mhurhangee/ep-ind-claims huggingface dataset:
Roll stabilizer for a motor vehicle, comprising a sensor device, which operates according to the principle of inverse magnetostriction, for detecting a torque acting between stabilizer sections (6a, 6b), wherein the roll stabilizer is of actively adjustable design and for this purpose has an actuator which acts between the stabilizer sections (6a, 6b) and is drive-connected to each of the stabilizer sections (6a, 6b) in order to rotate the stabilizer sections (6a, 6b) with respect to each other, wherein the actuator has a housing within which a drive motor and a gear mechanism drive-connected to it are arranged, wherein the sensor device has a transmitter coil for magnetizing a measurement body (4; 6a) subject to torsion during operation and has at least one receiver coil for detecting the magnetic field of the measurement body (4; 6a), characterized in that the housing of the actuator forms the measurement body at least in sections by way of the actuator housing being magnetizable by means of the transmitter coil and the magnetic field generated by the actuator housing being detectable by means of the at least one receiver coil, and/or a stabilizer section forms the measurement body at least in sections by way of the stabilizer section being magnetizable by means of the transmitter coil and the magnetic field generated by the stabilizer portion being detectable by means of the at least one receiver coil.
A system for time aligning widely frequency spaced signals, the system comprising: a) a digital predistortion, DPD, processor; b) a power amplifier, PA, coupled to the DPD processor and operable to provide a transmit signal at a power amplifier output; and c) a feedback loop coupled to the power amplifier output, characterized in that the feedback loop comprises: an analog-to-digital converter, ADC, unit coupled to the power amplifier output and outputting a feedback signal, wherein the ADC unit has a sampling rate and a corresponding sampling period; an adaptive fractional delay filter coupled to an output of the ADC unit and configured to allow time shifting of the feedback signal by a variable delay, wherein the variable delay is a function of a controllable parameter (mu) enabling shifting of the feedback signal by fractions of the sampling period; a delay estimator coupled to an output of the adaptive fractional delay filter and receiving input from one or more outputs of the DPD processor; and a DPD coefficient estimator coupled to an output of the delay estimator and an input of the DPD processor. a) a digital predistortion, DPD, processor; b) a power amplifier, PA, coupled to the DPD processor and operable to provide a transmit signal at a power amplifier output; and c) a feedback loop coupled to the power amplifier output, characterized in that the feedback loop comprises: an analog-to-digital converter, ADC, unit coupled to the power amplifier output and outputting a feedback signal, wherein the ADC unit has a sampling rate and a corresponding sampling period; an adaptive fractional delay filter coupled to an output of the ADC unit and configured to allow time shifting of the feedback signal by a variable delay, wherein the variable delay is a function of a controllable parameter (mu) enabling shifting of the feedback signal by fractions of the sampling period; a delay estimator coupled to an output of the adaptive fractional delay filter and receiving input from one or more outputs of the DPD processor; and a DPD coefficient estimator coupled to an output of the delay estimator and an input of the DPD processor. an analog-to-digital converter, ADC, unit coupled to the power amplifier output and outputting a feedback signal, wherein the ADC unit has a sampling rate and a corresponding sampling period; an adaptive fractional delay filter coupled to an output of the ADC unit and configured to allow time shifting of the feedback signal by a variable delay, wherein the variable delay is a function of a controllable parameter (mu) enabling shifting of the feedback signal by fractions of the sampling period; a delay estimator coupled to an output of the adaptive fractional delay filter and receiving input from one or more outputs of the DPD processor; and a DPD coefficient estimator coupled to an output of the delay estimator and an input of the DPD processor.
An orthopedic ankle brace, comprising: a semi-rigid ankle cuff having a calf-supporting portion, a semi-rigid medial upright extending generally downward from a medial side of the calf-supporting portion, a semi-rigid lateral upright extending generally downward from a lateral side of the calf-supporting portion and a semi-rigid footbed, characterised in that a first semi-rigid strap extends from the ankle cuff and adjustably connects the lateral and medial uprights, forming a semi rigid structure which, in use, completely encircles a wearer's ankle. a semi-rigid ankle cuff having a calf-supporting portion, a semi-rigid medial upright extending generally downward from a medial side of the calf-supporting portion, a semi-rigid lateral upright extending generally downward from a lateral side of the calf-supporting portion and a semi-rigid footbed, characterised in that a first semi-rigid strap extends from the ankle cuff and adjustably connects the lateral and medial uprights, forming a semi rigid structure which, in use, completely encircles a wearer's ankle.
Fence post for a fence constructed from fence posts with panels in between, whereby the fence post is executed with two opposite grooves on either side of the fence post in which a panel with a side edge can be enclosed, whereby the fence post is made of one single metal sheet or band which is folded into an H-profile with a tubular square central part and two parallel legs on either side to form said groove, whereby the legs are formed by a part of the sheet or band which is folded double onto itself, whereby the legs are formed by a fold on the level of the free ends of the legs and the walls of the tubular square central part are formed from one single thickness of the sheet or band from which the fence post is folded, the H-profile possesses two parallel flat flanks which are each delimited by two legs located in each other's extension and a wall of the tubular profile connecting said two legs with each other, whereby the flanks are connected with each other by transverse walls which on the level of the connection with the flanks are formed by a perpendicular fold of the sheet or band from which the H-profile is folded, whereby the fence post is sufficiently strong to be pile driven into the ground, characterised in that the legs have a thickness which is essentially equal to the double thickness of the sheet or band from which the fence post is folded, and whereby, viewed in cross-section, the length of the legs is approximately a third of the length of the flanks and approximately equal to the width of the grooves. the H-profile possesses two parallel flat flanks which are each delimited by two legs located in each other's extension and a wall of the tubular profile connecting said two legs with each other, whereby the flanks are connected with each other by transverse walls which on the level of the connection with the flanks are formed by a perpendicular fold of the sheet or band from which the H-profile is folded, whereby the fence post is sufficiently strong to be pile driven into the ground, characterised in that the legs have a thickness which is essentially equal to the double thickness of the sheet or band from which the fence post is folded, and whereby, viewed in cross-section, the length of the legs is approximately a third of the length of the flanks and approximately equal to the width of the grooves.
A rapidly dispersible solid dosage form, wherein - the dosage form is a three-dimensionally printed matrix, - the matrix is porous and non-compressed, - the matrix comprises particles bound by binder and levetiracetam, wherein the matrix comprises: (i) 50 to 80 % wt of LEV, (ii) at least one disintegrant, (iii) at least one binder, (iv) at least one surfactant, (v) at least one antioxidant, and (vi) glycerin, wherein the dosage form disperses in less than 15 sec in a volume of 10 ml or less of aqueous fluid. - the dosage form is a three-dimensionally printed matrix, - the matrix is porous and non-compressed, - the matrix comprises particles bound by binder and levetiracetam, (i) 50 to 80 % wt of LEV, (ii) at least one disintegrant, (iii) at least one binder, (iv) at least one surfactant, (v) at least one antioxidant, and (vi) glycerin,
A branched α-glucan, which is constructed by glucose molecules and characterized by methylation analysis as follows: Ratio of 2,3,6-trimethyl-1,4,5-triacetylglucitol to 2,3,4-trimethyl-1,5,6-triacetyl-glucitol is in the range of 1:0.6 to 1:4; Total content of 2,3,6-trimethyl-1,4,5-triacetylglucitol and 2,3,4-trimethyl-1,5,6-triacetyl-glucitol is 60% or higher in the partially methylated glucitol acetates; Content of 2,4,6-trimethyl-1,3,5-triacetylglucitol is 0.5% or higher but less than 10% in the partially methylated glucitol acetates; and Content of 2,4-dimethyl-1,3,5,6-tetraacetyl-glucitol is 0.5% or higher in the partially methylated glucitol acetates. Ratio of 2,3,6-trimethyl-1,4,5-triacetylglucitol to 2,3,4-trimethyl-1,5,6-triacetyl-glucitol is in the range of 1:0.6 to 1:4; Total content of 2,3,6-trimethyl-1,4,5-triacetylglucitol and 2,3,4-trimethyl-1,5,6-triacetyl-glucitol is 60% or higher in the partially methylated glucitol acetates; Content of 2,4,6-trimethyl-1,3,5-triacetylglucitol is 0.5% or higher but less than 10% in the partially methylated glucitol acetates; and Content of 2,4-dimethyl-1,3,5,6-tetraacetyl-glucitol is 0.5% or higher in the partially methylated glucitol acetates.
A process for preparing aminodicarboxylic acid-N,N-diacetic acids of the general formula I in which X is independently hydrogen or alkali metal and n is 1 or 2, comprising the following steps: a) reacting an aminodicarboxylic acid of the general formula II in which X and n are each as defined above with from 0.8 to 1.2 molar equivalents of formaldehyde and with from 0.8 to 1.2 molar equivalents of hydrocyanic acid, comprising the addition of formaldehyde and hydrocyanic acid, the aminodicarboxylic acid being initially charged in the reaction vessel and formaldehyde and hydrocyanic acid being added; allowing the mixture to continue to react over a period of from one minute to 5 hours, b) then reacting the reaction product obtained in step a) with from 0.8 to 1.2 molar equivalents of hydrocyanic acid and with from 0.8 to 1.2 molar equivalents of formaldehyde; c) hydrolyzing the reaction product obtained in step b). a) reacting an aminodicarboxylic acid of the general formula II in which X and n are each as defined above with from 0.8 to 1.2 molar equivalents of formaldehyde and with from 0.8 to 1.2 molar equivalents of hydrocyanic acid, comprising the addition of formaldehyde and hydrocyanic acid, the aminodicarboxylic acid being initially charged in the reaction vessel and formaldehyde and hydrocyanic acid being added; allowing the mixture to continue to react over a period of from one minute to 5 hours, b) then reacting the reaction product obtained in step a) with from 0.8 to 1.2 molar equivalents of hydrocyanic acid and with from 0.8 to 1.2 molar equivalents of formaldehyde; c) hydrolyzing the reaction product obtained in step b).
A device for electrically disintegrating cell structures, having an electrode unit comprising an electrode head and an electrode body, and having a chamber comprising an inlet for receiving fluid comprising cell structures and an outlet for discharging the fluid, the chamber comprising a wall, the wall comprising a plurality of electrically conductive segments spaced apart from each other, disposed alternately with electrically insulating segments along a central axis of the chamber, characterized in that the electrode body is disposed within the chamber and is electrically insulated from the wall, and the electrically conductive segments are disposed such that a plurality of effective fields can be generated by applying an electrical voltage between the electrode body and the wall.
Full-field OCT method for generating an image representation of an ocular fundus, having the following steps: a. emitting short-coherent light from a light source; b. splitting the short-coherent light into an object beam path and a reference beam path by way of a beam splitter, wherein the object beam path is guided onto the ocular fundus; c. guiding the reference beam path and a part of the object beam path reflected by the ocular fundus onto an image sensor such that interference between the reference beam path and the object beam path arises on the image sensor, wherein the reference beam path is incident on the image sensor at an angle that deviates from the object beam path and wherein the reference beam path, prior to the incidence on the image sensor, is incident on an optical correction element in order to reduce a chromatic deviation within the reference beam path; d. ascertaining intensity information and phase information from a recording of the image sensor by way of a computation unit; e. calculating a focus-corrected image of the ocular fundus from the ascertained intensity information and phase information using the computation unit. a. emitting short-coherent light from a light source; b. splitting the short-coherent light into an object beam path and a reference beam path by way of a beam splitter, wherein the object beam path is guided onto the ocular fundus; c. guiding the reference beam path and a part of the object beam path reflected by the ocular fundus onto an image sensor such that interference between the reference beam path and the object beam path arises on the image sensor, wherein the reference beam path is incident on the image sensor at an angle that deviates from the object beam path and wherein the reference beam path, prior to the incidence on the image sensor, is incident on an optical correction element in order to reduce a chromatic deviation within the reference beam path; d. ascertaining intensity information and phase information from a recording of the image sensor by way of a computation unit; e. calculating a focus-corrected image of the ocular fundus from the ascertained intensity information and phase information using the computation unit.
An automotive vane-type vacuum pump for forcibly feeding a fluid from an inlet to an outlet, comprising: a bottomed cylindrical case having the inlet and the outlet; a rotor eccentrically accommodated in the case; a shaft that is secured to the rotor, having both ends thereof rotatably supported by both bottom surfaces of the case, and rotates the rotor by an external driving force; and a vane that rotates slidably in contact with the inner peripheral surface of the case while moving radially in and out of the rotor as the rotor rotates, characterized in that the axial movement of the shaft is restricted by slidable contact between axial movement restricting stepped portions (28, 29) provided on both ends of the shaft and the case, and a very small gap is formed between an axial end surface of the rotor and the case. a bottomed cylindrical case having the inlet and the outlet; a rotor eccentrically accommodated in the case; a shaft that is secured to the rotor, having both ends thereof rotatably supported by both bottom surfaces of the case, and rotates the rotor by an external driving force; and a vane that rotates slidably in contact with the inner peripheral surface of the case while moving radially in and out of the rotor as the rotor rotates, characterized in that the axial movement of the shaft is restricted by slidable contact between axial movement restricting stepped portions (28, 29) provided on both ends of the shaft and the case, and a very small gap is formed between an axial end surface of the rotor and the case.
A resin obtained by reacting a compound represented by formula and/or with an aldehyde represented by formula and/or in the presence of an acidic catalyst, the resin having a degree of dispersion, Mw/Mn, of 1.50 or less, wherein Mw is the weight average molecular weight of the resin and Mn is the number average molecular weight of the resin. [in formulae and, X represents a hydrogen atom, an alkyl group having 1 to 10 carbon atoms, an aryl group having 6 to 10 carbon atoms, or a cyclohexyl group, Y represents an alkyl group having 1 to 10 carbon atoms, an aryl group having 6 to 10 carbon atoms, or a cyclohexyl group, p represents a number of 1 to 3, q represents a number of 0 to 3, provided that when a plurality of Xs and Ys are present, Xs and Ys may be each the same or different, and A in formula represents a number of 0 to 2.] [in formulae and, Z represents an alkyl group having 1 to 10 carbon atoms, an aryl group having 6 to 10 carbon atoms, a cyclohexyl group, a hydroxyl group, a formyl group, or a carbonyl group, r represents a number of 0 to 6, provided that when a plurality of Zs are present, Zs may be each the same or different, and B in formula represents a number of 0 to 2.]
A method for forming a fragranced film, the method comprising: supplying at least one water-soluble polymer to an extruder; injecting at least one liquid fragrance into the extruder to form a blend comprising the water-soluble polymer and the fragrance, wherein the liquid fragrance has a boiling point at atmospheric pressure of from 125°C to 350°C; and extruding the blend onto a surface to form a film, wherein the water-soluble polymer includes vinyl pyrrolidone, hydroxyethyl acrylate or methacrylate, hydroxypropyl acrylate or methacrylate, acrylic or methacrylic acid, acrylic or methacrylic esters or vinyl pyridine, acrylamide, vinyl acetate, vinyl alcohol, ethylene oxide, modified starch, or a combination thereof. supplying at least one water-soluble polymer to an extruder; injecting at least one liquid fragrance into the extruder to form a blend comprising the water-soluble polymer and the fragrance, wherein the liquid fragrance has a boiling point at atmospheric pressure of from 125°C to 350°C; and extruding the blend onto a surface to form a film, wherein the water-soluble polymer includes vinyl pyrrolidone, hydroxyethyl acrylate or methacrylate, hydroxypropyl acrylate or methacrylate, acrylic or methacrylic acid, acrylic or methacrylic esters or vinyl pyridine, acrylamide, vinyl acetate, vinyl alcohol, ethylene oxide, modified starch, or a combination thereof.
A carrier shell in the form of a spin-stabilized projectile, comprising a holding device comprising a core, and at least two legs, each leg at least partially enclosing at least one elongated sub-projectile each, characterised in that the holding device is arranged to, after having been separated forward from the carrier shell, be deformed by centrifugal forces acting on the sub-projectiles, thereby releasing the sub-projectiles in a controlled manner, leading the sub-projectiles to hit and penetrate their target with the short side. a holding device comprising a core, and at least two legs, each leg at least partially enclosing at least one elongated sub-projectile each, characterised in that the holding device is arranged to, after having been separated forward from the carrier shell, be deformed by centrifugal forces acting on the sub-projectiles, thereby releasing the sub-projectiles in a controlled manner, leading the sub-projectiles to hit and penetrate their target with the short side.
A method for beam forming transmission of a signal, the signal comprising frames, each frame having two half-frames, at least one half frame including a predetermined number of subframes and a special subframe with the field DwPTS, the field DwPTS having a number n of orthogonal frequency division multiplexing (OFDM) symbols that depends on the type of cyclic prefix of the OFDM symbols, the method comprising: mapping by an eNB, downlink data of a user and UE-specific reference signals carried in said DwPTS field for beam forming transmission according to a preset mapping structure used by the user, and performing a beam forming process; characterized by the eNB performing a resource mapping for results of the beam forming process, a primary synchronization signal, control signaling, Cell-specific reference signals and other user data to form data of the DwPTS field; and the eNB sending the data of the DwPTS field to the UE, wherein the mapping according to the preset mapping structure further includes: the eNB determining a UE-specific reference signal mapping structure according to the type of the CP; the eNB puncturing the OFDM symbols after a n-th one in the UE-specific reference signal mapping structure and only reserving first n OFDM symbols in the UE-specific reference signal mapping structure as the preset mapping structure; and the eNB mapping the downlink data and the UE-specific reference signals according to the preset mapping structure on a physical resource block allocated to the user. mapping by an eNB, downlink data of a user and UE-specific reference signals carried in said DwPTS field for beam forming transmission according to a preset mapping structure used by the user, and performing a beam forming process; characterized by the eNB performing a resource mapping for results of the beam forming process, a primary synchronization signal, control signaling, Cell-specific reference signals and other user data to form data of the DwPTS field; and the eNB sending the data of the DwPTS field to the UE, wherein the mapping according to the preset mapping structure further includes: the eNB determining a UE-specific reference signal mapping structure according to the type of the CP; the eNB puncturing the OFDM symbols after a n-th one in the UE-specific reference signal mapping structure and only reserving first n OFDM symbols in the UE-specific reference signal mapping structure as the preset mapping structure; and the eNB mapping the downlink data and the UE-specific reference signals according to the preset mapping structure on a physical resource block allocated to the user. the eNB determining a UE-specific reference signal mapping structure according to the type of the CP; the eNB puncturing the OFDM symbols after a n-th one in the UE-specific reference signal mapping structure and only reserving first n OFDM symbols in the UE-specific reference signal mapping structure as the preset mapping structure; and the eNB mapping the downlink data and the UE-specific reference signals according to the preset mapping structure on a physical resource block allocated to the user.