mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a grain-oriented electrical steel sheet comprising a series of steps of subjecting a slab having a chemical composition comprising C: 0.002-0.10 mass%, Si: 2.5-6.0 mass%, Mn: 0.010-0.8 mass%, Al: less than 0.010 mass%, N: less than 0.0050 mass%, Se: less than 0.0030 mass% and S: less than 0.0050 mass%, and optionally one or more selected from Cr: 0.01-0.50 mass%, Cu: 0.01-0.50 mass%, P: 0.005-0.50 mass%, Ni: 0.01-1.50 mass%, Sb: 0.005-0.50 mass%, Sn: 0.005-0.50 mass%, Mo: 0.005-0.100 mass%, B: 0.0002-0.0025 mass%, Nb: 0.0010-0.0100 mass% and V: 0.001-0.01 mass%, provided that a mass ratio Al/N of Al and N is not less than 1.4, and the remainder being Fe and inevitable impurities to hot rolling, hot band annealing, one or two or more cold rollings sandwiching an intermediate annealing therebetween, formation of subscale on steel sheet surface through decarburization annealing, application of an annealing separator composed mainly of MgO onto steel sheet surface and finish annealing, characterized in that when a certain temperature within a range of 700-800°C in a heating process of the decarburization annealing is T1 and a certain temperature as a soaking temperature within a range of 820-900°C is T2, a heating rate R1 between 500°C and T1 is set to not less than 100°C/s and a heating rate R2 between T1 and T2 is set to not more than 15°C/s, and in that an oxygen potential P H2O /P H2 in an atmosphere reaching to the soaking temperature T2 in the decarburization annealing is within a range of 0.20-0.55, and in that a coating weight converted to oxygen per one-side surface of the steel sheet after the decarburization annealing is 0.30-0.75 g/m 2 .
A method for reducing mixing variation during a dynamic blending process, comprising the steps of: regulating a flow rate of active gas using a first control device ; regulating a flow rate of balance gas using a second flow control device ; blending the active gas with the balance gas to produce a blended gas mixture; measuring a concentration of the blended gas mixture when each of the (i) pressure across the analyzer , (ii) the flow rate of the active gas; and (iii) the flow rate of the balance gas has stabilized to their corresponding target values to generate a measured concentration of the blended gas mixture; minimizing variation between the measured concentration of the blended gas mixture and the target concentration of the blended mixture by dynamically fine-tuning the flow rate of the active gas and/or the flow rate of the balance gas in response to the measured concentration; characterized in that said concentration of the blended gas mixture is measured with an in-line analyzer situated downstream of the mixer ; and said fine-tuning occurs in the absence of any recycling and of any venting of the blended gas mixture. regulating a flow rate of active gas using a first control device ; regulating a flow rate of balance gas using a second flow control device ; blending the active gas with the balance gas to produce a blended gas mixture; measuring a concentration of the blended gas mixture when each of the (i) pressure across the analyzer , (ii) the flow rate of the active gas; and (iii) the flow rate of the balance gas has stabilized to their corresponding target values to generate a measured concentration of the blended gas mixture; minimizing variation between the measured concentration of the blended gas mixture and the target concentration of the blended mixture by dynamically fine-tuning the flow rate of the active gas and/or the flow rate of the balance gas in response to the measured concentration; characterized in that said concentration of the blended gas mixture is measured with an in-line analyzer situated downstream of the mixer ; and said fine-tuning occurs in the absence of any recycling and of any venting of the blended gas mixture.
Cover device for a side sill of a passenger vehicle, comprising a sill cover which comprises a first cover element arranged in a length region (L) of the side sill underneath a door opening and a second cover element arranged in the length region (L) underneath the door opening , and comprising a drive unit (A) by means of which the first cover element is pivotable about a first pivot axis (S1) and the second cover element is pivotable about a second pivot axis (S2), which is spaced apart from the first pivot axis (S1) and extends in parallel with the first pivot axis (S1), relative to the side sill between a cover position (V) and a comfort position (K), characterized in that the drive unit (A) is designed as a spindle drive which comprises a motor common to the cover elements , a spindle which is common to the cover elements and is rotatable by means of the motor , and a driver element which is common to the cover elements and is screwed onto the spindle , which driver element can be moved along the spindle by rotating the spindle relative to the driver element , as a result of which the cover elements can be pivoted.
A controller and a drivetrain assembly for a personal care device , the drivetrain assembly comprising: a resonator connected to a transmission component configured to transmit oscillations to a removable attachment; and a drive coil configured to oscillate the resonator in a first direction; wherein the drive coil is configured to generate an installation or removal signal in response to installation or removal of the removable attachment, wherein the installation or removal of the removable attachment generates movement of the resonator in a second direction; wherein the drivetrain assembly is configured to communicate the generated installation or removal signal to the controller wherein the controller is configured to interpret the received installation or removal signal as installation or removal of the removable attachment , respectively. a resonator connected to a transmission component configured to transmit oscillations to a removable attachment; and a drive coil configured to oscillate the resonator in a first direction; wherein the drive coil is configured to generate an installation or removal signal in response to installation or removal of the removable attachment, wherein the installation or removal of the removable attachment generates movement of the resonator in a second direction; wherein the drivetrain assembly is configured to communicate the generated installation or removal signal to the controller wherein the controller is configured to interpret the received installation or removal signal as installation or removal of the removable attachment , respectively.
An anionic surfactant of the general formula (I), in which R 1 represents a linear or branched alkyl functional group having 6 to 20, in particular 8 to 14, C-atoms, R 2 represents H or CH 3 , and M represents hydrogen, an alkali metal, or a grouping N + R 3 R 4 R 5 , in which R 3 , R 4 and R 5 represent, independently of one another, hydrogen, an alkyl group having 1 to 6 C-atoms, or a hydroxyalkyl group having 2 to 6 C-atoms.
A wireless access point , AP, comprising: a) an auto-channel selector configured to select a best performing channel; and b) a monitoring module configured to obtain parameters of signals or frames exchanged with associated stations, STAs; and c) a performance index calculation module configured to derive based on the parameters one or more performance indices indicative for a performance of the channel; and d) a trigger module configured to trigger the auto-channel selector when one or more of the performance indices exceeds a threshold CHARACTERIZED IN THAT the parameters comprise a contention factor and in that the monitoring module is further configured to obtain the contention factor by classifying neighbouring APs in contending APs, non-interfering APs or hidden and interfering APs. a) an auto-channel selector configured to select a best performing channel; and b) a monitoring module configured to obtain parameters of signals or frames exchanged with associated stations, STAs; and c) a performance index calculation module configured to derive based on the parameters one or more performance indices indicative for a performance of the channel; and d) a trigger module configured to trigger the auto-channel selector when one or more of the performance indices exceeds a threshold
A vehicle track module mountable on a rotatable axle of a vehicle, the track module having a frame , a drive wheel rotatably mounted to the frame , leading and trailing idler wheels rotatably mounted to the frame , and at least one bogie wheel positioned between the leading and trailing idler wheels and in contact with a continuous flexible track extending about the drive wheel , idler wheels and the at least one bogie wheel , wherein the at least one bogie wheel is a tapered wheel, the tapering thereof being such that the bogie wheel has a circumferential surface that is larger in diameter toward one side than the other side; characterized in that the taper of the at least one bogie wheel is at an angle of from about one and a half to about two and a half degrees from a line perpendicular to a center plane that is parallel to the drive wheel , thereby spreading the load over the width of the track under the bogie wheel .
A method of decoding video data, the method comprising: generating, by a video decoder, a first-in, first-out, FIFO, motion vector predictor, MVP, candidate list buffer, comprising: determining, by the video decoder, a motion vector of a block of a current picture of the video data decoded before a current block; and updating, by the video decoder, the FIFO buffer to remove an earliest-added MVP candidate from the FIFO buffer and adding the motion vector of the block to the FIFO buffer; determining, by the video decoder, from among the MVP candidates in the FIFO buffer, an MVP for the current block, wherein the MVP candidates in the FIFO buffer include at least one MVP candidate based on a motion vector of a non-adjacent block, the non-adjacent block being non-adjacent to the current block of the current picture; determining, by the video decoder, based on the MVP for the current block, a motion vector of the current block; determining, by the video decoder, a predictive block based on the motion vector of the current block; and reconstructing, by the video decoder, based on the predictive block, sample values of the current picture. generating, by a video decoder, a first-in, first-out, FIFO, motion vector predictor, MVP, candidate list buffer, comprising: determining, by the video decoder, a motion vector of a block of a current picture of the video data decoded before a current block; and updating, by the video decoder, the FIFO buffer to remove an earliest-added MVP candidate from the FIFO buffer and adding the motion vector of the block to the FIFO buffer; determining, by the video decoder, a motion vector of a block of a current picture of the video data decoded before a current block; and updating, by the video decoder, the FIFO buffer to remove an earliest-added MVP candidate from the FIFO buffer and adding the motion vector of the block to the FIFO buffer; determining, by the video decoder, from among the MVP candidates in the FIFO buffer, an MVP for the current block, wherein the MVP candidates in the FIFO buffer include at least one MVP candidate based on a motion vector of a non-adjacent block, the non-adjacent block being non-adjacent to the current block of the current picture; determining, by the video decoder, based on the MVP for the current block, a motion vector of the current block; determining, by the video decoder, a predictive block based on the motion vector of the current block; and reconstructing, by the video decoder, based on the predictive block, sample values of the current picture.
Light module for a motor vehicle lighting device , having at least one semiconductor light source which is arranged on a circuit carrier , and having a reflector which is coated with a lacquer , characterized in that the reflector has a mounting region which is coated with the lacquer , which has a broad side and a narrow side and to which the circuit carrier is secured by an adhesive bond , in that the mounting area has a surface from which protrusions protrude which are coated with the lacquer and on which the circuit carrier rests at a distance from the remaining surface of the mounting area, and that the adhesive bond is produced by an adhesive applied to at least part of the remaining surface of the mounting area next to the protrusions or between the protrusions.
A console of a passenger compartment for a vehicle comprising a container and at least one arm rest articulated on the edge of the frame of said container , the arm rest being locked in order to close the console , characterized in that it includes a compact mechanism mounted on a support integral with the frame including a control element able to cooperate by direct contact with an element for unlocking the arm rest , and in that the control element of the mechanism integrates a push button mounted between an end of the lever arms , the other end comprising a sleeve able to pivot about an axis connected to the support .
A gear cooling structure comprising: a gear including a plurality of teeth extending in a particular direction; and a nozzle that jets out oil toward a toothed surface of the gear, wherein the nozzle extends in the particular direction, and has a width that is narrower than a gap (G) between tips of the plurality of teeth , characterized in that the nozzle has an elongated shape and forms a straight jet stream (A) parallel to the teeth . a gear including a plurality of teeth extending in a particular direction; and a nozzle that jets out oil toward a toothed surface of the gear, wherein the nozzle extends in the particular direction, and has a width that is narrower than a gap (G) between tips of the plurality of teeth , characterized in that the nozzle has an elongated shape and forms a straight jet stream (A) parallel to the teeth .
Kit-of-parts for the preparation of a photopolymerisable composition by means of UV/Vis irradiation, comprising: I) a dye concentrate comprising A) a first mixture A comprising (f) at least one dye; and (h) at least one solvent and II) a liquid composition comprising: B) a monomer-containing liquid mixture B comprising: a) at least one monomer M1 comprising at least one ethylenically unsaturated group, c) at least one co-photoinitiator, wherein more than 80% of all components of the solvent in the kit-of-parts or in the dye concentrate have a vapour pressure of ≤ 2 hPa at 20°C and a boiling point of ≥ 100°C at standard pressure, and wherein a polymer which is liquid under standard pressure is contained in the solvent and wherein, after mixing of the photopolymerisable composition, it is immediately processable and exposable. I) a dye concentrate comprising A) a first mixture A comprising (f) at least one dye; and (h) at least one solvent and A) a first mixture A comprising (f) at least one dye; and (h) at least one solvent (f) at least one dye; and (h) at least one solvent II) a liquid composition comprising: B) a monomer-containing liquid mixture B comprising: a) at least one monomer M1 comprising at least one ethylenically unsaturated group, c) at least one co-photoinitiator, wherein more than 80% of all components of the solvent in the kit-of-parts or in the dye concentrate have a vapour pressure of ≤ 2 hPa at 20°C and a boiling point of ≥ 100°C at standard pressure, and wherein a polymer which is liquid under standard pressure is contained in the solvent and wherein, after mixing of the photopolymerisable composition, it is immediately processable and exposable. B) a monomer-containing liquid mixture B comprising: a) at least one monomer M1 comprising at least one ethylenically unsaturated group, c) at least one co-photoinitiator, a) at least one monomer M1 comprising at least one ethylenically unsaturated group, c) at least one co-photoinitiator, wherein more than 80% of all components of the solvent in the kit-of-parts or in the dye concentrate have a vapour pressure of ≤ 2 hPa at 20°C and a boiling point of ≥ 100°C at standard pressure, and wherein a polymer which is liquid under standard pressure is contained in the solvent and wherein, after mixing of the photopolymerisable composition, it is immediately processable and exposable.
A glazing comprising a first channel-section glazing element and a second channel-section glazing element , the first and second channel-section glazing elements each comprising a web and a first flange , the first flange running along a first lateral edge of the respective web, the first and second channel-section glazing elements being arranged such that the first flange of the first channel-section glazing element faces the web of the second channel-section glazing element and the first flange of the second channel-section glazing element faces the web of the first channel-section glazing element, wherein an inner glazing element is located between a portion of the web of the first channel-section glazing element and a portion of the web of the second channel-section glazing element, the inner glazing element being adjacent the first flange of the first channel-section glazing element, further wherein there is a first space between the inner glazing element and the web of the first channel-section glazing element and a second space between the inner glazing element and the web of the second channel-section glazing element, characterised in that the inner glazing element comprises a glass glazing element and wherein the inner glazing element is located between a first clip and a second clip , the first clip and/or second clip comprising an elongate member having a first major surface and a second opposing major surface , there being a first slot associated with the first major surface of the elongate member of the respective clip, the first slot of the respective clip being configured to receive at least a portion of an edge of the inner glazing element.
An ultrasound probe comprising: a first array of transducer elements; a second array of transducer elements; and a microbeamformer application-specific-integrated-circuit, ASIC, , located in the probe and coupled to the first and second arrays of transducer elements, the microbeamformer ASIC having a plurality of channels , characterized in that the first array comprises high frequency transducer elements; the second array comprises low frequency transducer elements; and each channel comprises a first transmitter coupled to a transducer element (ELEA) of the first array, a second transmitter coupled to a transducer element (ELEB) of the second array, and a receiver selectively coupled to the transducer element (ELEA) of the first array, the transducer element (ELEB) of the second array, or both. a first array of transducer elements; a second array of transducer elements; and a microbeamformer application-specific-integrated-circuit, ASIC, , located in the probe and coupled to the first and second arrays of transducer elements, the microbeamformer ASIC having a plurality of channels ,
A self-aligning connection system comprising: a device (115, 115a-c) comprising a connector receptacle configured to receive a connector plug (120, 120a-c), a connector seal and a bracket fixed to the device; a modular rack comprising the connector plug (120, 120a-c), a connector shell seal (140, 140a-c) and a shelf (160, 160 a-c ), wherein the modular rack is configured to receive the bracket and guide the shelf in a plurality of directions; wherein when the bracket of the device (115, 115a-c) is inserted into the shelf (160, 160 a-c ) of the modular rack , the shelf is configured to travel in two or more directions to self-align the connector plug (120, 120a-c) of the modular rack to the connector receptacle of the device to ensure engagement of the connector plug to the connector receptacle; wherein in response to the connector receptacle initiating engagement with the connector plug (120, 120a-c), the connector plug travels in the plurality of directions to adjust a spatial position in relation to the connector receptacle; and wherein when the connector shell seal (140, 140a-c) of the modular rack and the connector seal of the device (115, 115a-c) are aligned, the connector seal is biased towards the connector shell seal to create a seal and ensure engagement of the connector plug (120, 120a-c) relative to the connector receptacle . a device (115, 115a-c) comprising a connector receptacle configured to receive a connector plug (120, 120a-c), a connector seal and a bracket fixed to the device; a modular rack comprising the connector plug (120, 120a-c), a connector shell seal (140, 140a-c) and a shelf (160, 160 a-c ), wherein the modular rack is configured to receive the bracket and guide the shelf in a plurality of directions; wherein when the bracket of the device (115, 115a-c) is inserted into the shelf (160, 160 a-c ) of the modular rack , the shelf is configured to travel in two or more directions to self-align the connector plug (120, 120a-c) of the modular rack to the connector receptacle of the device to ensure engagement of the connector plug to the connector receptacle; wherein in response to the connector receptacle initiating engagement with the connector plug (120, 120a-c), the connector plug travels in the plurality of directions to adjust a spatial position in relation to the connector receptacle; and wherein when the connector shell seal (140, 140a-c) of the modular rack and the connector seal of the device (115, 115a-c) are aligned, the connector seal is biased towards the connector shell seal to create a seal and ensure engagement of the connector plug (120, 120a-c) relative to the connector receptacle .
A device for use with an electronic communication device having a camera to take a picture or video comprising: - a tri-pod stand comprising first, second, and third legs ; said tri-pod stand further comprises a lower support pole removably engaged with an upper support pole ; - a control unit removably engaged with said upper support pole; characterized by further comprising - a first flexible arm engaged with and extending upward from said control unit; - a second flexible arm engaged with and extending upward from said control unit; - a third flexible arm engaged with and extending upward from said control unit; said third flexible arm being disposed between said first flexible arm and said second flexible arm; - a first light source engaged with said first flexible arm; - a second light source engaged with said second flexible arm; - a fastener engaged with said third flexible arm; said fastener being removably and rotatably engaged with the communication device to position the camera between a portrait view and a landscape view; and wherein said control unit being adapted to send a first signal to the communication device to activate said first light source and said second light source and a second signal to activate the camera of the communication device to take a picture; and a remote control device adapted to send a signal to said control unit causing said control unit to send said first and second signal to the communication device to activate said light sources and to activate the camera and take a picture. - a tri-pod stand comprising first, second, and third legs ; said tri-pod stand further comprises a lower support pole removably engaged with an upper support pole ; - a control unit removably engaged with said upper support pole; characterized by further comprising - a first flexible arm engaged with and extending upward from said control unit; - a second flexible arm engaged with and extending upward from said control unit; - a third flexible arm engaged with and extending upward from said control unit; said third flexible arm being disposed between said first flexible arm and said second flexible arm; - a first light source engaged with said first flexible arm; - a second light source engaged with said second flexible arm; - a fastener engaged with said third flexible arm; said fastener being removably and rotatably engaged with the communication device to position the camera between a portrait view and a landscape view;