mhurhangee/patent-ind-claim-en huggingface dataset:
Pump for implantation into a vessel or a heart, whereby the pump may be introduced in a first state into the vessel or heart in order then be functionally changed over to a second state in the vessel or in the heart, comprising • a drive part and • a delivery part (FE), • wherein the drive part is not functional in the first state and becomes functional as a result of the changeover to the second state, • wherein the drive part has an electric motor, • wherein the electric motor is embodied as a wet running rotor, and • wherein, in the first state, the rotor (R) of the electric motor and the stator (S) of the electric motor are arranged so as to be spatially separate from one another, so that a rotation of the rotor (R) by the stator (S) is not possible, and wherein the rotor of the electric motor is moved into the stator (S) of the electric motor in the second state, wherein the rotor (R) can drive the delivery part (FE) in the second state, • wherein the delivery part has a drive shaft (W). • a drive part and • a delivery part (FE), • wherein the drive part is not functional in the first state and becomes functional as a result of the changeover to the second state, • wherein the drive part has an electric motor, • wherein the electric motor is embodied as a wet running rotor, and • wherein, in the first state, the rotor (R) of the electric motor and the stator (S) of the electric motor are arranged so as to be spatially separate from one another, so that a rotation of the rotor (R) by the stator (S) is not possible, and wherein the rotor of the electric motor is moved into the stator (S) of the electric motor in the second state, wherein the rotor (R) can drive the delivery part (FE) in the second state, • wherein the delivery part has a drive shaft (W).
A blend for use in LED light sources, comprising an oxynitride phosphor of formula A p B q O r N s : R and additional phosphors, wherein the additional phosphors comprise a green/yellow-green phosphor and a complex fluoride doped with Mn 4+ , preferably wherein the complex fluoride doped with Mn 4+ comprises (Na,K,Rb,Cs,NH 4 ) 2 (Ti,Ge, Sn, Si,Zr,Hf)F 6: Mn 4+ ; wherein A is a combination of barium with Ca or a combination of barium with Sr and Ca; B is silicon or a combination of silicon with at least one of Al, B, Ga, and Ge; R is europium or a combination of europium with at least one of Ce, Pr, Sm, Nd, Tb, Dy, Yb, Tm, Er, Ho, and Mn; p is greater than 2 and less than 6; q is greater than 8 and less than 10; r is greater than 0.1 and less than 6; and s is greater than 10 and less than 15 wherein Ca, or a combination of Sr and Ca is present at a level ranging from 0.001 to 0.5 mole fraction based on total moles of Ba.
A plant conditioning preparation comprising a water based extract of plant A, a natural oil based extract of plant B and an emulsifier; wherein plant A is from the genus Urtica and plant B is from the genus Salix family.
A method, comprising: encoding a data packet to be transmitted from a source station to a destination station over a resource unit, hereinafter RU, in a wireless local area network, wherein the RU has a total number of data tones; interleaving a set of the encoded bits to a set of interleaved bits, wherein the set of encoded bits corresponds to half of the total number of data tones of the RU if dual carrier modulation, hereinafter DCM, is applied, and wherein interleaving parameters are determined based on half of the total number of data tones of the RU; and modulating the set of interleaved bits onto a first half of frequency subcarriers of the RU using a first modulation scheme, and modulating a duplicated copy of the set of interleaved bits onto a second half of frequency subcarriers of the RU using a second modulation scheme, wherein the first modulation scheme and the second modulation scheme are based on the same modulation level; and transmitting the data packet to the destination station. encoding a data packet to be transmitted from a source station to a destination station over a resource unit, hereinafter RU, in a wireless local area network, wherein the RU has a total number of data tones; interleaving a set of the encoded bits to a set of interleaved bits, wherein the set of encoded bits corresponds to half of the total number of data tones of the RU if dual carrier modulation, hereinafter DCM, is applied, and wherein interleaving parameters are determined based on half of the total number of data tones of the RU; and modulating the set of interleaved bits onto a first half of frequency subcarriers of the RU using a first modulation scheme, and modulating a duplicated copy of the set of interleaved bits onto a second half of frequency subcarriers of the RU using a second modulation scheme, wherein the first modulation scheme and the second modulation scheme are based on the same modulation level; and transmitting the data packet to the destination station.
Electromagnetic pressure control valve, having an electromagnetic actuator for positioning a piston that is axially displaceably accommodated in a controller housing , flow through the ports (P, A, T) of the pressure control valve for the purpose of opening and/or closing being possible with the aid of the piston , and the piston having a pin on its end face formed so as to be facing away from the electromagnetic actuator , it being possible for a relative movement to be built up between the pin and the piston , and a pin end face formed so as to be facing away from the piston in the controller housing being arranged opposite a terminating element formed as a stop, the pressure control valve comprising hydraulic end position damping in order to damp a movement of the pin in the direction of the terminating element formed as a stop, characterized in that the hydraulic end position damping has the terminating element receiving the pin .
A garment made of flexible material, comprising: a first measurement electrode integrated into the garment at a first location; a second measurement electrode integrated into the garment at a second location different from the first location; at least one motion sensor configured to measure motion of the garment at the first location and/or the second location; and a measurement circuitry configured to measure bioimpedance by applying current feed and measuring voltage via at least the first measurement electrode and the second measurement electrode, to perform motion compensation for the measured bioimpedance on the basis of a cadence determined from the measured motion of the first measurement electrode and the second electrode, and to transmit the measured bioimpedance, and further to measure electrocardiogram by using at least one of the first measurement electrode and the second electrode or another electrode, wherein the garment is an upper body garment, wherein the first measurement electrode is arranged to be disposed above a heart level and the second measurement electrode is arranged to be disposed below the heart level. a first measurement electrode integrated into the garment at a first location; a second measurement electrode integrated into the garment at a second location different from the first location; at least one motion sensor configured to measure motion of the garment at the first location and/or the second location; and a measurement circuitry configured to measure bioimpedance by applying current feed and measuring voltage via at least the first measurement electrode and the second measurement electrode, to perform motion compensation for the measured bioimpedance on the basis of a cadence determined from the measured motion of the first measurement electrode and the second electrode, and to transmit the measured bioimpedance, and further to measure electrocardiogram by using at least one of the first measurement electrode and the second electrode or another electrode, wherein the garment is an upper body garment, wherein the first measurement electrode is arranged to be disposed above a heart level and the second measurement electrode is arranged to be disposed below the heart level.
A process for pre-polymerizing propylene comprising: adding a catalyst and a hydrocarbon to a first mixer; mixing the catalyst and the hydrocarbon in the first mixer to form a first catalyst suspension comprising the catalyst and the hydrocarbon; flowing the first catalyst suspension from the first mixer to a second mixer; adding a co-catalyst and an optional electron donor agent to the first catalyst suspension in transfer lines between the first mixer and the second mixer; pre-polymerizing propylene in the second mixer to form a second catalyst suspension comprising the hydrocarbon and catalyst particles coated with polypropylene; and flowing the second catalyst suspension to a polymerization reactor or to a storage tank; wherein the hydrocarbon is propylene and wherein the second mixer is a static mixer. adding a catalyst and a hydrocarbon to a first mixer; mixing the catalyst and the hydrocarbon in the first mixer to form a first catalyst suspension comprising the catalyst and the hydrocarbon; flowing the first catalyst suspension from the first mixer to a second mixer; adding a co-catalyst and an optional electron donor agent to the first catalyst suspension in transfer lines between the first mixer and the second mixer; pre-polymerizing propylene in the second mixer to form a second catalyst suspension comprising the hydrocarbon and catalyst particles coated with polypropylene; and flowing the second catalyst suspension to a polymerization reactor or to a storage tank; wherein the hydrocarbon is propylene and wherein the second mixer is a static mixer.
A method of controlling a communication device in a cellular communication system, wherein the communication device has radio equipment that operates on no more than a predefined bandwidth of a radiofrequency spectrum occupying 1.4 MHz , the predefined bandwidth being smaller than the full system bandwidth of the cellular communication system, the method comprising: operating the radio equipment to initiate a cell search procedure and receive information transmitted in a first region in the radiofrequency spectrum, spanning no more than the predefined bandwidth; the information informing about the presence and time and frequency location of system information, M-SI, in a second region spanning no more than the predefined bandwidth; tuning the radio equipment to cause the radio equipment to operate in said second region of the radiofrequency spectrum; while tuned to the second region of the radiofrequency spectrum, operating the radio equipment to receive said system information, M-SI, being transmitted by the cellular communication system; and tuning the radio equipment to cause the radio equipment to operate in a third region of the radiofrequency spectrum in accordance with said system information, M-SI; wherein at least one of the second and third regions of the radiofrequency spectrum is different than the first region of the radio frequency spectrum. operating the radio equipment to initiate a cell search procedure and receive information transmitted in a first region in the radiofrequency spectrum, spanning no more than the predefined bandwidth; the information informing about the presence and time and frequency location of system information, M-SI, in a second region spanning no more than the predefined bandwidth; tuning the radio equipment to cause the radio equipment to operate in said second region of the radiofrequency spectrum; while tuned to the second region of the radiofrequency spectrum, operating the radio equipment to receive said system information, M-SI, being transmitted by the cellular communication system; and tuning the radio equipment to cause the radio equipment to operate in a third region of the radiofrequency spectrum in accordance with said system information, M-SI; wherein at least one of the second and third regions of the radiofrequency spectrum is different than the first region of the radio frequency spectrum.
A method comprising: placing a composite charge over a foam mandrel assembly , a first radius filler , and a second radius filler ; applying mechanical pressure to shape the composite charge to the foam mandrel assembly and a rigid base to form a stringer layup ; applying vacuum pressure to the stringer layup to form a compacted stringer package having a hat-shaped cross-section ; curing composite material of the compacted stringer package at an elevated temperature to form a composite structure ; and collapsing a supportive foam mandrel within the foam mandrel assembly during curing, wherein collapsing the supportive foam mandrel comprises drawing a vacuum within the foam mandrel assembly to collapse the supportive foam mandrel within the foam mandrel assembly during curing. placing a composite charge over a foam mandrel assembly , a first radius filler , and a second radius filler ; applying mechanical pressure to shape the composite charge to the foam mandrel assembly and a rigid base to form a stringer layup ; applying vacuum pressure to the stringer layup to form a compacted stringer package having a hat-shaped cross-section ; curing composite material of the compacted stringer package at an elevated temperature to form a composite structure ; and collapsing a supportive foam mandrel within the foam mandrel assembly during curing, wherein collapsing the supportive foam mandrel comprises drawing a vacuum within the foam mandrel assembly to collapse the supportive foam mandrel within the foam mandrel assembly during curing.
Method for producing a vaccine formulation comprising a single bacterial strain culture of Histomonas meleagridis (H. meleagridis), characterised by the following steps: (a) providing a xenic culture of H. meleagridis comprising H. meleagridis cells with a wild type bacterial flora, (b) treating the xenic culture with a mixture of antibiotics thereby killing the wild type bacterial flora, (c) centrifuging and washing the H. meleagridis cells, (d) controlling effectiveness of step (b), (e) resuspending the washed H. meleagridis cells, (f) adding one or more single bacterial strain(s) to the resuspended H. meleagridis cells, and (g) culturing the one or more single bacterial strain(s) with the resuspended H. meleagridis cells so as to obtain a single bacterial strain culture of H. meleagridis; wherein steps (b), (c) and (d) are repeated if the wild type bacterial flora has not been completely removed from the H. meleagridis cells; the method further comprising the step of formulating the single bacterial strain culture of H. meleagridis as a dose form suitable for administration. (a) providing a xenic culture of H. meleagridis comprising H. meleagridis cells with a wild type bacterial flora, (b) treating the xenic culture with a mixture of antibiotics thereby killing the wild type bacterial flora, (c) centrifuging and washing the H. meleagridis cells, (d) controlling effectiveness of step (b), (e) resuspending the washed H. meleagridis cells, (f) adding one or more single bacterial strain(s) to the resuspended H. meleagridis cells, and (g) culturing the one or more single bacterial strain(s) with the resuspended H. meleagridis cells so as to obtain a single bacterial strain culture of H. meleagridis;
An RFID tag comprising: a base member ; a semiconductor chip mounted on the base member ; and an island-shaped reinforcing member covering the semiconductor chip and being configured to reinforce the base member , characterized in that the reinforcing member is provided with two semicircular recesses on opposite sides of the reinforcing member and with four notches on respective four sides of the reinforcing member such that two of the notches are respectively provided at bottoms of the two semicircular recesses opposed to each other, wherein a reference line (L 0 ) passes through each pair of the notches adjacent to each other, and a chip mounting region (R) where the semiconductor chip is mounted is located away from the reference lines so as to prevent the semiconductor chip from cracking. a base member ; a semiconductor chip mounted on the base member ; and an island-shaped reinforcing member covering the semiconductor chip and being configured to reinforce the base member , characterized in that the reinforcing member is provided with two semicircular recesses on opposite sides of the reinforcing member and with four notches on respective four sides of the reinforcing member such that two of the notches are respectively provided at bottoms of the two semicircular recesses opposed to each other, wherein a reference line (L 0 ) passes through each pair of the notches adjacent to each other, and a chip mounting region (R) where the semiconductor chip is mounted is located away from the reference lines so as to prevent the semiconductor chip from cracking.
A synchronized segmentally interchanging pulley transmission system comprising a plurality of toothed, concentric and coaxial pulleys, the pulleys comprising a core pulley and at least one pulley comprising a pulley segment set, the pulley segment set comprising a plurality of pulley segments moveable axially into and out of the path of an endless member to change engagement of the endless member between a plurality of pulleys of said synchronized segmentally interchanging pulley transmission system, wherein one of the pulley segments of the pulley segment set being designated as a key pulley segment and characterized in that a pulley segment of the pulley segment set that is adjacent to the key pulley segment being elongated and extending towards the key pulley segment , the key pulley segment being defined by its angular relationship with one or more smaller pulleys such that the circumferential position of the key pulley segment allows the key pulley segment to engage the endless member while the endless member is still engaging a smaller diameter pulley, and the key pulley segment incorporating one or more shortened or completely trimmed key pulley segment teeth, which teeth are either first or last in the pulley segment set of the at least one pulley to engage the endless member .
Method for transferring power from a primary circuit (CP), comprising an inverter (OND) and a resonant circuit including a primary coil (BP N ), to a secondary circuit (CS) comprising a secondary coil (BS), intended to contactlessly charge an electrical battery (BAT) of an electric or hybrid motor vehicle (VEH) in motion, an electrical power being transferred between said transmitting primary coil (BP N ), which is arranged in a stretch of road (RTE), and said receiving secondary coil (BS), which is aboard said vehicle (VEH) and is connected to said battery (BAT), by induction, said primary coil (BP N ) being part of a network of at least two successive primary coils (BP) arranged in a stretch of road (RTE), each primary coil (BP) being connected to the inverter (OND) associated with the resonant circuit that includes it, and the spacing between two primary coils (BP) being less than half the length of one primary coil (BP), said method comprising steps of: - (T1) transferring power between said primary coil (BPn) and the vehicle (VEH), - (T5) transferring power between the next primary coil (BP N+1 ) and the vehicle (VEH), characterized in that said method moreover comprises - a step of shorting the next primary coil (BPn+i) by means of the associated inverter (OND), - a step of detecting when an induced current strength threshold or power threshold is exceeded in the next primary coil (BP), before the transition between said power transfer involving the primary coil (BP N ) and said power transfer involving the next primary coil (BP N+1 ). - (T1) transferring power between said primary coil (BPn) and the vehicle (VEH), - (T5) transferring power between the next primary coil (BP N+1 ) and the vehicle (VEH), characterized in that said method moreover comprises - a step of shorting the next primary coil (BPn+i) by means of the associated inverter (OND), - a step of detecting when an induced current strength threshold or power threshold is exceeded in the next primary coil (BP), before the transition between said power transfer involving the primary coil (BP N ) and said power transfer involving the next primary coil (BP N+1 ).
A clamping device comprising: a handle having a first end and a second end , the handle comprising a first protrusion and a second protrusion , wherein the first and second protrusions are rounded, and wherein each of the first and second protrusions is located nearer the first end than the second end ; a base having a first end and a second end, the base comprising a first channel configured to receive a first segment of control wire, and a second channel configured to receive a second segment of control wire; wherein the first and second protrusions of the handle are configured to mate with respective concave depressions in the first channel and second channel of the base; and a spring having a bottom portion attached to the base and a top portion attached to the handle, the spring configured to exert a force the second end of the handle causing the second end of the handle to transition away from the second end of the base such that the first end of the handle is caused to direct force toward the first end of the base. a handle having a first end and a second end , the handle comprising a first protrusion and a second protrusion , wherein the first and second protrusions are rounded, and wherein each of the first and second protrusions is located nearer the first end than the second end ; a base having a first end and a second end, the base comprising a first channel configured to receive a first segment of control wire, and a second channel configured to receive a second segment of control wire; wherein the first and second protrusions of the handle are configured to mate with respective concave depressions in the first channel and second channel of the base; and a spring having a bottom portion attached to the base and a top portion attached to the handle, the spring configured to exert a force the second end of the handle causing the second end of the handle to transition away from the second end of the base such that the first end of the handle is caused to direct force toward the first end of the base.
A wheat bran fraction with a mass based average particle size ranging between 273 and 283 μm for use to a reduce colonization of bacteria belonging to the genus Salmonella in the gut of an animal.
A multilayered microstructure comprising: a light receiving section including at least one layer including a noble metal composition and a metal oxide composition, the light receiving section transducing the energy of photons received to the energy of electrons; a piezo composite amplifier layer comprising a piezo polymer matrix, a first dispersed phase of piezo nanoparticles and a second dispersed phase of carbon nanotubes, the piezo composite amplifier configured for amplifying a signal from the energy of the electrons received from the light receiving section using piezo-electric effects; and an environmental interface layer for delivering the signal received from the piezo composite amplifier layer to a biological environment. a light receiving section including at least one layer including a noble metal composition and a metal oxide composition, the light receiving section transducing the energy of photons received to the energy of electrons; a piezo composite amplifier layer comprising a piezo polymer matrix, a first dispersed phase of piezo nanoparticles and a second dispersed phase of carbon nanotubes, the piezo composite amplifier configured for amplifying a signal from the energy of the electrons received from the light receiving section using piezo-electric effects; and an environmental interface layer for delivering the signal received from the piezo composite amplifier layer to a biological environment.