mhurhangee/ep-ind-claims huggingface dataset:
A twin-engine system, comprising: a gas turbine engine comprising a core and a first output shaft drivable by the core; an electric engine having an electric motor configured to drive a second output shaft; and a reduction gear box having an RGB input drivingly engaged with both the first output shaft and the second output shaft, the RGB having an RGB output to provide rotational output to a rotatable load, characterised in that: the system further comprises an electric generator configured to provide electrical power to the electric motor, the electric generator aligned with the electric motor within the twin-engine system; and the electric generator is drivingly engaged to the gas turbine engine via the RGB in order to convert a mechanical output from the gas turbine engine into electrical power that is supplied to the electric motor. a gas turbine engine comprising a core and a first output shaft drivable by the core; an electric engine having an electric motor configured to drive a second output shaft; and a reduction gear box having an RGB input drivingly engaged with both the first output shaft and the second output shaft, the RGB having an RGB output to provide rotational output to a rotatable load, characterised in that: the system further comprises an electric generator configured to provide electrical power to the electric motor, the electric generator aligned with the electric motor within the twin-engine system; and the electric generator is drivingly engaged to the gas turbine engine via the RGB in order to convert a mechanical output from the gas turbine engine into electrical power that is supplied to the electric motor. the system further comprises an electric generator configured to provide electrical power to the electric motor, the electric generator aligned with the electric motor within the twin-engine system; and the electric generator is drivingly engaged to the gas turbine engine via the RGB in order to convert a mechanical output from the gas turbine engine into electrical power that is supplied to the electric motor.
A monopole antenna arrangement comprising a conductive element of length l, configured to resonate at or above a chosen electromagnetic radiation frequency (F 0), wherein the conductive element comprises at least two first parts corresponding to high electrical sensitivity areas that include respective nodes of current of the chosen electromagnetic radiation for a given resonant mode selected amongst the second, third and fourth order resonant modes (3F 0, 5F 0, 7F 0) of the conductive element, and where the voltage of the electromagnetic field has a value still significant with respect to the maximum values of the respective nodes, the monopole antenna being characterized in that each first part faces close to one respective second part of the conductive element corresponding to a high electrical sensistivity area that includes one different node of current of said electromagnetic radiation having the same responant mode of the node of current of the said first part, so as to create an electromagnetic coupling area configured to shift the resonant frequency of two or more of the second, third or fourth order resonant modes (3F 0, 5F 0, 7F 0) of the node of current of the said first part while avoiding any coupling between the remaining portions of the conductive element. the monopole antenna being characterized in that each first part faces close to one respective second part of the conductive element corresponding to a high electrical sensistivity area that includes one different node of current of said electromagnetic radiation having the same responant mode of the node of current of the said first part, so as to create an electromagnetic coupling area configured to shift the resonant frequency of two or more of the second, third or fourth order resonant modes (3F 0, 5F 0, 7F 0) of the node of current of the said first part while avoiding any coupling between the remaining portions of the conductive element.
A composition comprising a bacterial plasmid IL-10 expression construct, wherein the IL-10 expression construct comprises a bacterial backbone and a nucleic acid sequence encoding interleukin-10 for use in a method of treating inflammatory joint disease in a subject, said method comprising injecting the composition into an inflamed joint of the subject.
Steering column for a motor vehicle, comprising a supporting unit which is connectable to the body of the vehicle, and a sleeve unit in which a steering spindle is mounted so as to be rotatable about its longitudinal axis and which is accommodated in the supporting unit so as to be displaceable in the longitudinal direction parallel to the longitudinal axis, wherein an energy absorption device (5, 7, 73) is fitted between supporting unit and sleeve unit, said energy absorption device comprising at least one first bending element (51, 71, 721) which comprises an elongate input limb which is arranged parallel to the longitudinal direction and comprises a free end and another end which merges into a bend to which a fixed limb is connected, wherein the free end is connected to the supporting unit and the fixed limb is connected to the sleeve unit, or the free end is connected to the sleeve unit and the fixed limb is connected to the supporting unit, wherein a second bending element (52, 72, 722) is formed in a mirror-inverted manner with respect to a first bending element (51, 71, 721) and is arranged mirror-symmetrically adjacent to the first bending element (51, 71, 721), characterized in that the outer sides (519, 529) of the input limbs (511, 521), which outer sides face away from the bend (513, 523), lie parallel against each other.
A method for determining heading, wherein a magnetic field is measured by at least one magnetometer and a magnetic heading is determined from said measurement and wherein calculation means implement a processing calculating, for each magnetic heading measurement, a characterisation value of the heading thus determined, characterised in that said characterisation value is a monotonic function of a magnitude of the gradient of the measured magnetic field, said value being used in determining the heading.
A method for producing a basic amino acid by fermentation comprising culturing a microorganism having an ability to produce the basic amino acid in a liquid medium contained in a fermentation tank to produce and accumulate the basic amino acid in the medium; wherein the amount of sulfate ions and/or chloride ions used as counter ions of said basic amino acid is reduced by adjusting the total ammonia concentration in the medium to be within a specific concentration range of 300 mM or lower during at least a part of the total period of the culture process; wherein the at least part of the total period includes a period where the pH of the medium increases due to shortage of the counter ions caused by accumulation of said basic amino acid; and wherein the microorganism is a coryneform bacterium or an Escherichia coli bacterium.
A method of amplifying nucleic acid template constructs by solid-phase nucleic acid amplification comprising: i) preparing nucleic acid template constructs for solid-phase nucleic acid amplification comprising one or more templates to be amplified by performing the following ligation reactions a) and b): a) a ligation reaction in which the first end of each of a mixture of target polynucleotide molecules of different sequence are ligated to universal surface-bound adaptor polynucleotide molecules; and b) a ligation reaction in which universal solution-phase adaptor polynucleotide molecules are ligated to the second end of said target polynucleotide molecules thereby producing template constructs attached to a solid support, wherein each of said template constructs comprises a target polynucleotide molecule ligated to a universal surface-bound adaptor polynucleotide molecule and a universal solution-phase polynucleotide molecule; and ii) carrying out a solid-phase nucleic acid amplification reaction wherein said template constructs are amplified. i) preparing nucleic acid template constructs for solid-phase nucleic acid amplification comprising one or more templates to be amplified by performing the following ligation reactions a) and b): a) a ligation reaction in which the first end of each of a mixture of target polynucleotide molecules of different sequence are ligated to universal surface-bound adaptor polynucleotide molecules; and b) a ligation reaction in which universal solution-phase adaptor polynucleotide molecules are ligated to the second end of said target polynucleotide molecules thereby producing template constructs attached to a solid support, wherein each of said template constructs comprises a target polynucleotide molecule ligated to a universal surface-bound adaptor polynucleotide molecule and a universal solution-phase polynucleotide molecule; and a) a ligation reaction in which the first end of each of a mixture of target polynucleotide molecules of different sequence are ligated to universal surface-bound adaptor polynucleotide molecules; and b) a ligation reaction in which universal solution-phase adaptor polynucleotide molecules are ligated to the second end of said target polynucleotide molecules ii) carrying out a solid-phase nucleic acid amplification reaction wherein said template constructs are amplified.
Method for controlling a machine tool with which a parts program is processed by executing non-cyclic preprocessing run tasks and cyclic main run tasks, wherein - two master values are stored in a first buffer memory as the results of the preprocessing run tasks; and - each of the master values corresponds to a respective position for a master axis, wherein each of the positions is assigned to a respective cycle of the main run tasks; characterised in that the method includes the following steps: - generating a part of a curve table, wherein the part includes a specification that assigns a first coupling value for a coupling axis to a first one of the master values; - storing the first part in a second buffer memory; - execution of the cycle of the main run tasks to which the first master value is assigned based on the first master value and the first coupling value; - discarding the specification after the execution of the cycle; and, when the specification has been discarded, - generating a further part of the curve table, wherein the further part includes a further specification that assigns a second coupling value for the coupling axis to a second one of the master values; and - storing the further part in the second buffer memory. - two master values are stored in a first buffer memory as the results of the preprocessing run tasks; and - each of the master values corresponds to a respective position for a master axis, wherein each of the positions is assigned to a respective cycle of the main run tasks; characterised in that the method includes the following steps: - generating a part of a curve table, wherein the part includes a specification that assigns a first coupling value for a coupling axis to a first one of the master values; - storing the first part in a second buffer memory; - execution of the cycle of the main run tasks to which the first master value is assigned based on the first master value and the first coupling value; - discarding the specification after the execution of the cycle; and, when the specification has been discarded, - generating a further part of the curve table, wherein the further part includes a further specification that assigns a second coupling value for the coupling axis to a second one of the master values; and - storing the further part in the second buffer memory.
A steer-by-wire vehicle steering system comprising: an electric motor (21, 22); a steered shaft and a ball screw mechanism, that converts rotative power of the electric motor into a movement of the steered shaft in an axial direction via the ball screw mechanism, the vehicle steering system further comprising: a threaded shaft provided at an intermediate part of the steered shaft; a ball nut screwed to the threaded shaft via balls and rotatable together with a rotor of the electric motor; a tubular housing that houses the electric motor and the ball nut and through which the steered shaft is passed; and first and second stoppers (47, 48), wherein the steered shaft has first and second contact portions (45, 46) located respectively at first and second end portions (321, 322) of the threaded shaft, radial gaps (S1, S2) are formed between outer peripheries (45a, 46a) of the respective contact portions (45, 46) and an inner periphery of the rotor, and when the steered shaft moves in the axial direction, one of the contact portions, which is passed through the rotor, contacts a corresponding one of the stoppers, so that a travel amount of the steered shaft in the axial direction is restricted, characterized in that the first and second stoppers (47, 48) are arranged at first and second end portions (51, 52) of the housing, respectively, the radial gaps are formed so that the each of the contact portions is allowed to be inserted into the rotor, and the one of the contact portions is on a moving direction side. a threaded shaft provided at an intermediate part of the steered shaft; a ball nut screwed to the threaded shaft via balls and rotatable together with a rotor of the electric motor; a tubular housing that houses the electric motor and the ball nut and through which the steered shaft is passed; and first and second stoppers (47, 48), wherein the steered shaft has first and second contact portions (45, 46) located respectively at first and second end portions (321, 322) of the threaded shaft, radial gaps (S1, S2) are formed between outer peripheries (45a, 46a) of the respective contact portions (45, 46) and an inner periphery of the rotor, and when the steered shaft moves in the axial direction, one of the contact portions, which is passed through the rotor, contacts a corresponding one of the stoppers, so that a travel amount of the steered shaft in the axial direction is restricted, characterized in that the first and second stoppers (47, 48) are arranged at first and second end portions (51, 52) of the housing, respectively, the radial gaps are formed so that the each of the contact portions is allowed to be inserted into the rotor, and the one of the contact portions is on a moving direction side.
A method for building a structure, wherein: - an area of a ground for receiving said structure is prepared by landscaping; - a load-spreading mat is made by adding a compacted material inside said area; and - said structure is made on the upper face of said load-spreading mat; wherein it consists, during the making of said mat, in inserting a meshed reinforcement during the compacting of said material. - an area of a ground for receiving said structure is prepared by landscaping; - a load-spreading mat is made by adding a compacted material inside said area; and - said structure is made on the upper face of said load-spreading mat;
A method for protecting a monostatic or quasi-monostatic laser rangefinder, said rangefinder having an optical outlet for emitting a laser beam (F 1) of primary radiation and an optical inlet for collecting a portion of a return radiation (F R), the optical outlet and inlet being juxtaposed or superimposed, with a center-to-center distance between the emission and reception pupils that is zero or less than or equal to 100 mm, and the rangefinder being designed so that a direction of propagation of the primary radiation emitted by the optical outlet is identical to a direction of propagation of the portion of return radiation collected during a measurement operation of the rangefinder, the method comprising attaching an optical module in front of the optical outlet of the rangefinder, so as to offset transversely the laser beam of primary radiation (F 1), the optical module being such that a direction of propagation of the primary radiation downstream of the optical module is identical to a direction of propagation of said primary radiation between the optical outlet of the rangefinder and said optical module, with a transverse offset length that is between 10 cm and 35 cm, preferably between 15 cm and 20 cm, measured perpendicularly to the direction of propagation, said optical module comprising two reflector assemblies (1,2) which are arranged on a path of the laser beam of primary radiation emitted by the rangefinder equipped with the optical module, downstream of the optical outlet of the rangefinder, so that the primary radiation is reflected by one and then the other of the two reflector assemblies, each reflector assembly being suitable for applying a deviation to the laser beam of primary radiation, and the respective deviations applied by one and then by the other of the two reflector assemblies being opposite to one another. the method comprising attaching an optical module in front of the optical outlet of the rangefinder, so as to offset transversely the laser beam of primary radiation (F 1), the optical module being such that a direction of propagation of the primary radiation downstream of the optical module is identical to a direction of propagation of said primary radiation between the optical outlet of the rangefinder and said optical module, with a transverse offset length that is between 10 cm and 35 cm, preferably between 15 cm and 20 cm, measured perpendicularly to the direction of propagation, said optical module comprising two reflector assemblies (1,2) which are arranged on a path of the laser beam of primary radiation emitted by the rangefinder equipped with the optical module, downstream of the optical outlet of the rangefinder, so that the primary radiation is reflected by one and then the other of the two reflector assemblies, each reflector assembly being suitable for applying a deviation to the laser beam of primary radiation, and the respective deviations applied by one and then by the other of the two reflector assemblies being opposite to one another.
A fluid ejector, comprising: a fluid ejection module comprising a plurality of actuators, a first plurality of fluid paths (170, 172, 174, 176, 178), and each of the first plurality of fluid paths having a nozzle for ejecting a fluid when an associated one of the actuators is actuated; an integrated circuit element in electrical communication with the fluid ejection module; characterized by a first interposer having a second plurality of fluid paths (612, 614), wherein the second plurality of fluid paths are connected to the first plurality of fluid paths, and the first interposer is configured to protect the actuators and integrated circuit element from fluid that is routed into the fluid ejection module, a second interposer being adjacent to the first interposer, wherein the first interposer is between the fluid ejection module and the second interposer, and a first edge of the second interposer is longer than a first edge of the first interposer. a fluid ejection module comprising a plurality of actuators, a first plurality of fluid paths (170, 172, 174, 176, 178), and each of the first plurality of fluid paths having a nozzle for ejecting a fluid when an associated one of the actuators is actuated; an integrated circuit element in electrical communication with the fluid ejection module; characterized by a first interposer having a second plurality of fluid paths (612, 614), wherein the second plurality of fluid paths are connected to the first plurality of fluid paths, and the first interposer is configured to protect the actuators and integrated circuit element from fluid that is routed into the fluid ejection module, a second interposer being adjacent to the first interposer, wherein the first interposer is between the fluid ejection module and the second interposer, and a first edge of the second interposer is longer than a first edge of the first interposer.
A method for preparing PEGylated Exendin analogs, including the steps as follows: Synthesize peptide raw materials of Exendin analogues wherein one or more of the Lysine residues of the peptide have been protected by Dde, wherein Dde is N-α-1-(4,4-dimethyl-6-dioxo-cyclohexylene) and wherein said peptide material has the following structure: wherein X is Fmoc or Dde; Z is Leu or Ile; Y 1 -Y 4 is Lys or (Dde) Lys, and at least one of Y 1 -Y 4 is Lys; The peptide materials mentioned in step react with the activated PEG in alkaline organic solvent, allowing Lys residues without Dde protecting group to bind the polyethylene glycol group; Remove the protecting groups of the product produced from step, isolate and purify the product, obtaining the PEGylated Exendin analogs. Synthesize peptide raw materials of Exendin analogues wherein one or more of the Lysine residues of the peptide have been protected by Dde, wherein Dde is N-α-1-(4,4-dimethyl-6-dioxo-cyclohexylene) and wherein said peptide material has the following structure: wherein X is Fmoc or Dde; Z is Leu or Ile; Y 1 -Y 4 is Lys or (Dde) Lys, and at least one of Y 1 -Y 4 is Lys; The peptide materials mentioned in step react with the activated PEG in alkaline organic solvent, allowing Lys residues without Dde protecting group to bind the polyethylene glycol group; Remove the protecting groups of the product produced from step, isolate and purify the product, obtaining the PEGylated Exendin analogs.
A process for obtaining a lipid from a microbial cell, said process comprising: a) lysing a cell to form a lysed cell composition; b) adding a base to the lysed cell composition, raising the pH of the lysed cell composition to 8 or above to demulsify the cell composition; c) one or more of cl, c2, c3 and c4; c1) adding a salt to the lysed cell composition to demulsify the cell composition c2) heating the lysed cell composition to demulsify the cell composition c3) agitating the lysed cell composition to demulsify the cell composition c4) adding a second base to the lysed cell composition to demulsify the cell composition; and d) separating a lipid from the demulsified cell composition; wherein the lipid contains less than 5% by weight of an organic solvent. a) lysing a cell to form a lysed cell composition; b) adding a base to the lysed cell composition, raising the pH of the lysed cell composition to 8 or above to demulsify the cell composition; c) one or more of cl, c2, c3 and c4; c1) adding a salt to the lysed cell composition to demulsify the cell composition c2) heating the lysed cell composition to demulsify the cell composition c3) agitating the lysed cell composition to demulsify the cell composition c4) adding a second base to the lysed cell composition to demulsify the cell composition; and c1) adding a salt to the lysed cell composition to demulsify the cell composition c2) heating the lysed cell composition to demulsify the cell composition c3) agitating the lysed cell composition to demulsify the cell composition c4) adding a second base to the lysed cell composition to demulsify the cell composition; d) separating a lipid from the demulsified cell composition;