mhurhangee/ep-ind-claims huggingface dataset:
A process for large scale separation of molecules comprising the steps: - providing magnetic particles having an affinity to said molecules to be separated, - mixing said magnetic particles with a solution containing said molecules, - bringing said mixture in contact with a magnetic separation device comprising a flow channel and at least one magnetic element, - removing said at least one magnetic element and collecting the magnetic particles carrying said molecules, - separating said molecules from said magnetic particles - obtaining a concentrated fraction of said molecules, and - recirculating the magnetic particles, wherein the magnetic particles are particles having an exterior surface, pores and a connected interior surface defined by said pores, said particles comprising at least one polymer, functional groups on said exterior and interior surfaces and magnetic particles (Mp) covalently bound to the interior and exterior surface of said particles, wherein the smallest diameter of at least 95wt% of all magnetic particles (Mp) is larger than the average diameter of at least 95% of the pores of the particles. - providing magnetic particles having an affinity to said molecules to be separated, - mixing said magnetic particles with a solution containing said molecules, - bringing said mixture in contact with a magnetic separation device comprising a flow channel and at least one magnetic element, - removing said at least one magnetic element and collecting the magnetic particles carrying said molecules, - separating said molecules from said magnetic particles - obtaining a concentrated fraction of said molecules, and - recirculating the magnetic particles,
An aluminum hydroxide powder, wherein a cumulative pore volume V measured by a mercury penetration method is 1.0 mL/g or more, the cumulative pore volume V being cumulated when a pore radius R is within a range of 0.01 μm or more and 1 μm or less, wherein in a pore distribution curve showing a relation between the pore radius R and a log differential pore volume (dV/dlogR) represented by using the pore radius R and the cumulative pore volume V, measured by the mercury penetration method, the dV/dlogR exceeds 0.6 mL/g when R is within an entire range of 0.01 μm or more and 1 μm or less, and wherein the untamped density is 0.14 g/mL or more and 0.18 g/mL or less, and the tamped density is 0.17 g/mL or more and 0.22 g/mL or less.
A light emitting apparatus comprising: a first light emitting unit including a first light emitting diode and a first phosphor; a second light emitting unit including a second light emitting diode and a second phosphor; an ambient light sensor; and a controller, wherein the ambient light sensor detects a spectrum distribution of ambient light and the controller operates the first and second light emitting units with reference to the spectrum distribution of the ambient light detected by the ambient light sensor, and characterized in that a spectrum distribution provided by combination of the first and second light emitting units corresponds to a wavelength distribution of spectral sensitivity of a CMOS image sensor, and in that the light emitting apparatus further comprises: a storage unit which stores spectrum distribution data according to electric current applied to each of the first and second light emitting units, wherein the ambient light sensor detects spectrum distributions of light emitted from the first and second light emitting units, and wherein the controller is configured to correct operating conditions of the first and second light emitting units by comparing the spectrum distributions of the light emitted from the first and second light emitting units as detected by the ambient light sensor with the spectrum distribution data of the first and second light emitting units stored in the storage unit and wherein the first phosphor comprises a blue phosphor and a green phosphor, and the second phosphor comprises a green phosphor and a red phosphor.. a first light emitting unit including a first light emitting diode and a first phosphor; a second light emitting unit including a second light emitting diode and a second phosphor; an ambient light sensor; and a controller, wherein the ambient light sensor detects a spectrum distribution of ambient light and the controller operates the first and second light emitting units with reference to the spectrum distribution of the ambient light detected by the ambient light sensor, and characterized in that a spectrum distribution provided by combination of the first and second light emitting units corresponds to a wavelength distribution of spectral sensitivity of a CMOS image sensor, and in that the light emitting apparatus further comprises: a storage unit which stores spectrum distribution data according to electric current applied to each of the first and second light emitting units, wherein the ambient light sensor detects spectrum distributions of light emitted from the first and second light emitting units, and wherein the controller is configured to correct operating conditions of the first and second light emitting units by comparing the spectrum distributions of the light emitted from the first and second light emitting units as detected by the ambient light sensor with the spectrum distribution data of the first and second light emitting units stored in the storage unit and wherein the first phosphor comprises a blue phosphor and a green phosphor, and the second phosphor comprises a green phosphor and a red phosphor..
A terminal comprising: means configured to perform a primary spreading by a zero auto-correlation, ZAC, sequence on a control signal followed by a secondary spreading by an orthogonal sequence; a generation unit configured to generate a transmission signal by repeating said spread signal over multiple subframes and by multiplying, in each subframe, the repeated signal by one of components of one sequence of a plurality of first sequences orthogonal to each other; a transmission unit configured to transmit the transmission signal; characterized in that the number of repetitions is larger than the length of the first sequence, with the first sequence being repetitively applied to the multiple subframes, and the sequence length of the first sequence is the same as the subframe period. means configured to perform a primary spreading by a zero auto-correlation, ZAC, sequence on a control signal followed by a secondary spreading by an orthogonal sequence; a generation unit configured to generate a transmission signal by repeating said spread signal over multiple subframes and by multiplying, in each subframe, the repeated signal by one of components of one sequence of a plurality of first sequences orthogonal to each other; a transmission unit configured to transmit the transmission signal; characterized in that the number of repetitions is larger than the length of the first sequence, with the first sequence being repetitively applied to the multiple subframes, and the sequence length of the first sequence is the same as the subframe period.
A method for providing a global clock in a system including at least two terminals which are connected via paths, comprising the following steps: determining a reference clock source, by which a calibration signal is generated, wherein each of the terminals is connected to the reference clock source through a signal recording unit, 1) generating a calibration signal which is then distributed to each terminals in the system, and recording a transmitting time T of the calibration signal; 2) receiving a backward signal and recording an arrival time T(n) of the backward signal, the backward signal being generated at each of the terminals upon the arrival the calibration signal at the each of the terminals, and determining an absolute deviation Delay(n) of the each of the terminals; 3) adjusting the time at the each of the terminals according to the absolute deviation to form a global clock, characterized in that the reception and recording for the transmitting time T of the calibration signal and the arrival time T(n) of the backward signal is performed by the signal recording unit cooperating with the reference clock source; and in that the minimum time measurement scale of the signal recording unit is less than 1/2 of the clock period of the reference clock source. determining a reference clock source, by which a calibration signal is generated, wherein each of the terminals is connected to the reference clock source through a signal recording unit, 1) generating a calibration signal which is then distributed to each terminals in the system, and recording a transmitting time T of the calibration signal; 2) receiving a backward signal and recording an arrival time T(n) of the backward signal, the backward signal being generated at each of the terminals upon the arrival the calibration signal at the each of the terminals, and determining an absolute deviation Delay(n) of the each of the terminals; 3) adjusting the time at the each of the terminals according to the absolute deviation to form a global clock, 1) generating a calibration signal which is then distributed to each terminals in the system, and recording a transmitting time T of the calibration signal; 2) receiving a backward signal and recording an arrival time T(n) of the backward signal, the backward signal being generated at each of the terminals upon the arrival the calibration signal at the each of the terminals, and determining an absolute deviation Delay(n) of the each of the terminals; 3) adjusting the time at the each of the terminals according to the absolute deviation to form a global clock, characterized in that the reception and recording for the transmitting time T of the calibration signal and the arrival time T(n) of the backward signal is performed by the signal recording unit cooperating with the reference clock source; and in that the minimum time measurement scale of the signal recording unit is less than 1/2 of the clock period of the reference clock source.
An activating rinse for treating a metal substrate comprising: a dispersion of metal phosphate particles having a D 90 particle size of no greater than 10 μm, wherein the metal phosphate comprises divalent or trivalent metals or combinations thereof; a dispersant comprising a non-ionic dispersant, wherein the non-ionic dispersant includes a non-ionic polymer comprising residues of monomers including propylene oxide, ethylene oxide, styrene, a monoacid such as (meth)acrylic acid, a diacid such as maleic acid or itaconic acid, an acid anhydride such as acrylic anhydride or maleic anhydride, or combinations thereof; and a metal sulfate salt; wherein the metal of the metal sulfate comprises nickel, cobalt, zinc, iron, copper, or combinations thereof; and wherein the D 90 particle size as determined according to the method described in the specification refers to a volume-weighted particle distribution in which 90% of the particles have a diameter smaller than the D 90 value. a dispersion of metal phosphate particles having a D 90 particle size of no greater than 10 μm, wherein the metal phosphate comprises divalent or trivalent metals or combinations thereof; a dispersant comprising a non-ionic dispersant, wherein the non-ionic dispersant includes a non-ionic polymer comprising residues of monomers including propylene oxide, ethylene oxide, styrene, a monoacid such as (meth)acrylic acid, a diacid such as maleic acid or itaconic acid, an acid anhydride such as acrylic anhydride or maleic anhydride, or combinations thereof; and a metal sulfate salt; wherein the metal of the metal sulfate comprises nickel, cobalt, zinc, iron, copper, or combinations thereof; and wherein the D 90 particle size as determined according to the method described in the specification refers to a volume-weighted particle distribution in which 90% of the particles have a diameter smaller than the D 90 value.
A method of manufacturing a bone plate (120, 160), the method comprising, in any order: forming one or more through-holes in each of a first plate member and a second plate member, the one or more through-holes being configured to receive one or more fasteners to attach each of the first and second plate members to bone; disposing an axle of the second plate member in an aperture defined by the first plate member; and creating a retainer for the axle while the axle remains in the aperture; wherein the step of creating a retainer includes (i) a step of plastically deforming a region of the axle to prevent the region from passing through the aperture or (ii) a step of welding the retainer to the axle, and wherein the step of creating a retainer permanently connects the first and second plate members to one another in a configuration that permits in-plane rotation of the first and second plate members relative to one another about a pivot axis defined by the axle. forming one or more through-holes in each of a first plate member and a second plate member, the one or more through-holes being configured to receive one or more fasteners to attach each of the first and second plate members to bone; disposing an axle of the second plate member in an aperture defined by the first plate member; and creating a retainer for the axle while the axle remains in the aperture; wherein the step of creating a retainer includes (i) a step of plastically deforming a region of the axle to prevent the region from passing through the aperture or (ii) a step of welding the retainer to the axle, and wherein the step of creating a retainer permanently connects the first and second plate members to one another in a configuration that permits in-plane rotation of the first and second plate members relative to one another about a pivot axis defined by the axle.
Method for operating a water-conducting domestic appliance comprising a suds container, an outlet pipe and a suds pump for conveying washing liquid out of the suds container through the outlet pipe, characterised in that the pumping height is adjusted by steadily increasing the pump speed of the suds pump until a pump parameter of the suds pump is altered in a discontinuous manner and until there is a conveying speed (n F) equal to the pump speed at which the discontinuity of the pump parameter occurs, and/or a drive parameter (I F) of the suds pump corresponding to the conveying speed (n F) is provided such that in a subsequent pumping process in which washing liquid is conveyed out of the suds container through the outlet pipe, the suds pump is operated at a pump speed that is greater than or equal to the conveying speed (n F).
A portable apparatus for configuring a wheel associated with a train (10, 11) at a remote location, the apparatus comprising a tool configured to engage the wheel, and a compound slide system for positioning the cutting tool in at least two axes; a controller coupled to control the compound slide system, wherein the compound slide system is controlled so that the wheel is configured in accordance with a profile, wherein the compound slide system is coupled to a mounting mechanism, wherein the mounting mechanism attaches to a rail associated with wheel and the mounting mechanism includes a member including a first end for coupling to an opposing rail further characterized by a motor disposed proximate the opposing rail for turning the wheel, the motor being engaged via a bolt and sprocket or via a friction drive (152, 157)
Fan for cooling an internal combustion engine of a vehicle, with a fastening device, an electric drive motor and a fan wheel rotating about a fan axis, wherein the fastening device has a frame from which struts emerge, the struts crossing an air passage opening and supporting a holding element for the fastening of the drive motor, and wherein each of the struts has a cross-sectional contour in which at least one transverse web running transversely with respect to the direction of the fan axis is formed between end regions (14, 15) of the strut, the end regions defining a strut width (b) in the direction of the fan axis and running in the direction of the fan axis, characterized in that the two end regions (14, 15) are connected in the approximately central region with respect to the strut width (b) by means of the transverse web.
A reinforced doctor blade assembly seal, comprising: a base strip of a flexible plastic film having a thickness, a surface of predetermined area bounded by multiple edges (32b-32e), and a foldable region extending length-wise of said base strip between one pair (32c, 32d) of said multiple edges and spaced from and located intermediately between another pair (32b, 32e) of said multiple edges; a supplemental strip of a flexible plastic film having a thickness and a surface of predetermined area bounded by multiple edges (34b-34e) and being laminated onto said flexible plastic film of said base strip offset from and along one side of said foldable region on said base strip such that said base strip has laminated and non-laminated portions along opposite sides of said foldable region with the thickness of the laminated portion being greater than the thickness of the non-laminated portion; and an adhesive layer on at least a section of said non-laminated portion of said base strip extending between said one pair of multiple edges of said base strip; characterized in that said multiple edges of said base strip that correspond to said multiple edges of said supplemental strip are greater in length respectively than said multiple edges of said supplemental strip such that said surface of said base strip is substantially U-shaped and borders said supplemental strip along a plurality of said multiple edges of said supplemental strip. a base strip of a flexible plastic film having a thickness, a surface of predetermined area bounded by multiple edges (32b-32e), and a foldable region extending length-wise of said base strip between one pair (32c, 32d) of said multiple edges and spaced from and located intermediately between another pair (32b, 32e) of said multiple edges; a supplemental strip of a flexible plastic film having a thickness and a surface of predetermined area bounded by multiple edges (34b-34e) and being laminated onto said flexible plastic film of said base strip offset from and along one side of said foldable region on said base strip such that said base strip has laminated and non-laminated portions along opposite sides of said foldable region with the thickness of the laminated portion being greater than the thickness of the non-laminated portion; and an adhesive layer on at least a section of said non-laminated portion of said base strip extending between said one pair of multiple edges of said base strip; characterized in that said multiple edges of said base strip that correspond to said multiple edges of said supplemental strip are greater in length respectively than said multiple edges of said supplemental strip such that said surface of said base strip is substantially U-shaped and borders said supplemental strip along a plurality of said multiple edges of said supplemental strip.
An antisense composition of a nuclease-resistant oligonucleotide compound (i) composed of morpholino subunits and phosphorus-containing intersubunit linkages joining a morpholino nitrogen of one subunit to a 5' exocyclic carbon of an adjacent subunit, (ii) containing between 18-40 subunits, (iii) having a base sequence that is complementary to at least 12 contiguous bases of a splice site in the preprocessed human myostatin transcript having a sequence of SEQ ID NO:13, (iv) wherein the oligonucleotide compound includes a base sequence as set forth in SEQ ID NO:3, (v) wherein the oligonucleotide is effective to form under stringent hybridization conditions a heteroduplex with an expression-sensitive region of a preprocessed human myostatin RNA transcript defined in its processed form by SEQ ID NO:6, the heteroduplex having a Tm substantially greater than 37°C, and (vi) wherein the oligonucleotide compound blocks production of a full-length processed myostatin transcript from a preprocessed myostatin transcript.
An information processing device mounted on a vehicle including a steering wheel and wheels each provided with a tire (41; 42; 43; 44), the wheels including a drive wheel (41; 42) and a driven wheel (43; 44), the information processing device comprising a processor configured to calculate a feature quantity on flexibility of the tire of the drive wheel (41; 42) and the tire of the driven wheel (43; 44) when all of at least one condition is satisfied, wherein: the at least one condition includes at least one of a first condition and a second condition; the first condition is a condition that an absolute value of an angular velocity (ω) of the steering wheel is smaller than a first reference value (ωref); the second condition is a condition that an absolute value of a vector sum of accelerations of the vehicle is smaller than a second reference value (Gref), and the processor is configured to calculate, as the feature quantity, a gradient that is a ratio of a rotation velocity ratio between the drive wheel (41; 42) and the driven wheel (43; 44) to acceleration in a longitudinal direction of the vehicle, and characterised in that the processor is further configured to: integrate a difference from an initial value of the ratio at predetermined timings; and output, when an integration result exceeds a first threshold, a signal indicating that a gradual change in the flexibility of the tire of the drive wheel (41; 42) and the tire of the driven wheel (43; 44) occurs. the at least one condition includes at least one of a first condition and a second condition; the first condition is a condition that an absolute value of an angular velocity (ω) of the steering wheel is smaller than a first reference value (ωref); the second condition is a condition that an absolute value of a vector sum of accelerations of the vehicle is smaller than a second reference value (Gref), and the processor is configured to calculate, as the feature quantity, a gradient that is a ratio of a rotation velocity ratio between the drive wheel (41; 42) and the driven wheel (43; 44) to acceleration in a longitudinal direction of the vehicle, and characterised in that the processor is further configured to: integrate a difference from an initial value of the ratio at predetermined timings; and output, when an integration result exceeds a first threshold, a signal indicating that a gradual change in the flexibility of the tire of the drive wheel (41; 42) and the tire of the driven wheel (43; 44) occurs. integrate a difference from an initial value of the ratio at predetermined timings; and output, when an integration result exceeds a first threshold, a signal indicating that a gradual change in the flexibility of the tire of the drive wheel (41; 42) and the tire of the driven wheel (43; 44) occurs.