mhurhangee/ep-ind-claims huggingface dataset:
An acoustic wave drying system for drying a material, comprising: an airflow source; an acoustic resonant chamber that imparts acoustic energy to air flowing through the acoustic resonant chamber including: an air inlet for receiving air from the airflow source; an air outlet for directing air onto the material which is spaced apart from the outlet by a gap distance; a primary air channel having side surfaces connecting the air inlet and the air outlet, the primary air channel having a primary air channel length (Lp) between the air inlet and the air outlet; and one or more secondary closed-end resonant chambers formed into a side surface of the primary air channel, the secondary closed-end resonant chambers having side surfaces and secondary resonant chamber lengths (L s); wherein an acoustic pressure provided at a surface of the material is at least 125 dB-SPL, and wherein the air directed onto the material impinges on the surface of the material with an air velocity of no more than 40 m/s; characterized by the primary air channel length (Lp) and the secondary resonant chamber lengths (L s) being selected such that more than 70% of the acoustic energy is imparted in a single main resonant mode. an airflow source; an acoustic resonant chamber that imparts acoustic energy to air flowing through the acoustic resonant chamber including: an air inlet for receiving air from the airflow source; an air outlet for directing air onto the material which is spaced apart from the outlet by a gap distance; a primary air channel having side surfaces connecting the air inlet and the air outlet, the primary air channel having a primary air channel length (Lp) between the air inlet and the air outlet; and one or more secondary closed-end resonant chambers formed into a side surface of the primary air channel, the secondary closed-end resonant chambers having side surfaces and secondary resonant chamber lengths (L s); an air inlet for receiving air from the airflow source; an air outlet for directing air onto the material which is spaced apart from the outlet by a gap distance; a primary air channel having side surfaces connecting the air inlet and the air outlet, the primary air channel having a primary air channel length (Lp) between the air inlet and the air outlet; and one or more secondary closed-end resonant chambers formed into a side surface of the primary air channel, the secondary closed-end resonant chambers having side surfaces and secondary resonant chamber lengths (L s); wherein an acoustic pressure provided at a surface of the material is at least 125 dB-SPL, and wherein the air directed onto the material impinges on the surface of the material with an air velocity of no more than 40 m/s; characterized by the primary air channel length (Lp) and the secondary resonant chamber lengths (L s) being selected such that more than 70% of the acoustic energy is imparted in a single main resonant mode.
A floor spacer for a vehicle which can be accommodated and placed in a recessed groove existing in a floor frame of a vehicle, comprising at least: a floor spacer main body constituted of an expanded resin molded article having a flat plate portion (12a, 12b) to be on an inner side of a compartment, and on a floor frame side a plurality of ridges (13a, 13b, 13c) vertically provided at a back surface of said flat plate portion (12a, 12b); and provided with compression strength necessary for the floor spacer for a vehicle; and a layer constituted of a sound absorbing material which is disposed to fill a space (14a, 14b, 14c) formed between said ridges (13a, 13b, 13c) and is formed to fill all or some of spaces formed between the ridges (14a, 14b, 14c) characterized in that the layer constituted of a sound absorbing material has a thickness substantially the same as or below the height of the ridges (13a, 13b, 13c), wherein the ridges (13a, 13b, 13c) of the floor spacer main body directly contact the floor frame on which the floor spacer can be placed and wherein the sound absorbing material is an easily compressible material, any of felt, a polyurethane foam and non-woven fabric. a floor spacer main body constituted of an expanded resin molded article having a flat plate portion (12a, 12b) to be on an inner side of a compartment, and on a floor frame side a plurality of ridges (13a, 13b, 13c) vertically provided at a back surface of said flat plate portion (12a, 12b); and provided with compression strength necessary for the floor spacer for a vehicle; and a layer constituted of a sound absorbing material which is disposed to fill a space (14a, 14b, 14c) formed between said ridges (13a, 13b, 13c) and is formed to fill all or some of spaces formed between the ridges (14a, 14b, 14c) characterized in that the layer constituted of a sound absorbing material has a thickness substantially the same as or below the height of the ridges (13a, 13b, 13c), wherein the ridges (13a, 13b, 13c) of the floor spacer main body directly contact the floor frame on which the floor spacer can be placed and wherein the sound absorbing material is an easily compressible material, any of felt, a polyurethane foam and non-woven fabric.
Timepiece movement component (10, 20, 30, 40, 50) comprising a vitroceramic comprising a crystalline phase representing at least 50% by volume of said vitroceramic, the remainder of the vitroceramic being a vitreous matrix, at least 50% of said crystalline phase being of the mica type, said vitroceramic comprising at least one additional element providing at least one zone of the vitroceramic with a colour, shade or luminescence different from that of the rest of the vitroceramic, characterised in that this zone defines indications or motifs constituting decorations of the surface of the component and in that said at least one additional element comprises: (a) a metal element selected from gold and copper and providing the at least one zone with a colour different from that of the rest of the component; or (b) a metal oxide such as aluminium oxide or zirconium oxide, the shade of the at least one zone being different from that of the rest of the component; or (c) metal ions of one of the elements of the group of rare earths, e.g. erbium or europium ions, of one of the elements of the group of transition metals, e.g. yttrium ions or of one of the elements of the group of post-transition metals, e.g. bismuth ions, the luminescence of the at least one zone being different from that of the rest of the component. (a) a metal element selected from gold and copper and providing the at least one zone with a colour different from that of the rest of the component; or (b) a metal oxide such as aluminium oxide or zirconium oxide, the shade of the at least one zone being different from that of the rest of the component; or (c) metal ions of one of the elements of the group of rare earths, e.g. erbium or europium ions, of one of the elements of the group of transition metals, e.g. yttrium ions or of one of the elements of the group of post-transition metals, e.g. bismuth ions, the luminescence of the at least one zone being different from that of the rest of the component.
A method of controlling heat exchange via a terminal unit (10 12) of a terminal-side circuit (10 - 12, 19) of a system for heating and/or ventilation and/or air-conditioning, the system for heating and/or ventilation and/or air-conditioning also comprising a source-side circuit (1, 2, 17, 18, 20, 21) coupled to the terminal-side circuit (10 - 12, 19), the method comprising the steps of: reading a terminal-side supply temperature signal indicative of a supply temperature associated with the terminal unit (10 - 12); producing a terminal-side measure of supply temperature from the terminal-side supply temperature signal; estimating a percentage demand signal as a function of the terminal-side measure of supply temperature; estimating an actual demand for power by rescaling a value of maximum available power by the percentage demand signal; comparing the actual demand for power to the value of maximum available power; if the actual demand for power exceeds the value of maximum available power: producing a first flow control signal based on the value of maximum available power; and controlling a flow of a fluid through the source-side circuit (1, 2, 17, 18, 20, 21) in accordance with the first flow control signal. reading a terminal-side supply temperature signal indicative of a supply temperature associated with the terminal unit (10 - 12); producing a terminal-side measure of supply temperature from the terminal-side supply temperature signal; estimating a percentage demand signal as a function of the terminal-side measure of supply temperature; estimating an actual demand for power by rescaling a value of maximum available power by the percentage demand signal; comparing the actual demand for power to the value of maximum available power; if the actual demand for power exceeds the value of maximum available power: producing a first flow control signal based on the value of maximum available power; and controlling a flow of a fluid through the source-side circuit (1, 2, 17, 18, 20, 21) in accordance with the first flow control signal. producing a first flow control signal based on the value of maximum available power; and controlling a flow of a fluid through the source-side circuit (1, 2, 17, 18, 20, 21) in accordance with the first flow control signal.
A honey composition comprising: from 85% w/w kanuka honey to 95% w/w kanuka honey; and from 5% w/w glycerine to 15% w/w glycerine. from 85% w/w kanuka honey to 95% w/w kanuka honey; and from 5% w/w glycerine to 15% w/w glycerine.
A rotational intravascular ultrasound (IVUS) device, comprising: a flexible elongate member (102, 600, 700) having a proximal portion and a distal portion; a controller (144, 604) coupled to the distal portion of the flexible elongate member; an ultrasound transducer (142, 603) disposed at the distal portion of the flexible elongate member and in communication with the controller, wherein the ultrasound transducer comprises an ultrasound transducer imaging element configured to be rotated about an axis of the elongate member; a pressure transducer (131, 605) disposed at the distal portion of the flexible elongate member and in communication with the controller; and a plurality of conductors extending from the controller to the proximal portion of the flexible elongate member, at least one conductor of the plurality of conductors being configured to carry both the signals representing information captured by the ultrasound transducer and information captured by the pressure transducer. a flexible elongate member (102, 600, 700) having a proximal portion and a distal portion; a controller (144, 604) coupled to the distal portion of the flexible elongate member; an ultrasound transducer (142, 603) disposed at the distal portion of the flexible elongate member and in communication with the controller, wherein the ultrasound transducer comprises an ultrasound transducer imaging element configured to be rotated about an axis of the elongate member; a pressure transducer (131, 605) disposed at the distal portion of the flexible elongate member and in communication with the controller; and a plurality of conductors extending from the controller to the proximal portion of the flexible elongate member, at least one conductor of the plurality of conductors being configured to carry both the signals representing information captured by the ultrasound transducer and information captured by the pressure transducer.
Fourier transform spectrometer, comprising: - an interferential device configured to produce a variable difference in optical path length between at least two intermediate radiation beams (F1, F2) formed from an initial beam and to regroup said two intermediate beams in a final radiation beam; - a photodetector, disposed so as to receive the final radiation beam and configured to detect the received radiation by accumulating a measurement quantity as a function of an intensity of said received radiation; and - an electronic control unit, configured to command detection of the radiation received by the photodetector within a detection cycle, and to output a read signal (V L) at the end of said detection cycle; the spectrometer being characterised in that the electronic control unit is also configured to determine, within the detection cycle, two separate detection periods having equal respective durations, corresponding to respective average values for the difference in optical path length, and during each of which the radiation received by the photodetector is detected, and in that said spectrometer is also configured so that the read signal (V L) is equal to a difference between a first variation of the measurement quantity occurring during a first of the detection periods and a second variation in said measurement quantity occurring during a second of said detection periods, and configured to perform successively several detection cycles for incremented values of the difference in optical path length, so that a Fourier transformation performed on the successive values of the read signal (V L) produces a characteristic of the spectral energy distribution of the radiation of the initial beam, multiplied by a wave number of the radiation. - an interferential device configured to produce a variable difference in optical path length between at least two intermediate radiation beams (F1, F2) formed from an initial beam and to regroup said two intermediate beams in a final radiation beam; - a photodetector, disposed so as to receive the final radiation beam and configured to detect the received radiation by accumulating a measurement quantity as a function of an intensity of said received radiation; and - an electronic control unit, configured to command detection of the radiation received by the photodetector within a detection cycle, and to output a read signal (V L) at the end of said detection cycle;
Method for managing an application session implemented by means of an application server, said application session being accessible by a plurality of communication terminals (12, 13, 18, 19, 20) in a group of communication terminals (14, 21) from at least a first group of terminals and a second group of terminals, the group of terminals (14, 21) being associated with a group of users (15, 22), the management method including providing access, for a first communication terminal, to a current application session initiated by a second communication terminal in a first group of terminals that is associated with a group of users, the users of which are authorized to share user data of the current application session, provided that said first communication terminal belongs to the first group of communication terminals, the provision of access to the current application session including, according to an identifier of the first client terminal included in a request to access said application session from the first communication terminal, determining a session identifier of said current application session initiated by the second communication terminal in the first group of communication terminals to which the first communication terminal belongs, the current application session being accessible simultaneously by the plurality of communication terminals (12, 13) in the first group of communication terminals, the user data delivered by the current application session to the first communication terminal and to the second communication terminal being coherent.
A method of heating fluids comprising: a. supplying a source of high voltage power of at least 100V; characterised by b. transforming said high voltage to low voltage in a range from 22V to 28V; and c. heating a non-insulated wired element with said low voltage to at least 400°C, thereby heating a fluid, the non-insulated wired element comprising substantially 80% nickel and 20% chrome or about 40% nickel and 21% chrome. a. supplying a source of high voltage power of at least 100V; characterised by b. transforming said high voltage to low voltage in a range from 22V to 28V; and c. heating a non-insulated wired element with said low voltage to at least 400°C, thereby heating a fluid, the non-insulated wired element comprising substantially 80% nickel and 20% chrome or about 40% nickel and 21% chrome.
Coated cellulose based substrate characterized in that said cellulose based substrate comprises a water-based biopolymer based barrier coating, said coating comprising a plasticizer, a water-dispersible nano-sized bentonite clay and a biopolymer comprising a native starch and/or a degraded starch and/or a chemically modified starch.
A dewatering system for separating a slurry into solid material and effluent water, said dewatering system comprising: a plurality of support frames arranged to enclose an interior space of said dewatering system, wherein the interior space is configured to receive the slurry; and geo-fabric material configured to filter the slurry received within the interior space, such that effluent water permeates through said geo-fabric material and is discharged from the interior space; wherein the dewatering system is acting for a slurry as a settling pond for settling solid material towards the bottom of the dewatering system and forming clarifying effluent water above the settled solid material, characterised in that said dewatering system further comprises: a dump door assembly integrated with at least one of said support frames, wherein said dump door assembly comprises a plurality of hatches, including an upper-most hatch, a lower-most hatch, and an intermediary hatch, wherein each hatch is configured to selectively open sequentially from the upper-most hatch to the lower-most hatch to allow clarified effluent water to be discharged from the interior space of said dewatering system, wherein said support frames each include a base, an exterior side, and an interior side, wherein said geo-fabric material is positioned on said interior side of said support frames, and wherein said dump door assembly is integrated with said interior side of said support frame. a plurality of support frames arranged to enclose an interior space of said dewatering system, wherein the interior space is configured to receive the slurry; and geo-fabric material configured to filter the slurry received within the interior space, such that effluent water permeates through said geo-fabric material and is discharged from the interior space; wherein the dewatering system is acting for a slurry as a settling pond for settling solid material towards the bottom of the dewatering system and forming clarifying effluent water above the settled solid material, characterised in that said dewatering system further comprises: a dump door assembly integrated with at least one of said support frames, wherein said dump door assembly comprises a plurality of hatches, including an upper-most hatch, a lower-most hatch, and an intermediary hatch, wherein each hatch is configured to selectively open sequentially from the upper-most hatch to the lower-most hatch to allow clarified effluent water to be discharged from the interior space of said dewatering system, wherein said support frames each include a base, an exterior side, and an interior side, wherein said geo-fabric material is positioned on said interior side of said support frames, and wherein said dump door assembly is integrated with said interior side of said support frame.
A method for assessing the resistance of a security module against an attempt to divert a communication pipe between a gate (GATE) of this security module and a gate (RFGATE) of a near-field communication router present in a telecommunication device to which the security module is intended to be connected, comprising the step of: (a) connecting the security module to a near-field communication router emulator; characterized in that it comprises the steps of: (b) having the emulator send (57, 59) at least one command to the security module, this command simulating the fact that the pipe used is not connected to a near-field communication gate (RFGATE); and (c) determining whether the security module accepts this command. (a) connecting the security module to a near-field communication router emulator; characterized in that it comprises the steps of: (b) having the emulator send (57, 59) at least one command to the security module, this command simulating the fact that the pipe used is not connected to a near-field communication gate (RFGATE); and (c) determining whether the security module accepts this command.
An engine oil lubricant composition comprising: (a) a polyalpha olefin base oil component in an amount of 50 wt% to 90 wt% based on the total weight of the engine oil lubricant composition, wherein the polyalpha olefin base oil component is a Group IV base oil and has a Noack volatility of 12.5% to 15%, (b) a Group II base oil component in an amount of 0.1 wt% to 50 wt% based on the total weight of the engine oil lubricant composition, (c) a non-borated succinimide dispersant having a peak molecular weight of 6000 or less as determined using gel permeation chromatography with polystyrene calibration standard, in an amount of 0.1 wt% to 8 wt% based on the total weight of the engine oil lubricant composition, and (d) a friction modifier, wherein the engine oil lubricant composition has a kinematic viscosity at 100°C of 10 cSt or less, a high temperature high shear viscosity at 150°C of 2.2 cP or less, and a Noack volatility of 20% or less. (a) a polyalpha olefin base oil component in an amount of 50 wt% to 90 wt% based on the total weight of the engine oil lubricant composition, wherein the polyalpha olefin base oil component is a Group IV base oil and has a Noack volatility of 12.5% to 15%, (b) a Group II base oil component in an amount of 0.1 wt% to 50 wt% based on the total weight of the engine oil lubricant composition, (c) a non-borated succinimide dispersant having a peak molecular weight of 6000 or less as determined using gel permeation chromatography with polystyrene calibration standard, in an amount of 0.1 wt% to 8 wt% based on the total weight of the engine oil lubricant composition, and (d) a friction modifier,
Window, in particular for a low energy house or a passive house, with a window profile element (11, 12, 30) and a glazing, where the window profile element (11, 12, 30) is connected at least area-wise with an insulating element, where the insulating element has panel-like insulating material and where the insulating element is furthermore provided area-wise with a cover profile, and where the insulating element, on both sides of the panel-like insulating material, has, at least area-wise, in each case a top layer, characterized in that both top layers are fibre glass top layers with a thickness in a range of from 0.5 mm to 2.5 mm.