mhurhangee/ep-ind-claims huggingface dataset:
A system for localization of a fixed blind node to be localized within a localization area, the system comprising: a mobile blind node configured to move around in the localization area and to perform communication with the fixed blind node at different measurement positions of the mobile blind node; and a localization unit to determine the position of the fixed blind node based on the communication; characterized in that the system further comprises a plurality of reference nodes arranged in the localization area, each having a known position and being configured to perform communication with the mobile blind node at different measurement positions of the mobile blind node, wherein said communication between each of the reference nodes and the mobile blind node and said communication between the fixed blind node and the mobile blind node comprises exchanging a signal and performing a Received Signal Strength, RSS, measurement of the exchanged signal; wherein the localization unit is configured to determine said position of the fixed blind node and said different measurement positions of the mobile blind node using both the plurality of RSS measurements of signals exchanged between the fixed blind node and the mobile blind node and the plurality of RSS measurements of signals exchanged between each of the plurality of reference nodes and the mobile blind node; wherein the measurement position of the mobile blind node is unknown during said RSS measurements or wherein the measurement position is known but not taken into account for determining the position of the fixed blind node. a mobile blind node configured to move around in the localization area and to perform communication with the fixed blind node at different measurement positions of the mobile blind node; and a localization unit to determine the position of the fixed blind node based on the communication; characterized in that the system further comprises a plurality of reference nodes arranged in the localization area, each having a known position and being configured to perform communication with the mobile blind node at different measurement positions of the mobile blind node, wherein said communication between each of the reference nodes and the mobile blind node and said communication between the fixed blind node and the mobile blind node comprises exchanging a signal and performing a Received Signal Strength, RSS, measurement of the exchanged signal; wherein the localization unit is configured to determine said position of the fixed blind node and said different measurement positions of the mobile blind node using both the plurality of RSS measurements of signals exchanged between the fixed blind node and the mobile blind node and the plurality of RSS measurements of signals exchanged between each of the plurality of reference nodes and the mobile blind node; wherein the measurement position of the mobile blind node is unknown during said RSS measurements or wherein the measurement position is known but not taken into account for determining the position of the fixed blind node.
Shock absorber device for an arbour of a timepiece element including a support including a base cup surmounted by a peripheral rim which is delimited, opposite said cup, by an upper surface and including an outer wall, said cup and said rim defining together a recess, the device further including at least one pivot module, said at least one pivot module being arranged in said recess and able to cooperate with said arbour extending along a central axis, said device further including a cap formed by a hollow part secured to the support on said peripheral rim and including an inner wall, characterized in that at least one groove (520a, 522) is arranged on said inner wall so that elastic means can be placed therein such that these elastic means are held axially at the top and the bottom by said cap, said elastic means being arranged to exert a face on the pivot module.
A pharmaceutical composition for use in the therapy of cancer, comprising a drug carrier having a self-assembled 3-D L-DNA nanostructure for in vivo delivering a pharmaceutically active ingredient selectively to a cancer tissue by in vivo administration; wherein the pharmaceutically active ingredient is an anticancer agent; wherein the carrier does not comprise a targeting ligand for the cancer tissue, wherein the carrier has in vivo specificity to cancer tissue and wherein the carrier has a tetrahedron structure composed of 4 strands of L-DNA 55 mer or 4 strands of L-DNA 92 mer; and wherein the anticancer agent is doxorubicin, and wherein the pharmaceutical composition is systemically administered to the cancer tissue.
A composite material comprising: a polymer matrix comprising a polymer; and a plurality of functionalized silsesquioxane-based particles dispersed in a polymer matrix in an amount such that at least one surface of the composite layer comprises one or more structural surface features, and further comprising a plurality of carbon nanotubes dispersed in the polymer matrix so as to facilitate the formation of the one or more structural surface features each of the one or more structural surface features comprising a cross-sectional shape of a square, a rectangular, a circle, a triangle, a polygon, or a star, wherein the plurality of functionalized silsesquioxane-based particles comprise at least one fluorinated group selected from the group consisting of: wherein the plurality of functionalized silsesquioxane-based particles are present in the amount of 5 % or greater by weight of the polymer matrix, and wherein the plurality of carbon nanotubes are present in an amount from 0.5 % to 25% by weight of the polymer matrix. a polymer matrix comprising a polymer; and a plurality of functionalized silsesquioxane-based particles dispersed in a polymer matrix in an amount such that at least one surface of the composite layer comprises one or more structural surface features, and further comprising a plurality of carbon nanotubes dispersed in the polymer matrix so as to facilitate the formation of the one or more structural surface features each of the one or more structural surface features comprising a cross-sectional shape of a square, a rectangular, a circle, a triangle, a polygon, or a star, wherein the plurality of functionalized silsesquioxane-based particles comprise at least one fluorinated group selected from the group consisting of: wherein the plurality of functionalized silsesquioxane-based particles are present in the amount of 5 % or greater by weight of the polymer matrix, and wherein the plurality of carbon nanotubes are present in an amount from 0.5 % to 25% by weight of the polymer matrix.
An electronic gauge for use with a compressed gas cylinder, comprising: a display interface, a pressure sensor having a pressure sensing element and an amplification circuit for amplifying a signal from the pressure sensing element, a temperature sensor, and a control electronics board connected to the display interface, the pressure sensing element and the temperature sensor, characterized in that the amplification circuit is integrally formed with the control electronics board. a display interface, a pressure sensor having a pressure sensing element and an amplification circuit for amplifying a signal from the pressure sensing element, a temperature sensor, and a control electronics board connected to the display interface, the pressure sensing element and the temperature sensor, characterized in that the amplification circuit is integrally formed with the control electronics board.
A code-tracking system for use in a spread spectrum receiver, comprising: means for receiving early and late samples generated by correlating a received spread spectrum signal against shifted versions of the receiver's code; an error computational block for generating an error signal as the difference in amplitude between the early and late samples; a loop filter, which receives the error signal and at least a filter coefficient, and outputs a filter error signal; characterized in that it further comprises: an error scaling device, which receives the filter error representing an update of the filter output and provides a code tracking adjustmentsignal as the integer part of the scaled error signal, said code tracking adjustment signal having an amplitude and a direction; a controller which monitors at least one of a frequency of updates and a number of updates in the same direction and provides the at least filter coefficient in accordance with at least one of the frequency of updates and the number of updates in the same direction. means for receiving early and late samples generated by correlating a received spread spectrum signal against shifted versions of the receiver's code; an error computational block for generating an error signal as the difference in amplitude between the early and late samples; a loop filter, which receives the error signal and at least a filter coefficient, and outputs a filter error signal; an error scaling device, which receives the filter error representing an update of the filter output and provides a code tracking adjustmentsignal as the integer part of the scaled error signal, said code tracking adjustment signal having an amplitude and a direction; a controller which monitors at least one of a frequency of updates and a number of updates in the same direction and provides the at least filter coefficient in accordance with at least one of the frequency of updates and the number of updates in the same direction.
A method for storing in a stable state S-adenosyl-L-methionine (SAMe) in a dry yeast containing SAMe, the method comprising: culturing a yeast which is capable to produce SAMe, separating the yeast which contains SAMe as a yeast concentrate from the fungus culture liquid, adding a cyclodextrin compound to the yeast concentrate in an amount of the cyclodextrin compound added in the range of from 0.5 to 6 times by mol based on the amount of SAMe contained in the separated yeast concentrate; and drying the concentrate. culturing a yeast which is capable to produce SAMe, separating the yeast which contains SAMe as a yeast concentrate from the fungus culture liquid, adding a cyclodextrin compound to the yeast concentrate in an amount of the cyclodextrin compound added in the range of from 0.5 to 6 times by mol based on the amount of SAMe contained in the separated yeast concentrate; and drying the concentrate.
Antibiotic composition, characterized in that it comprises a therapeutic amount of an antibiotic, one potentiator compound which is a compound of general formula: and at least one pharmaceutically acceptable excipient.
A midamble indication method, comprising: sending, by a first device, midamble indication information to a second device, wherein a duration of a high efficient long training field, HE-LTF, symbol comprised in a midamble indicated by the midamble indication information belongs to an available set, characterized in that the available set consists of: the duration of the HE-LTF symbol excluding a guard interval, GI, part being four basic symbol durations and a duration of a GI being 0.8 μs, and the duration of the HE-LTF symbol excluding a GI part being four basic symbol durations and a duration of a GI being 3.2 μs. sending, by a first device, midamble indication information to a second device, wherein a duration of a high efficient long training field, HE-LTF, symbol comprised in a midamble indicated by the midamble indication information belongs to an available set, characterized in that the available set consists of: the duration of the HE-LTF symbol excluding a guard interval, GI, part being four basic symbol durations and a duration of a GI being 0.8 μs, and the duration of the HE-LTF symbol excluding a GI part being four basic symbol durations and a duration of a GI being 3.2 μs. the duration of the HE-LTF symbol excluding a guard interval, GI, part being four basic symbol durations and a duration of a GI being 0.8 μs, and the duration of the HE-LTF symbol excluding a GI part being four basic symbol durations and a duration of a GI being 3.2 μs.
A rolled aluminium alloy sheet product for outdoor use in the building industry, wherein the aluminium alloy has the following composition, in wt.%: Si 0.6 - 1.6 Mg 0.20 - 0.50 Mn 0.6 - 1.6 Cu 0.10 - 0.6 Fe 0.05 - 0.7 Ti 0.05 - 0.20 Zn up to 0.4, others and unavoidable impurities, each 0.05% max, total 0.25%, balance aluminium.
A DVC, comprising: a substrate having at least one RF electrode and at least one anchor electrode disposed therein; an insulating layer disposed on the at least one anchor electrode; a conductive layer disposed on the insulating layer, wherein the at least one anchor electrode, insulating layer and conductive layer form a MIM capacitor; an ohmic contact layer disposed on the conductive layer; and at least one MEMS bridge (20, 22) disposed over the substrate and coupled to the conductive layer, the at least one MEMS bridge (20, 22) movable between a position spaced a first distance from the RF electrode and a position spaced a second distance from the RF electrode that is less than the first distance, and wherein at the second distance, the at least one MEMS bridge (20, 22) forms an ohmic contact with the at least one RF electrode. a substrate having at least one RF electrode and at least one anchor electrode disposed therein; an insulating layer disposed on the at least one anchor electrode; a conductive layer disposed on the insulating layer, wherein the at least one anchor electrode, insulating layer and conductive layer form a MIM capacitor; an ohmic contact layer disposed on the conductive layer; and at least one MEMS bridge (20, 22) disposed over the substrate and coupled to the conductive layer, the at least one MEMS bridge (20, 22) movable between a position spaced a first distance from the RF electrode and a position spaced a second distance from the RF electrode that is less than the first distance, and wherein at the second distance, the at least one MEMS bridge (20, 22) forms an ohmic contact with the at least one RF electrode.
Apparatus for leak detection, comprising: a sealable chamber configured to receive a test piece that, while in the chamber, contains a trace gas; and a trace gas detector assembly including a trace gas sensor; characterised by: the trace gas detector assembly further including a trace gas permeable member mounted in gas communication with the chamber; the trace gas sensor comprising an ion pump and being in gas communication with the permeable member and configured to sense trace gas that passed from the chamber through the permeable member; a sealed housing enclosing the permeable member and the trace gas sensor; a vacuum flange for attaching the sealed housing to the chamber; and the trace gas detector assembly having zero pumping speed in the chamber except for the trace gas. a sealable chamber configured to receive a test piece that, while in the chamber, contains a trace gas; and a trace gas detector assembly including a trace gas sensor; the trace gas detector assembly further including a trace gas permeable member mounted in gas communication with the chamber; the trace gas sensor comprising an ion pump and being in gas communication with the permeable member and configured to sense trace gas that passed from the chamber through the permeable member; a sealed housing enclosing the permeable member and the trace gas sensor; a vacuum flange for attaching the sealed housing to the chamber; and the trace gas detector assembly having zero pumping speed in the chamber except for the trace gas.
A method of operating a mobile device that is attached to a network other than the home network of the mobile device, wherein location information for the mobile device in said other network is stored in a visitor location register, VLR, in said other network, the method in the mobile device comprising: sending a request for a service or session (128, 172) to said other network on expiry of a time period from a first signal (120, 164) sent from the mobile device to the home network or sent from the home network to the mobile device that indicates that a network reattachment procedure is to be initiated as the mobile device is in a part of said other network where there may be coverage from a more preferred network than said other network, the time period being sufficiently long to allow a second signal to be sent from the home network to the VLR in said other network to cause the location information for the mobile device to be deleted from the VLR in said other network and for the location information for the mobile device to be deleted from the VLR in said other network; and on receiving a rejection (134, 178) of that request (128, 172) from said other network, initiating a network reattachment procedure in which the mobile device searches for signals from the home network or a more preferred network and reattaches to a network based on the result of the search. sending a request for a service or session (128, 172) to said other network on expiry of a time period from a first signal (120, 164) sent from the mobile device to the home network or sent from the home network to the mobile device that indicates that a network reattachment procedure is to be initiated as the mobile device is in a part of said other network where there may be coverage from a more preferred network than said other network, the time period being sufficiently long to allow a second signal to be sent from the home network to the VLR in said other network to cause the location information for the mobile device to be deleted from the VLR in said other network and for the location information for the mobile device to be deleted from the VLR in said other network; and on receiving a rejection (134, 178) of that request (128, 172) from said other network, initiating a network reattachment procedure in which the mobile device searches for signals from the home network or a more preferred network and reattaches to a network based on the result of the search.
A substrate for light-emitting diodes, comprising a stack of a single crystal layer enabling to form a light-emitting diode element thereon and a ceramic composite layer for light conversion comprising a solidified body having formed therein at least two or more oxide phases selected from single metal oxides and complex metal oxides which are continuously and three-dimensionally entangled with each other, wherein at least one oxide phase out of the oxide phases in said solidified body contains a metal element oxide capable of emitting fluorescence, wherein said single crystal layer and said ceramic composite layer for light conversion are directly bonded or bonded with silica as a bonding layer, and wherein said substrate for light-emitting diodes is suitable for forming a light-emitting diode element thereon.
A herbicidal composition comprising a compound represented by the formula or its salt: wherein T is T 3, Z is Z 2, R 11 is alkoxyalkoxyalkyl, and R 12 is haloalkyl, or T is T 2, Z is Z 1, R 4 is halogen, R 5 is haloalkoxyalkyl, and R 6 is alkylsulfonyl: and a polyoxyalkylene alkyl ether phosphate or its salt. T is T 3, Z is Z 2, R 11 is alkoxyalkoxyalkyl, and R 12 is haloalkyl, or T is T 2, Z is Z 1, R 4 is halogen, R 5 is haloalkoxyalkyl, and R 6 is alkylsulfonyl: and a polyoxyalkylene alkyl ether phosphate or its salt.
A substance for use as a medicament, comprising a phosphate binding, solid mixed metal compound of formula: M II 1-a M III a O b A n- c.zH 2 O where M II is at least one bivalent metal; M III is Fe 3+; A n- is at least one n-valent anion; a = moles of M III / (moles of M II + moles of M III); 2+a = 2b+∑cn and ∑cn < 0.9a, wherein the compound of formula is obtainable by heating a starting material comprising a layered double hydroxide structure at a temperature in a range of 250°C to 500°C for 3 hours or less.
A teleoperated instrument manipulator comprising a carriage controller and an instrument carriage for providing control of a surgical instrument attached to the instrument carriage, wherein the instrument carriage comprises: a control surface configured to attach to the surgical instrument to provide control of the surgical instrument; a circuit board fixed to the instrument carriage; a first Hall effect sensor fixed to the circuit board, the first Hall effect sensor providing a first output signal indicating presence of the surgical instrument on the instrument carriage that is communicatively coupled to the carriage controller; and characterised in that the instrument carriage comprises: a first detection pin coupled to the instrument carriage, the first detection pin having a first distal end with a sensing tip that extends from the control surface; a spring coupled to the first detection pin such that the spring urges the first detection pin upwardly toward the first distal end and allows a downward force applied to the first distal end to move the first detection pin toward a proximal end; and a first magnet fixed to the proximal end of the first detection pin such that the first magnet and the first detection pin move as a single assembly, and movement of the first detection pin toward the proximal end brings the first magnet into proximity with the first Hall effect sensor. a control surface configured to attach to the surgical instrument to provide control of the surgical instrument; a circuit board fixed to the instrument carriage; a first Hall effect sensor fixed to the circuit board, the first Hall effect sensor providing a first output signal indicating presence of the surgical instrument on the instrument carriage that is communicatively coupled to the carriage controller; and characterised in that the instrument carriage comprises: a first detection pin coupled to the instrument carriage, the first detection pin having a first distal end with a sensing tip that extends from the control surface; a spring coupled to the first detection pin such that the spring urges the first detection pin upwardly toward the first distal end and allows a downward force applied to the first distal end to move the first detection pin toward a proximal end; and a first magnet fixed to the proximal end of the first detection pin such that the first magnet and the first detection pin move as a single assembly, and movement of the first detection pin toward the proximal end brings the first magnet into proximity with the first Hall effect sensor.