflected; a computing unit configured to compare the output signal from the voltage detection circuit (21, 61) with the voltage command reference value; a voltage control circuit configured to output a signal that controls reactive voltage of the reactive power to be sent to the power distribution system in response to an output signal from the computing unit; a current control circuit configured to output a signal that controls reactive current of the reactive power to be sent to the power distribution system in response to the output signal from the voltage control circuit. voltage detection means (21, 61) configured to detect voltage fluctuations in a power distribution system, the VAR compensating system being configured to stabilize the voltage in the power distribution system by controlling reactive power to be injected into the power distribution system based on an output signal from the voltage detection means (21, 61), characterized in that the voltage detection means (21, 61) includes deviation intermediate value computing means configured to compute an intermediate value between a voltage value of a phase having a maximum voltage and a voltage value of a phase having a minimum voltage out of three-phase voltages (V AB, V BC, V CA) in the power distribution system, a circuit configured to output a voltage command reference value in which a proper voltage value in the power distribution system is reflected; a computing unit configured to compare the output signal from the voltage detection circuit (21, 61) with the voltage command reference value; a voltage control circuit configured to output a signal that controls reactive voltage of the reactive power to be sent to the power distribution system in response to an output signal from the computing unit; a current control circuit configured to output a signal that controls reactive current of the reactive power to be sent to the power distribution system in response to the output signal from the voltage control circuit.
Footwear sole comprising: - a first layer having a leaning surface configured to face, in use, a walking surface; - a second layer, coupled to said first layer; - a plurality of seats each associated with the second layer; - a plurality of actuated members each mounted in a respective seat, wherein each actuated member is movable between a first position, or retracted position, wherein it is housed inside a corresponding seat and a second position, or extended position, wherein the actuated member projects at least partially from a respective seat towards said first layer; - an actuation member configured to move the actuated members between the retracted position and the extended position and vice versa, wherein the plurality of actuated members in the respective first position, or retracted position, are apt to determine a first configuration of the first layer, and wherein the plurality of actuated members in the respective second position, or extended position, are apt to determine a second configuration of the first layer wherein in said second configuration of the first layer the leaning surface has or forms a plurality of bumps or protrusions with respect to the first configuration of the first layer wherein each bump or protrusion of said plurality of bumps or protrusions is arranged at an actuated member; wherein said second layer defines with said first layer an expandable chamber or expansion chamber. - a first layer having a leaning surface configured to face, in use, a walking surface; - a second layer, coupled to said first layer; - a plurality of seats each associated with the second layer; - a plurality of actuated members each mounted in a respective seat, wherein each actuated member is movable between a first position, or retracted position, wherein it is housed inside a corresponding seat and a second position, or extended position, wherein the actuated member projects at least partially from a respective seat towards said first layer; - an actuation member configured to move the actuated members between the retracted position and the extended position and vice versa, wherein the plurality of actuated members in the respective first position, or retracted position, are apt to determine a first configuration of the first layer, and wherein the plurality of actuated members in the respective second position, or extended position, are apt to determine a second configuration of the first layer wherein in said second configuration of the first layer the leaning surface has or forms a plurality of bumps or protrusions with respect to the first configuration of the first layer wherein each bump or protrusion of said plurality of bumps or protrusions is arranged at an actuated member; wherein said second layer defines with said first layer an expandable chamber or expansion chamber.
A crystalline form of the mono-phosphate salt of 6-fluoro-2-[4-(pyridin-2-yl)but-3-yn-1-yl]imidazo[1,2-a]pyridine characterized by at least 3 peaks selected from X-Ray diffraction peaks obtained with a Cu Kα radiation at 2 θ (2 Theta (deg)) = 8.4, 10.2, 12.5, 15.7, 16.8, 18.6, 20.5, 21.3, 28.1, 29.4.
A method for estimating a transmitted signal in a wireless communication system, the method comprising the steps of: receiving a wireless signal that comprises a pilot channel and at least one other channel; estimating a transmitted signal using an equalizer and the received wireless signal, wherein the equalizer includes a filter with a plurality of taps that are adapted through use of an adaptive algorithm that uses an estimated pilot estimated from the received wireless signal, wherein the pilot channel was transmitted with the at least one other channel; extracting the estimated pilot; and providing the estimated pilot to the adaptive algorithm; wherein the adaptive algorithm is used once every N th pilot symbol interval to update the taps, N being a positive integer, wherein the value of N is dynamic, and characterised in that adaptation is started when channel conditions are determined to have changed such that the equalizer does not match current channel conditions. receiving a wireless signal that comprises a pilot channel and at least one other channel; estimating a transmitted signal using an equalizer and the received wireless signal, wherein the equalizer includes a filter with a plurality of taps that are adapted through use of an adaptive algorithm that uses an estimated pilot estimated from the received wireless signal, wherein the pilot channel was transmitted with the at least one other channel; extracting the estimated pilot; and providing the estimated pilot to the adaptive algorithm; wherein the adaptive algorithm is used once every N th pilot symbol interval to update the taps, N being a positive integer, wherein the value of N is dynamic, and characterised in that adaptation is started when channel conditions are determined to have changed such that the equalizer does not match current channel conditions.
An aqueous dispersion having a D50 value of more than 10 μm, determined according to the method according to the description: page 7, lines 19-31, containing (a) at least 5 wt.% of a dispersed particulate constituent, comprising at least one particulate inorganic compound of a polyvalent metal cation, and at least one organic compound having a weight-average molar mass greater than 500 g/mol, which is composed at least partially of styrene and/or an α-olefin having no more than 5 carbon atoms and maleic acid, its anhydride and/or its imide, and which additionally comprises polyoxyalkylene units, and (b) at least one thickener, wherein a thickener is a polymeric chemical compound or a defined mixture of chemical compounds that, as a 0.5 wt.% constituent in deionized water, κ < 1 μScm-1, at a temperature of 25 °C, has a Brookfield viscosity of at least 100 mPa·s at a shear rate of 60 rpm (=rounds per minute) using a size 2 spindle. (a) at least 5 wt.% of a dispersed particulate constituent, comprising at least one particulate inorganic compound of a polyvalent metal cation, and at least one organic compound having a weight-average molar mass greater than 500 g/mol, which is composed at least partially of styrene and/or an α-olefin having no more than 5 carbon atoms and maleic acid, its anhydride and/or its imide, and which additionally comprises polyoxyalkylene units, and at least one particulate inorganic compound of a polyvalent metal cation, and at least one organic compound having a weight-average molar mass greater than 500 g/mol, which is composed at least partially of styrene and/or an α-olefin having no more than 5 carbon atoms and maleic acid, its anhydride and/or its imide, and which additionally comprises polyoxyalkylene units, and (b) at least one thickener, wherein a thickener is a polymeric chemical compound or a defined mixture of chemical compounds that, as a 0.5 wt.% constituent in deionized water, κ < 1 μScm-1, at a temperature of 25 °C, has a Brookfield viscosity of at least 100 mPa·s at a shear rate of 60 rpm (=rounds per minute) using a size 2 spindle.
An anti-separating structure of a sensing magnet for an Electronic Power Steering, EPS, motor, comprising: a disk-shaped plate centrally inserted by a rotation shaft; a ring-shaped sensing magnet having a through hole at a center coupled to an upper side of the plate; a plurality of magnet grips protruded toward the sensing magnet from the plate; and a holder member coupled to an upper side of the sensing magnet, characterized in that a periphery of the through hole includes a first support surface formed at an inner circumferential surface of the through hole and a second support surface formed across the first support surface, the holder member supporting the second support surface provided at an ambience of the first support surface, each magnet grip is configured to grip the first support surface of the through hole of the sensing magnet, the holder member includes a magnet support surface configured to be disposed at both sides of each magnet grip, and the second support surface of the sensing magnet is formed with a slant surface of a predetermined area to allow surface-contacting the magnet support surface of the holder member. a disk-shaped plate centrally inserted by a rotation shaft; a ring-shaped sensing magnet having a through hole at a center coupled to an upper side of the plate; a plurality of magnet grips protruded toward the sensing magnet from the plate; and a holder member coupled to an upper side of the sensing magnet, characterized in that a periphery of the through hole includes a first support surface formed at an inner circumferential surface of the through hole and a second support surface formed across the first support surface, the holder member supporting the second support surface provided at an ambience of the first support surface, each magnet grip is configured to grip the first support surface of the through hole of the sensing magnet, the holder member includes a magnet support surface configured to be disposed at both sides of each magnet grip, and the second support surface of the sensing magnet is formed with a slant surface of a predetermined area to allow surface-contacting the magnet support surface of the holder member.
A production method for a negative electrode for an all-solid-state battery comprising the steps of: coating a carbonaceous material with a solid electrolyte; and pressure-molding the solid electrolyte-coated carbonaceous material obtained in step, wherein an average surface spacing of surfaces of the carbonaceous material determined by powder X-ray diffraction is from 0.340 to 0.400 nm, a true density of the carbonaceous material determined by JIS R7212 is from 1.30 g/cm 3 to 2.10 g/cm 3, a crystallite thickness L c in the c-axis direction of the carbonaceous material determined by powder X-ray diffraction is from 0.5 to 10 nm, an average particle size D v50 of the carbonaceous material determined from particle size distribution within the particle size range of 0.05 to 3,000 μm as the particle size yielding a cumulative volume of 50% is from 1 to 50 μm, and the step of coating uses a method using a ball mill, wherein the carbonaceous material and the solid electrolyte are mixed together with a ball mill at the revolution speed of 200 to 1,000 rpm for 30 to 600 minutes to coat the carbonaceous material with the solid electrolyte. coating a carbonaceous material with a solid electrolyte; and pressure-molding the solid electrolyte-coated carbonaceous material obtained in step,