mhurhangee/ep-ind-claims huggingface dataset:
A method of determining a location of a mobile device, the method comprising: as at least part of a location network, providing a trigger node for transmitting wirelessly to the mobile device, and providing multiple listening nodes for receiving wirelessly from the mobile device; using the trigger node to wirelessly transmit a trigger signal to the mobile device, the trigger signal being configured to cause the mobile device to wirelessly emit a signal in response to receiving the trigger signal; and using the listening nodes to listen for the response signal that was transmitted from the mobile device in response to the trigger signal, and thereby at each respective one of a plurality of the listening nodes that wirelessly receive the response signal from the mobile device, taking a respective measurement of the response signal as received at the respective listening node, for use in performing a localization to determine the location of the mobile device based on one or more of said measurements the method characterized in further comprising: using another entity in the form of a presence sensor to detect that a user is within a predetermined proximity of the presence sensor and wherein the trigger signal is transmitted in response to detecting that the user is within the predetermined proximity of said presence sensor. as at least part of a location network, providing a trigger node for transmitting wirelessly to the mobile device, and providing multiple listening nodes for receiving wirelessly from the mobile device; using the trigger node to wirelessly transmit a trigger signal to the mobile device, the trigger signal being configured to cause the mobile device to wirelessly emit a signal in response to receiving the trigger signal; and using the listening nodes to listen for the response signal that was transmitted from the mobile device in response to the trigger signal, and thereby at each respective one of a plurality of the listening nodes that wirelessly receive the response signal from the mobile device, taking a respective measurement of the response signal as received at the respective listening node, for use in performing a localization to determine the location of the mobile device based on one or more of said measurements the method characterized in further comprising: using another entity in the form of a presence sensor to detect that a user is within a predetermined proximity of the presence sensor and wherein the trigger signal is transmitted in response to detecting that the user is within the predetermined proximity of said presence sensor.
A composition for topical administration of a bacteriophage lysin, comprising: a bacteriophage lysin comprising the polypeptide of SEQ ID NO: 5 as an active ingredient, a piperazine-containing zwitterionic buffering substance, which is 2-(4-(2-hydroxyethyl)-1-piperazinyl)-ethane sulfonic acid (HEPES), and optionally a pharmaceutically acceptable carrier or excipient. a bacteriophage lysin comprising the polypeptide of SEQ ID NO: 5 as an active ingredient, a piperazine-containing zwitterionic buffering substance, which is 2-(4-(2-hydroxyethyl)-1-piperazinyl)-ethane sulfonic acid (HEPES), and optionally a pharmaceutically acceptable carrier or excipient.
A base station antenna, comprising: a plurality of linear arrays of radiating elements; and a plurality of radio frequency, RF, lenses, each RF lens mounted forwardly of a corresponding one of the radiating elements, wherein each RF lens is asymmetrical about a horizontal axis that bisects its corresponding one of the radiating elements, wherein a first of the linear array of radiating elements (220-1,) is mounted opposite a second of the linear array of radiating elements so that the first and second linear array of radiating elements point in opposite directions, and wherein the first and second of the linear arrays of radiating elements (220-1, 220-3) are mounted on opposed backplanes of a tubular reflector assembly that extends along a generally vertical longitudinal axis. a plurality of linear arrays of radiating elements; and a plurality of radio frequency, RF, lenses, each RF lens mounted forwardly of a corresponding one of the radiating elements, wherein each RF lens is asymmetrical about a horizontal axis that bisects its corresponding one of the radiating elements, wherein a first of the linear array of radiating elements (220-1,) is mounted opposite a second of the linear array of radiating elements so that the first and second linear array of radiating elements point in opposite directions, and wherein the first and second of the linear arrays of radiating elements (220-1, 220-3) are mounted on opposed backplanes of a tubular reflector assembly that extends along a generally vertical longitudinal axis.
H eat exchanger of the type with collector plate, which has a wall, in which are introduced passages which can accommodate the ends of tubes of a bundle, wherein the wall of the collector plate is designed so that it forms collars around the passages for the purpose of a soldered or welded connection to the tubes, and wherein the wall has a front side which faces the tube bundle and a rear side which faces the collecting vessel, wherein a collar extends in each case from a rectilinear base plane on the rear side of the wall in the direction of the collecting vessel, characterised in that each collar, in the contact region of the tube narrow side, defines a raised end region on the rear side of the wall which extends obliquely upwards and outwards from the base plane, wherein as a result of the obliquely upwards and outwards extending raised end region on the rear side of the wall, a simultaneous recess of the end region in relation to the otherwise essentially rectilinear front side is created.
Trailer coupling for a motor vehicle, with a coupling arm for attaching a trailer or a rear load carrier, and with a vehicle holder (30; 230) which is or may be fastened to the motor vehicle, for holding the coupling arm in a position of use provided for attaching the trailer or supporting the rear load carrier, and with a support assembly with at least one cross-member and provided for fastening at the rear of the motor vehicle, wherein the vehicle holder (30; 230) has a vehicle holder body (120; 220) which is bolted to the support assembly, wherein a single bolt (140; 240) is provided which clamps a vehicle holder mounting face (121; 221) of the vehicle holder against a first cross-member support face, wherein the bolt (140; 240) passes through the cross-member and a head of the bolt (140; 240) or a nut screwed on to the bolt (140; 240) rests on a second cross-member support face of the cross-member on its side facing away from the vehicle holder body (120; 220), and wherein there is provided eccentrically to a longitudinal axis of the bolt (140; 240), between the vehicle holder body (120; 220) and the cross-member, an anti-twist lock which counteracts any rotation of the vehicle holder body (120; 220) relative to the cross-member around the longitudinal axis of the bolt (140; 240), characterised in that it includes a spacer element (143; 243) which rests with its first longitudinal end on an inner side of a first wall of the cross-member, which provides the first cross-member support face, and with its other, second longitudinal end supports the head of the bolt (140; 240) or the screwed-on nut, wherein the second longitudinal end with the second cross-member support face is flush with or only insignificantly behind the second cross-member support face, so that the head or the nut rest on the second cross-member support face next to the second longitudinal end of the spacer element (143; 243).
A circular multicore optical fiber, comprising: a glass matrix having a front endface, a back endface, a length, a refractive index n 20, and a central axis; at least 4 cores arranged within the glass matrix, wherein any two adjacent cores have a core center to core center spacing of less than 29 microns, wherein the cores are positioned generally parallel to the central axis between the front and back endfaces (12, 14) and having respective refractive indices n 50, wherein n 50 > n 20, wherein each core and the glass matrix define a waveguide; and a plurality of trench layers, wherein each trench layer is positioned between a corresponding core and the glass matrix, each trench layer having an outer radius (r 3) of less than or equal to 14 microns and a trench volume of greater than 50 %Δ micron 2; wherein the optical fiber has a mode field diameter of greater than about 8.2 microns at 1310 nm, wherein the optical fiber has an outer diameter of less than about 130 microns, and characterized in that the center of each core is positioned along a first diameter of the glass matrix. a glass matrix having a front endface, a back endface, a length, a refractive index n 20, and a central axis; at least 4 cores arranged within the glass matrix, wherein any two adjacent cores have a core center to core center spacing of less than 29 microns, wherein the cores are positioned generally parallel to the central axis between the front and back endfaces (12, 14) and having respective refractive indices n 50, wherein n 50 > n 20, wherein each core and the glass matrix define a waveguide; and a plurality of trench layers, wherein each trench layer is positioned between a corresponding core and the glass matrix, each trench layer having an outer radius (r 3) of less than or equal to 14 microns and a trench volume of greater than 50 %Δ micron 2; wherein the optical fiber has a mode field diameter of greater than about 8.2 microns at 1310 nm, wherein the optical fiber has an outer diameter of less than about 130 microns, and characterized in that the center of each core is positioned along a first diameter of the glass matrix.
A wireless communication system for performing reflected wave transmission employing modulation of a reflected wave of a radio wave, the system comprising: a portable device configured to superimpose data on a reflected wave of a received radio wave and thereby transmit the data; and a cradle apparatus configured to transmit a carrier wave, receive the reflected wave of the carrier wave, demodulate the data transmitted from said portable device on the reflected wave, and control transmission of the carrier wave in accordance with whether or not said portable device is being placed on a receptacle of said cradle apparatus; wherein, in response to removal of said portable device from the receptacle, said cradle apparatus transmits the carrier wave with a higher power than when said portable device is being received by the receptacle. a portable device configured to superimpose data on a reflected wave of a received radio wave and thereby transmit the data; and a cradle apparatus configured to transmit a carrier wave, receive the reflected wave of the carrier wave, demodulate the data transmitted from said portable device on the reflected wave, and control transmission of the carrier wave in accordance with whether or not said portable device is being placed on a receptacle of said cradle apparatus; wherein, in response to removal of said portable device from the receptacle, said cradle apparatus transmits the carrier wave with a higher power than when said portable device is being received by the receptacle.
Load connection/disconnection device to be fitted to an electrical energy storage unit in a motor vehicle, comprising a first switch (20 1) able to connect the load directly to the electrical energy storage unit and a second switch (20 2) able to connect the load to the electrical energy storage unit with a limiting effect on the electrical current able to flow between the electrical energy storage unit and the load, characterized in that the second switch comprises a transistor (20 2) controlled in linear mode during a delay (Dpc) of predetermined duration and the device comprises a control circuit provided with a current control loop (22, 212, 213, 214) for controlling the transistor (20 2) of the second switch in linear mode, said electrical current able to flow between the electrical energy storage unit and the load is controlled by a setpoint (CG 2, Cs) supplied at the input to the control loop (22, 212, 213, 214).
Portable automatic batching device for producing a dyeing compound starting from one or more dyeing components, said portable automatic batching device comprising a plurality of cartridges, wherein - each one of said dyeing components is contained inside a respective cartridge comprising at least one external containing envelope and at least one flexible container arranged inside said external containing envelope, said flexible container being adapted to contain therein at least one dyeing component of a dyeing compound to be delivered outside upon a command; - said flexible container is a bag made of an elastic plastic material; - said flexible container is connected outwards through at least one delivery duct and by interposing at least one delivery head equipped with at least one delivery nozzle, said delivery head having a rest position, in which said delivery head keeps said delivery duct closed and air-tightly insulates said dyeing component contained inside said flexible container, and a delivery position in which said delivery head opens said delivery duct communicating it with said delivery nozzle; and - between said external containing envelope and said delivery head, suitable elastic means are interposed, to take back said delivery head to said rest position upon ceasing a trusting force (P; P') exerted on said external containing envelope or said delivery head to take said delivery head to said delivery position. - each one of said dyeing components is contained inside a respective cartridge comprising at least one external containing envelope and at least one flexible container arranged inside said external containing envelope, said flexible container being adapted to contain therein at least one dyeing component of a dyeing compound to be delivered outside upon a command; - said flexible container is a bag made of an elastic plastic material; - said flexible container is connected outwards through at least one delivery duct and by interposing at least one delivery head equipped with at least one delivery nozzle, said delivery head having a rest position, in which said delivery head keeps said delivery duct closed and air-tightly insulates said dyeing component contained inside said flexible container, and a delivery position in which said delivery head opens said delivery duct communicating it with said delivery nozzle; and - between said external containing envelope and said delivery head, suitable elastic means are interposed, to take back said delivery head to said rest position upon ceasing a trusting force (P; P') exerted on said external containing envelope or said delivery head to take said delivery head to said delivery position.
Device for vertical galvanic metal, preferably copper, deposition on a substrate characterized in that the device comprises at least a first device element and a second device element, which are arranged in a vertical manner parallel to each other, wherein the first device element comprises at least a first anode element having a plurality of through-going conduits and at least a first carrier element having a plurality of through-going conduits, wherein said at least first anode element and said at least first carrier element are firmly connected to each other; and wherein the second device element comprises at least a first substrate holder which is adapted to receive at least a first substrate to be treated, wherein said at least first substrate holder is at least partially surrounding the at least first substrate to be treated along its outer frame after receiving it; and wherein the distance between the first anode element of the at least first device element and the at least first substrate holder of the second device element ranges from 2 to 15 mm; wherein the plurality of through-going conduits of the first carrier element of the first device element are going through the first carrier element in form of straight lines having an angle relating to the perpendicular on the carrier element surface between 10° and 60°.
A method for multi-source control of a projector, applying to projector equipment connected to multiple User Equipments, UE, (S100, S300), characterized in that the method comprises: after receiving a projection request sent by a first UE, when it is detected that played content of a second UE is being projected, sending the second UE a switching confirmation prompt (S101, S304); and after receiving the second UE's consent for switching, stopping projecting the content being projected, responding to the projection request of the first UE and projecting played content of the first UE (S102, S306),, wherein the method further comprises: after receiving the second UE's refusal for switching, continuing projecting the played content of the second UE, and sending the first UE a projection refusal. after receiving a projection request sent by a first UE, when it is detected that played content of a second UE is being projected, sending the second UE a switching confirmation prompt (S101, S304); and after receiving the second UE's consent for switching, stopping projecting the content being projected, responding to the projection request of the first UE and projecting played content of the first UE (S102, S306),, wherein the method further comprises: after receiving the second UE's refusal for switching, continuing projecting the played content of the second UE, and sending the first UE a projection refusal.
Metallically sealing connecting arrangement with a pressure sensor as first metallic connecting partner and a fuel distributor rail as second metallic connecting partner, the two connecting partners (5, 6) being part of a fuel injection system of an internal combustion engine, and a conical sealing face being configured on the first connecting partner, characterized in that the connecting partners (5, 6) can be connected to one another with regard to an axis by way of screwing, a sealing contour which is assigned to the conical sealing face of the first connecting partner being configured on the second connecting partner, the sealing contour of the second connecting partner having, in a starting state, an elevation which runs around the axis and faces the conical sealing face of the first connecting partner, and the sealing contour of the second connecting partner being configured in such a way that, in the case of screwing of the first connecting partner to the second connecting partner, the circumferential elevation of the second connecting partner is deformed plastically at least partially, in order to configure a metallic sealing action between the conical sealing face of the first connecting partner and the elevation of the second connecting partner, which elevation is deformed at least partially in the screwed state.
An effective amount of growth hormone releasing hormone (GHRH) peptide agonist for use in treating a reperfusion injury, the GHRH peptide agonist having the following formula: [R 1 -A 1 -A 2 -Asp-Ala-Ile-A 6 -Thr-A 8 -Ser-Tyr-A 11 -A 12 -Val-Leu-A 15 -Gln-Leu-Ser-Ala-A 20 -A 21 -A 22 -Leu-Gln-Asp-Ile-Nle 27 -A 28 -A 29 -A 30]-R 2, wherein R 1 is Ac, Tfa, or is absent, A 1 is Tyr, Dat, or N-Me-Tyr, A 2 is D-Ala, or D-Abu, A 6 is Phe or Fpa5, A 8 is Asn, Ala, Gln, Thr, or N-Me-Ala, A 11 is Arg, His, or Har, A 12 is Orn, or Lys(Me) 2, A 15 is Abu or Ala, A 20 is Arg, His, or Har, A 21 is Orn, or Lys(Me) 2, A 22 is Leu, or Orn, A 28 is Ser, or Asp, A 29 is Arg, Har, Agm, D-Arg, or D-Har, A 30 is Arg, Agm, Ada, Amc, Aha, Apa, Har, D-Arg, D-Har, Gab, Gln, D-Gln, Gln-Gab, D-Gln-Gab, or is absent, R 2 is -NH 2, -NH-CH 3, NH-CH 2 -CH 3, -NH-CH 3, -OH, -NHR 3, -N(R 3) 2, or-OR 3, wherein R 3 is any of C 1 - 12 alkyl, C 2-12 alkenyl, or C 2 - 12 alkynyl, and pharmaceutically acceptable salts thereof, and wherein the agonist peptide is different from SEQ ID NO: 1 in at least one amino acid residue. wherein R 1 is Ac, Tfa, or is absent, A 1 is Tyr, Dat, or N-Me-Tyr, A 2 is D-Ala, or D-Abu, A 6 is Phe or Fpa5, A 8 is Asn, Ala, Gln, Thr, or N-Me-Ala, A 11 is Arg, His, or Har, A 12 is Orn, or Lys(Me) 2, A 15 is Abu or Ala, A 20 is Arg, His, or Har, A 21 is Orn, or Lys(Me) 2, A 22 is Leu, or Orn, A 28 is Ser, or Asp, A 29 is Arg, Har, Agm, D-Arg, or D-Har, A 30 is Arg, Agm, Ada, Amc, Aha, Apa, Har, D-Arg, D-Har, Gab, Gln, D-Gln, Gln-Gab, D-Gln-Gab, or is absent, R 2 is -NH 2, -NH-CH 3, NH-CH 2 -CH 3, -NH-CH 3, -OH, -NHR 3, -N(R 3) 2, or-OR 3, wherein R 3 is any of C 1 - 12 alkyl, C 2-12 alkenyl, or C 2 - 12 alkynyl, and pharmaceutically acceptable salts thereof, and wherein the agonist peptide is different from SEQ ID NO: 1 in at least one amino acid residue.
A process for selectively decreasing the capacity of a subpopulation of non-human sperm cells in a sperm cell dispersion, the process comprising: a) labeling a sperm cell sample with a labeling mixture including a chemical agent that induces sperm immotility and DNA selective dye at a temperature between 30°C and 39°C to form a dispersion of labeled sperm cells in a liquid, wherein the amount of the label associated with a sperm cell indicates a genetic, proteomic structural, or functional characteristic of a subpopulation of sperm cells in the dispersion; b) optically inspecting the dispersion to identify individual sperm cells as members of the subpopulation; c) determining the position of members of the subpopulation in the dispersion; and d) delivering a dose of energy to different positions within the dispersion to selectively decrease the capacity of members of the subpopulation to fertilize an egg without similarly affecting sperm cells at other positions in the dispersion to produce an enriched sperm cell population. a) labeling a sperm cell sample with a labeling mixture including a chemical agent that induces sperm immotility and DNA selective dye at a temperature between 30°C and 39°C to form a dispersion of labeled sperm cells in a liquid, wherein the amount of the label associated with a sperm cell indicates a genetic, proteomic structural, or functional characteristic of a subpopulation of sperm cells in the dispersion; b) optically inspecting the dispersion to identify individual sperm cells as members of the subpopulation; c) determining the position of members of the subpopulation in the dispersion; and d) delivering a dose of energy to different positions within the dispersion to selectively decrease the capacity of members of the subpopulation to fertilize an egg without similarly affecting sperm cells at other positions in the dispersion to produce an enriched sperm cell population.
A method of treating a carbon substrate, comprising the following successive steps of: - impregnating the carbon substrate with an aqueous solution containing an amorphous fluorinated copolymer of tetrafluoroethylene and of perfluoromethoxy dioxole; - drying the carbon substrate at a pressure lower than the atmospheric pressure; - obtaining a carbon substrate impregnated with a fluorinated copolymer. - impregnating the carbon substrate with an aqueous solution containing an amorphous fluorinated copolymer of tetrafluoroethylene and of perfluoromethoxy dioxole; - drying the carbon substrate at a pressure lower than the atmospheric pressure; - obtaining a carbon substrate impregnated with a fluorinated copolymer.