mhurhangee/ep-ind-claims huggingface dataset:
A system, comprising: a first ear-worn electronic device configured to be worn by a wearer; a second electronic device comprising a second ear-worn electronic device or other electronic device; a wireless transceiver (104a, 104b) operably coupled to an antenna disposed in each of the electronic devices, wherein one or both of the first ear-worn electronic device and the second electronic device are configured to: transmit (202; 302) signals at a plurality of different frequencies in accordance with a frequency hopping sequence; collect (204; 304) two-dimensional (2-D) RSSI, Received Signal Strength Indication, data comprising an RSSI value as a function of frequency and of time in response to transmission of the signals; detect (208; 308) a particular input gesture of a plurality of input gestures of the wearer using the 2-D RSSI data; and implement (210; 310) a predetermined function of at least one of the first ear-worn electronic device and the second electronic device in response to detecting the particular input gesture. a first ear-worn electronic device configured to be worn by a wearer; a second electronic device comprising a second ear-worn electronic device or other electronic device; a wireless transceiver (104a, 104b) operably coupled to an antenna disposed in each of the electronic devices, wherein one or both of the first ear-worn electronic device and the second electronic device are configured to: transmit (202; 302) signals at a plurality of different frequencies in accordance with a frequency hopping sequence; collect (204; 304) two-dimensional (2-D) RSSI, Received Signal Strength Indication, data comprising an RSSI value as a function of frequency and of time in response to transmission of the signals; detect (208; 308) a particular input gesture of a plurality of input gestures of the wearer using the 2-D RSSI data; and implement (210; 310) a predetermined function of at least one of the first ear-worn electronic device and the second electronic device in response to detecting the particular input gesture. transmit (202; 302) signals at a plurality of different frequencies in accordance with a frequency hopping sequence; collect (204; 304) two-dimensional (2-D) RSSI, Received Signal Strength Indication, data comprising an RSSI value as a function of frequency and of time in response to transmission of the signals; detect (208; 308) a particular input gesture of a plurality of input gestures of the wearer using the 2-D RSSI data; and implement (210; 310) a predetermined function of at least one of the first ear-worn electronic device and the second electronic device in response to detecting the particular input gesture.
Injection moulding machine, which has the injection moulding die elements of injection moulding screw, hot runner and mould and wherein at least one injection moulding die element has a channel for accommodating molten plastic and a receiver is provided which is formed and arranged in such a way that a wave transmitted through a plastic accommodated in the channel or a wave reflected by a plastic accommodated in the channel or a wave emitted by a plastic accommodated in the channel can be detected by the receiver, wherein the receiver is set up to measure the radiation intensity of the transmitted, reflected or emitted wave, characterized in that an evaluation unit is provided which is suitable for assessing the radiation intensity measured by the receiver on the basis of at least one reference measurement on a plastic with a predefined decomposition product content.
A positive electrode active material pre-dispersion composition comprising a lithium iron phosphate-based positive electrode active material, a dispersant, and a solvent, wherein the dispersant comprises a hydrogenated nitrile butadiene rubber (HNBR), and wherein a hydrogenated butadiene ratio in the hydrogenated nitrile butadiene rubber (HNBR) dispersant satisfies Equation 1: 1 % ≤ HBD wt % / BD + HBD wt % × 100 ≤ 30 % wherein, in Equation 1, HBD wt% is weight % of a hydrogenated butadiene -derived repeating unit based on a total weight of the hydrogenated nitrile butadiene rubber (HNBR), and (BD+HBD) wt% is weight % of a butadiene -derived repeating unit and the hydrogenated butadiene -derived repeating unit based on the total weight of the hydrogenated nitrile butadiene rubber (HNBR).
A fastening device for the military sector for fastening to a surface, comprising: a fastening element which comprises a receiving portion for a fastening means, a first adhesive surface which is provided on the fastening element and comprises a first adhesive, and a second adhesive surface which is separated from the first adhesive surface and provided on the fastening element, which second adhesive surface comprises a second adhesive, wherein the first adhesive has a greater stretchability than the second adhesive, wherein the first adhesive surface is separated from the second adhesive surface by means of a web portion, and wherein the web portion is formed from a resiliently deformable material. a fastening element which comprises a receiving portion for a fastening means, a first adhesive surface which is provided on the fastening element and comprises a first adhesive, and a second adhesive surface which is separated from the first adhesive surface and provided on the fastening element, which second adhesive surface comprises a second adhesive, wherein the first adhesive has a greater stretchability than the second adhesive, wherein the first adhesive surface is separated from the second adhesive surface by means of a web portion, and wherein the web portion is formed from a resiliently deformable material.
A system of pulmonary delivering to a patient at least one pharmacologically active agent being in a plant material, the system comprising: a metered dose inhaler device (901, 1601, 1701) configured to vaporize at least one predetermined vaporized amount of the pharmacologically active agent upon controllably heating the plant material; a heating clement (1707, 1729, 2306) adapted to apply heat to the plant material to vaporize the at least one pharmacologically active agent from the plant material; a controller (913, 1607, 1719) associated with said inhaler device, the controller configured to control activation of the heating element; the controller configured to control the pre-determined vaporized amount based on data indicative of at least one pharmacokinetic effect and/or at least one pharmacodynamic effect induced by the pharmacologically active agent in the patient; and an interface (905, 1605) operable to interact with the patient and obtain data indicative of the at least one effect induced in the patient by the vaporized amount of the pharmacologically active agent, said interface configured to provide to the controller data indicative of the at least one pharmacokinetic effect and/or at least one pharmacodynamic effect induced by the pharmacologically active agent in the patient; wherein the interface is programmed to receive as input, via circuitry of the interface, a willful indication provided by the patient; wherein the interaction between the interface and the patient comprises receiving pharmacokinetic and/or pharmacodynamic feedback by receiving at least one of: a controlled indication and a semi controlled indication from the patient; and characterised in that at least one of the interface and the inhaler device is configured to modify an operation setting according to an input received in real time from the patient, the operation setting comprising a dose and/or regimen for the pulmonary delivery of the at least one pharmacologically active agent to the patient.
A method of diagnosing an individual as having a disease or condition associated with abnormal glycan accumulation, the method comprising: (a) generating a biomarker comprising of one or more non-reducing end glycan residual compound, wherein the biomarker is generated by treating a population of glycans, in or isolated from a biological sample from the individual, with at least one digesting glycan enzyme, and the biomarker is liberated from the non-reducing end of the glycans, wherein prior to enzyme treatment, the biomarker is not present in abundance in samples from individuals with the disease or condition relative to individuals without the disease or condition, and b) using an analytical instrument to detect the presence of and/or measure the amount of the biomarker produced and displaying or recording the presence of or a measure of a population of the biomarker; wherein the presence of and/or measure the amount of the biomarker is utilized to determine the presence, identity, and/or severity of the disease or condition; wherein the disease or condition is an MPS disorder selected from the group consisting of MPS IVA, MPS IVB, and MPS VII; wherein the digesting glycan enzyme is an exo-glycosidase selected from the group consisting of galactosidase and glucuronidase; wherein when the exo-glycosidase is galactosidase, the disease or condition is MPS IVA or MPS IVB; and wherein when the exo-glycosidase is glucuronidase, the disease or condition is MPS VII. (a) generating a biomarker comprising of one or more non-reducing end glycan residual compound, wherein the biomarker is generated by treating a population of glycans, in or isolated from a biological sample from the individual, with at least one digesting glycan enzyme, and the biomarker is liberated from the non-reducing end of the glycans, wherein prior to enzyme treatment, the biomarker is not present in abundance in samples from individuals with the disease or condition relative to individuals without the disease or condition, and b) using an analytical instrument to detect the presence of and/or measure the amount of the biomarker produced and displaying or recording the presence of or a measure of a population of the biomarker;
Connector assembly comprising a connector affixed to a printed circuit board and a covering with an integrated holding frame slidably mounted onto the connector, wherein - the covering having an opening in which the holding frame is integrated as an inner frame with a compensation gap to the surface of the opening, - the covering comprises a flexible connection between the surface of the opening and the holding frame to align the holding frame within the opening during insertion of the covering onto the connector, - characterised in that the flexible connection is performed by a curved resilient arm (7.1), which freely protrude and bent from the covering in a corresponding cut-out of the covering. - the covering having an opening in which the holding frame is integrated as an inner frame with a compensation gap to the surface of the opening, - the covering comprises a flexible connection between the surface of the opening and the holding frame to align the holding frame within the opening during insertion of the covering onto the connector, - characterised in that the flexible connection is performed by a curved resilient arm (7.1), which freely protrude and bent from the covering in a corresponding cut-out of the covering.
A gripper device for a star conveyor or similar conveyor device comprising gripper arms arranged in corresponding pairs on both sides of a central body for gripping and holding a container or similar body in a gripped position, wherein the gripper device comprises at least one positioning element independent of the gripper arms configured so as to position the container to be gripped in the gripped position at least along one axis, wherein the positioning element is releasably disposed on the central body by means of a mounting mechanism, characterized in that the mounting mechanism comprises a mounting projection on the central body and a mounting support on the positioning element or vice versa which are able to be brought into releasable operative engagement with one another, wherein the mounting mechanism is designed as a tongue and groove system with a T-shaped tongue projecting from the gripper device over which the positioning element can extend parallel to the axis of extension of the central body by means of a complementary configured support.
Frame for a prefabricated element for a building, comprising: - a plurality of support structures, each support structure consisting of a plurality of main beams connected together, wherein each support structure is arranged on a respective level of at least two levels which are parallel and spaced apart from each other in a thickness direction of the frame (X-X), said plurality of support structures defining at least one pair of homologous support structures including two support structures arranged on distinct levels and facing each other in said thickness direction (X-X), wherein the support structures are configured to support a panel of the prefabricated element for each level, - a plurality of connecting members, each connecting member connecting two of said homologous support structures facing each other, and - a plurality of tensioning cables, each cable being arranged between two distinct levels and having two ends, the two ends of each cable being secured to two distinct connecting members to make the frame work as a tensile structure. - a plurality of support structures, each support structure consisting of a plurality of main beams connected together, wherein each support structure is arranged on a respective level of at least two levels which are parallel and spaced apart from each other in a thickness direction of the frame (X-X), said plurality of support structures defining at least one pair of homologous support structures including two support structures arranged on distinct levels and facing each other in said thickness direction (X-X), wherein the support structures are configured to support a panel of the prefabricated element for each level, wherein each support structure is arranged on a respective level of at least two levels which are parallel and spaced apart from each other in a thickness direction of the frame (X-X), said plurality of support structures defining at least one pair of homologous support structures including two support structures arranged on distinct levels and facing each other in said thickness direction (X-X), wherein the support structures are configured to support a panel of the prefabricated element for each level, - a plurality of connecting members, each connecting member connecting two of said homologous support structures facing each other, and - a plurality of tensioning cables, each cable being arranged between two distinct levels and having two ends, the two ends of each cable being secured to two distinct connecting members to make the frame work as a tensile structure.
A molding that is attached to a front side edge portion of a side window of a vehicle and is brought into abutment with only a bottom surface and a side surface of the side window, the molding being formed with a door lip for covering an inclined portion of a body opening portion between a glass attachment surface of the body of the vehicle, to which the side window is attached, and a flat portion of the body opening portion, to which a door of the vehicle is attached, characterized in that a tip portion of the door lip of the molding is bent towards the inclined portion of the body opening portion to form a body abutment portion, and a tip portion of the body abutment portion of the molding is bent in a direction in which the side window is positioned, to make a bent portion of the body abutment portion.
An electrode comprising: an active material-containing layer comprising an Na-containing niobium-titanium composite oxide having an orthorhombic crystal structure; and a film comprising C and being formed on the active material-containing layer, wherein the active material-containing layer comprising a film comprising C satisfies 1 ≤ I 2 /I 1 ≤ 5, where I 1 is a height of a peak P 1 appearing in a binding energy range of 289 eV to 292 eV in an X-ray photoelectron spectroscopy spectrum of the active material-containing layer, and I 2 is a height of a peak P 2 appearing in a binding energy range of 283 eV to 285 eV in the X-ray photoelectron spectroscopy spectrum, and wherein the Na-containing niobium-titanium composite oxide is represented by a general formula of Li 2+v Na 2-w M1 x Ti 6-y-z Nb y M2 z O 14+δ, in the general formula; 0 ≤ v ≤ 4, 0 < w < 2, 0 ≤ x < 2, 0 < y < 2, 0 ≤ z < 3, and -0.5 ≤ δ ≤ 0.5; the M1 is at least one metal element selected from the group consisting of Cs, K, Mg, Sr, Ba and Ca; and the M2 is at least one metal element selected from the group consisting of Zr, Sn, V, Ta, Mo, W, Fe, Co, Mn and Al. an active material-containing layer comprising an Na-containing niobium-titanium composite oxide having an orthorhombic crystal structure; and a film comprising C and being formed on the active material-containing layer, wherein the active material-containing layer comprising a film comprising C satisfies 1 ≤ I 2 /I 1 ≤ 5, where I 1 is a height of a peak P 1 appearing in a binding energy range of 289 eV to 292 eV in an X-ray photoelectron spectroscopy spectrum of the active material-containing layer, and I 2 is a height of a peak P 2 appearing in a binding energy range of 283 eV to 285 eV in the X-ray photoelectron spectroscopy spectrum, and wherein the Na-containing niobium-titanium composite oxide is represented by a general formula of Li 2+v Na 2-w M1 x Ti 6-y-z Nb y M2 z O 14+δ, in the general formula; 0 ≤ v ≤ 4, 0 < w < 2, 0 ≤ x < 2, 0 < y < 2, 0 ≤ z < 3, and -0.5 ≤ δ ≤ 0.5; the M1 is at least one metal element selected from the group consisting of Cs, K, Mg, Sr, Ba and Ca; and the M2 is at least one metal element selected from the group consisting of Zr, Sn, V, Ta, Mo, W, Fe, Co, Mn and Al.
An imprint method for transferring a pattern to an imprint material by contacting the imprint material on a substrate with the pattern formed on a mold, the imprint method comprising: contacting the pattern formed on the mold with the imprint material supplied to a shot on the substrate; and detecting a plurality of alignment marks while changing a position of a detector (6, 19) for detecting the plurality of alignment marks formed on the shot on the substrate in accordance with a progress of filling of the imprint material into the pattern formed on the mold, wherein the detecting detects an alignment mark formed in a region (19e-19q) where the filling of the imprint material is completed. contacting the pattern formed on the mold with the imprint material supplied to a shot on the substrate; and detecting a plurality of alignment marks while changing a position of a detector (6, 19) for detecting the plurality of alignment marks formed on the shot on the substrate in accordance with a progress of filling of the imprint material into the pattern formed on the mold, wherein the detecting detects an alignment mark formed in a region (19e-19q) where the filling of the imprint material is completed.
A method for preparing a polyurethane mounting pad comprising the steps of: wet-solidifying a resin composition comprising polyurethane resin and a DMF solvent; and immersing the wet-solidified product in an aqueous solution comprising an acid catalyst or a base catalyst. wet-solidifying a resin composition comprising polyurethane resin and a DMF solvent; and immersing the wet-solidified product in an aqueous solution comprising an acid catalyst or a base catalyst.
Process for the production of a cable useful for conveying the current for both the transport of electricity and the transmission of signals and/or data, comprising subjecting a metallic or non-metallic wire of such cable to the following steps: STEP 1) on the wire a first metallic layer is deposited using the physical vapor deposition or chemical vapor deposition procedure; STEP 2) on the wire of STEP 1) a second metal and graphene layer is deposited, using an electrodeposition procedure; STEP 3) on the wire of STEP 2) a third metal layer is deposited using the physical vapor deposition, chemical vapor deposition or electrodeposition procedure; with the proviso that, when a copper wire or a wire in a metal more conductive than copper is used, STEP 1) is optional. STEP 1) on the wire a first metallic layer is deposited using the physical vapor deposition or chemical vapor deposition procedure; STEP 2) on the wire of STEP 1) a second metal and graphene layer is deposited, using an electrodeposition procedure; STEP 3) on the wire of STEP 2) a third metal layer is deposited using the physical vapor deposition, chemical vapor deposition or electrodeposition procedure;
A method comprising: determining, based on boundary transfer orbits (214, 218) of a satellite (101, 203), end points (304, 306) of an oblate epicycloid segment related to a transfer orbit of the satellite (101, 203); and calculating, using a processor, a shape of the oblate epicycloid segment based on satellite (101, 203) data and the end points(304, 306) to define a search zone to determine a position of the satellite (101, 203) as the satellite (101, 203) moves along the transfer orbit. determining, based on boundary transfer orbits (214, 218) of a satellite (101, 203), end points (304, 306) of an oblate epicycloid segment related to a transfer orbit of the satellite (101, 203); and calculating, using a processor, a shape of the oblate epicycloid segment based on satellite (101, 203) data and the end points(304, 306) to define a search zone to determine a position of the satellite (101, 203) as the satellite (101, 203) moves along the transfer orbit.
Method for manufacturing an oscillator with a flexible pivot of a predetermined frequency, the oscillator with a flexible pivot comprising a support, a flexible pivot and a felloe which is suspended on the support by the flexible pivot, the flexible pivot being arranged to guide the felloe in rotation with respect to the support and to elastically return the felloe to a rest position, the method comprising the following steps: a) forming, in a silicon-based material, an oscillator with a flexible pivot comprising said support, said flexible pivot and said felloe but having dimensions different from the dimensions necessary to obtain said oscillator with a flexible pivot of a predetermined frequency, b) measuring the frequency of the oscillator formed in step a), c) from the measurement effected in step b), calculating at least one thickness of material to be removed from the oscillator formed in step a) in order to obtain said oscillator with a flexible pivot of a predetermined frequency, d) from the calculation effected in step c), modifying the oscillator formed in step a) in order to obtain said oscillator with a flexible pivot of a predetermined frequency, this step d) comprising the following steps; - oxidising all or part of the outer surface of the oscillator formed in step a) in order to transform said thickness of material to be removed into silicon dioxide, and - removing the silicon dioxide. a) forming, in a silicon-based material, an oscillator with a flexible pivot comprising said support, said flexible pivot and said felloe but having dimensions different from the dimensions necessary to obtain said oscillator with a flexible pivot of a predetermined frequency, b) measuring the frequency of the oscillator formed in step a), c) from the measurement effected in step b), calculating at least one thickness of material to be removed from the oscillator formed in step a) in order to obtain said oscillator with a flexible pivot of a predetermined frequency, d) from the calculation effected in step c), modifying the oscillator formed in step a) in order to obtain said oscillator with a flexible pivot of a predetermined frequency, this step d) comprising the following steps; - oxidising all or part of the outer surface of the oscillator formed in step a) in order to transform said thickness of material to be removed into silicon dioxide, and - removing the silicon dioxide. - oxidising all or part of the outer surface of the oscillator formed in step a) in order to transform said thickness of material to be removed into silicon dioxide, and - removing the silicon dioxide.