mhurhangee/ep-ind-claims huggingface dataset:
A segmented linear ion trap (100, 200, 414, 501) comprising: at least two discrete trapping regions for processing ions; a RF electrical potential generator for producing two RF waveforms (102, 416), and arranged to apply each to a pair of pole electrodes of the linear ion trap forming a RF trapping field component to confine ions radially; a multi-output DC electrical potential generator (103, 300) for producing multiple DC field components superimposed to the RF field component and distributed across the length of the linear ion trap to control ions axially; and a control unit (104, 301, 302) configured to switch the DC electrical potentials and corresponding DC field components collectively forming a first trapping region of the at least two discrete trapping regions that is populated with ions axially confined therein to alter ion potential energy from a first ion potential energy level (121, 524) to a second ion potential energy level (122, 525) by simultaneously changing the DC electrical potentials of the first trapping region between a first DC electrical potential level (107, 119, 126, 214, 215, 219, 220) and a second DC electrical potential level (107, 122, 124, 231, 222, 224), and to enable a first ion processing step in at least one of the first and second ion potential energy levels (121, 122, 524, 525). at least two discrete trapping regions for processing ions; a RF electrical potential generator for producing two RF waveforms (102, 416), and arranged to apply each to a pair of pole electrodes of the linear ion trap forming a RF trapping field component to confine ions radially; a multi-output DC electrical potential generator (103, 300) for producing multiple DC field components superimposed to the RF field component and distributed across the length of the linear ion trap to control ions axially; and a control unit (104, 301, 302) configured to switch the DC electrical potentials and corresponding DC field components collectively forming a first trapping region of the at least two discrete trapping regions that is populated with ions axially confined therein to alter ion potential energy from a first ion potential energy level (121, 524) to a second ion potential energy level (122, 525) by simultaneously changing the DC electrical potentials of the first trapping region between a first DC electrical potential level (107, 119, 126, 214, 215, 219, 220) and a second DC electrical potential level (107, 122, 124, 231, 222, 224), and to enable a first ion processing step in at least one of the first and second ion potential energy levels (121, 122, 524, 525).
A method for producing composite carbon fibers, which comprises imparting a cavitation effect and high-pressure shear to a slurry containing 1% by mass or more and 6% by mass or less of two or more carbon fibers each having a different average fiber diameter under a pressure of 100 MPa or more and less than 245 MPa thereby to form a composite, wherein the two or more carbon fibers each having a different average fiber diameter comprise carbon nanotubes having an average fiber diameter of 5 nm or more and 30 nm or less, and carbon nanofibers having an average fiber diameter of 75 nm or more and 300 nm or less provided that both average fiber diameters differ by 50 nm or more.
A DC-DC converter for driving one or more LED, which converter comprises an integrated circuit, said integrated circuit having a switch mode power circuit for supplying a substantially constant average current to said one or more LED, characterised by a temperature sensing circuit for providing an output indicating an internal temperature of said integrated circuit, the arrangement being such that, in use, said integrated circuit consumes power, some of which power is dissipated in said integrated circuit as heat causing a rise in said internal temperature, and wherein a change in said output from said temperature sensing circuit is used by said integrated circuit to adjust said consumed power whereby said internal temperature may be controlled, wherein said converter comprises a circuit for controlling said switch-mode power circuit so as to adjust said consumed power whilst leaving said average current substantially unaffected, whereby the visual appearance of said one or more LED appears unaffected.
Cosmetic composition for healing and treating the skin, the formula of which consists exclusively of compounds functional for the skin and/or compounds functional both for the skin and also for the structure of the formula, and which does not comprise compounds exclusively functional for the structure of the formula, wherein said compounds exclusively functional for the structure of the formula are silicons, petroleum jellies, including paraffin, alcohols, perfumes, stabilizers, preservatives, emulsifiers, further wherein said cosmetic composition is an emulsion, wherein said emulsion consists of the following compounds: - hamamelis virginiana water, simmondsia chinensis oil, cetearyl olivate, sorbitan olivate, persea gratissima oil, oleoyl tyrosine, smithsonite extract, luffa cylindrica seed oil, oleic acid, menthol, anthemis nobilis oil, glyceryl caprylate, xanthan gum, glyceryl undecylenate. - hamamelis virginiana water, simmondsia chinensis oil, cetearyl olivate, sorbitan olivate, persea gratissima oil, oleoyl tyrosine, smithsonite extract, luffa cylindrica seed oil, oleic acid, menthol, anthemis nobilis oil, glyceryl caprylate, xanthan gum, glyceryl undecylenate.
Aircraft structure comprising an attachment intended to link an engine to said structure, said attachment comprising a metal spring with discs and being designed to satisfy the following conditions: - the stiffness of the attachment for load values lying in a determined range ([CA, CB]) is less than the stiffness of the attachment for load values below, respectively above, the determined range, the stiffness of the attachment being a function of the stiffness of the spring for the load values lying in the determined range ([CA, CB]) and for the load values below and above the determined range, - considering a first load value corresponding to a first operational mode of operation, the load values resulting from the dynamic variations in said first mode of operation around said first value are located within the determined range, the attachment comprising means limiting the displacement of the spring to a given maximum value upon the application of a load of a value above the determined range ([CA, CB]), the means limiting the displacement comprise at least one abutment (15, 5) limiting the displacement of the spring upon the application of a load of a value above the determined range ([CA, CB]), the attachment being designed to operate according to three modes: - a reduced stiffness mode associated with the first operational mode of operation, - a first high stiffness mode, called mode, associated with an operation with loads, on the attachment, less than the loads of the operational mode of operation, - a second high stiffness mode, called mode, associated with an operation with loads, on the attachment, greater than the loads of the operational mode of operation, characterized in that the attachment comprises a device suitable for exerting a prestress on the spring, the lower value of the determined range ([CA, CB]) being set at least by a prestress exerted by said device, the device being a base to be screw-fastened arranged in an internal cavity of the structure of the aircraft, under the spring and being engaged in a screw thread of the surface of the internal cavity of the structure. - the stiffness of the attachment for load values lying in a determined range ([CA, CB]) is less than the stiffness of the attachment for load values below, respectively above, the determined range, the stiffness of the attachment being a function of the stiffness of the spring for the load values lying in the determined range ([CA, CB]) and for the load values below and above the determined range, - considering a first load value corresponding to a first operational mode of operation, the load values resulting from the dynamic variations in said first mode of operation around said first value are located within the determined range, - a reduced stiffness mode associated with the first operational mode of operation, - a first high stiffness mode, called mode, associated with an operation with loads, on the attachment, less than the loads of the operational mode of operation, - a second high stiffness mode, called mode, associated with an operation with loads, on the attachment, greater than the loads of the operational mode of operation,
A liquefier assembly for use in an additive manufacturing system to print three-dimensional parts, the liquefier assembly comprising: a liquefier having an inlet end and an outlet end offset along the longitudinal axis, wherein the liquefier is transversely compressible; a nozzle at the outlet end of the liquefier; and an actuator mechanism operably positioned proximate the liquefier and configured to controllably apply pressure to transversely compress the liquefier, characterized by one or more sensors configured to measure compressions and expansions of the liquefier. a liquefier having an inlet end and an outlet end offset along the longitudinal axis, wherein the liquefier is transversely compressible; a nozzle at the outlet end of the liquefier; and an actuator mechanism operably positioned proximate the liquefier and configured to controllably apply pressure to transversely compress the liquefier, characterized by one or more sensors configured to measure compressions and expansions of the liquefier.
A control valve comprising: a valve housing having an inlet and an outlet connected by a fluid passageway; a valve seat disposed within the fluid passageway; a movable control member disposed within the fluid passageway, the movable control member cooperating with the valve seat to control a flow of fluid through the valve housing; a carbide insert disposed within the valve housing and within the fluid passageway; and a metal retainer adjacent the carbide insert, characterized in that the metal retainer is fused to the valve housing by laser sintering. a valve housing having an inlet and an outlet connected by a fluid passageway; a valve seat disposed within the fluid passageway; a movable control member disposed within the fluid passageway, the movable control member cooperating with the valve seat to control a flow of fluid through the valve housing; a carbide insert disposed within the valve housing and within the fluid passageway; and a metal retainer adjacent the carbide insert, characterized in that the metal retainer is fused to the valve housing by laser sintering.
A method, the method comprising: selecting a transmission resource for a sidelink transmission; generating an indication signaling for indicating the sidelink transmission on the selected transmission resource; and transmitting the indication signaling on a detection resource, which is a time-frequency resource prior to the selected transmission resource; wherein the indication signaling comprises a reference signaling sequence. selecting a transmission resource for a sidelink transmission; generating an indication signaling for indicating the sidelink transmission on the selected transmission resource; and transmitting the indication signaling on a detection resource, which is a time-frequency resource prior to the selected transmission resource; wherein the indication signaling comprises a reference signaling sequence.
An immune enhancing composition, comprising an immunostimulant, as an effective ingredient, generated by degrading a symbiotic bacterial group consisting of Bacillus sp.(FERM BP-11209), Lysinibacillus fusiformis (FERM BP-11206), Bacillus sonorensis, Lysinibacillus sp. (FERM BP-11207), and Comamonas sp. (FERM BP-11208), wherein the immunostimulant is obtained by incubating the symbiotic bacterial group, under a culture condition suitable for growth, placing a resultant culture medium under a starvation condition, and aerating, thereby causing the symbiotic bacterial group to internally sporulate, and by removing from the culture medium impurities containing the internally sporulated symbiotic bacterial group.
A molded pulp container comprising: a container body made of molded pulp; and a synthetic resin layer formed by coating an inner surface and an outer surface of the container body with a synthetic resin comprising a synthetic resin emulsion or a water-soluble resin in which an aqueous solvent can be used; wherein at least one of the inner surface and the outer surface of the container body has at least one synthetic resin layer-free area which is free of the synthetic resin layer; wherein the container body includes at least a bottom; and a side wall extending upwardly from the bottom; wherein the side wall includes, at an upper end of the side wall, a substantially flat flange, and wherein the synthetic resin layer-free area is disposed on a portion of the flange. a container body made of molded pulp; and a synthetic resin layer formed by coating an inner surface and an outer surface of the container body with a synthetic resin comprising a synthetic resin emulsion or a water-soluble resin in which an aqueous solvent can be used; wherein at least one of the inner surface and the outer surface of the container body has at least one synthetic resin layer-free area which is free of the synthetic resin layer; wherein the container body includes at least a bottom; and a side wall extending upwardly from the bottom; wherein the side wall includes, at an upper end of the side wall, a substantially flat flange, and wherein the synthetic resin layer-free area is disposed on a portion of the flange.
An administering method for administering life cycles of communication profiles (P1-Pn), said profiles (P1-Pn) being managed by a subscriber identity module embedded in a telecommunications terminal (110, 210), said method being performed by said module, each profile (P1-Pn) being configured to enable the terminal (110, 210) to communicate with a mobile telephone network in compliance with said communication profile (P1-Pn) when said communication profile (P1-Pn) is active, said module being suitable for using at least one process of administering, said process being suitable for administering the life cycles of each of said profiles said process using a set of at least one command and/or at least one rule, the method being characterized in that it comprises the steps of: • receiving (B610, B710) a message (M610, M710) issued by the terminal (110, 210) and representative of the capabilities of said terminal (110, 210); • selecting or not selecting (B615, B715) the set used by said process as a function of said capabilities of said terminal (110, 210); and • if said set is selected, administering (AB620, AB720) at least one life cycle of at least one of said profiles by using said set of at least one command and/or of at least one rule. • receiving (B610, B710) a message (M610, M710) issued by the terminal (110, 210) and representative of the capabilities of said terminal (110, 210); • selecting or not selecting (B615, B715) the set used by said process as a function of said capabilities of said terminal (110, 210); and • if said set is selected, administering (AB620, AB720) at least one life cycle of at least one of said profiles by using said set of at least one command and/or of at least one rule.
A compound having structural Formula I: and the pharmaceutically acceptable salts thereof wherein: Z 1 is wherein the dashed bonds represent the optional presence of -C 1-2 alkanediyl- which, when present, forms a 5 to 6 membered carbocyclic ring which is fused to the aryl ring; Z 2 is R 1 is -H, -CH 3, -CF 3, -CHF 2, -CH 2 F or -CH 2 OH; R2 is -H, oxo (=O) or -C 1-6 alkyl; R4 is -H, -OH, oxo or -C 1-6 alkyl; provided that when R 4 is -OH or oxo, then R 2 is not oxo; R 3 and R 5 are each independently -H or -C 1-6 alkyl; provided that R 3 is absent when R 2 is oxo, and R 5 is absent when R 4 is oxo; R 1a is -H, halo or -C 1-3 alkyl; R 1b is -H, halo, -C 1-3 alkyl, -O-C 1-3 alkyl or -COOC 1-3 alkyl; one of R 2a and R 2b is -CN and the other is -H or -C 1-3 alkyl; one of R 2c and R 2d is -SO 2 -C 1-3 alkyl and the other is -H or -C 1-3 alkyl; X 1, X 2, X 3 and X 4 are each independently CH or N, provided that only one of X 1, X 2, X 3 or X4 is N; X 5, X 6 and X 7 are each independently CH or N, provided that only one of X 5, X 6 or X 7 is N; and R a and R b are each independently -H, halo, -C 1-3 alkyl, -O-C 1-3 alkyl or -COOC 1-3 alkyl. Z 1 is wherein the dashed bonds represent the optional presence of -C 1-2 alkanediyl- which, when present, forms a 5 to 6 membered carbocyclic ring which is fused to the aryl ring; Z 2 is R 1 is -H, -CH 3, -CF 3, -CHF 2, -CH 2 F or -CH 2 OH; R2 is -H, oxo (=O) or -C 1-6 alkyl; R4 is -H, -OH, oxo or -C 1-6 alkyl; provided that when R 4 is -OH or oxo, then R 2 is not oxo; R 3 and R 5 are each independently -H or -C 1-6 alkyl; provided that R 3 is absent when R 2 is oxo, and R 5 is absent when R 4 is oxo; R 1a is -H, halo or -C 1-3 alkyl; R 1b is -H, halo, -C 1-3 alkyl, -O-C 1-3 alkyl or -COOC 1-3 alkyl; one of R 2a and R 2b is -CN and the other is -H or -C 1-3 alkyl; one of R 2c and R 2d is -SO 2 -C 1-3 alkyl and the other is -H or -C 1-3 alkyl; X 1, X 2, X 3 and X 4 are each independently CH or N, provided that only one of X 1, X 2, X 3 or X4 is N; X 5, X 6 and X 7 are each independently CH or N, provided that only one of X 5, X 6 or X 7 is N; and R a and R b are each independently -H, halo, -C 1-3 alkyl, -O-C 1-3 alkyl or -COOC 1-3 alkyl.
A mobile communication method, comprising the step of: when a second cell is established in a manner as to at least partially overlap a coverage area of a first cell under control of a radio base station, notifying a mobile station in communication in the first cell of a Cell-Radio Network Temporary Identity, C-RNTI, in the second cell by the radio base station by sending a connection reconfiguration signal; and setting, by the mobile station, the Cell-Radio Network Temporary Identity, C-RNTI, in the second cell in addition to a Cell-Radio Network Temporary Identity, C-RNTI, in the first cell. when a second cell is established in a manner as to at least partially overlap a coverage area of a first cell under control of a radio base station, notifying a mobile station in communication in the first cell of a Cell-Radio Network Temporary Identity, C-RNTI, in the second cell by the radio base station by sending a connection reconfiguration signal; and setting, by the mobile station, the Cell-Radio Network Temporary Identity, C-RNTI, in the second cell in addition to a Cell-Radio Network Temporary Identity, C-RNTI, in the first cell.
A hands-free dental appliance, comprising: a mouthpiece assembly for receiving teeth having a contact system for cleaning the surfaces of the teeth of a user; a power assembly which, when activated, operates the mouthpiece assembly so as to produce movement of the contact system to clean the surfaces of the teeth; and a system which is part of the appliance for grounding the appliance to the user's mouth or head structure, allowing the mouthpiece assembly to operate to produce cleaning of the teeth without the user having to hold or manipulate the appliance; wherein the contact system comprises teeth-cleaning bristles mounted in the mouthpiece assembly; and wherein the mouthpiece assembly includes upper and lower teeth receiving tray members (12, 14) connected to the power assembly, which includes a motor for moving the tray members (12, 14) in reciprocating fashion to clean the teeth; characterized in that the grounding system includes a plurality of elastic coupling members (46, 52) flexibly connected to, or themselves being flexible and connected to, the mouthpiece assembly, the elastic coupling members (46, 52) being positioned to contact the user's incisors and/or the molars, wherein the elastic coupling members (46, 52) provide an elastic coupling function which reacts static and dynamic loads to the jaw and skull of the user. a mouthpiece assembly for receiving teeth having a contact system for cleaning the surfaces of the teeth of a user; a power assembly which, when activated, operates the mouthpiece assembly so as to produce movement of the contact system to clean the surfaces of the teeth; and a system which is part of the appliance for grounding the appliance to the user's mouth or head structure, allowing the mouthpiece assembly to operate to produce cleaning of the teeth without the user having to hold or manipulate the appliance; wherein the contact system comprises teeth-cleaning bristles mounted in the mouthpiece assembly; and wherein the mouthpiece assembly includes upper and lower teeth receiving tray members (12, 14) connected to the power assembly, which includes a motor for moving the tray members (12, 14) in reciprocating fashion to clean the teeth; characterized in that the grounding system includes a plurality of elastic coupling members (46, 52) flexibly connected to, or themselves being flexible and connected to, the mouthpiece assembly, the elastic coupling members (46, 52) being positioned to contact the user's incisors and/or the molars, wherein the elastic coupling members (46, 52) provide an elastic coupling function which reacts static and dynamic loads to the jaw and skull of the user.
A power converter arrangement for converting a direct voltage generated by a photovoltaic generator into an alternating voltage to be supplied to a grid comprising the photovoltaic generator, a voltage intermediate circuit, a main power converter with an MPP control setting an MPP voltage, wherein at least one voltage limiting additional circuit is provided being effective only during a startup-phase of the generator, wherein a voltage divider is arranged in parallel to the generator and the main power converter's input voltage is limited during the startup-phase so as to not exceed the maximum admissible MPP voltage at the main power converter, characterized in that the voltage divider produces a capacitive voltage division between the additional circuit's voltage and the input voltage of the main power converter only during the startup-phase, wherein the voltage divider comprises a first capacitor and an intermediate circuit capacitor (Cz) connected in series, wherein a bypass switch is connected in series to the main power converter and a diode is connected in forward direction between the bypass switch and the capacitor preventing a current flow towards the bypass switch and carrying a current only at open bypass switch, and the additional circuit comprises an auxiliary power converter or a resistive chopper (Cho) or a DC/DC converter (DCDC1) with galvanic isolation, an output of which is coupled back to the intermediate circuit capacitor (Cz).