mhurhangee/ep-ind-claims huggingface dataset:
A system for improving a sleep disorder comprising: a. an oral appliance including a mandibular occlusal plate operably coupled to a maxillary occlusal plate, said plates (34, 36) molded to fit an individual's jaw; b. an actuator including a motor, a gear assembly and one or more sensors in communication therewith for sensing physiologic parameters of a user, said actuator operably coupled to said maxillary occlusal plate for linearly advancing or retracting said mandibular occlusal plate; characterized by c. a knowledge base that provides data on a plurality of sleep disorder conditions and normative data necessary to correct said sleep disorder conditions; d. a processing device in operable communication with said one or more sensors and said knowledge base, said processing device configured to (a) receive said physiologic parameter measurements from said one or more sensors; (b) cross reference said physiologic parameter measurements with said knowledge base to generate a cross referenced data result indicative of a severity of a sleep disorder event; (c) calculate a determined amount of linear movement necessary to improve the sleep disorder event to return to a normative condition; (d) transmit said determined amount to said motor; and (e) cause said maxillary occlusal plate to linearly advance or retract said mandibular occlusal plate by said determined amount to improve said sleep disorder. a. an oral appliance including a mandibular occlusal plate operably coupled to a maxillary occlusal plate, said plates (34, 36) molded to fit an individual's jaw; b. an actuator including a motor, a gear assembly and one or more sensors in communication therewith for sensing physiologic parameters of a user, said actuator operably coupled to said maxillary occlusal plate for linearly advancing or retracting said mandibular occlusal plate; characterized by c. a knowledge base that provides data on a plurality of sleep disorder conditions and normative data necessary to correct said sleep disorder conditions; d. a processing device in operable communication with said one or more sensors and said knowledge base, said processing device configured to (a) receive said physiologic parameter measurements from said one or more sensors; (b) cross reference said physiologic parameter measurements with said knowledge base to generate a cross referenced data result indicative of a severity of a sleep disorder event; (c) calculate a determined amount of linear movement necessary to improve the sleep disorder event to return to a normative condition; (d) transmit said determined amount to said motor; and (e) cause said maxillary occlusal plate to linearly advance or retract said mandibular occlusal plate by said determined amount to improve said sleep disorder.
An agent for use alongside the therapy of multiple sclerosis and psoriasis, containing propionic acid, its physiologically tolerable salts and/or esters with C 1 -C 8 alkyl alcohols in a daily dose of up to 10 g.
A test method, comprising: transmitting, by a transmit device, N signal sequences by using a transmit antenna array, wherein the N signal sequences are orthogonal to each other, and N is a positive integer greater than 1; obtaining, by the transmit device from a test device, a phase offset that is of each signal sequence in the N signal sequences and that is generated after the signal sequence passes through a respective channel; adjusting, by the transmit device, an initial test signal based on the phase offset that is of each signal sequence and that is generated after the signal sequence passes through the respective channel, to obtain a target test signal in-phase superposed at the test device, wherein the target test signal comprises a plurality of signal sequences obtained by separately performing phase adjustment on the initial test signal based on the phase offset that is of each signal sequence and that is generated after the signal sequence passes through the respective channel; and transmitting, by the transmit device, the target test signal by using the transmit antenna array, wherein an array aperture of the transmit antenna array denoted as D, a distance between the transmit antenna array and a receive antenna denoted as d and a wavelength of the target test signal denoted as λ satisfy a condition of: d< 2D 2 / λ. transmitting, by a transmit device, N signal sequences by using a transmit antenna array, wherein the N signal sequences are orthogonal to each other, and N is a positive integer greater than 1; obtaining, by the transmit device from a test device, a phase offset that is of each signal sequence in the N signal sequences and that is generated after the signal sequence passes through a respective channel; adjusting, by the transmit device, an initial test signal based on the phase offset that is of each signal sequence and that is generated after the signal sequence passes through the respective channel, to obtain a target test signal in-phase superposed at the test device, wherein the target test signal comprises a plurality of signal sequences obtained by separately performing phase adjustment on the initial test signal based on the phase offset that is of each signal sequence and that is generated after the signal sequence passes through the respective channel; and transmitting, by the transmit device, the target test signal by using the transmit antenna array, wherein an array aperture of the transmit antenna array denoted as D, a distance between the transmit antenna array and a receive antenna denoted as d and a wavelength of the target test signal denoted as λ satisfy a condition of: d< 2D 2 / λ.
An amphipathic cell penetrating peptide of less than approximately 50 amino acid residues which has at least 6 arginine residues, at least 12 alanine residues, at least 6 leucine residues, optionally at least one cysteine residue, and at least two but no greater than three glutamic acids, wherein (a) the arginine residues are evenly distributed along the length of the peptide; the ratio of arginine to negatively charged glutamic acid residues is from at least 6:2 to 9:2 or 6:2 to 8:2; the ratio of hydrophilic amino acid residues to hydrophobic amino acid residues at pH 7 is at least 30:67 to 40:60 or 30:70 to 40:60; and said peptide comprises or consists of one of the following amino acid sequences: WEARLARALARALARHLARALARALRACEA (SEQ ID No. 1) WEARLARALARALARLARALARALRACEA (SEQ ID No. 2) WEARLARALARALARLARALARALRACEA (SEQ ID No. 3) REARLARALARALARLARALARALRACEA (SEQ ID No. 5) REARLARALARALARLARALARALRAREA (SEQ ID No. 6) REARLARALARALARELARALARALRAREA (SEQ ID No. 7) or a fragment thereof; or (b) said peptide comprises or consists of WEARLARALARALARELARALARALRACEA (SEQ ID No. 4). (a) the arginine residues are evenly distributed along the length of the peptide; the ratio of arginine to negatively charged glutamic acid residues is from at least 6:2 to 9:2 or 6:2 to 8:2; the ratio of hydrophilic amino acid residues to hydrophobic amino acid residues at pH 7 is at least 30:67 to 40:60 or 30:70 to 40:60; and said peptide comprises or consists of one of the following amino acid sequences: WEARLARALARALARHLARALARALRACEA (SEQ ID No. 1) WEARLARALARALARLARALARALRACEA (SEQ ID No. 2) WEARLARALARALARLARALARALRACEA (SEQ ID No. 3) REARLARALARALARLARALARALRACEA (SEQ ID No. 5) REARLARALARALARLARALARALRAREA (SEQ ID No. 6) REARLARALARALARELARALARALRAREA (SEQ ID No. 7) or a fragment thereof; or WEARLARALARALARHLARALARALRACEA (SEQ ID No. 1) WEARLARALARALARLARALARALRACEA (SEQ ID No. 2) WEARLARALARALARLARALARALRACEA (SEQ ID No. 3) REARLARALARALARLARALARALRACEA (SEQ ID No. 5) REARLARALARALARLARALARALRAREA (SEQ ID No. 6) REARLARALARALARELARALARALRAREA (SEQ ID No. 7) or a fragment thereof; or (b) said peptide comprises or consists of WEARLARALARALARELARALARALRACEA (SEQ ID No. 4).
An ink jet printing unit for printing an object which is led past the ink jet printing unit, wherein the ink jet printing unit comprises a housing for a printing head (13a,b) which is arranged or can be arranged therein at a defined operating position and which is with at least one printing nozzle (21a,b) for providing an ink printing jet in an ink jet direction (x), wherein the housing on a side which lies at the front in an ink jet direction (x) comprises a first opening (23a,b), wherein in the operational position the printing head (13a, b) with the at least one printing nozzle (21a,b) projects at least partly into or through the first opening (23a,b), characterised in that the ink jet printing unit at the outer side on the housing comprises a cover which is movable relative to the housing for closing the first opening (23a, b), wherein the cover is movable along a defined movement path between an opening position and a closure position, wherein the cover comprises a wiper which is designed and positioned in a manner such that in a wiping section of the movement path of the cover is wipes over the at least one printing nozzle (21a,b).
A polymer having the structure of formula 4: P-(Y-J) m - q - t 4 wherein P is a polymeric backbone comprising underivatized or derivatized monomers of N-(2-hydroxypropyl)methacrylamide (HPMA); J is a peptide targeting moiety having a sequence corresponding to that set forth in SEQ ID NOs: 1 -7 or 9; Y is a spacer linking the peptide targeting moiety to the polymeric backbone, wherein said spacer is an alkane, alkene or a peptidic chain of 6 to 18 chain atoms; B is a monomer comprising an antineoplastic agent and optionally comprising a spacer; C is a monomer comprising an imaging agent and optionally comprising a spacer; and m, q and t indicate mol percentage of the respective monomer in the composition of the polymer, wherein m is between about 0.05%-50%; q is between about 0 to 50%; t is between 0 to 50%; wherein q and t cannot simultaneously be 0. P is a polymeric backbone comprising underivatized or derivatized monomers of N-(2-hydroxypropyl)methacrylamide (HPMA); J is a peptide targeting moiety having a sequence corresponding to that set forth in SEQ ID NOs: 1 -7 or 9; Y is a spacer linking the peptide targeting moiety to the polymeric backbone, wherein said spacer is an alkane, alkene or a peptidic chain of 6 to 18 chain atoms; B is a monomer comprising an antineoplastic agent and optionally comprising a spacer; C is a monomer comprising an imaging agent and optionally comprising a spacer; and m, q and t indicate mol percentage of the respective monomer in the composition of the polymer, wherein m is between about 0.05%-50%; q is between about 0 to 50%; t is between 0 to 50%; wherein q and t cannot simultaneously be 0.
A seat for use in a vehicle, said seat being of the type having a seat cushion which is foldable upwardly, wherein said seat cushion and a seat back of said seat are provided on or above a floor of said vehicle, wherein said seat cushion has an engagement piece projecting from the rear end thereof, so that said engagement piece is engageable with a lower end of said seat back to thereby retain said seat cushion at a substantially horizontal use position where a seat occupant is to sit thereon, and wherein said seat cushion is foldable upwardly and forwardly from said use position to a vertically folded position where the seat cushion is to be set in a stored condition, characterised in that said seat includes a guide portion provided at said floor of said vehicle, wherein said guide portion is adapted for guiding the engagement piece therein, when the seat cushion is moved between said use position and said vertically folded position.
A packaging material for a power storage device, characterized in that the packaging material has a structure in which at least a substrate protective layer, a substrate layer, an adhesive layer, a metal foil layer, a sealant adhesive layer and a sealant layer are laminated in this order, wherein the substrate protective layer is a cured product of a raw material containing a polyester resin and a polyisocyanate, a ratio / is 5 to 60, where is the number of moles of hydroxyl groups in the polyester resin, and is the number of moles of isocyanate groups in the polyisocyanate, and the polyester resin has a hydroxyl value of 10 to 70 KOHmg/g. the packaging material has a structure in which at least a substrate protective layer, a substrate layer, an adhesive layer, a metal foil layer, a sealant adhesive layer and a sealant layer are laminated in this order, wherein the substrate protective layer is a cured product of a raw material containing a polyester resin and a polyisocyanate, a ratio / is 5 to 60, where is the number of moles of hydroxyl groups in the polyester resin, and is the number of moles of isocyanate groups in the polyisocyanate, and the polyester resin has a hydroxyl value of 10 to 70 KOHmg/g.
A kit comprising a polymeric surgical fastener (110; 210) having a plurality of reactive members of a specific binding pair attached to a surface of the surgical fastener and a container containing a liquid precursor (120; 220) including complementary reactive members of the specific binding pair, wherein the liquid precursor contains complementary reactive members conjugated to a linker adapted to link the complementary reactive members to a tissue.
A method for regulating the air temperature in a food cart within an aircraft galley system, the galley system including a galley air cooling unit having the food cart and a galley plenum therein, the plenum including a heat exchanger, a valve to control the flow of a liquid refrigerant through the heat exchanger a fan which blows air across the heat exchanger, into the food cart via an air supply duct coupling the plenum to the food cart and back into the plenum via an air return duct coupling the food cart to the plenum, an air supply temperature sensor for measuring the temperature of the air entering the food cart from the plenum, an air return temperature sensor for measuring the temperature of the air entering the plenum from the food cart, the method utilizing a control system arranged to perform regulating the return air temperature to a selected set point by controlling the amount of a liquid refrigerant flowing through the heat exchanger via the valve; characterized by further steps including: regulating the supply air temperature if the return air temperature sensor fails, regulating the supply air temperature including, regulating the supply air temperature between a preset bottom threshold and a preset top threshold, closing the valve completely if the supply air temperature falls below the preset bottom threshold, opening the valve when the supply air temperature rises to the preset top threshold, and resuming regulation of the supply air temperature between the preset bottom threshold and the preset top threshold; and temporarily discontinuing regulation of the return air temperature if the supply air temperature drops below the preset bottom threshold, including, closing the valve completely until the supply air temperature increases to the preset top threshold, and resuming regulation of the return air temperature. regulating the supply air temperature if the return air temperature sensor fails, regulating the supply air temperature including, regulating the supply air temperature between a preset bottom threshold and a preset top threshold, closing the valve completely if the supply air temperature falls below the preset bottom threshold, opening the valve when the supply air temperature rises to the preset top threshold, and resuming regulation of the supply air temperature between the preset bottom threshold and the preset top threshold; and temporarily discontinuing regulation of the return air temperature if the supply air temperature drops below the preset bottom threshold, including, closing the valve completely until the supply air temperature increases to the preset top threshold, and resuming regulation of the return air temperature.
A method of managing an electrical distribution system for a healthcare facility having electrical loads that include critical loads requiring highly reliable power delivery, a main utility power source for supplying power to said loads via said electrical distribution system, and an alternate power source for supplying power to at least certain of the loads in the event of disruption of power from the main utility source, said method comprising: receiving, over a communications network, information regarding the delivery of power to said loads from said main utility power source, said information including the occurrence of trip conditions that interrupt the delivery of power to identified loads; transmitting, over said communications network, an alarm when a trip condition occurs so that action can be taken to resume the delivery of power to loads to which power delivery has been interrupted, said alarm being transmitted to at least communication stations associated with said critical loads; instructing, over said communications network, an automatic transfer switch to couple said alternate power source to said loads to which power delivery has been interrupted, if the delivery of power to such loads is not restored within a preset time period; storing and periodically evaluating information regarding the occurrences of trip conditions and uses of said alternate power source by load, and transmitting, over said communications network, an alert when said evaluation identifies a performance change for any load; initiating a maintenance action in response to said alert; and communicating said alert to a remote facilities management station in the format of diagnostic information in real time. receiving, over a communications network, information regarding the delivery of power to said loads from said main utility power source, said information including the occurrence of trip conditions that interrupt the delivery of power to identified loads; transmitting, over said communications network, an alarm when a trip condition occurs so that action can be taken to resume the delivery of power to loads to which power delivery has been interrupted, said alarm being transmitted to at least communication stations associated with said critical loads; instructing, over said communications network, an automatic transfer switch to couple said alternate power source to said loads to which power delivery has been interrupted, if the delivery of power to such loads is not restored within a preset time period; storing and periodically evaluating information regarding the occurrences of trip conditions and uses of said alternate power source by load, and transmitting, over said communications network, an alert when said evaluation identifies a performance change for any load; initiating a maintenance action in response to said alert; and communicating said alert to a remote facilities management station in the format of diagnostic information in real time.
Below-knee orthosis comprising a footplate, which is carried by a connecting element projecting therefrom, the upper end part of which has a releasable coupling that can be coupled to an upper part of a patient's lower leg, a longitudinal section of the connecting element being formed of a spring element, wherein the spring element extends in a curved path at a radial distance from a fulcrum of the spring element, wherein the fulcrum of the spring element is placed to be essentially aligned with the patient's ankle-joint axis, and characterized in that the spring element comprises two essentially parallel spring strands (33, 34), which are arranged at a mutual distance in a plane that is in general parallel to the adjacent side of the lower leg.
A power source device including circuitry for providing data over a power line connection to a power receiver device (130, 230, 330, 430), the power receiver device (130, 230, 330, 430) being a mobile device and the power source device (110, 210, 310, 410) comprising: a power line (315, 415) extending from a power supply (112, 212, 312) at the power source device (110, 210, 310, 410), the power line (315, 415) being configured to supply charge to a battery (132, 232) of the power receiver device (130, 230, 330, 430); a ground line (316, 416) extending from a ground at the power source device (110, 210, 310, 410); a first impedance (321, 421) inserted into the power line (315, 415); a second impedance (322, 422) inserted into the ground line (316, 416); a modulator (317, 318) comprised of a transistor and modulator impedance, between the first impedance (321, 421) and the second impedance (322, 422), the modulator (317, 318) creating current fluctuations in the power line (315, 415), when driven and data is transmitted from the power source device (110, 210, 310, 410) to the power receiver device (130, 230, 330, 430); a tank capacitor (327, 427) between power line (315, 415) and ground line (316, 416), outside the first impedance (321, 421) and second impedance (322, 422); and a comparator (324, 424) coupled between the first and second impedance (321, 421; 322, 422). a power line (315, 415) extending from a power supply (112, 212, 312) at the power source device (110, 210, 310, 410), the power line (315, 415) being configured to supply charge to a battery (132, 232) of the power receiver device (130, 230, 330, 430); a ground line (316, 416) extending from a ground at the power source device (110, 210, 310, 410); a first impedance (321, 421) inserted into the power line (315, 415); a second impedance (322, 422) inserted into the ground line (316, 416); a modulator (317, 318) comprised of a transistor and modulator impedance, between the first impedance (321, 421) and the second impedance (322, 422), the modulator (317, 318) creating current fluctuations in the power line (315, 415), when driven and data is transmitted from the power source device (110, 210, 310, 410) to the power receiver device (130, 230, 330, 430); a tank capacitor (327, 427) between power line (315, 415) and ground line (316, 416), outside the first impedance (321, 421) and second impedance (322, 422); and a comparator (324, 424) coupled between the first and second impedance (321, 421; 322, 422).
Operator control device for a vehicle, in particular motor vehicle, having an operator control element which can be actuated by a user and is movably mounted on a carrier element, having at least one driveable actuator which is designed to move the operator control element relative to the carrier element, and having a first spring device which is arranged between the operator control element and the carrier element and the operator control element is movably mounted on the carrier element, wherein a compensation element is movably mounted on the carrier element, and wherein the actuator is connected to the operator control element and to the compensation element, characterized in that a second spring device is arranged between the compensation element and the carrier element, and the compensation element is mounted on the carrier element.