mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: receiving, by a device, audio data based on a capturing of sounds associated with a structure; obtaining, by the device, a model associated with the structure, the model having been trained to: receive the audio data as input, determine a score that identifies a likelihood that a sound is present in the audio data, and identify the sound based on the score; identifying, by the device, using the model, the sound present in the audio data; determining, by the device, at least one parameter associated with the sound, wherein the at least one parameter includes a count associated with an occurrence of the sound; generating, by the device, a metric based on the at least one parameter associated with the sound, wherein generating the metric includes increasing the count for each additional occurrence of the sound during a specified time period; and performing, by the device, an action based on generating the metric. receiving, by a device, audio data based on a capturing of sounds associated with a structure; obtaining, by the device, a model associated with the structure, the model having been trained to: receive the audio data as input, determine a score that identifies a likelihood that a sound is present in the audio data, and identify the sound based on the score; receive the audio data as input, determine a score that identifies a likelihood that a sound is present in the audio data, and identify the sound based on the score; identifying, by the device, using the model, the sound present in the audio data; determining, by the device, at least one parameter associated with the sound, wherein the at least one parameter includes a count associated with an occurrence of the sound; generating, by the device, a metric based on the at least one parameter associated with the sound, wherein generating the metric includes increasing the count for each additional occurrence of the sound during a specified time period; and performing, by the device, an action based on generating the metric.
Separation system for separating impurities from an air flow; wherein the separation system comprises - a filter unit (103, 104) embodied as a hollow cylinder with an air filter, which surrounds a cylindrical collection region for impurities; - a cylindrical housing wall, which surrounds the filter unit (103, 104), so that a gap is formed between the housing wall and the filter unit (103, 104); and - an inlet channel which runs from the housing wall to the collection region and is embodied to guide the air flow with the impurities from outside the separation system to the collection region; wherein the separation system is embodied to guide the air flow from the collection region further through the filter unit (103, 104), via the gap, out of the separation system; characterised in that the filter unit (103, 104) has a recess, through which the inlet channel runs from the housing wall to the collection region. - a filter unit (103, 104) embodied as a hollow cylinder with an air filter, which surrounds a cylindrical collection region for impurities; - a cylindrical housing wall, which surrounds the filter unit (103, 104), so that a gap is formed between the housing wall and the filter unit (103, 104); and - an inlet channel which runs from the housing wall to the collection region and is embodied to guide the air flow with the impurities from outside the separation system to the collection region; wherein the separation system is embodied to guide the air flow from the collection region further through the filter unit (103, 104), via the gap, out of the separation system;
A method for cooling a dosing unit pertaining to SCR systems for exhaust cleaning, comprising a dosing unit for reducing agent and a feed device for said reducing agent, whereby said feed device is arranged to pump reducing agent from a container via a first line, and via a second line supply said reducing agent to said dosing unit, and where a third line is arranged between said dosing unit and said container, whereby said third line is adapted to leading back a certain amount of the reducing agent fed to the dosing unit to said container, comprising the steps of: - cooling said reducing agent dosing unit by means of reducing agent supplied to said dosing unit, whereby, at ordinary operation a return flow from said dosing unit to said container is essentially constant, and - after cessation of exhaust flow, intermittently running said feed device, whereby operation of said feed device being deactivated at certain periodicities and being subsequently reactivated, to supply said reducing agent to said dosing unit, and running said feed device at reduced power compared with ordinary operation, whereby a lower pressure towards said reducing agent dosing unit compared with ordinary operation is achieved. - cooling said reducing agent dosing unit by means of reducing agent supplied to said dosing unit, whereby, at ordinary operation a return flow from said dosing unit to said container is essentially constant, and - after cessation of exhaust flow, intermittently running said feed device, whereby operation of said feed device being deactivated at certain periodicities and being subsequently reactivated, to supply said reducing agent to said dosing unit, and running said feed device at reduced power compared with ordinary operation, whereby a lower pressure towards said reducing agent dosing unit compared with ordinary operation is achieved.
A multilayer film comprising: an intermediate layer comprising an ethylene alpha olefin copolymer of density 0.855-0.895 in a blend with at least 10% LDPE per weight an outer layer comprising an ethylene alpha olefin copolymer of density 0.92 to 0.950 a sealing layer comprising EMA and/or EVA, wherein the multilayer film has an oxygen permeability of more than 10,000 cc/m 2 *atm*24h as measured according to ASTM D3985 at 23°C and 0% relative humidity. an intermediate layer comprising an ethylene alpha olefin copolymer of density 0.855-0.895 in a blend with at least 10% LDPE per weight an outer layer comprising an ethylene alpha olefin copolymer of density 0.92 to 0.950 a sealing layer comprising EMA and/or EVA, wherein the multilayer film has an oxygen permeability of more than 10,000 cc/m 2 *atm*24h as measured according to ASTM D3985 at 23°C and 0% relative humidity.
An automatic balancing valve comprising a valve body having at least one inlet channel and at least one outlet channel in which, in the same valve body, a flow controller device and a differential-pressure regulator device are housed, and wherein said flow controller device includes at least one translationally movable plug and a respective valve seat that cooperates with said plug in order to adjust in automatic or manual way the fluid flow rate through the valve, a ring nut being combined with said flow controller device and arranged outside of said valve body, the ring nut being rotationally hand-operated to move a choking member placed inside the valve between an open position, in which the fluid exiting from the port defined between said plug and said valve seat is free to flow, and one or more choking positions in which the section for the passage of fluid exiting from the port comprised between said plug and said valve seat is reduced, wherein a plurality of toothed gears (50, 60) are provided for transmitting the movement from said ring nut to said choking member, characterized in that a ring gear is provided having an outer toothed surface and an inner surface with vertically protruding ribs engaged in corresponding grooves obtained on the outer surface of said choking member, so that the reciprocal axial movement between said ring gear and said choking member is allowed.
A dishware element for containing foodstuffs, wherein said dishware element is made of a composite material and includes two rigid layers: an upper layer having a face and a lower layer having an underside forming a base, where: - the upper layer has a thickness larger than or equal to three millimeters and is colorless and translucent; - the lower layer has a thickness larger than or equal to one millimeter, remaining smaller than that of the first layer; - the two layers (10, 11) cooperate together and form an integral element; said dishware element being characterized in that: - the upper layer is essentially constituted by a food-grade epoxy resin or by a food-grade poly(methyl methacrylate), said resin or said polymethacrylate being colorless and translucent; and - the lower layer is essentially constituted by an opaque epoxy resin. - the upper layer has a thickness larger than or equal to three millimeters and is colorless and translucent; - the lower layer has a thickness larger than or equal to one millimeter, remaining smaller than that of the first layer; - the two layers (10, 11) cooperate together and form an integral element; said dishware element being characterized in that: - the upper layer is essentially constituted by a food-grade epoxy resin or by a food-grade poly(methyl methacrylate), said resin or said polymethacrylate being colorless and translucent; and - the lower layer is essentially constituted by an opaque epoxy resin.
Exercise device comprising a pair of members and an anchor for mounting between a door and a door jamb of a closed door, the anchor for connection to the pair of members at a first portion, characterised in that the pair of members are made of inelastic material and have a length that extends from a corresponding grip to the connection to the first portion of the anchor, the anchor consisting of a first portion, an enlarged portion, and an elongate portion that extends between said first portion and said enlarged portion, the first portion having a connection for connection to the pair of members configured to extend from a first side of a closed door to a second side of the closed door, when the anchor is mounted between a door and a door jamb of the closed door, said enlarged portion is not passable through the closed door, and said elongate portion extends away from said door by a distance, wherein: the pair of members configured to be connected to the anchor each include a lengthening mechanism for transforming each of the members into an adjustable length member, and the first portion includes a loop, and each connection to the pair of members includes at least a reinforced hole at each end in the inelastic material for passing the hole into a gated ring; and wherein the gated ring is passed into the loop. the pair of members configured to be connected to the anchor each include a lengthening mechanism for transforming each of the members into an adjustable length member, and the first portion includes a loop, and each connection to the pair of members includes at least a reinforced hole at each end in the inelastic material for passing the hole into a gated ring; and wherein the gated ring is passed into the loop.
A method for cleaning an ion source component of an ion implanter, wherein said ion source component comprises an ionization chamber and one or more components contained within said ionization chamber, and wherein the interior of said ionization chamber and/or said one or more components contained within said ionization chamber have at least some deposits thereon of elements contained within a dopant gas, said method comprising: introducing into said ionization chamber a cleaning gas, said cleaning gas comprising a mixture of F 2, Ar, and O 2,, wherein the F 2 /[Ar + F 2] mole ratio is from 0.15 to 0.25, and the O 2 /[F 2 + O 2] mole ratio is from 0.25 to 0.45; and reacting said cleaning gas with said deposits under conditions sufficient to remove at least a portion of the deposits from the interior of said ionization chamber and/or from said one or more components contained within said ionization chamber, wherein at least a portion of the deposits are boron-containing. introducing into said ionization chamber a cleaning gas, said cleaning gas comprising a mixture of F 2, Ar, and O 2,, wherein the F 2 /[Ar + F 2] mole ratio is from 0.15 to 0.25, and the O 2 /[F 2 + O 2] mole ratio is from 0.25 to 0.45; and reacting said cleaning gas with said deposits under conditions sufficient to remove at least a portion of the deposits from the interior of said ionization chamber and/or from said one or more components contained within said ionization chamber, wherein at least a portion of the deposits are boron-containing.
A gas sensor for measuring concentration of a predetermined gas comprising a light source, a measurement volume, a detector arranged to receive light that has passed through the measurement volume, and an adaptable filter disposed between the light source and the detector and having a measurement state in which it passes at least one wavelength band which is absorbed by the gas and a reference state in which said wavelength band is attenuated relative to the measurement state wherein the adaptable filter is arranged to change between one of said measurement state and said reference state to the other, characterized in that the light source is arranged to emit pulses of light and whereby the adaptable filter is arranged to change between said states at least once during each pulse.
A protective device for an articulated vehicle provided with a plurality of carriages connected by an articulated joint, comprising: - a frame provided with a receiving cavity extending along a longitudinal direction; - a coupling member provided with a projecting portion shaped to be inserted into the receiving cavity and a supporting portion in which a housing cavity is made; - a tubular member configured to be inserted into the housing cavity in such a way as to be coupled to the coupling member; - a laminar member defining a bellows and stably connected in use, directly or indirectly, to the tubular member; - at least one pair of locking elements (9A,9B) configured to be inserted in use into the receiving cavity in two different regions in order to lock the coupling member to the frame, characterized in that each of the locking elements (9A,9B) comprises a plug (10A,10B), configured to be inserted into the receiving cavity, and a threaded member (11A,11B) operating on the plug (10A,10B) and adapted to be screwed to the frame in such a way as to lock the plug (10A,10B) inside the receiving cavity. - a frame provided with a receiving cavity extending along a longitudinal direction; - a coupling member provided with a projecting portion shaped to be inserted into the receiving cavity and a supporting portion in which a housing cavity is made; - a tubular member configured to be inserted into the housing cavity in such a way as to be coupled to the coupling member; - a laminar member defining a bellows and stably connected in use, directly or indirectly, to the tubular member; - at least one pair of locking elements (9A,9B) configured to be inserted in use into the receiving cavity in two different regions in order to lock the coupling member to the frame, characterized in that each of the locking elements (9A,9B) comprises a plug (10A,10B), configured to be inserted into the receiving cavity, and a threaded member (11A,11B) operating on the plug (10A,10B) and adapted to be screwed to the frame in such a way as to lock the plug (10A,10B) inside the receiving cavity.
A method of determining a posterior error probability distribution for a parameter measured by a Global Navigation Satellite System (GNSS) receiver (401, 506), the method comprising: receiving a value for each of one or more GNSS measurement quality indicators associated with the GNSS measurement of the parameter; inputting the or each received measurement quality indicator value into a multivariate probability distribution function to determine the posterior error probability distribution for the GNSS measurement; marginalising the multivariate probability distribution function with respect to the measurement quality indicator(s) to obtain a marginal probability distribution function; and normalising the multivariate probability distribution function using the marginal probability distribution function to obtain a conditional probability distribution, wherein the variates of the multivariate probability distribution function comprise measurement error for said parameter, and the or each measurement quality indicator, wherein one or more of the measurement quality indicator(s) is/are indicative of signal distortion of one or more GNSS satellite signals received by the GNSS receiver (401, 506), or one or more of the measurement quality indicator(s) is/are derived from one or more GNSS satellite signals received by the GNSS receiver (401, 506), and wherein one or more of the GNSS measurement quality indicator(s) comprises one or more of: carrier-to-noise density, carrier-to-noise density variability, carrier phase variance, multipath deviation, loss-of-lock detection, code lock time and phase lock time, satellite elevation, and satellite azimuth. receiving a value for each of one or more GNSS measurement quality indicators associated with the GNSS measurement of the parameter; inputting the or each received measurement quality indicator value into a multivariate probability distribution function to determine the posterior error probability distribution for the GNSS measurement; marginalising the multivariate probability distribution function with respect to the measurement quality indicator(s) to obtain a marginal probability distribution function; and normalising the multivariate probability distribution function using the marginal probability distribution function to obtain a conditional probability distribution, wherein the variates of the multivariate probability distribution function comprise measurement error for said parameter, and the or each measurement quality indicator, wherein one or more of the measurement quality indicator(s) is/are indicative of signal distortion of one or more GNSS satellite signals received by the GNSS receiver (401, 506), or one or more of the measurement quality indicator(s) is/are derived from one or more GNSS satellite signals received by the GNSS receiver (401, 506), and wherein one or more of the GNSS measurement quality indicator(s) comprises one or more of: carrier-to-noise density, carrier-to-noise density variability, carrier phase variance, multipath deviation, loss-of-lock detection, code lock time and phase lock time, satellite elevation, and satellite azimuth.
Process for making an encapsulation structure (100, 200, 250, 300, 400) for at least one electronic device, comprising at least the following steps: - make at least one portion of material (110, 202, 302, 304) capable of releasing at least one gas when said material is heated, the portion of material (110, 202, 302, 304) communicating with the inside of a hermetically closed cavity of the encapsulation structure (100, 200, 250, 300, 400), - heat all or part of said portion of material (110, 202, 302, 304) such that at least part of the gas is released from said portion of material (110, 202, 302, 304) in the cavity, and in which said portion of material (110, 202, 302, 304) capable of releasing at least one gas when said material is heated comprises elements trapped in said portion of material (110, 202, 302, 304), said trapped elements being released from said portion of material (110, 202, 302, 304) in gaseous form when said material is heated without decomposition of said portion of material (110, 202, 302, 304), this gas increasing the pressure in the cavity, so that a final pressure can be obtained in the hermetically closed cavity that is greater than the pressure in the cavity when it was closed, without the need for a gas implantation in the cavity after it has been closed. - make at least one portion of material (110, 202, 302, 304) capable of releasing at least one gas when said material is heated, the portion of material (110, 202, 302, 304) communicating with the inside of a hermetically closed cavity of the encapsulation structure (100, 200, 250, 300, 400), - heat all or part of said portion of material (110, 202, 302, 304) such that at least part of the gas is released from said portion of material (110, 202, 302, 304) in the cavity,
Concrete structural element: i) with a fibre reinforcement structure (12, 12'), which has multiple first fibre strands arranged in a first direction (x) and multiple second fibre strands arranged in a second direction (y), which strands forming a first grid arrangement (15, 15') with intersection points, at which the first fibre strands and the second fibre strands are interconnected, ii) wherein the first fibre strands and the second fibre strands respectively have a plastic component, iii) with further fibre strands (17a, 18b, 27, 28), which have a plastic component, iv) wherein the further fibre strands (17b, 18b, 27, 28) are connected at least in sections to the first fibre strands and/or the second fibre strands, and v) with a mineral body, which is composed of a filler material and a binder and into which the fibre reinforcement structure is embedded, characterised in that the further fibre strands (17b, 18b, 27, 28) are continuously connected lengthwise to the first fibre strands and/or the second fibre strands or leave gaps in sections. i) with a fibre reinforcement structure (12, 12'), which has multiple first fibre strands arranged in a first direction (x) and multiple second fibre strands arranged in a second direction (y), which strands forming a first grid arrangement (15, 15') with intersection points, at which the first fibre strands and the second fibre strands are interconnected, ii) wherein the first fibre strands and the second fibre strands respectively have a plastic component, iii) with further fibre strands (17a, 18b, 27, 28), which have a plastic component, iv) wherein the further fibre strands (17b, 18b, 27, 28) are connected at least in sections to the first fibre strands and/or the second fibre strands, and v) with a mineral body, which is composed of a filler material and a binder and into which the fibre reinforcement structure is embedded, characterised in that the further fibre strands (17b, 18b, 27, 28) are continuously connected lengthwise to the first fibre strands and/or the second fibre strands or leave gaps in sections.