mhurhangee/patent-ind-claim-en huggingface dataset:
A differential pressure sensor comprising: a body with a first end, a second end and a header wall therebetween, wherein the first end and the second end comprise first and second isolator diaphragms connected to first and second process fluid inlets, respectively; a MEMS pressure sensor including a pressure sensing diaphragm (D) with first and second sides mounted on a hollow pedestal that is adhesively attached to an annular bottom of a cylindrical cavity in the header wall, wherein the first side of the pressure sensing diaphragm is coupled to the first isolator diaphragm by a first fill fluid volume, and the second side of the sensor is coupled to the second isolator diaphragm through an interior of the hollow pedestal by a second fill fluid volume, the first and second fill fluid volumes being separated by an adhesive seal between the bottom of the cylindrical cavity and a bottom of the hollow pedestal, wherein the cylindrical cavity is defined by a first cylindrical wall portion with a first diameter in contact with the annular bottom, and a second cylindrical wall portion with a second diameter larger than the first diameter; and at least one sensor element on the pressure sensing diaphragm (D) configured to provide an indication of pressure differences between the first and second process fluids; characterized in that the MEMS pressure sensor further includes a frustoconical portion in contact with the first cylindrical wall portion and the second cylindrical wall portion a body with a first end, a second end and a header wall therebetween, wherein the first end and the second end comprise first and second isolator diaphragms connected to first and second process fluid inlets, respectively; a MEMS pressure sensor including a pressure sensing diaphragm (D) with first and second sides mounted on a hollow pedestal that is adhesively attached to an annular bottom of a cylindrical cavity in the header wall, wherein the first side of the pressure sensing diaphragm is coupled to the first isolator diaphragm by a first fill fluid volume, and the second side of the sensor is coupled to the second isolator diaphragm through an interior of the hollow pedestal by a second fill fluid volume, the first and second fill fluid volumes being separated by an adhesive seal between the bottom of the cylindrical cavity and a bottom of the hollow pedestal, wherein the cylindrical cavity is defined by a first cylindrical wall portion with a first diameter in contact with the annular bottom, and a second cylindrical wall portion with a second diameter larger than the first diameter; and at least one sensor element on the pressure sensing diaphragm (D) configured to provide an indication of pressure differences between the first and second process fluids; characterized in that the MEMS pressure sensor further includes a frustoconical portion in contact with the first cylindrical wall portion and the second cylindrical wall portion
A method for operating a multi-system air-conditioner which includes an outdoor unit comprising an outdoor unit controller for controlling operation of the outdoor unit and a compressor , and a plurality of indoor units each comprising an indoor unit controller , , the method comprising: transmitting (S106), by the indoor unit controller of each of the indoor units in operation, a setup temperature, a room temperature, and an air volume to the outdoor unit controller ,; calculating (S108), by the outdoor unit controller , a required capacity (Q) for the indoor units according to the setup temperature and the room temperature; and determining (S112, S116, S120, S124), by the outdoor unit controller , a maximum operating frequency of the compressor , characterized in that the maximum operating frequency of the compressor is determined according to the setup temperature, the room temperature, and the air volume, when the required capacity (Q) is equal to or less than a reference capacity (Q1). transmitting (S106), by the indoor unit controller of each of the indoor units in operation, a setup temperature, a room temperature, and an air volume to the outdoor unit controller ,; calculating (S108), by the outdoor unit controller , a required capacity (Q) for the indoor units according to the setup temperature and the room temperature; and determining (S112, S116, S120, S124), by the outdoor unit controller , a maximum operating frequency of the compressor , characterized in that the maximum operating frequency of the compressor is determined according to the setup temperature, the room temperature, and the air volume, when the required capacity (Q) is equal to or less than a reference capacity (Q1).
A coating composition comprising: at least one solvent; at least one alkyd resin; at least one drier; and an anti-skinning composition capable of preventing oxidative crosslinking of the resin to form a skin, the anti-skinning composition comprising at least 92 wt.% of an alkyl oxime based on the total weight of the anti-skinning composition, wherein the alkyl oxime is selected from 2-pentanone oxime and 3-methyl-2-butanone oxime; and wherein the at least one drier is an oxidation catalyst selected from cobalt esters and manganese esters. at least one solvent; at least one alkyd resin; at least one drier; and an anti-skinning composition capable of preventing oxidative crosslinking of the resin to form a skin, the anti-skinning composition comprising at least 92 wt.% of an alkyl oxime based on the total weight of the anti-skinning composition, wherein the alkyl oxime is selected from 2-pentanone oxime and 3-methyl-2-butanone oxime; and
Floor cleaning robot, comprising: - a cyclonic dust separation unit , comprising at least one spiral- or helix-shaped pipe around a spiral axis , for creating a spiral movement of a suction air flow, - an electric fan arranged for creating the suction air flow, - at least one drive wheel arranged for pivoting around a wheel axis , for causing a movement of the floor cleaning robot, wherein the spiral axis is parallel to the wheel axis , the electric fan has a rotating motor axis , and the rotating motor axis is parallel to the spiral axis and separate from the spiral axis , the floor cleaning robot further comprises: - two drive wheels , - at least one free wheel behind the robot, characterised in that , in a projection plane parallel to the floor to be cleaned, a projection of the rotating motor axis is arranged between a straight line connecting a projection of the contact points of the drive wheels with the floor and a projection of the contact point of said at least one free wheel with the floor. - a cyclonic dust separation unit , comprising at least one spiral- or helix-shaped pipe around a spiral axis , for creating a spiral movement of a suction air flow, - an electric fan arranged for creating the suction air flow, - at least one drive wheel arranged for pivoting around a wheel axis , for causing a movement of the floor cleaning robot, wherein the spiral axis is parallel to the wheel axis , the electric fan has a rotating motor axis , and the rotating motor axis is parallel to the spiral axis and separate from the spiral axis , the floor cleaning robot further comprises: - two drive wheels , - at least one free wheel behind the robot, characterised in that , in a projection plane parallel to the floor to be cleaned, a projection of the rotating motor axis is arranged between a straight line connecting a projection of the contact points of the drive wheels with the floor and a projection of the contact point of said at least one free wheel with the floor.
A modular fibre reinforced plastic flange for a structural composite beam comprising: a body formed of a plurality of cured or semi-cured elongate elements arranged in an array such that the longitudinal axes of the elongate elements are substantially parallel to one another, wherein the dimensions of the body are substantially determined by the number and arrangement of the elongate elements in the array; and a cured or semi-cured skin member at least partially surrounding a plurality of the elongate elements in the array; wherein the cured or semi-cured skin member comprises a socket to receive, in use, a shear web . a body formed of a plurality of cured or semi-cured elongate elements arranged in an array such that the longitudinal axes of the elongate elements are substantially parallel to one another, wherein the dimensions of the body are substantially determined by the number and arrangement of the elongate elements in the array; and a cured or semi-cured skin member at least partially surrounding a plurality of the elongate elements in the array; wherein the cured or semi-cured skin member comprises a socket to receive, in use, a shear web .
A security marker comprising: • a glassy matrix comprising at least the elements silicon and oxygen; and • a first crystalline phase formed by crystalline particles embedded in said matrix; wherein said particles are feldspars or feldspathoids; wherein the average size of said crystalline particles is less than 500 nm; and wherein an interface exists between the crystalline particles and the glassy matrix; wherein the crystalline particles consist of aggregates or agglomerates of nanoparticles, wherein said nanoparticles have an average size between 1 and 50 nm; and wherein the crystalline particles of the first crystalline phase are formed by a material selected from the group consisting of orthoclase, sanidine, microcline, anorthoclase, albite, oligoclase, andesine, labradorite, banalsite, bytownite, anorthite, leucite, nepheline, analcime, cancrinite, hauyne, lazurite, nosean, petalite, sodalite, and combinations thereof; and wherein the security marker is in a powder state. • a glassy matrix comprising at least the elements silicon and oxygen; and • a first crystalline phase formed by crystalline particles embedded in said matrix; wherein said particles are feldspars or feldspathoids; wherein the average size of said crystalline particles is less than 500 nm; and wherein an interface exists between the crystalline particles and the glassy matrix; wherein the crystalline particles consist of aggregates or agglomerates of nanoparticles, wherein said nanoparticles have an average size between 1 and 50 nm; and wherein the crystalline particles of the first crystalline phase are formed by a material selected from the group consisting of orthoclase, sanidine, microcline, anorthoclase, albite, oligoclase, andesine, labradorite, banalsite, bytownite, anorthite, leucite, nepheline, analcime, cancrinite, hauyne, lazurite, nosean, petalite, sodalite, and combinations thereof; and wherein the security marker is in a powder state.
Device comprising: - a transfer substrate comprising electric connection elements; - a plurality of first elementary monolithic chips bonded and electrically connected to the transfer substrate , each first elementary chip comprising at least one LED and one integrated electronic circuit for controlling said at least one LED , the device further comprising, associated with at least one of the first elementary chips , a second elementary chip comprising a vertical cavity surface-emitting laser diode, bonded and electrically connected to the transfer substrate , the first elementary chip comprising an integrated electronic circuit for controlling said laser diode. - a transfer substrate comprising electric connection elements; - a plurality of first elementary monolithic chips bonded and electrically connected to the transfer substrate , each first elementary chip comprising at least one LED and one integrated electronic circuit for controlling said at least one LED ,
Method for initialising a defrosting procedure in a refrigeration appliance with variable speed compressor , with the steps a) starting up (S10-S19; S21) the compressor with a rotational speed set to an initial value no, b) adapting (S3, S5) the rotational speed n t of the compressor , in order to prevent the temperature (Tin) of a storage chamber of the refrigeration appliance from drifting from a setpoint temperature, c) monitoring (S6) a deviation between the adapted rotational speed n t and the initial value no, and d) deciding (S7) that a defrosting is necessary when the deviation exceeds a limit value. a) starting up (S10-S19; S21) the compressor with a rotational speed set to an initial value no, b) adapting (S3, S5) the rotational speed n t of the compressor , in order to prevent the temperature (Tin) of a storage chamber of the refrigeration appliance from drifting from a setpoint temperature, c) monitoring (S6) a deviation between the adapted rotational speed n t and the initial value no, and d) deciding (S7) that a defrosting is necessary when the deviation exceeds a limit value.
A tubular body containing SiC fibers comprising: - a first SiC layer is sintered SiC and formed into a tubular shape; - a first groove which spirals in one direction along the outer periphery of the first SiC layer; - a first SiC fiber layer containing a plurality of SiC fibers wound along the first groove; - a second SiC fiber layer containing a plurality of SiC fibers wound outside the first SiC fiber layer in a direction different from the one direction; and - a second SiC layer of a SiC material covering the first SiC layer, the first SiC fiber layer, and the second SiC fiber layer, wherein the first SiC fiber layer and the second SiC fiber layer adjacent thereto are separated from each other at an intersection of the first SiC fiber layer and the second SiC fiber layer. - a first SiC layer is sintered SiC and formed into a tubular shape; - a first groove which spirals in one direction along the outer periphery of the first SiC layer; - a first SiC fiber layer containing a plurality of SiC fibers wound along the first groove; - a second SiC fiber layer containing a plurality of SiC fibers wound outside the first SiC fiber layer in a direction different from the one direction; and - a second SiC layer of a SiC material covering the first SiC layer, the first SiC fiber layer, and the second SiC fiber layer,
A lighter comprising a container of liquid fuel, a first gas circuit intended to produce a first type of flame and a second gas circuit intended to produce a second type of flame , said lighter further comprising a driver associated with a mechanism for producing sparks, an activation in rotation of said driver generating sparks, in which lighter the driver is mounted in the lighter while being translatable between a nominal first position for which it keeps the first circuit open so as to allow the liquid fuel from the container to pass through said first circuit and thus to obtain the first type of flame , and a second position for which it closes said first circuit , so as to allow said liquid fuel to pass through the second circuit and thus to obtain the second type of flame .
A method for producing a composition containing a hardly water-soluble aromatic compound, comprising: Step of obtaining a hardly water-soluble aromatic compound solution 1, Step comprising Step (1-1) of preparing a material for heating comprising (A) a hardly water-soluble aromatic compound, (B) a polyol, and (C) an aqueous medium, and Step (1-2) of obtaining a heated solution containing a hardly water-soluble aromatic compound by heating the material for heating at normal pressure at a temperature of from 50 to less than 100°C; and Step of obtaining a hardly water-soluble aromatic compound solution 2 by cooling the hardly water-soluble aromatic compound solution 1 to 0 to 35°C, followed by adding water such that the hardly water-soluble aromatic compound solution 2 has a concentration of the (A) hardly water-soluble aromatic compound above a saturation solubility at 25°C, wherein, in Step , a content of a surfactant in the material for heating is 0.1 mass% or less and a content of the (A) hardly water-soluble aromatic compound in the material for heating is below a saturation solubility of the (A) hardly water-soluble aromatic compound in a solvent having the same composition at 25°C. Step of obtaining a hardly water-soluble aromatic compound solution 1, Step comprising Step (1-1) of preparing a material for heating comprising (A) a hardly water-soluble aromatic compound, (B) a polyol, and (C) an aqueous medium, and Step (1-2) of obtaining a heated solution containing a hardly water-soluble aromatic compound by heating the material for heating at normal pressure at a temperature of from 50 to less than 100°C; and Step of obtaining a hardly water-soluble aromatic compound solution 2 by cooling the hardly water-soluble aromatic compound solution 1 to 0 to 35°C, followed by adding water such that the hardly water-soluble aromatic compound solution 2 has a concentration of the (A) hardly water-soluble aromatic compound above a saturation solubility at 25°C, wherein, in Step , a content of a surfactant in the material for heating is 0.1 mass% or less and a content of the (A) hardly water-soluble aromatic compound in the material for heating is below a saturation solubility of the (A) hardly water-soluble aromatic compound in a solvent having the same composition at 25°C.
An apparatus for detecting a marker implanted within tissue that includes an energy converter coupled to a circuit for changing a configuration of an antenna of the marker, the apparatus comprising: a set of transmit electrodes coupled to a signal generator for transmitting a drive current into tissue around the marker; a set of receive electrodes configured to detect voltage signals within the tissue corresponding to impedance of the tissue in response to the drive current; a light source for delivering light pulses into the body to cause the energy converter to activate and deactivate the circuit to change the configuration of the antenna of the marker; and a processor coupled to the receive electrodes for processing the voltage signals to identify changes in the impedance that are synchronized with the light pulses to determine whether the marker is operating properly. a set of transmit electrodes coupled to a signal generator for transmitting a drive current into tissue around the marker; a set of receive electrodes configured to detect voltage signals within the tissue corresponding to impedance of the tissue in response to the drive current; a light source for delivering light pulses into the body to cause the energy converter to activate and deactivate the circuit to change the configuration of the antenna of the marker; and a processor coupled to the receive electrodes for processing the voltage signals to identify changes in the impedance that are synchronized with the light pulses to determine whether the marker is operating properly.
A balcony glazing arrangement comprising a balcony glazing and at least one holding device , which is arranged to hold an upper frame member forming part of the balcony glazing , said balcony glazing being mountable between a lower slab and an upper slab located there above, wherein the holding device comprises an attachment part adapted for attachment of the holding device to the upper slab , characterized in that the holding device comprises an engagement part that is arranged on the attachment part and, when the holding device is attached to the upper slab , is displaceable vertically relative to the attachment part between a mounting position in which the engagement part allows mounting of the balcony glazing , and an operative position in which the engagement part is engaging said upper frame member thereby holding the balcony glazing .
An electric drivetrain for a motor vehicle, comprising: a primary motor-generator assembly including a primary mover, a first gearbox , and a first clutch , wherein the first gearbox is in driving engagement with the primary mover and the first clutch and the first clutch is in selective driving engagement with a drive shaft and the primary mover; an electric axle drive unit including a differential assembly , a second motor-generator assembly in driving engagement with a first wheel assembly, a third motor-generator assembly in driving engagement with a second wheel assembly, a first axle clutch and a second axle clutch ; and a power source in communication with the second motor-generator assembly and the third motor-generator assembly , wherein the differential assembly is in selective driving engagement with the first clutch , in selective driving engagement with the second motor-generator assembly via the first axle clutch , and in selective driving engagement the third motor-generator assembly via the second axle clutch , wherein the electric axle drive unit is selectively drivingly engaged with the primary motor-generator assembly via the first clutch , wherein the second motor-generator assembly includes a second motor-generator and a second gearbox portion , wherein the third motor-generator assembly includes a third motor-generator and a third gearbox portion , and wherein the third gearbox and second gearbox portions are reduction gearboxes. a primary motor-generator assembly including a primary mover, a first gearbox , and a first clutch , wherein the first gearbox is in driving engagement with the primary mover and the first clutch and the first clutch is in selective driving engagement with a drive shaft and the primary mover; an electric axle drive unit including a differential assembly , a second motor-generator assembly in driving engagement with a first wheel assembly, a third motor-generator assembly in driving engagement with a second wheel assembly, a first axle clutch and a second axle clutch ; and a power source in communication with the second motor-generator assembly and the third motor-generator assembly , wherein the differential assembly is in selective driving engagement with the first clutch , in selective driving engagement with the second motor-generator assembly via the first axle clutch , and in selective driving engagement the third motor-generator assembly via the second axle clutch , wherein the electric axle drive unit is selectively drivingly engaged with the primary motor-generator assembly via the first clutch , wherein the second motor-generator assembly includes a second motor-generator and a second gearbox portion , wherein the third motor-generator assembly includes a third motor-generator and a third gearbox portion , and wherein the third gearbox and second gearbox portions are reduction gearboxes.
An enhanced ejection device for an automatic dispenser of the automatic vending machine type, suitable for being incorporated in said automatic vending machine and being applied to a shelf subdivided into a number of seats or channels defined by opposing separator elements or shoulders internally to which there are accommodated products of different types, comprising handling and ejection means for handling and ejecting products from said seats or channels, quickly couplable with/decoupable from the shelf by means of quick-coupling means formed on said shelf and comprising a platform longitudinally developed and a patterned appendage , said platform comprising an upper front featuring a grating-type structure defined by a plurality of transversal bands being parallel to and equally spaced from each other having two adjacent transversal bands spaced away from each other by an empty transversal portion for positioning said handling and ejection means , said patterned appendage formed in correspondence with one of the opposing longitudinal edges of the platform and "comb"-shaped, with a plurality of teeth spaced away from each other by slots , said teeth and slots developing all over the length of the longitudinal development of said patterned appendage , characterised in that a locking element is put in a further plate-like element (36") on two adjacent teeth of the further plate-like element (36"), a threaded shaft being positioned and inserted in the slot interposed between said two teeth and in the empty transversal portion of the upper front of the platform , a guide being inserted in said empty transversal portion , a pusher element being arranged perpendicularly to the upper front of the platform and being slidable with respect thereto and internally to the seat or channel .