mhurhangee/ep-ind-claims huggingface dataset:
An indoor location system for locating a mobile device, comprising at least one mobile device configured to be a radio frequency receiver, and a set of RF (Radio Frequency) units configured to be positioned in a plurality of rooms (A, B) in a building such that a plurality of the RF units is located in each room (A, B), wherein each RF unit is configured to emit radio frequency beacon signals, each beacon signal including an identifier of the emitting RF unit and/or of the room (A, B) in which the RF unit is located, and wherein the mobile device is configured to receive at least some of the beacon signals and to determine a received signal strength of each of the received beacon signals; optionally, the mobile device being configured to communicate the received signal strengths to a computer module optionally connected to the RF units, each received signal strength communication including an identifier of the emitting RF unit and/or of the room (A, B) in which the RF unit is located, and including an identifier of the mobile device; and characterised in that the mobile device, or the computer module, respectively, is configured to calculate from the received signal strengths a room-representative received signal strength for each room (A, B) from which the beacon signals have been received, and to determine which room the mobile device is located in, by selecting the room (A, B) having the highest value of calculated room-representative received signal strength, wherein the mobile device or the computer module, respectively, is configured to determine a unit-representative received signal strength for each RF unit, which is an average of two or more received beacon signals, and the mobile device or the computer module, respectively, is configured to calculate each room-representative received signal strength, at least in part from a determination of a maximum unit-representative received signal strength and/or an average of unit-representative received signal strength values, for each room (A, B).
Amounting frame for mounting accumulators in a hub, characterized in that the mounting frame comprises: a base having a predetermined thickness, wherein the base comprises a mounting surface in a thickness direction of the base and a fixing surface opposite to the mounting surface in the thickness direction; two or more accumulator mounting elements disposed on the mounting surface at intervals, wherein each accumulator mounting element comprises a supporting assembly and a holding assembly connected to the supporting assembly, the supporting assembly is connected to the mounting surface and extends in the thickness direction, and the holding assembly is adapted to clamp and fix the accumulator such that all the accumulators in the hub are mounted to the mounting frame; and a bridge assembly connected to the fixing surface, wherein the base is adapted to be supported by the bridge assembly and connected to an inner wall surface of the hub, the bridge assembly comprises a plurality of legs, each of which comprises a first end and a second end that are opposite to each other, the first ends of the legs are all connected to the fixing surface, and the second ends extend away from each other, and an extending direction of the leg intersects the thickness direction with an angle a, wherein 30°≤a<90°. a base having a predetermined thickness, wherein the base comprises a mounting surface in a thickness direction of the base and a fixing surface opposite to the mounting surface in the thickness direction; two or more accumulator mounting elements disposed on the mounting surface at intervals, wherein each accumulator mounting element comprises a supporting assembly and a holding assembly connected to the supporting assembly, the supporting assembly is connected to the mounting surface and extends in the thickness direction, and the holding assembly is adapted to clamp and fix the accumulator such that all the accumulators in the hub are mounted to the mounting frame; and a bridge assembly connected to the fixing surface, wherein the base is adapted to be supported by the bridge assembly and connected to an inner wall surface of the hub, the bridge assembly comprises a plurality of legs, each of which comprises a first end and a second end that are opposite to each other, the first ends of the legs are all connected to the fixing surface, and the second ends extend away from each other, and an extending direction of the leg intersects the thickness direction with an angle a, wherein 30°≤a<90°.
A chip comprising: transmitters (552, 568) configured to transmit differential signals (Tx-R+, Tx-R-, Tx-G+, Tx-G-) on conductors (226, 228, 232, 234), wherein the conductors (226, 228, 232, 234) include first (226, 228) and second (232, 234) pairs of conductors, and the differential signals include first differential signals (Tx-R+, Tx-R-) to be transmitted to the first pair of conductors (226, 228) and second differential signals (Tx-G+, Tx-G-) to be transmitted to the second pair of conductors (232, 234); current mode circuitry configured to modulate a common mode voltage of the differential signals (Tx-R+, Tx-R-, Tx-G+, Tx-G-) to communicate first data; and common mode detection circuitry configured to detect changes in the common mode voltage to receive second data. transmitters (552, 568) configured to transmit differential signals (Tx-R+, Tx-R-, Tx-G+, Tx-G-) on conductors (226, 228, 232, 234), wherein the conductors (226, 228, 232, 234) include first (226, 228) and second (232, 234) pairs of conductors, and the differential signals include first differential signals (Tx-R+, Tx-R-) to be transmitted to the first pair of conductors (226, 228) and second differential signals (Tx-G+, Tx-G-) to be transmitted to the second pair of conductors (232, 234); current mode circuitry configured to modulate a common mode voltage of the differential signals (Tx-R+, Tx-R-, Tx-G+, Tx-G-) to communicate first data; and common mode detection circuitry configured to detect changes in the common mode voltage to receive second data.
Device for positioning a patient with respect to a radiation, this device comprising: - at least one horizontal displacement linear rail (23, 24), - a connecting part capable of carrying out translations with respect to the linear rail and of pivoting about an axis of rotation vertical with respect to that linear rail, and said connecting part is connected in a pivoting manner about an axis vertical to a seat which is connected in a sliding manner to said at least one linear rail (23, 24), - a robotic arm connected to the connecting part, this robotic arm comprising a wrist with concurrent axes of rotation (14, 15, 16) connected to a patient support, characterized in that the robotic arm is connected to the connecting part in a pivoting manner about an axis of rotation which is inclined with respect to the horizontal by a non-zero angle of between 0° and 90°. - at least one horizontal displacement linear rail (23, 24), - a connecting part capable of carrying out translations with respect to the linear rail and of pivoting about an axis of rotation vertical with respect to that linear rail, and said connecting part is connected in a pivoting manner about an axis vertical to a seat which is connected in a sliding manner to said at least one linear rail (23, 24), - a robotic arm connected to the connecting part, this robotic arm comprising a wrist with concurrent axes of rotation (14, 15, 16) connected to a patient support,
A flatwork ironer, comprising: - a heating cylinder, - a plurality of zones in an introduction area for introducing articles to be ironed, said plurality of zones being defined by a plurality of conveying bands, and - a plurality of temperature sensors of said heating cylinder, - indication means for indicating at least one zone of the conveying bands where the articles to be ironed must be placed according to the temperature detected by said plurality of sensors, characterized in that said indication means are placed in said introduction area for introducing the articles to be ironed. - a heating cylinder, - a plurality of zones in an introduction area for introducing articles to be ironed, said plurality of zones being defined by a plurality of conveying bands, and - a plurality of temperature sensors of said heating cylinder, - indication means for indicating at least one zone of the conveying bands where the articles to be ironed must be placed according to the temperature detected by said plurality of sensors,
A gearbox for a wind turbine comprising at least a one stage planetary gear comprising a sun shaft and sun pinion coupled to each other by a first coupling gear, a planet gearwheel coupled to the sun pinion by a running gear wherein the running gear has a first helical cut on the outer side of the sun pinion generating a first axial force in the direction of the sun shaft during operation and the coupling gear has a second helical cut on the inner side of the sun pinion and generating a second axial force in the opposite direction of the sun shaft during operation such that the second axial force compensates the first axial force at least partially.
A turbine housing assembly comprising: a bearing flange; a tongue member (102, 802) coupled to or integrally formed with the bearing flange; a first sheet metal structure joined to the tongue member, the first sheet metal structure providing an inner contour of an inlet passage; and a second sheet metal structure including an inlet portion providing an outer contour of the inlet passage and a volute portion providing an outer contour of a volute in fluid communication with the inlet passage, wherein: the volute portion is joined to the tongue member to define the volute; and the inlet portion of the second sheet metal structure is joined to the first sheet metal structure to define the inlet passage, characterized in that the tongue member is coupled to the bearing flange so as to establish a hermetic seal between the bearing flange and the tongue member. a bearing flange; a tongue member (102, 802) coupled to or integrally formed with the bearing flange; a first sheet metal structure joined to the tongue member, the first sheet metal structure providing an inner contour of an inlet passage; and a second sheet metal structure including an inlet portion providing an outer contour of the inlet passage and a volute portion providing an outer contour of a volute in fluid communication with the inlet passage, wherein: the volute portion is joined to the tongue member to define the volute; and the inlet portion of the second sheet metal structure is joined to the first sheet metal structure to define the inlet passage, characterized in that the tongue member is coupled to the bearing flange so as to establish a hermetic seal between the bearing flange and the tongue member. the volute portion is joined to the tongue member to define the volute; and the inlet portion of the second sheet metal structure is joined to the first sheet metal structure to define the inlet passage, characterized in that the tongue member is coupled to the bearing flange so as to establish a hermetic seal between the bearing flange and the tongue member.
A two-phase method for reducing hydrogen sulfide and mercaptan concentration in an oil and/or natural gas production environment and also enhancing oil and/or gas recovery, wherein the method comprises the following two phases: Phase one, which comprises applying a first composition to an oil and/or gas containing formation; shutting in the formation until the hydrogen sulfide levels in the formation reduce to a concentration of 0 to 50 ppm; pumping out the composition; and opening the formation to resume oil and/or gas recovery; and Phase two, which comprises recovering oil and/or gas from the formation until an increase of hydrogen sulfide concentration in the formation to 50 ppm or higher is observed; applying a second composition to the formation; shutting in the formation; and opening the formation to resume oil and/or gas recovery, wherein the first composition comprises an antimicrobial biosurfactant blend comprising a sophorolipid, a rhamnolipid and a surfactin, EDTA, and one or more hydrogen sulfide scavengers selected from glyoxal, potassium nitrate and sodium nitrate, and wherein the second composition comprises Bacillus subtilis B1. Phase one, which comprises applying a first composition to an oil and/or gas containing formation; shutting in the formation until the hydrogen sulfide levels in the formation reduce to a concentration of 0 to 50 ppm; pumping out the composition; and opening the formation to resume oil and/or gas recovery; and Phase two, which comprises recovering oil and/or gas from the formation until an increase of hydrogen sulfide concentration in the formation to 50 ppm or higher is observed; applying a second composition to the formation; shutting in the formation; and opening the formation to resume oil and/or gas recovery, wherein the first composition comprises an antimicrobial biosurfactant blend comprising a sophorolipid, a rhamnolipid and a surfactin, EDTA, and one or more hydrogen sulfide scavengers selected from glyoxal, potassium nitrate and sodium nitrate, and wherein the second composition comprises Bacillus subtilis B1.
A bio-sourced oligomer obtained by functionalisation of a chitosan oligomer so that it comprises monomer units of formula A or one of the salts thereof: wherein L designates a divalent group and G designates a fatty alkyl chain comprising 5 to 30 carbon atoms, preferably 10 to 18 carbon atoms, optionally substituted, saturated or unsaturated, the L-G group being a group having one of the following formulae:
Process for producing flexible polyurethane foams by reaction of an isocyanate component with a component reactive toward isocyanates, wherein the component reactive toward isocyanates comprises the following constituents: A) ≥ 10 to ≤ 90% by weight of a polyether carbonate polyol having a hydroxyl number conforming to DIN 53240 of ≥ 20 mg KOH/g to ≤ 250 mg KOH/g, obtainable by copolymerization of ≥ 2% by weight to ≤ 30% by weight of carbon dioxide and ≥ 70% by weight to ≤ 98% by weight of one or more alkylene oxides, in the presence of one or more H-functional starter molecules having an average functionality of ≥ 1 to ≤ 6, B) ≤ 90 to ≥ 10% by weight of a polyether polyol having a hydroxyl number conforming to DIN 53240 of ≥ 20 mg KOH/g to ≤ 250 mg KOH/g, a proportion of primary OH groups of ≥ 20 to ≤ 80 mol %, based on the total number of primary and secondary OH groups, and a proportion of ethylene oxide of 5% to 30% by weight, based on the total amount of propylene oxide and ethylene oxide, the polyether polyol being free of carbonate units and by catalytic addition of ethylene oxide and propylene oxide and optionally one or more further alkylene oxides onto one or more H-functional starter compounds having a functionality of ≥ 2 to ≤ 6, C) ≥ 0 to ≤ 45% by weight of one or more polymer polyols, PHD polyols and/or PIPA polyols, wherein the total amount of A), B) and C) adds up to 100% by weight. A) ≥ 10 to ≤ 90% by weight of a polyether carbonate polyol having a hydroxyl number conforming to DIN 53240 of ≥ 20 mg KOH/g to ≤ 250 mg KOH/g, obtainable by copolymerization of ≥ 2% by weight to ≤ 30% by weight of carbon dioxide and ≥ 70% by weight to ≤ 98% by weight of one or more alkylene oxides, in the presence of one or more H-functional starter molecules having an average functionality of ≥ 1 to ≤ 6, B) ≤ 90 to ≥ 10% by weight of a polyether polyol having a hydroxyl number conforming to DIN 53240 of ≥ 20 mg KOH/g to ≤ 250 mg KOH/g, a proportion of primary OH groups of ≥ 20 to ≤ 80 mol %, based on the total number of primary and secondary OH groups, and a proportion of ethylene oxide of 5% to 30% by weight, based on the total amount of propylene oxide and ethylene oxide, the polyether polyol being free of carbonate units and by catalytic addition of ethylene oxide and propylene oxide and optionally one or more further alkylene oxides onto one or more H-functional starter compounds having a functionality of ≥ 2 to ≤ 6, C) ≥ 0 to ≤ 45% by weight of one or more polymer polyols, PHD polyols and/or PIPA polyols, wherein the total amount of A), B) and C) adds up to 100% by weight.
An information processing method for providing a social networking service via a network, the information processing method comprising: providing a subscribing means for adding user subscriptions to an SNS; providing a confidentiality acceptance/rejection selecting means for accepting or rejecting a confidentiality obligation imposed on information disclosed on the SNS when the subscribing means is used to add a subscription, performing information processing enabling the display of messages posted on the SNS, in whole or in part, only to the administrator of the SNS, to the poster of the message, and to registered users who have consented to the fact that confidentiality has been imposed via the confidentiality acceptance/rejection selecting means, providing a group chat means for exchanging messages between members constituting a group, displaying, on a SNS bulletin board, messages exchanged via the group chat means, in whole or in part, only to registered users who have consented to the fact that confidentiality has been imposed on information using the confidentiality acceptance/rejection selecting means, and displaying comments made in response to the messages displayed on the SNS bulletin board as messages via the group chat means. providing a subscribing means for adding user subscriptions to an SNS; providing a confidentiality acceptance/rejection selecting means for accepting or rejecting a confidentiality obligation imposed on information disclosed on the SNS when the subscribing means is used to add a subscription, performing information processing enabling the display of messages posted on the SNS, in whole or in part, only to the administrator of the SNS, to the poster of the message, and to registered users who have consented to the fact that confidentiality has been imposed via the confidentiality acceptance/rejection selecting means, providing a group chat means for exchanging messages between members constituting a group, displaying, on a SNS bulletin board, messages exchanged via the group chat means, in whole or in part, only to registered users who have consented to the fact that confidentiality has been imposed on information using the confidentiality acceptance/rejection selecting means, and displaying comments made in response to the messages displayed on the SNS bulletin board as messages via the group chat means.
Assembly comprising a support for at least one rear side loudspeaker of a motor vehicle and a rear side liner of said vehicle, said support being mounted fixedly against the inner face of the rear side liner, said support comprising reception means for at least one said loudspeaker (5, 6) as well as means of attachment to said rear side liner; characterized in that said fastening means comprise at least one hook formed in the rear part of said support and adapted to cooperate by stacking with a respective orifice formed in said rear quarter lining, the stacking being done in a longitudinal direction of the vehicle when said assembly is positioned in said vehicle, and at least one clipping member formed in the front part of said support and adapted to cooperate by snapping with a hole formed in said rear quarter lining, the snapping being done along transverse direction of the vehicle when said assembly is positioned in said vehicle
A system, comprising: a device that is configured to generate and amplify nanolocalized optical fields via a Surface Plasmon Amplification by Stimulated Emission of Radiation, SPASER, action; a first transistor of a CMOS transistor pair coupled to the device and configured to supply drive current to the device to initiate a pumping action associated with the SPASER action, wherein responsive to the drive current, the device is configured to generate surface plasmons, SPs, that are coupled in a near-field to propagating surface plasmon polaritons, SPPs, of an interconnect wire, and wherein an output of the first transistor is coupled to the device such that the drive current supplied by the first transistor provides a direct electrical pumping for the SPASER action, and the device is configured to allow direct pumping by the first transistor to initiate the SPASER action; a phototransistor coupled to the device via the interconnect wire; and a second transistor of the CMOS transistor pair coupled to an output of the phototransistor and configured to receive an output current from the phototransistor, wherein responsive to detection of the SPPs the phototransistor is configured to generate the output current for charging a gate of the second transistor. a device that is configured to generate and amplify nanolocalized optical fields via a Surface Plasmon Amplification by Stimulated Emission of Radiation, SPASER, action; a first transistor of a CMOS transistor pair coupled to the device and configured to supply drive current to the device to initiate a pumping action associated with the SPASER action, wherein responsive to the drive current, the device is configured to generate surface plasmons, SPs, that are coupled in a near-field to propagating surface plasmon polaritons, SPPs, of an interconnect wire, and wherein an output of the first transistor is coupled to the device such that the drive current supplied by the first transistor provides a direct electrical pumping for the SPASER action, and the device is configured to allow direct pumping by the first transistor to initiate the SPASER action; a phototransistor coupled to the device via the interconnect wire; and a second transistor of the CMOS transistor pair coupled to an output of the phototransistor and configured to receive an output current from the phototransistor, wherein responsive to detection of the SPPs the phototransistor is configured to generate the output current for charging a gate of the second transistor.
A method of fabricating a template having high-contrast alignment marks comprising the steps of: (a) providing a template having a surface having an alignment area and a fine feature area, each such area having a plurality of protrusions and recessions; (b) forming a first layer on the fine feature area; (c) depositing high contrast material on the alignment area and the formed first layer; (d) forming a second layer over the deposited high contrast material (e) removing a portion of the second layer such that a remaining portion of the second layer remains in the recessions of the alignment area; (f) removing a portion of the high contrast material such that a remaining portion of the high contrast material remains in the recessions of the alignment area; and (g) removing the first layer from the fine feature area together with the remaining portion of the second layer from the recessions of the alignment area. (a) providing a template having a surface having an alignment area and a fine feature area, each such area having a plurality of protrusions and recessions; (b) forming a first layer on the fine feature area; (c) depositing high contrast material on the alignment area and the formed first layer; (d) forming a second layer over the deposited high contrast material (e) removing a portion of the second layer such that a remaining portion of the second layer remains in the recessions of the alignment area; (f) removing a portion of the high contrast material such that a remaining portion of the high contrast material remains in the recessions of the alignment area; and (g) removing the first layer from the fine feature area together with the remaining portion of the second layer from the recessions of the alignment area.