mhurhangee/ep-ind-claims huggingface dataset:
Dioxomolybdenum complex compound of formula MoO 2 x 2-x, where x stands for 1 or 2, Y for a ligand with a single negative charge, and L for a ligand of formula, where R 1 and R 2 independently of one another stand for a hydrogen residue, for a monovalent saturated or unsaturated hydrocarbon residue having 1 to 10 carbon atoms, or together stand for a bivalent alkylene residue having 3 to 6 carbon atoms, and R 3 and R 4 independently of one another stand for a hydrogen residue, a monovalent saturated hydrocarbon residue, which optionally contains heteroatoms, having 1 to 12 carbon atoms, or together stand for a bivalent alkylene residue, which optionally contains heteroatoms, having 3 to 6 carbon atoms, where the dioxomolybdenum complex compound of formula MoO 2 x 2-x is not dioxomolybdenum bis(N,N-diethyl-3-oxobutanamidate). where R 1 and R 2 independently of one another stand for a hydrogen residue, for a monovalent saturated or unsaturated hydrocarbon residue having 1 to 10 carbon atoms, or together stand for a bivalent alkylene residue having 3 to 6 carbon atoms, and R 3 and R 4 independently of one another stand for a hydrogen residue, a monovalent saturated hydrocarbon residue, which optionally contains heteroatoms, having 1 to 12 carbon atoms, or together stand for a bivalent alkylene residue, which optionally contains heteroatoms, having 3 to 6 carbon atoms, where the dioxomolybdenum complex compound of formula MoO 2 x 2-x is not dioxomolybdenum bis(N,N-diethyl-3-oxobutanamidate).
A measuring system for measuring the relative positions of a first rotary component and a second rotary component relative to each other, said components (3, 5) being arranged essentially along a common axis and being arranged in a horizontal or vertical direction or with arbitrary angles relative to the horizontal plane, comprising: - a first measuring unit adapted for mounting on the first rotary component; and - a second measuring unit adapted for mounting on the second rotary component; - wherein at least one of said measuring units (6, 7) comprises a light source and at least one of said measuring units (6, 7) comprises a detector unit for determining the positions of said rotary components (3, 5); wherein the first measuring unit comprises a first gyro and the second measuring unit comprises a second gyro for detecting the current angular position of each measuring unit (6, 7) at rotation of said rotary components (3, 5) when said rotary components are arranged with essentially vertical orientation, and wherein the first measuring unit comprises a first accelerometer and the second measuring unit comprises a second accelerometer for detecting the current angular position (α1) of each measuring unit (6, 7) at rotation of said rotary components (3, 5) when said rotary components are arranged with essentially horizontal orientation, characterized in that at least one of said accelerometers (19a, 19b) is adapted for detecting whether said rotary components (3, 5) are arranged with horizontal or vertical orientation. - a first measuring unit adapted for mounting on the first rotary component; and - a second measuring unit adapted for mounting on the second rotary component; - wherein at least one of said measuring units (6, 7) comprises a light source and at least one of said measuring units (6, 7) comprises a detector unit for determining the positions of said rotary components (3, 5);
A combination product, comprising a limonoid compound or a pharmaceutically acceptable salt thereof, and a DPP-4 inhibitor, wherein the DPP-4 inhibitor is selected from the group consisting of sitagliptin, saxagliptin, vildagliptin, linagliptin, and alogliptin, and the limonoid compound is one or more selected from the group consisting of limonin, isolimonic acid, limonin glycoside, isolimonic acid glycoside, obacunone, isoobacunoic acid, obacunone glycoside, ichangin, ichangensin, ichangin glycoside, nomilin, nomilinic acid, deacetylnomilin, nomilin glycoside, deacetylnomilin glycoside and nomilinic acid glycoside.
A skin external preparation comprising an ascorbic acid-2-phosphate derivative, characterized in that only a sodium ascorbic acid-2-phosphate-6-palmitate is formulated as the ascorbic acid-2-phosphate derivative, and the skin external preparation further comprises at least one betaine-type amphoteric surfactant selected from the group consisting of compounds represented by a general formula or shown below: R 1 -N + (CH 3) 2 -CH 2 COO - R 2 -CONH-CH 2 -CH 2 -CH 2 -N + (CH 3) 2 -CH 2 COO - wherein R 1 represents a linear or branched alkyl group of 10 to 30 carbon atoms, and R 2 represents a linear or branched alkyl group of 8 to 30 carbon atoms.
Method for providing recommended speed data to vehicles via a map service provider, wherein each ego vehicle of a fleet of vehicles is adapted to run an algorithm for holistic estimation of a recommended vehicle speed, wherein the algorithm for holistic estimation of a recommended vehicle speed produces a recommended speed estimation for the ego vehicle, and to transmit recommended speed messages to the map service provider said recommended speed messages comprising said estimated recommended speed data and the location of the ego vehicle, wherein said recommended speed messages received by the map service provider are mapped to a corresponding road segment and saved in a database, wherein the map service provider is adapted to compute an aggregated recommended speed data for each corresponding road segment based upon said saved recommended speed data and to transmit said aggregated recommended speed data as aggregated recommended speed message to vehicles subscribed to a map service.
A catheter device for repositioning or explanting an implantable medical device, comprising: an outer catheter, and a steerable catheter extending through the outer catheter, wherein the outer catheter is axially movable with respect to the steerable catheter, a snare catheter extending through the steerable catheter, wherein the snare catheter is axially movable relative to the steerable catheter, the snare catheter being configured to receive a mandrel carrying a snare such that the mandrel is axially movable relative to the snare catheter, wherein a mandrel extending through the snare catheter and comprising a distal end, wherein the mandrel is axially movable relative to the snare catheter, and a snare arranged on the distal end of the mandrel for establishing a connection to the implantable medical device, wherein the snare, by moving the mandrel with respect to the snare catheter, is at least partially retractable into the snare catheter, characterized in that the snare is formed by a wire made of a radiopaque material. an outer catheter, and a steerable catheter extending through the outer catheter, wherein the outer catheter is axially movable with respect to the steerable catheter, a snare catheter extending through the steerable catheter, wherein the snare catheter is axially movable relative to the steerable catheter, the snare catheter being configured to receive a mandrel carrying a snare such that the mandrel is axially movable relative to the snare catheter, wherein a mandrel extending through the snare catheter and comprising a distal end, wherein the mandrel is axially movable relative to the snare catheter, and a snare arranged on the distal end of the mandrel for establishing a connection to the implantable medical device, wherein the snare, by moving the mandrel with respect to the snare catheter, is at least partially retractable into the snare catheter, characterized in that the snare is formed by a wire made of a radiopaque material.
A composition comprising (a) at least one cyclopropene molecular encapsulating agent complex, and (b) at least one salt other than calcium chloride, and wherein the at least one salt is non-deliquescent, wherein the ratio of dry weight of said salt to dry weight of said cyclopropene molecular encapsulating agent complex is from 0.03 to 500, and wherein said composition either (i) has 30% or less water by weight, based on the weight of said composition, and wherein said non-deliquescent salt has anion selected from the group consisting of acetate, chloride, nitrate, phosphate, and sulfate, or (ii) has more than 30% water by weight, based on the weight of said composition, has a ratio of dry weight of said salt to weight of said water of 0.05 or higher, and has said cyclopropene molecular encapsulating agent complex distributed throughout said water. (a) at least one cyclopropene molecular encapsulating agent complex, and (b) at least one salt other than calcium chloride, and wherein the at least one salt is non-deliquescent, wherein the ratio of dry weight of said salt to dry weight of said cyclopropene molecular encapsulating agent complex is from 0.03 to 500, and wherein said composition either (i) has 30% or less water by weight, based on the weight of said composition, and wherein said non-deliquescent salt has anion selected from the group consisting of acetate, chloride, nitrate, phosphate, and sulfate, or (ii) has more than 30% water by weight, based on the weight of said composition, has a ratio of dry weight of said salt to weight of said water of 0.05 or higher, and has said cyclopropene molecular encapsulating agent complex distributed throughout said water. (i) has 30% or less water by weight, based on the weight of said composition, and wherein said non-deliquescent salt has anion selected from the group consisting of acetate, chloride, nitrate, phosphate, and sulfate, or (ii) has more than 30% water by weight, based on the weight of said composition, has a ratio of dry weight of said salt to weight of said water of 0.05 or higher, and has said cyclopropene molecular encapsulating agent complex distributed throughout said water.
Control device for a motor vehicle, wherein the control device is configured to turn off a main module of the control device provided for operation when the ignition is turned on upon receiving an ignition-off signal sent in the motor vehicle to initiate a parking phase, characterised in that a mobile radio module is provided in the control device that is configured to remain logged into a mobile radio network when the main module is turned off and an auxiliary processor device is provided and configured to reserve an Internet address via the mobile radio module at an address server of the Internet and to store the Internet address in a control server of the Internet that is configured to remotely control the motor vehicle, wherein the auxiliary processor device is configured to receive a wake-up command from the control server and to turn on the main module via a wake-up line as a function of the wake-up command, wherein in order to turn on the main module the auxiliary processor device actuates a power supply of the control device so that a supply line is electrically coupled with an on-board electrical system to electrically supply the main module through the power supply.
A method comprising: receiving, at a packet analyzer,a first packet that was formatted using a scrambling algorithm, which is known at the packet analyzer, with an unknown seed, which is unknown at the packet analyzer, the unknown seed being obtained from clock bit values at a transmitter at a time instance; extracting an encoded packet payload header of the first packet; decoding the encoded packet payload header to obtain a first scrambled packet payload header; for each potential value of the unknown seed, descrambling the first scrambled packet payload header to produce a first set of descrambled packet payload headers; for each potential value of a cyclic redundancy check initial register value, executing the cyclic redundancy check comprising polynomial division on each of the descrambled packet payload headers such that when the polynomial division results in a zero remainder, a potential unscrambled payload header for the first packet is obtained; and obtaining information about the first packet from the potential unscrambled payload header. receiving, at a packet analyzer,a first packet that was formatted using a scrambling algorithm, which is known at the packet analyzer, with an unknown seed, which is unknown at the packet analyzer, the unknown seed being obtained from clock bit values at a transmitter at a time instance; extracting an encoded packet payload header of the first packet; decoding the encoded packet payload header to obtain a first scrambled packet payload header; for each potential value of the unknown seed, descrambling the first scrambled packet payload header to produce a first set of descrambled packet payload headers; for each potential value of a cyclic redundancy check initial register value, executing the cyclic redundancy check comprising polynomial division on each of the descrambled packet payload headers such that when the polynomial division results in a zero remainder, a potential unscrambled payload header for the first packet is obtained; and obtaining information about the first packet from the potential unscrambled payload header.
A gas-insulated power apparatus for connecting a gas-insulated bus and a feeder by way of a gas-insulated circuit breaker, characterized by comprising: - a vertically arranged gas-insulated circuit breaker included in a vertically arranged gas-insulated main tank (GIMT), - a first gas-insulated branch pipe (GIBT1) connected to one side of an upper portion of the gas-insulated main tank (GIMT) substantially orthogonal to an extending direction of the gas-insulated main tank (GIMT) and leading out a feeder from a movable side of the gas-insulated circuit breaker, and - a second and a third gas-insulated branch pipes (GIBT2, GIBT3) which are respectively connected to opposite sides in a peripheral direction of a lower portion of the gas-insulated main tank (GIMT) substantially orthogonal to the extending direction of the gas-insulated main tank (GIMT), one of which connects a fixed side of the gas-insulated circuit breaker to a first gas-insulated bus of gas-insulated double buses (X, Y) and the other of which connects the fixed side of the gas-insulated circuit breaker to a second gas-insulated bus of the gas-insulated double buses (X, Y), respectively, wherein the second gas-insulated branch pipe (GIBT2) is arranged directly below the first gas-insulated branch pipe (GIBT1), and an operational space of maintenance, check and the like is ensured between the first gas-insulated branch pipe (GIBT1) and the second (GIBT2) and the third (GIBT3) gas-insulated branch pipes. - a vertically arranged gas-insulated circuit breaker included in a vertically arranged gas-insulated main tank (GIMT), - a first gas-insulated branch pipe (GIBT1) connected to one side of an upper portion of the gas-insulated main tank (GIMT) substantially orthogonal to an extending direction of the gas-insulated main tank (GIMT) and leading out a feeder from a movable side of the gas-insulated circuit breaker, and - a second and a third gas-insulated branch pipes (GIBT2, GIBT3) which are respectively connected to opposite sides in a peripheral direction of a lower portion of the gas-insulated main tank (GIMT) substantially orthogonal to the extending direction of the gas-insulated main tank (GIMT), one of which connects a fixed side of the gas-insulated circuit breaker to a first gas-insulated bus of gas-insulated double buses (X, Y) and the other of which connects the fixed side of the gas-insulated circuit breaker to a second gas-insulated bus of the gas-insulated double buses (X, Y), respectively,
A gastric resistant pharmaceutical or nutraceutical composition, comprising a core, comprising a pharmaceutical or nutraceutical active ingredient and a gastric resistant coating layer onto the core, wherein the release of the pharmaceutical or nutraceutical active ingredient is not more than 15 % under in-vitro conditions at pH 1.2 for 2 hours in medium according to USP with and without the addition of 40 % (v/v) ethanol, wherein the gastric resistant coating layer comprises 10 to 100 % by weight of ammonium alginate with a viscosity of 30 to 720 cP of a 1 % aqueous solution.
A method for letting a temporary radio base station (RBS, 140) gain and maintain control of traffic to and from a targeted radio base station in a wireless cellular telecommunications system, said system comprising a plurality of RBS's for routing traffic to and from user terminals in the system, each RBS controlling the traffic to and from a certain cell within the system, where at least a number of said plurality of RBS's in the system each transmits an identity signal and a list of candidate frequencies for use by user terminals when switching RBS, the method comprising the steps of: - positioning said temporary RBS in or adjacent to the cell of the targeted RBS, - programming the temporary RBS to transmit on one of the frequencies in the candidate list transmitted by the targeted RBS, - making the transmissions of the temporary RBS with such a power level that traffic to and from user terminals in the cell of the targeted RBS will be transferred to the temporary RBS, - programming the temporary RBS to transmit an identity signal which is the same as that of the RBS whose frequency the temporary RBS transmits on, - programming said temporary RBS to transmit a list of candidate frequencies, characterized in that the list, transmitted by the temporary RBS, being empty or comprising a false candidate or comprising one or more true candidate frequencies not suitable in the cell, for instance by pointing to RBSs that are too distant for being attractive can-didates for handover, such that user terminals whose traffic has been transferred to the temporary RBS cannot find signals with sufficient strength on any of the candidate frequencies in the vicinity of the cell of the targeted RBS, the method further comprising - the temporary RBS hindering user terminals from communicating within the area being controlled by the temporary RBS. - positioning said temporary RBS in or adjacent to the cell of the targeted RBS, - programming the temporary RBS to transmit on one of the frequencies in the candidate list transmitted by the targeted RBS, - making the transmissions of the temporary RBS with such a power level that traffic to and from user terminals in the cell of the targeted RBS will be transferred to the temporary RBS, - programming the temporary RBS to transmit an identity signal which is the same as that of the RBS whose frequency the temporary RBS transmits on, - programming said temporary RBS to transmit a list of candidate frequencies, characterized in that the list, transmitted by the temporary RBS, being empty or comprising a false candidate or comprising one or more true candidate frequencies not suitable in the cell, for instance by pointing to RBSs that are too distant for being attractive can-didates for handover, such that user terminals whose traffic has been transferred to the temporary RBS cannot find signals with sufficient strength on any of the candidate frequencies in the vicinity of the cell of the targeted RBS, the method further comprising - the temporary RBS hindering user terminals from communicating within the area being controlled by the temporary RBS.
A measurement circuit for measuring at least one of the rotational position and rotational speed of the rotor of an electric motor, the circuit comprising: • first and second inputs for receiving first and second input signals which vary cyclically with the rotational speed and position of the rotor, the first and second input signals at the first and second inputs varying in quadrature with each other; • a phase detector circuit; and • an observer circuit; in which the observer circuit is arranged to generate estimates indicative of the frequency, corresponding to the rotational speed, and phase of the first and second input signals, the estimates comprising first and second estimated signals varying cyclically at the frequency indicated by the estimates with a phase dependent on the phase indicated by the estimates, the first and second estimated signals varying in quadrature with each other; in which the phase detector circuit is arranged to determine the phase difference between the first and second estimated signals on the one hand and the first and second input signals on the other by subtracting a multiplicative combination of the first input signal with the second estimated signal from a multiplicative combination of the second input signal with the first estimated signal to result in a difference signal dependent upon the phase difference; and in which the observer circuit is arranged to vary the estimates dependent upon the difference signal, characterised by further comprising a velocity determining circuit, which is arranged to take the first and second input signals and to output a velocity signal indicative of the rotational speed of the motor rotor by determining the rate of change of one of the first and second input signals and dividing the rate of change by the other of the first and second input signals; in which the observer circuit is arranged so as to determine the new estimates of the rotational speed and rotational position based upon the difference signal of the phase detector and the difference between the measured rotational speed of the velocity determining circuit and the estimated rotational speed of the observer circuit. • first and second inputs for receiving first and second input signals which vary cyclically with the rotational speed and position of the rotor, the first and second input signals at the first and second inputs varying in quadrature with each other; • a phase detector circuit; and • an observer circuit;
In a wireless communication system including an access terminal (AT router) and at least two base stations (BS1, BS2), a method for providing a routing service comprising a communications path between a first base station and a second base station via the access terminal, the method comprising the steps of: providing the access terminal with a transmission/reception capability complementary with that of both the first and second base stations; and causing the access terminal to receive a message transmitted by the first base station and in turn retransmit the message to the second base station, wherein the method further comprises broadcasting router solicitations by one of the base stations and receiving in response to said broadcasting supportable data rates from the access terminal, negotiating between said one of the base stations and the access terminal the duration and Quality of Service of the routing service. providing the access terminal with a transmission/reception capability complementary with that of both the first and second base stations; and causing the access terminal to receive a message transmitted by the first base station and in turn retransmit the message to the second base station, wherein the method further comprises broadcasting router solicitations by one of the base stations and receiving in response to said broadcasting supportable data rates from the access terminal, negotiating between said one of the base stations and the access terminal the duration and Quality of Service of the routing service.