mhurhangee/ep-ind-claims huggingface dataset:
A dietary formulation for the slow release of an active ingredient comprising the following elements: a) a water-soluble core comprising at least one active ingredient; b) an outer coating which completely coats the core a); containing less than 3% water, obtainable by evaporation of an aqueous dispersion, the aqueous dispersion - substantially consisting of polyvinyl acetate and polyvinyl alcohol as a protective colloid wherein: - the dispersion and the outer coating are free from emulsifiers; and - the dispersion and the outer coating are free from polyvinylpyrrolidone. a) a water-soluble core comprising at least one active ingredient; b) an outer coating which completely coats the core a); containing less than 3% water, obtainable by evaporation of an aqueous dispersion, the aqueous dispersion - substantially consisting of polyvinyl acetate and polyvinyl alcohol as a protective colloid - substantially consisting of polyvinyl acetate and polyvinyl alcohol as a protective colloid - the dispersion and the outer coating are free from emulsifiers; and - the dispersion and the outer coating are free from polyvinylpyrrolidone.
Vehicle wheel comprising a wheel rim with a rim base of fibre composite material and a wheel disc, the wheel disc being connected to the wheel rim by means of at least one connecting element (6, 21) which is guided through a passage in the rim base and is received by the wheel disc, wherein the wheel rim has at least one connecting arrangement with at least one connecting element (6, 21) as well as a sealing element (15, 30, 33, 36, 43, 45) for sealing against a tyre chamber, characterised in that in that the sealing element (15, 30, 33, 36, 43, 45) covers in a complete and hollow manner a part (8, 26, 25, 40, 42) of one or more neighbouring connecting arrangements which extends across the rim outer side of the rim base and a circumferential edge (16, 31, 35, 38, 44) of the sealing element (15, 30, 33, 36, 43, 45) is glued to the rim base in an airtight manner, wherein the sealing element (15, 30, 33, 36, 43, 45) is formed to be dimensionally stable in such a way that it essentially retains its geometry under the effect of the pressure of the tyre chamber.
A hearing device, comprising an earpiece, the hearing device comprising an electroacoustic transducer in acoustic communication with an ear canal volume, the electroacoustic transducer being capable of transforming an electrical signal between terminals (16, 17) into an acoustic signal, the hearing device being equipped to process a hearing device input into a wanted signal being an electrical signal that represents the acoustic signal the user of the hearing device should hear, to use the wanted signal to obtain a transducer input signal, and to apply the transducer input signal to the terminals (16, 17) of the electroacoustic transducer, characterized in that the hearing device is equipped to measure a physical signal at the terminals (16, 17), in that the hearing device is equipped to determine, from the measured physical signal, a transfer signal, wherein determining the transfer signal comprises applying an admittance transfer function or an impedance transfer function to a quantity derived from the measured physical signal and wherein the hearing device is further equipped to use the measured physical signal as an input quantity for obtaining the transducer input signal by adding the transfer signal to the wanted signal to obtain the transducer input signal.
A process for preparing 1,2-benzisothiazolin-3-one or the sodium salt comprising the steps of i) heating a mixture of sodium sulfide hydrate and N-methyl 2-pyrrolidone ii) distilling from the mixture water and optionally at least a portion of the N-methyl 2-pyrrolidone to leave water-depleted sodium sulfide and optionally water and/or N-methyl 2 pyrrolidone, iii) adding at least one benzamide substituted at the 2-position selected from the group consisting of 2-chlorobenzamide, 2-fluorobenzamide, 2-nitrobenzamide, 2-cyanobenzamide and 2-C 1-6 branched or straight chain alkoxybenzamide to the water-depleted sodium sulfide to give a composition comprising 2-mercaptobenzamide or the sodium salt thereof and iv) subjecting the composition comprising 2-mercaptobenzamide or salt thereof to oxidative cyclisation. i) heating a mixture of sodium sulfide hydrate and N-methyl 2-pyrrolidone ii) distilling from the mixture water and optionally at least a portion of the N-methyl 2-pyrrolidone to leave water-depleted sodium sulfide and optionally water and/or N-methyl 2 pyrrolidone, iii) adding at least one benzamide substituted at the 2-position selected from the group consisting of 2-chlorobenzamide, 2-fluorobenzamide, 2-nitrobenzamide, 2-cyanobenzamide and 2-C 1-6 branched or straight chain alkoxybenzamide to the water-depleted sodium sulfide to give a composition comprising 2-mercaptobenzamide or the sodium salt thereof and iv) subjecting the composition comprising 2-mercaptobenzamide or salt thereof to oxidative cyclisation.
A closed-loop clock calibration method, comprising in an n th calibration period, performing clock calibration according to a calibration factor of the n th calibration period, and obtaining a calibration error of the n th calibration period; and obtaining a calibration factor of an ( n + 1) th calibration period according to the calibration error and the calibration factor of the n th calibration period, wherein n is a positive integer, characterized by: obtaining the calibration factor of the ( n + 1) th calibration period according to the calibration error and calibration factor of the n th calibration period comprises: deriving the calibration factor f ( n + 1) of the ( n + 1) th calibration period from the calibration error and calibration factor of the n th calibration period according to the following formula: f n + 1 = f n + Δ ⁢ t T Sleep f n wherein f ( n) is the calibration factor of the n th calibration period, Δ t is the calibration error of the n th calibration period, and T Sleep is a sleep time period in a Discontinuous Reception, DRX, time period. obtaining the calibration factor of the ( n + 1) th calibration period according to the calibration error and calibration factor of the n th calibration period comprises: deriving the calibration factor f ( n + 1) of the ( n + 1) th calibration period from the calibration error and calibration factor of the n th calibration period according to the following formula: f n + 1 = f n + Δ ⁢ t T Sleep f n wherein f ( n) is the calibration factor of the n th calibration period, Δ t is the calibration error of the n th calibration period, and T Sleep is a sleep time period in a Discontinuous Reception, DRX, time period.
A stove adapted for indoor use, the stove comprising a housing having a bottom wall, a top wall and one or more side walls (30a-d) defining a combustion chamber adapted to retain a fire, an air supply system for supplying air to the combustion chamber, the air supply system comprising a secondary air conduit for supplying air to the combustion chamber from above, and a valve, which is controlled by a bimetal which is affected by prevailing temperature in the stove, wherein the bimetal controls the valve such that the valve is in a maximum open position when the prevailing temperature is below a first predetermined temperature during start-up of a fire and in a maximum closed position when the prevailing temperature is above a second predetermined temperature after start-up of the fire, wherein the first predetermined temperature is lower than the second predetermined temperature, characterised in that the air supply system further comprises: a primary air conduit for supplying air to the combustion chamber from below through the bottom wall, wherein the primary and secondary air conduits (60, 70) are connected to a common inlet, wherein the valve is arranged in the primary air conduit, and wherein, as the bimetal is closing the valve, the air flow will be supplied exclusively or to a greater extent from above the fire. a primary air conduit for supplying air to the combustion chamber from below through the bottom wall, wherein the primary and secondary air conduits (60, 70) are connected to a common inlet, wherein the valve is arranged in the primary air conduit, and wherein, as the bimetal is closing the valve, the air flow will be supplied exclusively or to a greater extent from above the fire.
A drape forming apparatus for use in forming a composite structure, said apparatus comprising: a forming tool comprising an upper forming surface and at least one side forming surface that extends from said upper forming surface, said forming tool configured to receive at least one layer of composite material extending over said upper forming surface; a flange forming device (200, 228, 238, 244, 248) comprising a tray (206, 230, 240) coplanarly aligned with said upper forming surface when in a first operating position, said tray configured to receive a flange portion of the at least one layer of composite material; a pressurized bladder configured to extend over said forming tool and said tray, said pressurized bladder configured to induce a first force against said tray such that said tray rotates about a pivot line, and such that the flange portion is withdrawn from said tray and draped over said at least one side forming surface; and said apparatus further comprising a resistance device coupled to said tray, said resistance device configured to provide a second force that opposes the first force to control a rate of rotation of said tray. a forming tool comprising an upper forming surface and at least one side forming surface that extends from said upper forming surface, said forming tool configured to receive at least one layer of composite material extending over said upper forming surface; a flange forming device (200, 228, 238, 244, 248) comprising a tray (206, 230, 240) coplanarly aligned with said upper forming surface when in a first operating position, said tray configured to receive a flange portion of the at least one layer of composite material; a pressurized bladder configured to extend over said forming tool and said tray, said pressurized bladder configured to induce a first force against said tray such that said tray rotates about a pivot line, and such that the flange portion is withdrawn from said tray and draped over said at least one side forming surface; and said apparatus further comprising a resistance device coupled to said tray, said resistance device configured to provide a second force that opposes the first force to control a rate of rotation of said tray.
An agricultural harvester comprising a control arrangement, which control arrangement includes an optical sensor device for recording image series of a passing-through crop material flow, an evaluation device for ascertaining a broken grain component and/or a non-grain component of the crop material flow based on an image analysis of the recorded image series and a display device for displaying the broken grain component and/or the non-grain component, characterised in that the passing-through crop material flow is a passing-through main crop material flow and that the control arrangement cyclically records image series of the passing-through main crop material flow and within a predetermined processing time after recordal of an image series displays a current broken grain component and/or a non-grain component based on the image series, wherein the broken grain component and/or the non-grain component Is extrapolated to a throughput of the main crop material flow In that a measured surface area broken grain component and/or the surface area non-grain component of at least one image of the Image series is related by means of a respective correction factor to a volume broken grain component and/or a volume non-grain component and the current broken grain component and/or the current non-grain component Is displayed as a percentage component.
A method of automated dynamic network slice deployment using artificial intelligence in a communication network, comprising: receiving, by at least one first processor of a network node, first video data and network performance information from at least one first agent node associated with at least one first camera; determining, by the at least one first processor, event detection information based on the first video data and the network performance information, wherein the determining of the event detection information includes, determining video anomaly information, for a geographical area, by performing video anomaly detection on the first video data, and determining network anomaly information, for the geographical area, by performing network anomaly detection on the network performance information, and the determining of the event detection information further being based on the video anomaly information and the network anomaly information; determining, by the at least one first processor, a slice configuration for at least one network slice based upon the first video data, network performance information and the event detection information; and controlling, by the at least one first processor, an operation of the communication network by instantiating the at least one network slice based on the slice configuration information. receiving, by at least one first processor of a network node, first video data and network performance information from at least one first agent node associated with at least one first camera; determining, by the at least one first processor, event detection information based on the first video data and the network performance information, wherein the determining of the event detection information includes, determining video anomaly information, for a geographical area, by performing video anomaly detection on the first video data, and determining network anomaly information, for the geographical area, by performing network anomaly detection on the network performance information, and the determining of the event detection information further being based on the video anomaly information and the network anomaly information; determining, by the at least one first processor, a slice configuration for at least one network slice based upon the first video data, network performance information and the event detection information; and controlling, by the at least one first processor, an operation of the communication network by instantiating the at least one network slice based on the slice configuration information.
A conductive film comprising: a plurality of groove units of which horizontal sections are formed in a lattice form; and a plurality of cells that are regions surrounded by the groove units, wherein the groove units include a conductive pattern Z of which at least a part is formed through separation by one or more separation units, wherein, in the conductive film, a total sum of a horizontal sectional area of the one or more separation units measured based on a floor surface of the groove units is 25% to 60% of a total sum of a horizontal sectional area of the groove units, wherein the one or more separation units and the cells satisfy the relationship of the following [Equation 1]: 1 10 6 ≤ Horizontal Sectional Area of One Separation Unit Horizontal Sectional Area of One Cell ≤ 1 5 wherein, the horizontal sectional area means a value measured based on an uppermost surface of the conductive film, wherein a maximum depth of the groove units is from 0.2 μm to 10 μm, and wherein a width of the conductive pattern formed through separation by the one or more separation units is from 0.1 μm to 5 μm. a plurality of groove units of which horizontal sections are formed in a lattice form; and a plurality of cells that are regions surrounded by the groove units, wherein the groove units include a conductive pattern Z of which at least a part is formed through separation by one or more separation units, wherein, in the conductive film, a total sum of a horizontal sectional area of the one or more separation units measured based on a floor surface of the groove units is 25% to 60% of a total sum of a horizontal sectional area of the groove units, wherein the one or more separation units and the cells satisfy the relationship of the following [Equation 1]: 1 10 6 ≤ Horizontal Sectional Area of One Separation Unit Horizontal Sectional Area of One Cell ≤ 1 5 wherein, the horizontal sectional area means a value measured based on an uppermost surface of the conductive film, wherein a maximum depth of the groove units is from 0.2 μm to 10 μm, and wherein a width of the conductive pattern formed through separation by the one or more separation units is from 0.1 μm to 5 μm.
A holding device for an adjustment drive of a motor vehicle seat, with: - at least one drive shaft which is mounted rotatably in a shaft casing, - at least one channel for receiving the drive shaft which is mounted rotatably in the shaft casing, - which is connectable at one end to a drive unit and at the other end to an adjustment device, characterized in that the channel (4, 4a) is formed for positioning the shaft casing in a manner partially offset in relation to the longitudinal axis of the channel in such a manner that the shaft casing is kinked and/or bent relative to the longitudinal axis of the channel in at least one section. - at least one drive shaft which is mounted rotatably in a shaft casing, - at least one channel for receiving the drive shaft which is mounted rotatably in the shaft casing, - which is connectable at one end to a drive unit and at the other end to an adjustment device,
A channel state information-reference signal, CSI-RS, sending method, comprising: sending, by a network device to a new radio, NR, terminal device, the CSI-RS based on a frequency-domain starting location of a resource for transmitting the CSI-RS, wherein a resource offset between a starting resource block, RB, of a pilot region and a starting RB of system bandwidth of the NR terminal device is greater than or equal to a resource offset between a starting RB of a bandwidth part, BWP, of the NR terminal device and the starting RB of the system bandwidth of the NR terminal device, and the frequency-domain starting location of the resource for transmitting the CSI-RS is determined by the resource offset between the starting RB of the pilot region and the starting RB of the system bandwidth, and wherein the pilot region is a resource that is used to transmit the CSI-RS. sending, by a network device to a new radio, NR, terminal device, the CSI-RS based on a frequency-domain starting location of a resource for transmitting the CSI-RS, wherein a resource offset between a starting resource block, RB, of a pilot region and a starting RB of system bandwidth of the NR terminal device is greater than or equal to a resource offset between a starting RB of a bandwidth part, BWP, of the NR terminal device and the starting RB of the system bandwidth of the NR terminal device, and the frequency-domain starting location of the resource for transmitting the CSI-RS is determined by the resource offset between the starting RB of the pilot region and the starting RB of the system bandwidth, and wherein the pilot region is a resource that is used to transmit the CSI-RS.
A cold-rolled and continuously annealed high strength steel strip or sheet having a good deep drawability comprising, in weight percent, • C: 0.01 to 0.05%; • Mn: 1.0 to 3.0%; • Cr: 0.005 to 1.0%; • P: 0.005 to 0.1%; • Al_sol: 0.01 to 1.0%; • Si: 0.01 to 1.0%; • Ti: 0.005 to 0.05%. • B: 0.0005 to 0.005%; • S: 0.03% or less; • N: 0.002 to 0.01%; • Cu: 0.8% or less; • Ni: 0.8% or less; wherein: a). -0.005% ≤ (Ti-(48/14)*N) ≤ 0.02%, and b1). if (N-(14/48)*Ti) is positive then (0.005% ≤ C-(12/93)*Nb ≤ 0.03%) AND (0.0005% ≤ B-(11/14)*(N-(14/48)*Ti) ≤ 0.005%); or b2). if (N-(14/48)*Ti) is negative then 0.005% ≤ C-(12/93)*Nb-(12/48)*(Ti-(48/14)*N-(96/32)*S) ≤ 0.03%; the steel also comprising one or more of: • Nb: 0.01 to 0.2%; • Mo: 0.2 to 0.5%; • V: 0.01 to 0.25%; the steel optionally also comprising • Ca: 0.0005 to 0.01%; the remainder being Fe and inevitable impurities. • C: 0.01 to 0.05%; • Mn: 1.0 to 3.0%; • Cr: 0.005 to 1.0%; • P: 0.005 to 0.1%; • Al_sol: 0.01 to 1.0%; • Si: 0.01 to 1.0%; • Ti: 0.005 to 0.05%. • B: 0.0005 to 0.005%; • S: 0.03% or less; • N: 0.002 to 0.01%; • Cu: 0.8% or less; • Ni: 0.8% or less; a). -0.005% ≤ (Ti-(48/14)*N) ≤ 0.02%, and b1). if (N-(14/48)*Ti) is positive then (0.005% ≤ C-(12/93)*Nb ≤ 0.03%) AND (0.0005% ≤ B-(11/14)*(N-(14/48)*Ti) ≤ 0.005%); or b2). if (N-(14/48)*Ti) is negative then 0.005% ≤ C-(12/93)*Nb-(12/48)*(Ti-(48/14)*N-(96/32)*S) ≤ 0.03%; • Nb: 0.01 to 0.2%; • Mo: 0.2 to 0.5%; • V: 0.01 to 0.25%; • Ca: 0.0005 to 0.01%;
A system for monitoring fluid flow for a utility provider, comprising: a register comprising a processor capable of monitoring a flow of fluid flowing through a utility line; and a radio transceiver having a) a wake-up circuit in communication with the register via at least one communication port and b) a processor programmed and configured to communicate with the register and broadcast information from the radio transceiver; wherein the processor of the register is programmed and configured to supply a signal on the at least one communication port whenever the register has communication data for broadcast to the utility provider, and the wake-up circuit of the radio transceiver is configured to check the at least one communication port to ascertain if the signal from the processor of the register is present, the radio transceiver is configured to check the at least one communication port in communication with the register for the signal from the register that the register has the communication data for broadcast to the utility provider, the processor of the radio transceiver is configured to monitor the at least one communication port to ascertain if the signal is present, and the radio transceiver is configured to turn on when the signal is present and thereafter to poll the processor of the register to send over the communication data for broadcast to the utility provider, and wherein the radio transceiver turns off after broadcast. a register comprising a processor capable of monitoring a flow of fluid flowing through a utility line; and a radio transceiver having a) a wake-up circuit in communication with the register via at least one communication port and b) a processor programmed and configured to communicate with the register and broadcast information from the radio transceiver; wherein the processor of the register is programmed and configured to supply a signal on the at least one communication port whenever the register has communication data for broadcast to the utility provider, and the wake-up circuit of the radio transceiver is configured to check the at least one communication port to ascertain if the signal from the processor of the register is present, the radio transceiver is configured to check the at least one communication port in communication with the register for the signal from the register that the register has the communication data for broadcast to the utility provider, the processor of the radio transceiver is configured to monitor the at least one communication port to ascertain if the signal is present, and the radio transceiver is configured to turn on when the signal is present and thereafter to poll the processor of the register to send over the communication data for broadcast to the utility provider, and wherein the radio transceiver turns off after broadcast.
Packaging machine comprising for a work process at least one working component that is mounted adjustable relative to a machine frame between a first and a second position (P1, P2) by way of at least one pneumatic unit, characterized in that a coupling member mounted tiltable relative to an axis, with which said pneumatic unit is connected to said working component, is arranged at least in part within a piston of said pneumatic unit mounted linearly adjustable along said axis.