mhurhangee/ep-ind-claims huggingface dataset:
A magnetic resonance method comprising: thermally insulating between a sample and a cavity, the cavity being at a first temperature, the sample being at a second, different temperature and containing a spin ensemble in a static magnetic field, the spin ensemble defining a state space comprising a plurality of angular momentum subspaces; and generating an interaction between the cavity and the spin ensemble that increases polarization of the spin ensemble by applying a time-varying magnetic drive field to the spin ensemble, wherein the time-varying magnetic drive field is adapted to couple spin states of the spin ensemble with a cavity mode of the cavity, and the interaction is generated by the coupling between the spin states and the cavity mode acting independently on each of the plurality of angular momentum subspaces of the spin ensemble, wherein the time-varying magnetic drive field is tuned to a spin-resonance frequency ( ω s) of the spin ensemble, the cavity mode corresponds to a cavity-resonance frequency ( ω c),the cavity-resonance frequency ( ω c) is detuned from the spin-resonance frequency ( ω s) by an amount δω = ω c - ω s, the time- varying magnetic drive field generates Rabi oscillations at a Rabi frequency ( Ω R), and the difference between the detuning ( δω) and the Rabi frequency ( Ω R) is small compared to the detuning ( δω). thermally insulating between a sample and a cavity, the cavity being at a first temperature, the sample being at a second, different temperature and containing a spin ensemble in a static magnetic field, the spin ensemble defining a state space comprising a plurality of angular momentum subspaces; and generating an interaction between the cavity and the spin ensemble that increases polarization of the spin ensemble by applying a time-varying magnetic drive field to the spin ensemble, wherein the time-varying magnetic drive field is adapted to couple spin states of the spin ensemble with a cavity mode of the cavity, and the interaction is generated by the coupling between the spin states and the cavity mode acting independently on each of the plurality of angular momentum subspaces of the spin ensemble, wherein the time-varying magnetic drive field is tuned to a spin-resonance frequency ( ω s) of the spin ensemble, the cavity mode corresponds to a cavity-resonance frequency ( ω c),the cavity-resonance frequency ( ω c) is detuned from the spin-resonance frequency ( ω s) by an amount δω = ω c - ω s, the time- varying magnetic drive field generates Rabi oscillations at a Rabi frequency ( Ω R), and the difference between the detuning ( δω) and the Rabi frequency ( Ω R) is small compared to the detuning ( δω).
A fan assembly (20; 120; 320) for directing fluid flow in a hybrid radial and axial direction, the assembly comprising: a backplate (22; 22'; 122; 222; 322) having an inner diameter portion and a frusto-conical outer diameter portion positioned about a center axis (C L), wherein the frusto-conical outer diameter portion extends to a circumference of the backplate; a plurality of blades (24; 24'; 124; 224; 324) extending from the backplate; and an annular fan shroud positioned adjacent to the plurality of blades and configured for co-rotation therewith, wherein the backplate, the plurality of fan blades and the fan shroud form a fan subassembly, characterized in that an overall depth (PW f) of the fan subassembly is 20-35% of an overall fan subassembly diameter (ØD1), and wherein a discharge angle (θ 1) defined by the outer diameter portion of the backplate is oriented at 65-80° with respect to the axial direction. a backplate (22; 22'; 122; 222; 322) having an inner diameter portion and a frusto-conical outer diameter portion positioned about a center axis (C L), wherein the frusto-conical outer diameter portion extends to a circumference of the backplate; a plurality of blades (24; 24'; 124; 224; 324) extending from the backplate; and an annular fan shroud positioned adjacent to the plurality of blades and configured for co-rotation therewith, wherein the backplate, the plurality of fan blades and the fan shroud form a fan subassembly, characterized in that an overall depth (PW f) of the fan subassembly is 20-35% of an overall fan subassembly diameter (ØD1), and wherein a discharge angle (θ 1) defined by the outer diameter portion of the backplate is oriented at 65-80° with respect to the axial direction.
Folding coulter for a clearing device with a clearing blade, comprising a) a folding bar; b) a lever mechanism for pivotally mounting the folding bar on a base part of the clearing blade; c) a spring element for arrangement between the base part and the lever mechanism, for resetting the folding bar to an initial position in which the folding bar forms an extension of a blade plate of the clearing blade, wherein the lever mechanism is configured such that the folding bar can be pivoted along a first swivel path out of the initial position into a swivelled-back position while overcoming a spring force of the spring element and such that the folding bar can be pivoted along a second swivel path out of the swivelled-back position into the initial position due to the spring force, characterised in that the lever mechanism is configured such that the second swivel path is different from the first swivel path. a) a folding bar; b) a lever mechanism for pivotally mounting the folding bar on a base part of the clearing blade; c) a spring element for arrangement between the base part and the lever mechanism, for resetting the folding bar to an initial position in which the folding bar forms an extension of a blade plate of the clearing blade, wherein the lever mechanism is configured such that the folding bar can be pivoted along a first swivel path out of the initial position into a swivelled-back position while overcoming a spring force of the spring element and such that the folding bar can be pivoted along a second swivel path out of the swivelled-back position into the initial position due to the spring force, characterised in that the lever mechanism is configured such that the second swivel path is different from the first swivel path.
A conductive connector (100,200,300,400) comprising: a viscoelastic support member (164,264,364,464) having a variable length; and a conductor (162,262,362,462) coupled to the support member, the conductor including at least one bend (165,265,365,465) to accommodate the variable length of the viscoelastic support member (164,264,364,464), characterized in that the viscoelastic support member exhibits at least some elastic properties at a first length, but does not exhibit immediate elastic recovery and exhibits plastic deformation at a second length. a viscoelastic support member (164,264,364,464) having a variable length; and a conductor (162,262,362,462) coupled to the support member, the conductor including at least one bend (165,265,365,465) to accommodate the variable length of the viscoelastic support member (164,264,364,464), characterized in that the viscoelastic support member exhibits at least some elastic properties at a first length, but does not exhibit immediate elastic recovery and exhibits plastic deformation at a second length.
A break-away antenna assembly in combination with a Guided Soft Target which comprises a soft body removably attached to a programmable, autonomously guided, self-propelled Dynamic Motion Element, the Dynamic Motion Element providing a mobile platform for the soft body, the antenna assembly comprising: an antenna mounted to the soft body of the Guided Soft Target; characterized by first antenna wiring extending from the antenna; second antenna wiring extending from the Dynamic Motion Element; a reattachable electrical connector electrically connecting the first antenna wiring with the second antenna wiring sufficiently to maintain an uninterrupted electrical connection during normal use of the Guided Soft Target; the reattachable electrical connector adapted to disconnect the first antenna wiring from the second antenna wiring without damage to the connector or the first or second antenna wiring when the soft body is suddenly removed from the Dynamic Motion Element due to the Guided Soft Target being impacted by a subject vehicle; wherein the reattachable electrical connector and second antenna wiring are recessed below an exterior surface of the Dynamic Motion Element. an antenna mounted to the soft body of the Guided Soft Target; characterized by first antenna wiring extending from the antenna; second antenna wiring extending from the Dynamic Motion Element; a reattachable electrical connector electrically connecting the first antenna wiring with the second antenna wiring sufficiently to maintain an uninterrupted electrical connection during normal use of the Guided Soft Target; the reattachable electrical connector adapted to disconnect the first antenna wiring from the second antenna wiring without damage to the connector or the first or second antenna wiring when the soft body is suddenly removed from the Dynamic Motion Element due to the Guided Soft Target being impacted by a subject vehicle; wherein the reattachable electrical connector and second antenna wiring are recessed below an exterior surface of the Dynamic Motion Element.
A blade arrangement of a jet engine or an aircraft propeller comprising a blade with a root portion and an aerofoil portion, wherein the aerofoil portion comprises a suction side and a pressure side, wherein a retention structure is provided that is configured to radially retain the blade in case of a structural blade failure, wherein the retention structure - is secured to the root portion and/or to a structure adjacent to the root portion and extends in the radial direction along the suction side and along the pressure side of the aerofoil portion and - forms a loop that runs at least around the root portion, along the suction side and along the pressure side of the blade, characterized in that the retention structure is a textile and formed by at least one band or ribbon that forms a full loop which runs around the root portion, along the suction side, along the pressure side and around the tip of the blade, wherein the band or ribbon runs around the tip of the blade by looping over the tip of the blade or by running through an opening formed in the tip of the blade. - is secured to the root portion and/or to a structure adjacent to the root portion and extends in the radial direction along the suction side and along the pressure side of the aerofoil portion and - forms a loop that runs at least around the root portion, along the suction side and along the pressure side of the blade,
A steering control method of an autonomous vehicle, characterized in that the method comprising: receiving position of an autonomous vehicle, and a first heading angle of the autonomous vehicle with respect to north; calculating a second heading angle of the autonomous vehicle toward a tracking waypoint based on the position of the autonomous vehicle, and computing a rotation radius of the autonomous vehicle with respect to the tracking waypoint; calculating a yaw rate based on a speed of the autonomous vehicle and the computed rotation radius, and generating a steering command corresponding to the calculated yaw rate; and compensating for the steering command based on the first and second heading angles. receiving position of an autonomous vehicle, and a first heading angle of the autonomous vehicle with respect to north; calculating a second heading angle of the autonomous vehicle toward a tracking waypoint based on the position of the autonomous vehicle, and computing a rotation radius of the autonomous vehicle with respect to the tracking waypoint; calculating a yaw rate based on a speed of the autonomous vehicle and the computed rotation radius, and generating a steering command corresponding to the calculated yaw rate; and compensating for the steering command based on the first and second heading angles.
A process for reconditioning a multi-component electrode (20, 30) comprising a silicon electrode (22, 32) bonded to an electrically conductive backing plate (24, 43), the process comprising: removing metal ions from the multi-component electrode by soaking the multi-component electrode in a substantially alcohol-free DSP solution comprising sulfuric acid, hydrogen peroxide, and water (step 100) and rinsing the multi-component electrode with de-ionized water (step 200); polishing one or more surfaces of the multi-component electrode following removal of metal ions there from (step 300); and removing contaminants from silicon surfaces of the multi-component electrode by treating the polished multi-component electrode with a mixed acid solution comprising hydrofluoric acid, nitric acid, acetic acid, and water (step 500) and by rinsing the treated multi-component electrode with de-ionized water. removing metal ions from the multi-component electrode by soaking the multi-component electrode in a substantially alcohol-free DSP solution comprising sulfuric acid, hydrogen peroxide, and water (step 100) and rinsing the multi-component electrode with de-ionized water (step 200); polishing one or more surfaces of the multi-component electrode following removal of metal ions there from (step 300); and removing contaminants from silicon surfaces of the multi-component electrode by treating the polished multi-component electrode with a mixed acid solution comprising hydrofluoric acid, nitric acid, acetic acid, and water (step 500) and by rinsing the treated multi-component electrode with de-ionized water.
A computer-implemented method for predicting performance of strains in processes, the strains being capable of fermentation of biomass for production of at least bio-ethanol, the method including the steps of: receiving a first process data set related to a performance of a first strain in a first process for producing bio-ethanol at a first site, receiving a second process data set related to a performance of a second strain in the first process for producing bio-ethanol at the first site, receiving a third process data set related to a performance of the first strain in a second process for producing bio-ethanol at a second site, the second site being different from the first site, and wherein the first, second and third process data sets each include one or more process profiles and/or process responses, determining a first correlation between the first process data set and the second process data set, and determining a second correlation between the first process data and the third process data, reconstructing a fourth process data set related to a performance of the second strain in the second process for producing bio-ethanol at the second site by missing data imputation, wherein the fourth process data set is estimated based on the first correlation and the second correlation, and using the reconstructed fourth process data set as a prediction of the performance of the second strain in the second process at the second site. receiving a first process data set related to a performance of a first strain in a first process for producing bio-ethanol at a first site, receiving a second process data set related to a performance of a second strain in the first process for producing bio-ethanol at the first site, receiving a third process data set related to a performance of the first strain in a second process for producing bio-ethanol at a second site, the second site being different from the first site, and wherein the first, second and third process data sets each include one or more process profiles and/or process responses, determining a first correlation between the first process data set and the second process data set, and determining a second correlation between the first process data and the third process data, reconstructing a fourth process data set related to a performance of the second strain in the second process for producing bio-ethanol at the second site by missing data imputation, wherein the fourth process data set is estimated based on the first correlation and the second correlation, and using the reconstructed fourth process data set as a prediction of the performance of the second strain in the second process at the second site.
A communication control apparatus comprising: a radio communication unit configured to wirelessly communicate with a terminal apparatus to which a first operator provides a radio communication service, the terminal apparatus being capable of radio communication by using one primary frequency band and at least one secondary frequency band; and a control unit configured to control access of the terminal apparatus in a manner that a frequency band among one or more frequency bands owned by a second operator is not used as the one primary frequency band of the terminal apparatus, the frequency band being temporarily used by the first operator, wherein the communication control apparatus is a base station of the first operator or the second operator, characterized in that the control unit is configured to not arrange a synchronization signal at a position in a frequency direction, the position being searched for by the terminal apparatus in the frequency band temporarily used by the first operator. a radio communication unit configured to wirelessly communicate with a terminal apparatus to which a first operator provides a radio communication service, the terminal apparatus being capable of radio communication by using one primary frequency band and at least one secondary frequency band; and a control unit configured to control access of the terminal apparatus in a manner that a frequency band among one or more frequency bands owned by a second operator is not used as the one primary frequency band of the terminal apparatus, the frequency band being temporarily used by the first operator, wherein the communication control apparatus is a base station of the first operator or the second operator, characterized in that the control unit is configured to not arrange a synchronization signal at a position in a frequency direction, the position being searched for by the terminal apparatus in the frequency band temporarily used by the first operator.
A centrifugal separator, comprising: - a rotatable drum having a wall, - an annular chamber defined along the longitudinal axis of said rotatable drum, wherein the annular chamber borders said wall, - an annular screw feeder, accommodated rotatably in said annular chamber for moving a mixture of substances in the liquid phase and in the solid phase longitudinally through said annular chamber, and - separation nets arranged in said wall of said drum, the separation nets having meshes for filtering said solid phase from said liquid phase by the rotation of said drum, wherein said separation nets are movable relative to said wall, characterized in that the centrifugal separator further comprises adjusting members for regulating the radial position of said separation nets relative to said wall. - a rotatable drum having a wall, - an annular chamber defined along the longitudinal axis of said rotatable drum, wherein the annular chamber borders said wall, - an annular screw feeder, accommodated rotatably in said annular chamber for moving a mixture of substances in the liquid phase and in the solid phase longitudinally through said annular chamber, and - separation nets arranged in said wall of said drum, the separation nets having meshes for filtering said solid phase from said liquid phase by the rotation of said drum, wherein said separation nets are movable relative to said wall,
A method of producing an altered N-glycosylation form of a target protein or polypeptide, the method comprising: a) providing a cell genetically engineered to comprise at least two modified N-glycosylation activities relative to a non-genetically engineered cell of the same species and introducing into the cell a nucleic acid encoding the target protein or polypeptide, wherein the cell produces the target protein or polypeptide in an altered N-glycosylation form, the cell being a Yarrowia lipolytica cell, an Arxula adeninivorans or a cell from a related species of dimorphic yeast; or b) contacting the target protein or polypeptide with a cell lysate prepared from a cell genetically engineered to comprise at least two modified N-glycosylation activities relative to a non-genetically engineered cell of the same species, the cell being a Yarrowia lipolytica cell, an Arxula adeninivorans or a related species of dimorphic yeast; wherein the at least two modified N-glycosylation activities comprise a deficiency in OCH1 activity and an expression of an alpha-1,2-mannosidase polypeptide targeted to the endoplasmic reticulum, wherein the target protein or polypeptide is a pharmaceutically useful protein or polypeptide, and wherein at least 90% of the N-glycan structures of the target protein are Man 5 GlcNAc 2. a) providing a cell genetically engineered to comprise at least two modified N-glycosylation activities relative to a non-genetically engineered cell of the same species and introducing into the cell a nucleic acid encoding the target protein or polypeptide, wherein the cell produces the target protein or polypeptide in an altered N-glycosylation form, the cell being a Yarrowia lipolytica cell, an Arxula adeninivorans or a cell from a related species of dimorphic yeast; or b) contacting the target protein or polypeptide with a cell lysate prepared from a cell genetically engineered to comprise at least two modified N-glycosylation activities relative to a non-genetically engineered cell of the same species, the cell being a Yarrowia lipolytica cell, an Arxula adeninivorans or a related species of dimorphic yeast;
An ex vivo method for propagating and isolating a piscine reovirus, said method comprising ex vivo propagating and isolating said PRV in nucleated piscine erythrocytes.
A swimming device (1, 10, 30) for a swimmer, in particular a diver, with a monofin laminar shape on a X-Y level and primarily movable in the +/- Z-direction, a power transfer element (4, 14) for moving the monofin using muscle power in water and featuring a fastening device (5, 15) for fastening the power transfer element (4, 14) formed as a shin pad with forming elements to the lower leg of the swimmer, whereby a hinge is arranged between the power transfer element and the monofin, whereby the power transfer element (4, 14) comprises a section of the lower leg, a section of the foot, and a section of the fin, whereby the swimming device is configured in the cross section at least at the section of the lower leg at a right-angle to the body axis for a movement in the +/- Z-direction in the X-Z level lenticular-biconvex with an axis in Z-direction and configured in that way, that the Z-axis is longer as an orthogonal x-axis, which is shorter in contrast to the aforementioned Z-axis.
A high-strength hot-rolled steel sheet having a tensile strength TS in the range of 700 MPa 900 MPa and having a composition consisting of, on a mass percent basis, C: 0.071% or more to 0.15%, Si: 0.05% or more and 1.0% or less, Mn: 1.0% to 2.0%, P: 0.05% or less, S: 0.005% or less, Al: 0.01% or more and 0.1% or less, N: 0.01% or less, Ti: 0.065% to 0.125%, B: 0.0002% to 0.0030%, optionally at least one selected from Nb: 0.005% to 0.2%, Cu: 0.005% to 0.3%, Ni: 0.005% to 0.3%, Sn: 0.005% to 0.3%, Mo: 0.002% to 0.3%, Cr: 0.002% to 0.3%, Ca: 0.0002% to 0.004% and REM: 0.0002% to 0.004%, and the balance being Fe and incidental impurities, wherein the high-strength hot-rolled steel sheet has a microstructure comprising a bainite of more than 92% by volume, the bainite having an average lath interval of 0.60 μm or less, and Fe-based carbide precipitated in bainite lath grains having a ratio of 10% or more by number to all Fe-based carbide.