mhurhangee/patent-ind-claim-en huggingface dataset:
Hermetic compressor, comprising: - an airtight housing ; - at least one reciprocating compression mechanism arranged within the airtight housing ; and - at least one muffler ; said hermetic compressor being characterized in that said muffler is formed between one of the inner face and outer face of the airtight housing and the inner face of a first modular body , the latter being hermetically attached to the same said one of the inner face and outer face of the airtight housing ; and said muffler comprises at least one inlet path and at least one outlet path . - an airtight housing ; - at least one reciprocating compression mechanism arranged within the airtight housing ; and - at least one muffler ; said hermetic compressor being characterized in that said muffler is formed between one of the inner face and outer face of the airtight housing and the inner face of a first modular body , the latter being hermetically attached to the same said one of the inner face and outer face of the airtight housing ; and said muffler comprises at least one inlet path and at least one outlet path .
A battery monitoring unit configured for estimating a battery discharging current of a battery comprising: a tranceiver configured to send or receive data, a processor , and a memory , said memory containing instructions executable by said processor, whereby said battery monitoring unit is operative and/ or configured to perform the following method steps: obtaining a ; first state-of-charge value indicative of a ratio between a current capacity and a maximum capacity of the battery , obtaining sensor data indicative of a first plurality of battery voltage values obtained at multiple subsequent points in time, determining a first voltage trend over time of the first plurality of battery voltage values, estimating a battery discharging current of the battery based on a relation, where the relation is dependent on the first voltage trend over time and the state-of-charge value. a tranceiver configured to send or receive data, a processor , and a memory , said memory containing instructions executable by said processor, whereby said battery monitoring unit is operative and/ or configured to perform the following method steps: obtaining a ; first state-of-charge value indicative of a ratio between a current capacity and a maximum capacity of the battery , obtaining sensor data indicative of a first plurality of battery voltage values obtained at multiple subsequent points in time, determining a first voltage trend over time of the first plurality of battery voltage values, estimating a battery discharging current of the battery based on a relation, where the relation is dependent on the first voltage trend over time and the state-of-charge value. obtaining a ; first state-of-charge value indicative of a ratio between a current capacity and a maximum capacity of the battery , obtaining sensor data indicative of a first plurality of battery voltage values obtained at multiple subsequent points in time, determining a first voltage trend over time of the first plurality of battery voltage values, estimating a battery discharging current of the battery based on a relation, where the relation is dependent on the first voltage trend over time and the state-of-charge value.
A method for performing an action on an application, the method comprising: storing, on a user device associated with a user , a list of control terms, each control term in the list of control terms configured to invoke the user device to instruct an application to perform a particular action; receiving, at the user device , a voice input from the user while continuously monitoring, at the user device , for spoken input, the voice input comprising one of the control terms in the list of control term stored on the user device and one or more other terms; before converting any portion of the voice input into text, identifying , by the user device , without receiving any additional input from the user after receiving the voice input that the voice input comprises the one of the control terms in the list of control terms stored on the user device ; in response to identifying that the voice input comprises the one of the control terms, processing , by the user device , the one or more other terms in the received voice input to identify a subject of the particular action for the application to perform, wherein processing the one or more other terms that follow the one of the control terms in the received voice input comprises performing speech-to-text conversion on the one or more other terms in the received voice input to identify the subject of the particular action; and instructing , by the user device , the application to perform the particular action based on the subject of the particular action identified by the processing of the one or more other terms. storing, on a user device associated with a user , a list of control terms, each control term in the list of control terms configured to invoke the user device to instruct an application to perform a particular action; receiving, at the user device , a voice input from the user while continuously monitoring, at the user device , for spoken input, the voice input comprising one of the control terms in the list of control term stored on the user device and one or more other terms; before converting any portion of the voice input into text, identifying , by the user device , without receiving any additional input from the user after receiving the voice input that the voice input comprises the one of the control terms in the list of control terms stored on the user device ; in response to identifying that the voice input comprises the one of the control terms, processing , by the user device , the one or more other terms in the received voice input to identify a subject of the particular action for the application to perform, wherein processing the one or more other terms that follow the one of the control terms in the received voice input comprises performing speech-to-text conversion on the one or more other terms in the received voice input to identify the subject of the particular action; and instructing , by the user device , the application to perform the particular action based on the subject of the particular action identified by the processing of the one or more other terms.
A foldable cot , comprising a bottom portion and a stretchable side wall extending from the bottom portion upwardly to an upper edge of the side wall , further comprising a frame movable from a folded state wherein the upper edge of the side wall is close to the bottom portion , and an unfolded state wherein the side wall is stretched such that the upper edge of the side wall is remote from the bottom portion , the frame including a side wall frame element and a frame arm extending along the side wall of the foldable cot , the frame arm being pivotably attached to the side wall frame element and having a bottom end that exerts, in the unfolded state, a force on the bottom portion of the cot , away from the side wall frame element , the foldable cot also comprising an adapter mounted to the side wall frame element for connecting the foldable cot to a bearing frame of a buggy , the adapter having a rotatable element that is rotatably attached to the side wall frame element , the adapter further having connecting means fixedly attached to the rotatable element for connecting to a portion of said bearing frame of a buggy , the adapter also having an engaging element fixedly attached to the rotatable element and extending from the side wall beyond the frame arm such that upon pivoting the bottom end of the frame arm towards the bottom portion so as to bring the frame in the unfolded state, the frame arm engages the engaging element inducing the rotatable element and the connecting means to swivel relative to the side wall frame element of the frame .
A power module comprising: a first high-side switching element (XMH) and a second low-side switching element (XML) that are connected in a half-bridge configuration; an integrated circuit (HVIC) including a high-side circuit (HS) that is adapted to drive the first switching element (XMH) and a low-side circuit (LS) that is adapted to drive the second switching element (XML); a high-side programmable circuit that is able to implement a desired first logic function or parameter to be used by the high-side circuit (HS); and a low-side programmable circuit that is able to implement a desired second logic function or parameter to be used by the low-side circuit (LS), wherein the integrated circuit (HVIC) includes a write port that is adapted to receive data of one system for a program control signal to be written to the high-side programmable circuit and the low-side programmable circuit , characterized in that the integrated circuit (HVIC) includes internal wiring that connects the high-side programmable circuit and the low-side programmable circuit in a daisy chain configuration, and a level shifter that is provided on the internal wiring connected to the high-side programmable circuit and that connects a low-side signal system and a high-side signal system. a first high-side switching element (XMH) and a second low-side switching element (XML) that are connected in a half-bridge configuration; an integrated circuit (HVIC) including a high-side circuit (HS) that is adapted to drive the first switching element (XMH) and a low-side circuit (LS) that is adapted to drive the second switching element (XML); a high-side programmable circuit that is able to implement a desired first logic function or parameter to be used by the high-side circuit (HS); and a low-side programmable circuit that is able to implement a desired second logic function or parameter to be used by the low-side circuit (LS), wherein the integrated circuit (HVIC) includes a write port that is adapted to receive data of one system for a program control signal to be written to the high-side programmable circuit and the low-side programmable circuit , characterized in that the integrated circuit (HVIC) includes internal wiring that connects the high-side programmable circuit and the low-side programmable circuit in a daisy chain configuration, and a level shifter that is provided on the internal wiring connected to the high-side programmable circuit and that connects a low-side signal system and a high-side signal system.
Method for processing requests, implemented by a domain name resolution proxy server of a first communication network (NW2) accessible by a terminal of a user via a communication tunnel established to a second communication network (NW1), the proxy server being included in said first network (NW2), said processing method comprising, on receiving (E10) a request for resolution of a domain name from the terminal, sent via the communication tunnel: - a step of obtaining (E20) an identifier of the user on the basis of at least one item of information contained in a field of the request; - a step of determining (E30), using said identifier of the user, whether or not this user is authorized to access said domain name; - if the user is authorized to access the domain name, a step of sending (E60) the terminal, via the communication tunnel, an IP address corresponding to the domain name accessible by the terminal via said second communication network; - otherwise, a step of rejecting (E40) the request from the terminal. - a step of obtaining (E20) an identifier of the user on the basis of at least one item of information contained in a field of the request; - a step of determining (E30), using said identifier of the user, whether or not this user is authorized to access said domain name; - if the user is authorized to access the domain name, a step of sending (E60) the terminal, via the communication tunnel, an IP address corresponding to the domain name accessible by the terminal via said second communication network; - otherwise, a step of rejecting (E40) the request from the terminal.
A positioning device comprising: - a receiving unit adapted to receive a value of an error used in satellite positioning at a first time interval and adapted to receive a correction value of the error at a second time interval that is 1/n time interval of the first time interval, wherein n is an integer of two or larger; and - an error correction unit adapted to correct the value of the error at the second time interval by using the correction value, wherein the receiving unit receives at the first time interval a value of a frequency-dependent error that is an error dependent on a frequency of a carrier from a positioning satellite and a value of a frequency-independent error that is an error independent of the frequency of the carrier and receives, at the second time interval, a correction value of the frequency-independent error, and the error correction unit corrects the value of the frequency-independent error at the second time interval by using the correction value, further comprising a correction value calculation unit adapted to calculate a correction value of the frequency-dependent error for the every second time interval, wherein the error correction unit corrects, at the second time interval, the value of the frequency-independent error by using the correction value received by the receiving unit and the value of the frequency-dependent error by using the correction value calculated by the correction value calculation unit, characterized in that : the correction value calculation unit calculates a correction value of the frequency-dependent error for the every second time interval by linear interpolation employing time extrapolation. - a receiving unit adapted to receive a value of an error used in satellite positioning at a first time interval and adapted to receive a correction value of the error at a second time interval that is 1/n time interval of the first time interval, wherein n is an integer of two or larger; and - an error correction unit adapted to correct the value of the error at the second time interval by using the correction value, wherein
A process for manufacturing a purified aromatic carboxylic acid comprising: generating high-pressure steam from boiler feed water supplied to a boiler; oxidizing a substituted aromatic hydrocarbon in a reaction zone to form a crude aromatic carboxylic acid; heating the crude aromatic carboxylic acid in a heating zone by indirect contact with the high-pressure steam, whereby the high pressure steam is condensed in the heating zone to form a high-pressure condensate; and purifying the heated crude aromatic carboxylic acid to form a purified aromatic carboxylic acid, wherein purification comprises hydrogenation of the heated crude aromatic carboxylic acid; wherein the boiler feed water comprises at least a portion of the high-pressure condensate. generating high-pressure steam from boiler feed water supplied to a boiler; oxidizing a substituted aromatic hydrocarbon in a reaction zone to form a crude aromatic carboxylic acid; heating the crude aromatic carboxylic acid in a heating zone by indirect contact with the high-pressure steam, whereby the high pressure steam is condensed in the heating zone to form a high-pressure condensate; and purifying the heated crude aromatic carboxylic acid to form a purified aromatic carboxylic acid, wherein purification comprises hydrogenation of the heated crude aromatic carboxylic acid; wherein the boiler feed water comprises at least a portion of the high-pressure condensate.
A turbine ring assembly comprising a plurality of ring sectors made of ceramic matrix composite material forming a turbine ring , and a ring support structure having two annular flanges (32; 36), each ring sector having a portion forming an annular base with an inner face defining the inside face of the turbine ring and an outer face from which there project at least two tabs (14; 16), the tabs (14; 16) of each ring sector being retained between the two annular flanges (32; 36) of the ring support structure , each tab (14; 16) of the ring sectors including a projecting portion (140; 160) on its face (14a; 16a) situated facing one of the two annular flanges (32; 36), this projecting portion (140; 160) co-operating with a housing (320; 360) present in the annular flange (32; 36), and each tab (14; 16) of the ring sectors including at least one opening (15; 17) in which there is received a portion of a retention element (40a; 40b) secured to the annular flange (32; 36) situated facing said tab (14; 16), clearance (J) being present between the opening (15; 17) of said tab (14; 16) and the portion of the retention element (40a; 40b) present in said opening (15; 17), said retention element (40a; 40b) being made of a material having a coefficient of thermal expansion that is greater than the coefficient of thermal expansion of the ceramic matrix composite material of the ring sectors , characterized in that the housing (320; 360) in the annular flange (32; 36) presents at least first and second sloping portions (360a; 360b) bearing against the projecting portion (140; 160) co-operating with said housing (320; 360), said first and second sloping portions (360a; 360b), when observed in meridian section, each forming a non-zero angle (α 1 ; α 2 ; α 3 ; α 4 ) relative to the radial direction (DR) and relative to the axial direction (DA).
A compound for use in the treatment or prevention of a viral disease in a subject, wherein the viral disease is caused by a human respiratory syncytial virus (HRSV), wherein the compound is lonafarnib, or a solvate, salt, stereoisomer, complex, polymorph, crystalline form, racemic mixture, diastereomer, enantiomer, tautomer, isotopically labelled form thereof, and combinations thereof.
A method for separating hydrocarbon fluids from water and solid material within a main tubular of a subterranean well , the main tubular having a central axis , the method comprising: locating a transducer assembly within the subterranean well , the transducer assembly including a plurality of piezo electric transducers spaced along a length of the main tubular ; generating standing acoustic waves with the plurality of piezo electric transducers , the standing acoustic waves passing through the main tubular transverse to the central axis ; wherein a number of loops of the standing acoustic waves decreases in a direction of flow of fluids through the main tubular ; providing a production tubular in the subterranean well , an end of the production tubular aligned with a pressure antinode of an uppermost standing acoustic wave ; aligning a solid particle filter with a pressure node of the uppermost standing acoustic wave to filter solid particles from a dirty water stream to form a clean water. locating a transducer assembly within the subterranean well , the transducer assembly including a plurality of piezo electric transducers spaced along a length of the main tubular ; generating standing acoustic waves with the plurality of piezo electric transducers , the standing acoustic waves passing through the main tubular transverse to the central axis ; wherein a number of loops of the standing acoustic waves decreases in a direction of flow of fluids through the main tubular ; providing a production tubular in the subterranean well , an end of the production tubular aligned with a pressure antinode of an uppermost standing acoustic wave ; aligning a solid particle filter with a pressure node of the uppermost standing acoustic wave to filter solid particles from a dirty water stream to form a clean water.
A method for the dielectric heating of solids , comprising the following steps: - providing at least one live electrode and at least one shielding electrode on a first side of a solid and at least one coupling element on a second side of the solid , wherein the first side of the solid and the second side of the solid lie opposite one another; - setting the area ratio between the overlapping area between the surfaces of the at least one coupling element and the at least one shielding electrode and the surfaces of the at least one live electrode , wherein the area ratio is greater than 3:1; - coupling the at least one coupling element with the at least one shielding electrode in a manner that is at least partially capacitive; - applying a high-frequency voltage to the at least one live electrode , wherein the high-frequency voltage has a frequency in the range between 500 kHz and 500 MHz. - providing at least one live electrode and at least one shielding electrode on a first side of a solid and at least one coupling element on a second side of the solid , wherein the first side of the solid and the second side of the solid lie opposite one another; - setting the area ratio between the overlapping area between the surfaces of the at least one coupling element and the at least one shielding electrode and the surfaces of the at least one live electrode , wherein the area ratio is greater than 3:1; - coupling the at least one coupling element with the at least one shielding electrode in a manner that is at least partially capacitive; - applying a high-frequency voltage to the at least one live electrode , wherein the high-frequency voltage has a frequency in the range between 500 kHz and 500 MHz.
A method for repairing a rolled-over rail insulation joint, in which the rolled-over rail material and the deformed insulating insert situated therebeneath are ground out and/or separated out such that a gap results, corresponding with regard to width and thickness to the insulating insert , into which gap a repair insert is inserted and subsequently is connected in a materially-bonded and/or form-fitting manner with the remainders of the original insulating insert remaining in the gap and with the end faces of the rail ends abutting against the gap , characterized in that as repair insert a moulding of open-porous composite material is used, which has an adhesive/bonding strength with adhesives containing isocyanate of over 10 N/mm 2 .
A cooling mold for cooling a resin preform that has a gate portion protruding outward from a center of a bottom portion , wherein an accommodating space that accommodates the preform is formed in the cooling mold , a bottom region facing the bottom portion of the preform in the accommodating space has a shape following the bottom portion of the preform , and an air sucking hole that sucks air is formed in the bottom region at a position shifted from the center of the bottom portion of the preform , such that there is no air sucking hole at a position facing the gate portion of the preform in the cooling mold and a surface of the bottom region following the outer shape of the bottom portion of the preform faces the gate portion , such that the cooling mold is adapted for: sucking air from the air sucking holes of the cooling mold and drawing the preform into the accommodating space ; and collapsing the gate portion in the bottom region to remove the gate portion . an accommodating space that accommodates the preform is formed in the cooling mold , a bottom region facing the bottom portion of the preform in the accommodating space has a shape following the bottom portion of the preform , and an air sucking hole that sucks air is formed in the bottom region at a position shifted from the center of the bottom portion of the preform , such that there is no air sucking hole at a position facing the gate portion of the preform in the cooling mold and a surface of the bottom region following the outer shape of the bottom portion of the preform faces the gate portion , such that the cooling mold is adapted for: sucking air from the air sucking holes of the cooling mold and drawing the preform into the accommodating space ; and collapsing the gate portion in the bottom region to remove the gate portion . sucking air from the air sucking holes of the cooling mold and drawing the preform into the accommodating space ; and collapsing the gate portion in the bottom region to remove the gate portion .