mhurhangee/ep-ind-claims huggingface dataset:
A positive electrode for a lithium ion secondary battery, comprising a positive electrode active material comprising a compound represented by the following formula Li x (Ni y Co z Al w)O 2 wherein, in formula, 0.95≤x≤1.05, 0.70≤y≤0.85, 0.05≤z≤0.20, 0.00≤w≤0.10, and y+z+w=1, and a compound represented by the following formula Li 1+u Mn 2-u/3 O 4 wherein, in formula, 0≤u≤0.05, characterized in that the content of an alkali metal hydroxide in the positive electrode active material is 0.15% by mass or less, and wherein the pH of an aqueous dispersion comprising 2% by mass of the compound represented by formula is more than 11.0 and 11.5 or less.
Method for forming an excitation signal as a sequence of sampled excitation values for the excitation of an audio synthesis filter (ASYN), wherein a) already formed sampled excitation values are continuously stored in a codebook, b) a noise generator (NOISE) continuously generates random sampled values, c) from the adaptive codebook a sequence (EXC_P) of the stored sampled excitation values is selected on the basis of a fed audio fundamental frequency parameter (PITCH), by means of which a time gap between the sequence (EXC_P) that is to be selected and the actual time reference is predefined, characterised in that if the audio fundamental frequency parameter (PITCH) defines a time gap which is not a whole-figure multiple of a narrow-band excitation signal which is to be generated separately, then, between the sampled excitation values and/or between the random sampled values, depending on the audio fundamental frequency parameter (PITCH), intermediate sampled values are inserted in such a way that a sampling gap of the sampled values is smaller than the sampling gap of the narrow-band signal, as a result of which the excitation signal exhibits additional frequency components of an extension band in relation to the narrow-band excitation signal, and d) the excitation signal is formed by mixing the selected sequence (EXC_P) with a random sequence (EXC _N) comprising actual random sampled value of the noise generator (NOISE). a) already formed sampled excitation values are continuously stored in a codebook, b) a noise generator (NOISE) continuously generates random sampled values, c) from the adaptive codebook a sequence (EXC_P) of the stored sampled excitation values is selected on the basis of a fed audio fundamental frequency parameter (PITCH), by means of which a time gap between the sequence (EXC_P) that is to be selected and the actual time reference is predefined, characterised in that if the audio fundamental frequency parameter (PITCH) defines a time gap which is not a whole-figure multiple of a narrow-band excitation signal which is to be generated separately, then, between the sampled excitation values and/or between the random sampled values, depending on the audio fundamental frequency parameter (PITCH), intermediate sampled values are inserted in such a way that a sampling gap of the sampled values is smaller than the sampling gap of the narrow-band signal, as a result of which the excitation signal exhibits additional frequency components of an extension band in relation to the narrow-band excitation signal, and d) the excitation signal is formed by mixing the selected sequence (EXC_P) with a random sequence (EXC _N) comprising actual random sampled value of the noise generator (NOISE).
Method for coating the balloon of a balloon catheter, wherein - the surface of the balloon is at least partly wetted with a first solution of an active ingredient, and - that part of the surface of the balloon wetted with the first solution of the active ingredient is wetted with a liquid containing water and/or at least one alcohol, characterised in that the part of the surface of the balloon wetted with the first solution and the liquid containing water and/or at least one alcohol is wetted with a further solution which contains a polysaccharide, the average molecular weight of the polysaccharide being 10,000 to 100,000,000 Da and the polysaccharide being a branched polysaccharide. - the surface of the balloon is at least partly wetted with a first solution of an active ingredient, and - that part of the surface of the balloon wetted with the first solution of the active ingredient is wetted with a liquid containing water and/or at least one alcohol,
A gas or steam turbine system comprising: - a first turbine having a first rotor, - a second turbine haying a second rotor, - a push rod, coupled to a casing of the first turbine at a first end and to a casing of the second turbine at a second end, wherein the push rod comprises a device (52, 72) for controlling temperature, characterized in that the device comprises a steam jacket for heating the push rod, wherein the push rod comprises means for cooling, wherein the means of cooling comprises a through hole within the push rod. - a first turbine having a first rotor, - a second turbine haying a second rotor, - a push rod, coupled to a casing of the first turbine at a first end and to a casing of the second turbine at a second end,
Assembly for purifying of gases, which have a high inert gas and a low methane gas proportion, in particular of offgas flow from biogas plants, wherein the assembly comprises a device (2; 102) having: a) an outer housing (6; 106) having an inlet (3; 103) for the gas to be purified and an outlet (4; 104) for the purified gas; b) a heat exchanger (8; 108) which is passed through by the gas to be purified a first time, wherein the heat exchanger (8; 108) is a shell and tube heat exchanger; c) a catalyst packing (10; 110) into which the gas to be purified enters after passing through the heat exchanger (8; 108), the methane proportion being reduced in the catalyst packing (10; 110) under heat generation and the gas exiting the catalyst packing (10; 110) as a purified gas; wherein d) the purified gas passes through the heat exchanger (8; 108) a second time while in heat exchange with the to be purified gas passing through the heat exchanger (8; 108); and e) a heating apparatus (28; 128) is provided, with which the gas can be heated after passing through the catalyst packing (10; 110) and before entering the heat exchanger (8; 108). a) an outer housing (6; 106) having an inlet (3; 103) for the gas to be purified and an outlet (4; 104) for the purified gas; b) a heat exchanger (8; 108) which is passed through by the gas to be purified a first time, wherein the heat exchanger (8; 108) is a shell and tube heat exchanger; c) a catalyst packing (10; 110) into which the gas to be purified enters after passing through the heat exchanger (8; 108), the methane proportion being reduced in the catalyst packing (10; 110) under heat generation and the gas exiting the catalyst packing (10; 110) as a purified gas; wherein d) the purified gas passes through the heat exchanger (8; 108) a second time while in heat exchange with the to be purified gas passing through the heat exchanger (8; 108); and e) a heating apparatus (28; 128) is provided, with which the gas can be heated after passing through the catalyst packing (10; 110) and before entering the heat exchanger (8; 108).
A process for servicing an aircraft landing gear shock strut including: calculating, by a controller, a first fluid level based upon an initial gas pressure, an initial gas temperature, and an initial shock strut stroke position; generating, by the controller, a first datum corresponding to the first fluid level; displaying, by the controller, an indication on a display in response to the first datum; moving fluid into the shock strut in accordance with the first datum; receiving, by the controller, an updated gas pressure, an updated gas temperature, and an updated shock strut stroke position in accordance with the fluid moved into the shock strut; calculating, by the controller, a second fluid level using at least the initial fluid pressure, the initial fluid temperature, the initial shock strut stroke position, the updated fluid pressure, the updated fluid temperature, and the updated shock strut stroke position; generating, by the controller, a second datum corresponding to the second fluid level; displaying, by the controller, an indication on the display in response to the second datum; storing, by the controller, a final fluid level. calculating, by a controller, a first fluid level based upon an initial gas pressure, an initial gas temperature, and an initial shock strut stroke position; generating, by the controller, a first datum corresponding to the first fluid level; displaying, by the controller, an indication on a display in response to the first datum; moving fluid into the shock strut in accordance with the first datum; receiving, by the controller, an updated gas pressure, an updated gas temperature, and an updated shock strut stroke position in accordance with the fluid moved into the shock strut; calculating, by the controller, a second fluid level using at least the initial fluid pressure, the initial fluid temperature, the initial shock strut stroke position, the updated fluid pressure, the updated fluid temperature, and the updated shock strut stroke position; generating, by the controller, a second datum corresponding to the second fluid level; displaying, by the controller, an indication on the display in response to the second datum; storing, by the controller, a final fluid level.
A method of establishing multiple links with multiple component carriers for a communication device of an LTE-Advanced wireless communication system, comprising: performing a single radio resource control, RRC, procedure for connection establishment to establish a plurality of links corresponding to a plurality of component carriers for simultaneously receiving and/or transmitting on each component carrier, wherein the RRC procedure for connection establishment is an RRC connection establishment procedure, a handover procedure, or an inter-RAT handover procedure and the plurality of links established by the RRC procedure are configured with the same cell radio network temporary identifier, C-RNTI, for Physical Downlink Control Channel, PDCCH, receptions. performing a single radio resource control, RRC, procedure for connection establishment to establish a plurality of links corresponding to a plurality of component carriers for simultaneously receiving and/or transmitting on each component carrier, wherein the RRC procedure for connection establishment is an RRC connection establishment procedure, a handover procedure, or an inter-RAT handover procedure and the plurality of links established by the RRC procedure are configured with the same cell radio network temporary identifier, C-RNTI, for Physical Downlink Control Channel, PDCCH, receptions.
A rodent comprising at an endogenous Major Histocompatibility Complex II (MHC II) α gene locus a nucleotide sequence encoding a chimeric human/rodent MHC II α polypeptide and/or comprising at an endogenous MHC II β gene locus a nucleotide sequence encoding a chimeric human/rodent MHC II β polypeptide, wherein a human portion of the chimeric human/rodent MHC II α polypeptide comprises human MHC II α1 and α2 domains, and/or a human portion of the chimeric human/rodent MHC II β polypeptide comprises human MHC II β1 and β2 domains, and wherein the rodent expresses a functional chimeric MHC II complex on a surface of a cell of the rodent.
A microparticle which encapsulates a plurality of cells, wherein the microparticle has: a core which comprises continuous fibers of decellularized extracellular matrix which are distributed homogenously throughout the core and are not present as clusters or particles; and an outer layer which comprises a polymerizing agent and a polyion, wherein an amount of polymerizing agent in said outer layer is at least 10 times the amount of said polymerizing agent in said core. a core which comprises continuous fibers of decellularized extracellular matrix which are distributed homogenously throughout the core and are not present as clusters or particles; and an outer layer which comprises a polymerizing agent and a polyion, wherein an amount of polymerizing agent in said outer layer is at least 10 times the amount of said polymerizing agent in said core.
A passive radio frequency shim resonator configured for field homogenization of an RF field emitted by an RF antenna device of a magnetic resonance imaging system, whereby the passive RF shim resonator configured to have a first resonating capability and a second resonating capability, and the passive RF shim resonator comprises a switching device, whereby the switching device is adapted to switch the passive RF shim resonator between the first and the second resonating capability in accordance with a transmit -mode and a receive -mode to tune the passive RF shim resonator for independent homogenization of the clockwise and counterclockwise rotating circularly polarised magnetic field components (B 1 ±), respectively, of the RF field emitted by the RF antenna device of the MR imaging system, wherein the passive RF shim resonator comprises multiple electromagnetically coupled resonant loops arranged in a 2D or 3D grid structure forming an artificial dielectric, and the switching device comprises multiple switching units arranged in the multiple electromagnetically coupled resonant loops, and the switching device is configured to operate so that the multiple switching units switch the multiple electromagnetically coupled resonant loops to provide the first and the second resonating capability using the multiple electromagnetically coupled resonant loops. the passive RF shim resonator configured to have a first resonating capability and a second resonating capability, and the passive RF shim resonator comprises a switching device, whereby the switching device is adapted to switch the passive RF shim resonator between the first and the second resonating capability in accordance with a transmit -mode and a receive -mode to tune the passive RF shim resonator for independent homogenization of the clockwise and counterclockwise rotating circularly polarised magnetic field components (B 1 ±), respectively, of the RF field emitted by the RF antenna device of the MR imaging system, wherein the passive RF shim resonator comprises multiple electromagnetically coupled resonant loops arranged in a 2D or 3D grid structure forming an artificial dielectric, and the switching device comprises multiple switching units arranged in the multiple electromagnetically coupled resonant loops, and the switching device is configured to operate so that the multiple switching units switch the multiple electromagnetically coupled resonant loops to provide the first and the second resonating capability using the multiple electromagnetically coupled resonant loops.
A hybrid drivetrain, having - an internal combustion engine which is designed for a maximum internal combustion engine rotational speed; - a dual-clutch arrangement (20, 30; 50) which has a first friction clutch and a second friction clutch, wherein the friction clutches (20, 30) have a common input element, coupled to the internal combustion engine, and in each case one output element (60, 62); - a transmission arrangement (22, 32) which has a first sub-transmission and a second sub-transmission, wherein the output element of the first friction clutch is connected to an input of the first sub-transmission, and wherein the output element of the second friction clutch is connected to an input of the second sub-transmission; - an electric machine which is or can be connected to the output element of the second friction clutch via a machine transmission ratio (i M), in such a way that a purely electric driving mode can be established by means of the second sub-transmission, wherein the electric machine is designed for a maximum machine rotational speed; characterized in that the maximum machine rotational speed divided by the machine transmission ratio is greater than the maximum internal combustion engine rotational speed, wherein the output element of the second friction clutch is structurally designed for the maximum machine rotational speed divided by the machine transmission ratio (i M). - an internal combustion engine which is designed for a maximum internal combustion engine rotational speed; - a dual-clutch arrangement (20, 30; 50) which has a first friction clutch and a second friction clutch, wherein the friction clutches (20, 30) have a common input element, coupled to the internal combustion engine, and in each case one output element (60, 62); - a transmission arrangement (22, 32) which has a first sub-transmission and a second sub-transmission, wherein the output element of the first friction clutch is connected to an input of the first sub-transmission, and wherein the output element of the second friction clutch is connected to an input of the second sub-transmission; - an electric machine which is or can be connected to the output element of the second friction clutch via a machine transmission ratio (i M), in such a way that a purely electric driving mode can be established by means of the second sub-transmission, wherein the electric machine is designed for a maximum machine rotational speed;
Container device for collecting, storing and processing blood or a blood compound wherein the container device comprises, a hollow tube and a piston set (30, 50), where the hollow tube comprises a tubular body and delimits an interior space that ends in a proximal opening located in a proximal end of the tube and in a distal opening located in a distal end of the tube, wherein the tube further comprises a connector at the distal end, and where the piston set (30, 50) is movably arranged in the interior space of the tube and which comprises a piston head and a handle, wherein the piston head is arranged at a distal end of the piston set (30, 50) and contacts the tubular body of the tube delimiting and isolating two regions (14a, 14b) in the interior space of the tube, wherein the handle extends from the piston head and protrudes from the tube at the proximal end of the tube, wherein the container device is characterised in that it comprises: - a valve set (70, 90) positioned so as to block the flow of fluid in a distal end of the interior space of the tube and prevent the flow of fluid through the distal opening of the tube, wherein the valve set (70, 90) is operable by a pressure exerted on a distal wall of the valve set (70, 90) to unblock the flow of fluid through the distal end of the interior space and allow the flow of fluid through the distal opening, wherein the wall comprises a through cut that adopts a closed and sealed configuration in the absence of the pressure and an open configuration in the presence of the pressure. - a valve set (70, 90) positioned so as to block the flow of fluid in a distal end of the interior space of the tube and prevent the flow of fluid through the distal opening of the tube, wherein the valve set (70, 90) is operable by a pressure exerted on a distal wall of the valve set (70, 90) to unblock the flow of fluid through the distal end of the interior space and allow the flow of fluid through the distal opening, wherein the wall comprises a through cut that adopts a closed and sealed configuration in the absence of the pressure and an open configuration in the presence of the pressure.
A digital-to-phase converter circuit for producing a clock output having a digitally controlled phase, the circuit comprising: a first pre-driver module configured to receive complementary in-phase clock signals and produce a first pair of complementary buffered clock signals having controlled slew rates; a second pre-driver module configured to receive complementary quadrature clock signals and produce a second pair of complementary buffered clock signals having controlled slew rates; characterized in that the digital-to-phase converter further comprising: a mixer module configured to produce the clock output by forming a weighted combination of the buffered clock signals based on a phase control input, the mixer module comprising a plurality of mixer cells, each of the plurality of mixer cells comprising four enableable inverters, each of the four enableable inverters having an input coupled to one of the buffered clock signals and an output coupled to a first mixer output, wherein only one of the enableable inverters of each mixer cell is enabled based on the phase control input at a time; and an output buffer configured to buffer the first mixer output to produce the clock output. a first pre-driver module configured to receive complementary in-phase clock signals and produce a first pair of complementary buffered clock signals having controlled slew rates; a second pre-driver module configured to receive complementary quadrature clock signals and produce a second pair of complementary buffered clock signals having controlled slew rates; characterized in that the digital-to-phase converter further comprising: a mixer module configured to produce the clock output by forming a weighted combination of the buffered clock signals based on a phase control input, the mixer module comprising a plurality of mixer cells, each of the plurality of mixer cells comprising four enableable inverters, each of the four enableable inverters having an input coupled to one of the buffered clock signals and an output coupled to a first mixer output, wherein only one of the enableable inverters of each mixer cell is enabled based on the phase control input at a time; and an output buffer configured to buffer the first mixer output to produce the clock output. a plurality of mixer cells, each of the plurality of mixer cells comprising four enableable inverters, each of the four enableable inverters having an input coupled to one of the buffered clock signals and an output coupled to a first mixer output, wherein only one of the enableable inverters of each mixer cell is enabled based on the phase control input at a time; and an output buffer configured to buffer the first mixer output to produce the clock output.
A method for the synthesis of the nanomaterial product of claim 7 which comprises at least one hybrid nanoparticle of gold-metal-biopolymer, the biopolymer comprising at least one biopolymer being chosen among: collagen, chitosan, polyethylene glycol diacid, alginate, or their derivatives, the metal being chosen among: Gd, Co, Eu, Tb, Ce, Mn, Fe, Zn, Cu, the method being realized in an aqueous solvent and presenting: - Preparation steps of mixing the gold ions, the metal ions and the biopolymer, for obtaining a resulting solution with gold-metal-biopolymer complex, - One single step of synthesizing nanomaterial product which is the reduction of gold ions and metal ions in the presence of the biopolymer, by introducing a reducing agent in the resulting solution, the biopolymer being used as a stabilizer agent, the method being realized without chemical surfactant other than the biopolymer and without chemical linker. at least one hybrid nanoparticle of gold-metal-biopolymer, the biopolymer comprising at least one biopolymer being chosen among: collagen, chitosan, polyethylene glycol diacid, alginate, or their derivatives, the metal being chosen among: Gd, Co, Eu, Tb, Ce, Mn, Fe, Zn, Cu, the method being realized in an aqueous solvent and presenting: - Preparation steps of mixing the gold ions, the metal ions and the biopolymer, for obtaining a resulting solution with gold-metal-biopolymer complex, - One single step of synthesizing nanomaterial product which is the reduction of gold ions and metal ions in the presence of the biopolymer, by introducing a reducing agent in the resulting solution, the biopolymer being used as a stabilizer agent, - Preparation steps of mixing the gold ions, the metal ions and the biopolymer, for obtaining a resulting solution with gold-metal-biopolymer complex, - One single step of synthesizing nanomaterial product which is the reduction of gold ions and metal ions in the presence of the biopolymer, by introducing a reducing agent in the resulting solution, the biopolymer being used as a stabilizer agent, the method being realized without chemical surfactant other than the biopolymer and without chemical linker.