mhurhangee/patent-ind-claim-en huggingface dataset:
An aerosol-generating article for producing an inhalable aerosol upon heating, the aerosol-generating article comprising: a rod of aerosol-generating substrate, the aerosol-generating substrate comprising homogenised plant material comprising tobacco particles and at least 2.5 percent by weight of non-tobacco plant flavour particles, on a dry weight basis, wherein the non-tobacco plant flavour particles comprise particles of eucalyptus, star anise, clove, ginger, rosemary or combinations thereof; an upstream element upstream of the rod of aerosol-generating substrate and abutting the upstream end of the rod of aerosol-generating substrate; and a downstream section arranged downstream of the rod of aerosol-generating substrate and in axial alignment with the rod of aerosol-generating substrate, the downstream section comprising one or more downstream elements. a rod of aerosol-generating substrate, the aerosol-generating substrate comprising homogenised plant material comprising tobacco particles and at least 2.5 percent by weight of non-tobacco plant flavour particles, on a dry weight basis, wherein the non-tobacco plant flavour particles comprise particles of eucalyptus, star anise, clove, ginger, rosemary or combinations thereof; an upstream element upstream of the rod of aerosol-generating substrate and abutting the upstream end of the rod of aerosol-generating substrate; and a downstream section arranged downstream of the rod of aerosol-generating substrate and in axial alignment with the rod of aerosol-generating substrate, the downstream section comprising one or more downstream elements.
A system that facilitates control of operations of a lock component, comprising: a lock pin that is configured to be movable between at least a first position and a second position to facilitate placement of the lock component in an unlocked state or a locked state based at least in part on whether the lock pin is in the first position or the second position; a solenoid component that is configured to apply a first force to a solenoid plunger , associated with the lock pin, and thereby to the lock pin, to hold the lock pin in the first position and apply a second force to the solenoid plunger, and thereby to the lock pin, to hold the lock pin in the second position at respective times without consuming power, based at least in part on predefined operation criteria; and an operation controller component (524; 600) that is configured to control at least a portion of the operations of the lock component, wherein, in response to reception of a signal that indicates a power off condition associated with the lock component is about to occur, the operation controller component is configured to transmit a signal to the solenoid component to have the solenoid component place or transition the lock pin in the second position to facilitate placement of the lock component in the locked state. a lock pin that is configured to be movable between at least a first position and a second position to facilitate placement of the lock component in an unlocked state or a locked state based at least in part on whether the lock pin is in the first position or the second position; a solenoid component that is configured to apply a first force to a solenoid plunger , associated with the lock pin, and thereby to the lock pin, to hold the lock pin in the first position and apply a second force to the solenoid plunger, and thereby to the lock pin, to hold the lock pin in the second position at respective times without consuming power, based at least in part on predefined operation criteria; and an operation controller component (524; 600) that is configured to control at least a portion of the operations of the lock component, wherein, in response to reception of a signal that indicates a power off condition associated with the lock component is about to occur, the operation controller component is configured to transmit a signal to the solenoid component to have the solenoid component place or transition the lock pin in the second position to facilitate placement of the lock component in the locked state.
A covering for underlays of flooring, comprising: - a membrane with a base from which studs extend which protrude upward with respect to a laying plane, - a draining layer which is joined in an upper region to said membrane at the top of said studs , - an anchoring lower layer which is joined in a lower region to said membrane at least at said base , characterized in that said anchoring lower layer is adapted to anchor said covering, and in that said covering further comprises : - a connecting strip , adapted for preventing the passage of water joining two adjacent coverings , that is joined to the perimetric region of said membrane , below said anchoring lower layer . - a membrane with a base from which studs extend which protrude upward with respect to a laying plane, - a draining layer which is joined in an upper region to said membrane at the top of said studs , - an anchoring lower layer which is joined in a lower region to said membrane at least at said base , characterized in that said anchoring lower layer is adapted to anchor said covering, and in that said covering further comprises : - a connecting strip , adapted for preventing the passage of water joining two adjacent coverings , that is joined to the perimetric region of said membrane , below said anchoring lower layer . characterized in that said anchoring lower layer is adapted to anchor said covering, and in that said covering further comprises : - a connecting strip , adapted for preventing the passage of water joining two adjacent coverings , that is joined to the perimetric region of said membrane , below said anchoring lower layer . - a connecting strip , adapted for preventing the passage of water joining two adjacent coverings , that is joined to the perimetric region of said membrane , below said anchoring lower layer .
A method of determining an asymmetric property of a structure, the method comprising: measuring, for a grating structure, a first signal and a second, different, signal obtained by optical scatterometry; determining a difference between the first signal and the second signal; and determining an asymmetric structural parameter of the grating structure based on a calculation using the first signal, the second signal, and the difference; wherein the grating structure is composed of a first material and further comprises a first sidewall spacer composed of a second material and a second sidewall spacer composed of a third material and on an opposite sidewall from the first sidewall spacer, and wherein the asymmetric structural parameter is the composition difference between the second and third materials. measuring, for a grating structure, a first signal and a second, different, signal obtained by optical scatterometry; determining a difference between the first signal and the second signal; and determining an asymmetric structural parameter of the grating structure based on a calculation using the first signal, the second signal, and the difference; wherein the grating structure is composed of a first material and further comprises a first sidewall spacer composed of a second material and a second sidewall spacer composed of a third material and on an opposite sidewall from the first sidewall spacer, and wherein the asymmetric structural parameter is the composition difference between the second and third materials.
A pest control and/or detection system comprising: a bait matrix comprising: an electrically conductive bait matrix comprising (a) a plurality of electrically conductive particles ; (b) a plurality of electrically conductive particles and a marker material , or (c) an electrically conductive marker material , wherein the bait matrix further comprises at least one carrier material that is at least one of palatable, a phagostimulant and/or consumable and/or displaceable by pests, and the electrically conductive particles or the electrically conductive marker material being randomly interspersed throughout at least a portion of the electrically conductive bait matrix , the at least one carrier material comprising at least one thermoplastic and/or a resin-type material. an electrically conductive bait matrix comprising (a) a plurality of electrically conductive particles ; (b) a plurality of electrically conductive particles and a marker material , or (c) an electrically conductive marker material , (a) a plurality of electrically conductive particles ; (b) a plurality of electrically conductive particles and a marker material , or (c) an electrically conductive marker material , wherein the bait matrix further comprises at least one carrier material that is at least one of palatable, a phagostimulant and/or consumable and/or displaceable by pests, and the electrically conductive particles or the electrically conductive marker material being randomly interspersed throughout at least a portion of the electrically conductive bait matrix , the at least one carrier material comprising at least one thermoplastic and/or a resin-type material.
A rectangular ventilating container for a waste bag manufactured of paper or bioplastic, said container being manufactured of a flexible polymer material and comprising a four-sided bottom basket part having partially open sides allowing for air circulation around the waste bag brought therein, four flexible corner posts attached to said basket part only at their bottom parts allowing the corner posts to be turned and/or bent for adaptation of said ventilating container into a frame work of a kitchen cabinet intended to support one or more waste bags and/or waste bag retaining vessels for separation of different waste fractions, and wave shaped ribbon-like carriers provided at the bottom of said basket part and running from side to side to allow for air circulation beneath the bottom of the introduced waste bag and to create a larger number of resting points in order to reduce the load on the waste bag.
A polymerization process for producing polyethylene polymers in a condensed mode contacting one or more monomers, at least one catalyst system, and a condensing agent in a reactor under polymerizable conditions to produce a polyethylene polymer, wherein the polyethylene polymers have a ASTM D1505 density in the range of from 0.905 g/cc to 0.918 g/cc; wherein the condensing agent comprises ≥95 mol% propane based on the total moles of condensing agent in the reactor; and wherein the level of condensable fluid is greater than 25 weight percent based on the total weight of the liquid and gas entering the reactor.
A processing system comprising: a cutting tool ; a sensor attached to the cutting tool; an AD (analog-to-digital) converter configured to perform sampling on an analog signal output from the sensor to generate a digital signal; and a processing unit, characterized by the processing unit being configured to, based on a rotation rate [rpm] of a rotor that rotates about a rotation axis, an upper-limit period that is an upper-limit value of a process period, and an upper-limit pitch that is an upper-limit value of an angle pitch [degree], the process period being a period with which a predetermined process is performed using the digital signal generated by the AD converter, the angle pitch being a rotation angle between two adjacent sampling time points in a coordinate system representing a phase at a time point of sampling performed by the AD converter in a rotation circle that is a path of a point that rotates about the rotation axis as the rotor rotates, determine the process period and a sampling frequency with which the AD converter performs sampling such that a set value of the angle pitch is equal to the upper-limit pitch or less in a time period taken by the rotor to rotate N times with the process period that is equal to the upper-limit period or shorter, wherein N and (360/ps) are integers of 2 or greater and are relatively prime, where ps denotes the set value. a cutting tool ; a sensor attached to the cutting tool; an AD (analog-to-digital) converter configured to perform sampling on an analog signal output from the sensor to generate a digital signal; and a processing unit, characterized by the processing unit being configured to, based on a rotation rate [rpm] of a rotor that rotates about a rotation axis, an upper-limit period that is an upper-limit value of a process period, and an upper-limit pitch that is an upper-limit value of an angle pitch [degree], the process period being a period with which a predetermined process is performed using the digital signal generated by the AD converter, the angle pitch being a rotation angle between two adjacent sampling time points in a coordinate system representing a phase at a time point of sampling performed by the AD converter in a rotation circle that is a path of a point that rotates about the rotation axis as the rotor rotates, determine the process period and a sampling frequency with which the AD converter performs sampling such that a set value of the angle pitch is equal to the upper-limit pitch or less in a time period taken by the rotor to rotate N times with the process period that is equal to the upper-limit period or shorter, wherein N and (360/ps) are integers of 2 or greater and are relatively prime, where ps denotes the set value.
A lubricating oil composition having a HTHS viscosity at 150°C, determined in accordance with ASTM D4683, in a range of about 1.7 to about 3.2 mPa s and a low temperature cold cranking viscosity of less than 7,000 mPa s at -20 °C, comprising: (a) a major amount of an oil of lubricating viscosity having a kinematic viscosity at 100°C of from 3.5 mm 2 /s to 20 mm 2 /s, a viscosity index of greater than 120, a sulfur content of less than 0.03 wt.%, classified into the API group III, IV, or V base stock category, and having an aromatics content (C A ) of less than 5 wt.%; (b) an organomolybdenum compound providing greater than 0.0050 wt.% of molybdenum to the lubricating oil composition; (c) a dispersed hydrated alkali metal borate compound providing greater than 0.0050 to about 0.060 wt.% of alkali metal to the lubricating oil composition; (d) optionally, a sulfur phosphorus anti-wear compound providing the lubricating oil composition with from 0 to about 0.06 wt.% of phosphorus; (e) one or more dispersants providing the lubricating oil composition with greater than 0.0050 to about 0.040 wt.% of nitrogen; and (f) one or more calcium-based metal detergents selected from salicylate, sulfonate, and phenate; (g) optionally, one or more magnesium-based metal detergents selected from salicylate, sulfonate, and phenate; and wherein the lubricating oil composition has a calcium content of from about 0.14 to about 0.30 wt.%, when present a magnesium content of from about 0.0005 to about 0.060 wt.%, a total nitrogen amount of from 0.0050 to about 0.090 wt.%, sulfur content of less than 0.13 wt.% and a sulfated ash level of from about 0.6 to about 1.1 wt.%. (a) a major amount of an oil of lubricating viscosity having a kinematic viscosity at 100°C of from 3.5 mm 2 /s to 20 mm 2 /s, a viscosity index of greater than 120, a sulfur content of less than 0.03 wt.%, classified into the API group III, IV, or V base stock category, and having an aromatics content (C A ) of less than 5 wt.%; (b) an organomolybdenum compound providing greater than 0.0050 wt.% of molybdenum to the lubricating oil composition; (c) a dispersed hydrated alkali metal borate compound providing greater than 0.0050 to about 0.060 wt.% of alkali metal to the lubricating oil composition; (d) optionally, a sulfur phosphorus anti-wear compound providing the lubricating oil composition with from 0 to about 0.06 wt.% of phosphorus; (e) one or more dispersants providing the lubricating oil composition with greater than 0.0050 to about 0.040 wt.% of nitrogen; and (f) one or more calcium-based metal detergents selected from salicylate, sulfonate, and phenate; (g) optionally, one or more magnesium-based metal detergents selected from salicylate, sulfonate, and phenate; and
A method for coloring an acetylated wood product, comprising: providing the acetylated wood product in a chamber; providing a coloring medium in liquid form containing one or more colorants into the chamber; causing the coloring medium to impregnate the acetylated wood product; and then heating the impregnated acetylated wood product to fix the one or more colorants to any exterior surface or any interior region of the acetylated wood product which has been impregnated by the coloring medium, without the use of binder or resin or other polymerisable chemicals, wherein the coloring medium penetrates into the acetylated wood product, and further comprising removing some or all of the coloring medium that did not penetrate into the acetylated wood product and replacing it with an uncolored liquid medium comprised of up to and including 100% water such that the acetylated wood product is completely immersed, wherein the heating is carried out in the uncolored liquid medium to heat the acetylated wood product to a temperature between 110°C to 140°C to fix the one or more colorants included in the coloring medium to those external surfaces and internal regions of the acetylated wood product impregnated by the coloring medium. providing the acetylated wood product in a chamber; providing a coloring medium in liquid form containing one or more colorants into the chamber; causing the coloring medium to impregnate the acetylated wood product; and then heating the impregnated acetylated wood product to fix the one or more colorants to any exterior surface or any interior region of the acetylated wood product which has been impregnated by the coloring medium, without the use of binder or resin or other polymerisable chemicals, wherein the coloring medium penetrates into the acetylated wood product, and further comprising removing some or all of the coloring medium that did not penetrate into the acetylated wood product and replacing it with an uncolored liquid medium comprised of up to and including 100% water such that the acetylated wood product is completely immersed, wherein the heating is carried out in the uncolored liquid medium to heat the acetylated wood product to a temperature between 110°C to 140°C to fix the one or more colorants included in the coloring medium to those external surfaces and internal regions of the acetylated wood product impregnated by the coloring medium.
A household appliance comprising: a control unit managing the operation of the appliance ; at least one hydraulic component (265a, 265b, 270, 271; 315a, 315b; 405a, 405b, 405c) actionable for water/treating liquids distribution within the appliance; a plurality of sensors (335; 420) arranged for acquiring information regarding physical parameters associated with the operation of the appliance, and a module (300; 400) managing at least part of the water/treating liquids distribution within the appliance, characterized in that the module (300; 400) is located within a casing or cabinet of the appliance, and in that the module comprises: the at least one hydraulic component (265a, 265b, 270, 271; 315a, 315b; 405a, 405b, 405c); at least two sensors (335; 420) of the plurality of sensors, and a local control unit managing the operation of the at least one hydraulic component and/or receiving the information acquired by the at least two sensors. a control unit managing the operation of the appliance ; at least one hydraulic component (265a, 265b, 270, 271; 315a, 315b; 405a, 405b, 405c) actionable for water/treating liquids distribution within the appliance; a plurality of sensors (335; 420) arranged for acquiring information regarding physical parameters associated with the operation of the appliance, and a module (300; 400) managing at least part of the water/treating liquids distribution within the appliance, characterized in that the module (300; 400) is located within a casing or cabinet of the appliance, and in that the module comprises: the at least one hydraulic component (265a, 265b, 270, 271; 315a, 315b; 405a, 405b, 405c); at least two sensors (335; 420) of the plurality of sensors, and a local control unit managing the operation of the at least one hydraulic component and/or receiving the information acquired by the at least two sensors. the at least one hydraulic component (265a, 265b, 270, 271; 315a, 315b; 405a, 405b, 405c); at least two sensors (335; 420) of the plurality of sensors, and a local control unit managing the operation of the at least one hydraulic component and/or receiving the information acquired by the at least two sensors.
A glass tubing manufacturing apparatus comprising: a glass delivery tank for containing molten glass , the glass delivery tank comprising a delivery orifice extending through a bottom of the glass delivery tank ; a bell head configured for forming molten glass into glass tubing, the bell head positioned at least partially beneath the delivery orifice of the glass delivery tank ; a support connected to the bell head , the support comprising: a bell shaft with an inner bore and an outer surface , the bell shaft extending from the bell head through the delivery orifice of the glass delivery tank to a bell shaft support ; a liner positioned in the inner bore of the bell shaft ; a thermal shield positioned around at least a portion of the outer surface of the bell shaft , the thermal shield extending through the glass delivery tank , wherein the thermal shield is spaced apart from the bell head . a glass delivery tank for containing molten glass , the glass delivery tank comprising a delivery orifice extending through a bottom of the glass delivery tank ; a bell head configured for forming molten glass into glass tubing, the bell head positioned at least partially beneath the delivery orifice of the glass delivery tank ; a support connected to the bell head , the support comprising: a bell shaft with an inner bore and an outer surface , the bell shaft extending from the bell head through the delivery orifice of the glass delivery tank to a bell shaft support ; a liner positioned in the inner bore of the bell shaft ; a thermal shield positioned around at least a portion of the outer surface of the bell shaft , the thermal shield extending through the glass delivery tank , wherein the thermal shield is spaced apart from the bell head . a bell shaft with an inner bore and an outer surface , the bell shaft extending from the bell head through the delivery orifice of the glass delivery tank to a bell shaft support ; a liner positioned in the inner bore of the bell shaft ; a thermal shield positioned around at least a portion of the outer surface of the bell shaft , the thermal shield extending through the glass delivery tank , wherein the thermal shield is spaced apart from the bell head .
Lighting module for a headlamp of a motor vehicle without a cover lens, the lighting module having a housing inside which at least one lens is installed, the housing having an extension at a lower front edge, the extension having at least one light , the housing having an extension at a lower front edge, the extension having at least one aperture for the flow of air in front of the lens .