mhurhangee/ep-ind-claims huggingface dataset:
Method for transmitting data (a k), - wherein along a transmission path (i) based on the data (a k) to be transmitted a modulated carrier signal (s(t)) is generated, the carrier signal (s(t)) having a carrier frequency (f S) within a given transmission channel, which is comprised of a number of frequencies (f), and (ii) the modulated carrier signal (s(t)) is amplified to a transmission signal (p(t)), - wherein along a compensation path (i) the modulated carrier signal (s(t)) is filtered, whereby the frequency components within the transmission channel are removed, and (ii) at least one of a phase (φ), an amplitude (α) and a delay (τ 0) of the filtered signal (s H (t)) is modified thereby generating a compensation signal (c(t)), - wherein the compensation signal (c(t)) is subtracted from the transmission signal (p(t)) thereby generating a compensated transmission signal (v(t)), and wherein the compensated transmission signal (v(t)) is transmitted, and - wherein along a feedback path the compensated transmission signal (v(t)) is compared with the compensation signal (c(t)) or with the filtered signal s H (t), and at least one of the phase (φ), the amplitude (α) and the delay (τ 0) of the compensation signal (c(t)) is adapted based on the comparison result. - wherein along a transmission path (i) based on the data (a k) to be transmitted a modulated carrier signal (s(t)) is generated, the carrier signal (s(t)) having a carrier frequency (f S) within a given transmission channel, which is comprised of a number of frequencies (f), and (ii) the modulated carrier signal (s(t)) is amplified to a transmission signal (p(t)), (i) based on the data (a k) to be transmitted a modulated carrier signal (s(t)) is generated, the carrier signal (s(t)) having a carrier frequency (f S) within a given transmission channel, which is comprised of a number of frequencies (f), and (ii) the modulated carrier signal (s(t)) is amplified to a transmission signal (p(t)), - wherein along a compensation path (i) the modulated carrier signal (s(t)) is filtered, whereby the frequency components within the transmission channel are removed, and (ii) at least one of a phase (φ), an amplitude (α) and a delay (τ 0) of the filtered signal (s H (t)) is modified thereby generating a compensation signal (c(t)), (i) the modulated carrier signal (s(t)) is filtered, whereby the frequency components within the transmission channel are removed, and (ii) at least one of a phase (φ), an amplitude (α) and a delay (τ 0) of the filtered signal (s H (t)) is modified thereby generating a compensation signal (c(t)), - wherein the compensation signal (c(t)) is subtracted from the transmission signal (p(t)) thereby generating a compensated transmission signal (v(t)), and wherein the compensated transmission signal (v(t)) is transmitted, and - wherein along a feedback path the compensated transmission signal (v(t)) is compared with the compensation signal (c(t)) or with the filtered signal s H (t), and at least one of the phase (φ), the amplitude (α) and the delay (τ 0) of the compensation signal (c(t)) is adapted based on the comparison result.
A wet disperser configured to disperse particulates in a mixture containing at least a dispersing medium and at least one kind of particulates selected from a group consisting of a primary particle and an aggregate, the wet disperser comprising: a through channel having an inflow port and an outflow port configured to serve as a through channel of the mixture and configured to extend from the inflow port to the outflow port; a mixture-passing plate provided in a middle of the through channel and having at least one passing hole defined, and a holding recess at a position opposite to the passing hole of the mixture-passing plate, wherein the through channel includes, on a downstream side of the through channel from a position provided with the mixture-passing plate, a dispersion part having a vibration body, which has a spherical vibration element, provided such that vibration causes the spherical vibration element to come into contact with at least a part of an opening periphery of the passing hole, and an inside surface defining the passing hole of the mixture-passing plate, and wherein the spherical vibration element is sandwiched between the holding recess and the inside surface of the mixture-passing plate. a through channel having an inflow port and an outflow port configured to serve as a through channel of the mixture and configured to extend from the inflow port to the outflow port; a mixture-passing plate provided in a middle of the through channel and having at least one passing hole defined, and a holding recess at a position opposite to the passing hole of the mixture-passing plate, wherein the through channel includes, on a downstream side of the through channel from a position provided with the mixture-passing plate, a dispersion part having a vibration body, which has a spherical vibration element, provided such that vibration causes the spherical vibration element to come into contact with at least a part of an opening periphery of the passing hole, and an inside surface defining the passing hole of the mixture-passing plate, and wherein the spherical vibration element is sandwiched between the holding recess and the inside surface of the mixture-passing plate.
A method for iteratively compensating drift of a sensor system for measuring a motion direction of a user during usage of a VR system, the method comprising: receiving a measured viewing direction of the user from a sensor system for measuring an angular position indicative of the user's head orientation in the user's transverse plane at a measurement time; receiving a measured motion direction of the user from a sensor system for measuring an angular position indicative of a direction of the user's walking or running movements in the user's transverse plane at the same measurement time; and calculating a drift compensation from the difference between the measured viewing direction of the user and the measured motion direction of the user, such that a drift compensated motion direction of the user can be determined by adding the calculated drift compensation to a subsequently measured motion direction of the user; wherein the drift compensation is only calculated provided that the viewing direction of the user at the measurement time does not deviate from a previously determined motion direction of the user by more than a viewing angle threshold. receiving a measured viewing direction of the user from a sensor system for measuring an angular position indicative of the user's head orientation in the user's transverse plane at a measurement time; receiving a measured motion direction of the user from a sensor system for measuring an angular position indicative of a direction of the user's walking or running movements in the user's transverse plane at the same measurement time; and calculating a drift compensation from the difference between the measured viewing direction of the user and the measured motion direction of the user, such that a drift compensated motion direction of the user can be determined by adding the calculated drift compensation to a subsequently measured motion direction of the user; wherein the drift compensation is only calculated provided that the viewing direction of the user at the measurement time does not deviate from a previously determined motion direction of the user by more than a viewing angle threshold.
A device for the chromatographic separation of a substance mixture comprising, • a housing, • a middle portion, which includes the separating medium, • an upper portion, which has a radial supply duct to the center of the upper portion, wherein the radial supply duct is open towards the housing interior after the entry into the housing interior, • a lower portion, which has a discharge duct, • separating elements (9, 10), which separate the upper and the lower portion (5, 6) from the separating medium, characterized in that the radial supply duct widens in a dome shape in the form of a flat ball segment in the center of the upper portion. • a housing, • a middle portion, which includes the separating medium, • an upper portion, which has a radial supply duct to the center of the upper portion, wherein the radial supply duct is open towards the housing interior after the entry into the housing interior, • a lower portion, which has a discharge duct, • separating elements (9, 10), which separate the upper and the lower portion (5, 6) from the separating medium, characterized in that the radial supply duct widens in a dome shape in the form of a flat ball segment in the center of the upper portion.
A stroller apparatus comprising: a support frame including a side handrail that extends from a front toward a rear of the stroller apparatus, and a first, a second and a third seat (104, 106, 108) respectively assembled with the support frame and configured to receive children in different positions, the third seat receiving a child facing forward in front of the first and second seats (104, 106), characterized in that: the first and second seats (104, 106) are configured to respectively receive a child at a first and a second position facing rearward at different heights, the first seat when assembled with the support frame resting in contact with the side handrail and being at least partially supported by the side handrail, and the second seat being assembled with the support frame below the side handrail. a support frame including a side handrail that extends from a front toward a rear of the stroller apparatus, and a first, a second and a third seat (104, 106, 108) respectively assembled with the support frame and configured to receive children in different positions, the third seat receiving a child facing forward in front of the first and second seats (104, 106), characterized in that: the first and second seats (104, 106) are configured to respectively receive a child at a first and a second position facing rearward at different heights, the first seat when assembled with the support frame resting in contact with the side handrail and being at least partially supported by the side handrail, and the second seat being assembled with the support frame below the side handrail. the first and second seats (104, 106) are configured to respectively receive a child at a first and a second position facing rearward at different heights, the first seat when assembled with the support frame resting in contact with the side handrail and being at least partially supported by the side handrail, and the second seat being assembled with the support frame below the side handrail.
Use of a compound having the formula: in which: X is selected from halogen and C 1-6 alkyl. Y is hydroxyl; to produce a cooling sensation. X is selected from halogen and C 1-6 alkyl. Y is hydroxyl;
An implantable medical device comprising: a mesh defining a first plane, a first film including a first inner, central portion secured to at least a portion of the mesh and a plurality of second extended portions (311a, 311c) extending away from the mesh; a second film including a first inner, central portion secured to at least a portion of the mesh and a plurality of second extended portions (311b, 311d) extending away from the mesh; characterized in that at least one of the extended portions (311a, 311b, 311c, 311d) of the first and second films (310a, 310b) is fixed and extends away from the mesh along a plane which is generally perpendicular to the plane of the mesh. a mesh defining a first plane, a first film including a first inner, central portion secured to at least a portion of the mesh and a plurality of second extended portions (311a, 311c) extending away from the mesh; a second film including a first inner, central portion secured to at least a portion of the mesh and a plurality of second extended portions (311b, 311d) extending away from the mesh; characterized in that at least one of the extended portions (311a, 311b, 311c, 311d) of the first and second films (310a, 310b) is fixed and extends away from the mesh along a plane which is generally perpendicular to the plane of the mesh.
An R-T-B based sintered magnet represented by the following formula: uRwBxGayCuzAlqM 100 − u − w − x − y − z − q T wherein R is composed of light rare-earth element(s) RL and heavy rare-earth element(s) RH, RL is Nd and/or Pr, RH is Dy and/or Tb, T as balance is Fe, and 10% by mass or less of Fe is capable of being replaced with Co, M is Nb and/or Zr, and u, w, x, y, z, q and 100-u-w-x-y-z-q are expressed in terms of % by mass; said RH accounts for 5% by mass or less of the R-T-B based sintered magnet, the following inequality expressions to being satisfied: 0.5 ≤ x ≤ 1.0 0.07 ≤ y ≤ 1.0 0.05 ≤ z ≤ 0.5 0 ≤ q ≤ 0.1 0.100 ≤ y / x + y ≤ 0.340 v=u- (6α + 10β + 8γ), wherein the amount of oxygen (% by mass) of the R-T-B based sintered magnet is α, the amount of nitrogen (% by mass) is β, and the amount of carbon (% by mass) is γ; and v and w satisfy the following inequality expressions to: v ≤ 32.0 0.84 ≤ w ≤ 0.93 − 12.5 ⁢ w + 38.75 ≤ v ≤ − 62.5 ⁢ w + 86.125 with the proviso that R-T-B based sintered magnets according to Examples 2, 3, 5 and 7 of EP2980808A1 and according to Examples 21 and 22 of EP2985768A1 are excluded.
An automobile component having a multilayer structure, the automobile component comprising: a core layer having tubular cells, the tubular cells being arranged in a plurality of rows; a nonwoven fabric layer located on at least one surface of the core layer; and a thin resin film layer (40, 41) having a plurality of apertures between the core layer and the nonwoven fabric layer, wherein each of the cells has a closed surface at one end and an open end at another end, an internal space of the cell is in communication with an outside by the open end of the cell, the open ends of the cells are arranged on both sides of the core layer such that rows of the open ends of the cells are in every other row, and the apertures are provided so that 0 < S1/S2 < 0.3, where S2 represents an area of openings defined by the open ends in the core layer, and S1 represents an area of the apertures provided in the resin film layer (40, 41) which correspond to the openings of the core layer, and where the ratio S1/S2 is the average ratio in the entire area of cells. a core layer having tubular cells, the tubular cells being arranged in a plurality of rows; a nonwoven fabric layer located on at least one surface of the core layer; and a thin resin film layer (40, 41) having a plurality of apertures between the core layer and the nonwoven fabric layer, wherein each of the cells has a closed surface at one end and an open end at another end, an internal space of the cell is in communication with an outside by the open end of the cell, the open ends of the cells are arranged on both sides of the core layer such that rows of the open ends of the cells are in every other row, and the apertures are provided so that 0 < S1/S2 < 0.3, where S2 represents an area of openings defined by the open ends in the core layer, and S1 represents an area of the apertures provided in the resin film layer (40, 41) which correspond to the openings of the core layer, and where the ratio S1/S2 is the average ratio in the entire area of cells.
A method for the detection of bacteria comprising the steps of A) provision of one or more suspensions each comprising at least one species of labelled test bacteriophages which specifically bind to a bacterial species to be detected; B) addition of a sample to be tested for the presence of at least one bacterial species to be detected to the one or more suspensions; C) filtration of the resulting reaction mixture, wherein a filter with a pore size of 0.1 μm to 0.5 μm is used; D) detection of bacteria-bacteriophages-complexes in the retentate, provided that at least one bacterial species to be detected is present, wherein the complexes consist of bacteria of the at least one bacterial species to be detected and test bacteriophages of the at least one species of test bacteriophages bound thereto; E) detection of unbound test bacteriophages in the filtrate; F) processor-aided processing of received signals generated by the detection in steps D) and E) and output of detection results to a user, wherein the one or more suspensions further comprise a labelled reference bacteriophage which does not bind to any bacterial species to be detected and which has a label disjunct from the test bacteriophages such that labelled reference bacteriophage is also detected in step E); or wherein labelled micro- or nanoparticles are used in alternative to a labelled reference bacteriophage, which do not bind to any bacterial species to be detected and can pass through the filter due to their small size. A) provision of one or more suspensions each comprising at least one species of labelled test bacteriophages which specifically bind to a bacterial species to be detected; B) addition of a sample to be tested for the presence of at least one bacterial species to be detected to the one or more suspensions; C) filtration of the resulting reaction mixture, wherein a filter with a pore size of 0.1 μm to 0.5 μm is used; D) detection of bacteria-bacteriophages-complexes in the retentate, provided that at least one bacterial species to be detected is present, wherein the complexes consist of bacteria of the at least one bacterial species to be detected and test bacteriophages of the at least one species of test bacteriophages bound thereto; E) detection of unbound test bacteriophages in the filtrate; F) processor-aided processing of received signals generated by the detection in steps D) and E) and output of detection results to a user,
A metal plating bath comprising an additive consumption inhibiting organic compound selected from the group consisting of 2,6-dihydroxybenzoic acid, 4-hydroxybenzoic acid resorcinol, 2,3-dihydroxybenzoic acid, 2,4-dihydroxybenzoic acid, 2,4,6-trihydroxybenzoic acid, 2,3,4-trihydroxybenzoic acid, methyl-3,4,5-trihydroxybenzoate, methyl-2,4-dihydroxybenzoate, 4-hydroxymandelic acid monohydrate, and mixtures thereof; a salt of a metal, wherein the metal consists of copper; and a brightener, wherein the brightener is selected from compounds having the formulas: HO 3 -S-R 11 -SH; HO 3 S-R 11 -S-S-R 11 -SO 3 H, where R 11 is C 1 -C 6 alkyl or an aryl group; or HO 3 -Ar-S-S-Ar-SO 3 H, where Ar is phenyl or naphthyl, the alky and aryl groups may be unsubstituted or substituted with an alkyl group, halo or alkoxy group.
Tensioning device for tensioning chains, belts, cables or similar clamping means, with at least one tubular clamping nut as well as at least one threaded bolt entering into clamping nut and interacting therewith, wherein the clamping nut and/or the threaded bolt is/are provided with an end-side connecting element, more particularly for coupling to the clamping nut, and wherein the connecting element is moveably connected to the clamping nut and/or the threaded bolt, characterised in that the connecting element is rotatably incorporated in a connection block, which at the end is screwed into the clamping nut and an internal thread present therein, wherein at the other end of the clamping nut, an external thread of the threaded bolt entering into and interacting with the clamping nut interacts with the internal thread, and wherein the connection block is provided in its interior with a bearing or pivot bearing. the clamping nut and/or the threaded bolt is/are provided with an end-side connecting element, more particularly for coupling to the clamping nut, and wherein the connecting element is moveably connected to the clamping nut and/or the threaded bolt, characterised in that the connecting element is rotatably incorporated in a connection block, which at the end is screwed into the clamping nut and an internal thread present therein, wherein at the other end of the clamping nut, an external thread of the threaded bolt entering into and interacting with the clamping nut interacts with the internal thread, and wherein the connection block is provided in its interior with a bearing or pivot bearing.
Medical applicator (45, 46, 51) for applying a liquid, in particular an antiseptic, to a swab, comprising - a flexible container with the liquid and with a first outlet having a membrane closure, - an attachment part (6, 25, 34) for the container, comprising - a second outlet, - at least one perforation element (13, 14, 47) for piercing and opening the membrane closure, - a removable spacer for spacing apart membrane closure and perforation element, and - a gripping mechanism (15, 16, 26, 29, 35, 36) for gripping and holding the swab, wherein the attachment part (6, 25, 34) is fastened to the container, and the liquid is able to flow from the first outlet to the second outlet when the membrane closure is opened, and wherein the applicator can be transferred from a first arrangement to a second arrangement by means of the spacer being removed and the attachment part (6, 25, 34) being moved, in particular pushed, rotated or screwed, in the direction of the container such that the perforation element (13, 14, 47) is able to pierce and open the membrane closure, characterized in that the gripping mechanism is a manual gripping mechanism designed like pliers and comprises a first gripping arm (15, 26, 35) and a second gripping arm (16, 29, 36). - a flexible container with the liquid and with a first outlet having a membrane closure, - an attachment part (6, 25, 34) for the container, comprising - a second outlet, - at least one perforation element (13, 14, 47) for piercing and opening the membrane closure, - a removable spacer for spacing apart membrane closure and perforation element, and - a gripping mechanism (15, 16, 26, 29, 35, 36) for gripping and holding the swab, wherein the attachment part (6, 25, 34) is fastened to the container, and the liquid is able to flow from the first outlet to the second outlet when the membrane closure is opened, and wherein the applicator can be transferred from a first arrangement to a second arrangement by means of the spacer being removed and the attachment part (6, 25, 34) being moved, in particular pushed, rotated or screwed, in the direction of the container such that the perforation element (13, 14, 47) is able to pierce and open the membrane closure, - a second outlet, - at least one perforation element (13, 14, 47) for piercing and opening the membrane closure, - a removable spacer for spacing apart membrane closure and perforation element, and - a gripping mechanism (15, 16, 26, 29, 35, 36) for gripping and holding the swab,
A compression garment system comprising: a head garment portion configured to be donned on a head of a body, wherein the head garment portion comprises one or more head pressure applying regions, and further wherein each of the one or more head pressure applying regions is controllable to apply pressure to a portion of the head; and a controller configured to control pressure applied by each of the one or more head pressure applying regions to move lymph at least from the head towards a neck of the body, wherein the head garment portion comprises an under chin garment portion positionable proximate under a chin of the head of the body, wherein the under chin garment portion is configurable to apply pressure to a portion under the chin. a head garment portion configured to be donned on a head of a body, wherein the head garment portion comprises one or more head pressure applying regions, and further wherein each of the one or more head pressure applying regions is controllable to apply pressure to a portion of the head; and a controller configured to control pressure applied by each of the one or more head pressure applying regions to move lymph at least from the head towards a neck of the body, wherein the head garment portion comprises an under chin garment portion positionable proximate under a chin of the head of the body, wherein the under chin garment portion is configurable to apply pressure to a portion under the chin.