mhurhangee/ep-ind-claims huggingface dataset:
An information processing device comprising: first transmitting means to connect to both a first other information processing device and second other information processing device and transmit content thereto via said connection; first receiving means to receive a master upgrade request that requests an upgrade to a master that manages communication via a communication network from said first other information processing device; second transmitting means to transmit a master change request comprising the identification information of said first other information processing device to said second information processing device upon receiving said master upgrade request; second receiving means to receive a master change allowing response from second other information processing device; disconnecting means to disconnect the connection with said second other information processing device after transmitting the identification information of said first other information processing device; third transmitting means to transmit a master upgrade allowance response, allowing said upgrade to a master in accordance with said master upgrade request, to said first other information processing device via said connection; and third receiving means to receive content via said connection from said first other information processing device, wherein said master upgrade request, said master change request, said master change allowing response, and said master upgrade allowance response each include session identification information for confirming a session associated with said master upgrade request, said master change allowing response, and said master upgrade allowance response. first transmitting means to connect to both a first other information processing device and second other information processing device and transmit content thereto via said connection; first receiving means to receive a master upgrade request that requests an upgrade to a master that manages communication via a communication network from said first other information processing device; second transmitting means to transmit a master change request comprising the identification information of said first other information processing device to said second information processing device upon receiving said master upgrade request; second receiving means to receive a master change allowing response from second other information processing device; disconnecting means to disconnect the connection with said second other information processing device after transmitting the identification information of said first other information processing device; third transmitting means to transmit a master upgrade allowance response, allowing said upgrade to a master in accordance with said master upgrade request, to said first other information processing device via said connection; and third receiving means to receive content via said connection from said first other information processing device, wherein
Sand spreading system for a rail vehicle with rail wheels which can be driven and/or braked, comprising a sandbox for storing spreading sand, a sand stairway which is fastened to the sandbox and which serves for the compressed-air-controlled metering of the output of spreading sand, and a sand outlet tube which is connected to the sand stairway via a sand hose and which opens out in front of a rail wheel, wherein a heating device for generating a hot air stream which flows through spreading sand is integrated into the sand stairway, characterized in that - the sand stairway has a stairway housing with a fastening flange for the fastening thereof to the sandbox, - in the fastening flange there extends a channel system for accommodating the heating device and for conducting an air stream which passes through the heating device, and - at at least one outlet of the channel system there is arranged a sintered filter through which the hot air stream flows into the sandbox. - the sand stairway has a stairway housing with a fastening flange for the fastening thereof to the sandbox, - in the fastening flange there extends a channel system for accommodating the heating device and for conducting an air stream which passes through the heating device, and - at at least one outlet of the channel system there is arranged a sintered filter through which the hot air stream flows into the sandbox.
A device for forming a swimming pool from panels that are assembled together, each panel being made up of an assembly of superposed boards longitudinally provided with parallel cavities, at least one of which is suitable for internally receiving a stiffener insert, the vertical edge faces of the resulting made-up panels co-operating with assembly means so as to be coupled together in linear or angular alignment relative to one another, characterized in that said assembly means are constituted by the projecting ends of the stiffener inserts of two adjacent panels, which ends being assembled together by separate members, and cover plates 6) being fastened in a sealed manner respectively at the connection of inner and outer faces of the panels so as to close off the space left empty between said panels resulting from the protrusion of the stiffener inserts.
A method comprising the steps of causing transmission of one or more shaped Amplified Spontaneous Emission, ASE, signals that are shaped to include one or more peaks, from an ASE source, on an optical fiber (58, 60); obtaining received spectrum of the one or more shaped ASE signals from an optical receiver connected to the optical fiber (58, 60); and characterizing the optical fiber (58, 60) based on nonlinear broadening effects in the received spectrum of the one or more shaped ASE signals that cause a change in a spectral shape of the one or more peaks, wherein the optical fiber (58, 60) is characterized based on one or more of a shape of the received spectrum due to the nonlinear broadening effects and a separate differential delay measurement, to determine the group velocity dispersion parameter, β 2, and fiber nonlinear coefficient, γ, a shape of the received spectrum due to the nonlinear broadening effects and a separate Stimulated Raman Scattering, SRS, measurement, to determine the group velocity dispersion parameter, GVD, β 2, and fiber nonlinear coefficient, γ and a Least Mean Square, LMS fit, to determine the group velocity dispersion parameter, β 2, and fiber nonlinear coefficient, γ. causing transmission of one or more shaped Amplified Spontaneous Emission, ASE, signals that are shaped to include one or more peaks, from an ASE source, on an optical fiber (58, 60); obtaining received spectrum of the one or more shaped ASE signals from an optical receiver connected to the optical fiber (58, 60); and characterizing the optical fiber (58, 60) based on nonlinear broadening effects in the received spectrum of the one or more shaped ASE signals that cause a change in a spectral shape of the one or more peaks, wherein the optical fiber (58, 60) is characterized based on one or more of a shape of the received spectrum due to the nonlinear broadening effects and a separate differential delay measurement, to determine the group velocity dispersion parameter, β 2, and fiber nonlinear coefficient, γ, a shape of the received spectrum due to the nonlinear broadening effects and a separate Stimulated Raman Scattering, SRS, measurement, to determine the group velocity dispersion parameter, GVD, β 2, and fiber nonlinear coefficient, γ and a Least Mean Square, LMS fit, to determine the group velocity dispersion parameter, β 2, and fiber nonlinear coefficient, γ.
A method of constructing a self-wrapping sleeve (10; 110) used to route and protect elongate members, comprising: forming an elongate non-woven wall (12; 112 having a thickness extending between opposite inner and outer sides (19, 21; 119, 121) and having opposite edges (18, 20; 118, 120) extending between opposite ends (23, 25) of the wall; heat-setting the non-woven wall into a self-wrapped configuration to define a tubular cavity (16; 116); forming a plurality of first portions (22; 122) isolated from one another by at least one second portion (24, 124), with the plurality of first portions having a first thickness extending between the inner and outer sides and a first density and with the at least one second portion having a second thickness extending between the inner and outer sides and a second density, wherein the first thickness is greater than the second thickness and the first density is less than the second density. forming an elongate non-woven wall (12; 112 having a thickness extending between opposite inner and outer sides (19, 21; 119, 121) and having opposite edges (18, 20; 118, 120) extending between opposite ends (23, 25) of the wall; heat-setting the non-woven wall into a self-wrapped configuration to define a tubular cavity (16; 116); forming a plurality of first portions (22; 122) isolated from one another by at least one second portion (24, 124), with the plurality of first portions having a first thickness extending between the inner and outer sides and a first density and with the at least one second portion having a second thickness extending between the inner and outer sides and a second density, wherein the first thickness is greater than the second thickness and the first density is less than the second density.
A memory cell, comprising: a first electrode (204; 304) having sidewalls adjacent to a first dielectric material (202; 302) that are angled less than 90 degrees in relation to a bottom surface of the first electrode (204; 304); a second electrode (208; 308), including an electrode contact portion (210; 310) of the second electrode (208; 308), having sidewalls adjacent to a second dielectric material (212; 312) that are angled less than 90 degrees in relation to the bottom surface of the first electrode (204; 304), wherein the second electrode (208; 308) is over the first electrode (204; 304); wherein the electrode contact portion (210; 310) has sidewalls angled less than 90 degrees in relation to the bottom surface of the first electrode (204; 304), and wherein an upper surface of the second electrode (208; 308) is coplanar with an upper surface of the second dielectric material (212; 312); wherein the angled sidewalls of the first electrode converge toward the second electrode and the angled sidewalls of the second electrode converge toward the first electrode; and a storage element (206; 306) between the first electrode (204; 304) and the electrode contact portion (210; 310) of the second electrode (208; 308), wherein the second dielectric material (212; 312) is formed on a top surface of the storage element (206; 306). a first electrode (204; 304) having sidewalls adjacent to a first dielectric material (202; 302) that are angled less than 90 degrees in relation to a bottom surface of the first electrode (204; 304); a second electrode (208; 308), including an electrode contact portion (210; 310) of the second electrode (208; 308), having sidewalls adjacent to a second dielectric material (212; 312) that are angled less than 90 degrees in relation to the bottom surface of the first electrode (204; 304), wherein the second electrode (208; 308) is over the first electrode (204; 304); wherein the electrode contact portion (210; 310) has sidewalls angled less than 90 degrees in relation to the bottom surface of the first electrode (204; 304), and wherein an upper surface of the second electrode (208; 308) is coplanar with an upper surface of the second dielectric material (212; 312); wherein the angled sidewalls of the first electrode converge toward the second electrode and the angled sidewalls of the second electrode converge toward the first electrode; and a storage element (206; 306) between the first electrode (204; 304) and the electrode contact portion (210; 310) of the second electrode (208; 308), wherein the second dielectric material (212; 312) is formed on a top surface of the storage element (206; 306).
A dynamoelectric machine comprising: a shaft; a rotor that is fixed to said shaft; a stator that has a stator core that is disposed so as to surround an outer circumference of said rotor and in which a plurality of slots that extend axially are formed so as to be spaced apart circumferentially; and a first bracket and a second bracket that hold circumferential edge portions of said stator core from two axial ends using a plurality of holding means and that envelope said stator core, a pair of first stays that are formed on said first bracket being fixed to a mount body by a fastening means that penetrates through a pair of penetrating apertures that are respectively formed on said first stays, wherein said pair of penetrating apertures are formed at positions such that an approximate perpendicular bisector of a straight line that connects centers of said penetrating apertures intersects an axis of said shaft; and one of said holding means is disposed on said perpendicular bisector near said shaft, and said stator core is formed such that the number of slots are greater than or equal to two slots per phase per pole in number, and pitches (C1, C2) between radial center lines of opening portions of respective adjacent slots are formed at a nonuniform pitch (C1, C2) by changing circumferential width dimensions of teeth (53A, 53B) that define said slots; and said holding means that is disposed on said perpendicular bisector near said shaft is disposed on a radial center line of a wide tooth; and a second stay is formed on the second bracket, and a line extending radially through a center of gravity of said dynamoelectric machine intersects the distance between the second stay and a first stay facing the second stay such that the distance between the first stay and the radially extending line is the same as the distance between the second stay and the radially extending line.
Cartridge having a combustible propellant charge case comprising a case sleeve and a case cover and also a fin-stabilized projectile with a solid projectile body and a fin carrier attached to the projectile body at the rear end, wherein the transitional region between the projectile body and the fin carrier has a truncated conical outer edge contour tapering to the rear end of the projectile, at which edge contour the case cover provided with a corresponding inner edge contour is connected in a force-fitting manner by means of an adhesive, wherein the adhesive is an elastic material, wherein at the same time the adhesive acts as a damping means.
A liquid-enclosed vibration-damping device, comprising: a first mounting member configured to have a tubular shape and connected to one of a vibration generator and a vibration absorber, and a second mounting member connected to the other of the vibration generator and the vibration absorber; an elastic body configured to elastically connect the first and second mounting members; and a partition member configured to partition a liquid chamber within which a liquid is enclosed and which is disposed within the first mounting member into a primary liquid chamber that uses the elastic body as a part of a wall surface thereof and a secondary liquid chamber, wherein the partition member is formed with a restriction passage configured to communicate the primary and secondary liquid chambers with each other, wherein the restriction passage includes a circumferential groove that is formed at the side of an outer circumferential surface of the partition member, a communicating port that communicates the circumferential groove and the secondary liquid chamber with each other, and a guide that communicates with an end of the circumferential groove which is at the side of the primary liquid chamber, and a porous body having a plurality of pores, the pores being disposed in parallel so as to communicate the side of the primary liquid chamber and the side of the secondary liquid chamber with each other, characterized in that the porous body is arranged in the restriction passage. a first mounting member configured to have a tubular shape and connected to one of a vibration generator and a vibration absorber, and a second mounting member connected to the other of the vibration generator and the vibration absorber; an elastic body configured to elastically connect the first and second mounting members; and a partition member configured to partition a liquid chamber within which a liquid is enclosed and which is disposed within the first mounting member into a primary liquid chamber that uses the elastic body as a part of a wall surface thereof and a secondary liquid chamber, wherein the partition member is formed with a restriction passage configured to communicate the primary and secondary liquid chambers with each other, wherein the restriction passage includes a circumferential groove that is formed at the side of an outer circumferential surface of the partition member, a communicating port that communicates the circumferential groove and the secondary liquid chamber with each other, and a guide that communicates with an end of the circumferential groove which is at the side of the primary liquid chamber, and a porous body having a plurality of pores, the pores being disposed in parallel so as to communicate the side of the primary liquid chamber and the side of the secondary liquid chamber with each other, characterized in that the porous body is arranged in the restriction passage.
A method of de-acidifying an oil feedstock comprising: obtaining a quantity of a first oil feedstock, the first oil feedstock comprising naphthenic acids; and reacting the quantity of the first oil feedstock with a metallic alkali metal to form a de-acidified oil feedstock; wherein the metallic alkali metal reacts with the naphthenic acids and wherein the first oil feedstock has a TAN value of greater than or equal to 1 and the de-acidified oil feedstock has a TAN value that is less than 1; wherein the metallic alkali metal comprises lithium, sodium and/or alloys thereof. obtaining a quantity of a first oil feedstock, the first oil feedstock comprising naphthenic acids; and reacting the quantity of the first oil feedstock with a metallic alkali metal to form a de-acidified oil feedstock; wherein the metallic alkali metal reacts with the naphthenic acids and wherein the first oil feedstock has a TAN value of greater than or equal to 1 and the de-acidified oil feedstock has a TAN value that is less than 1;
Method for manufacturing a floor system, comprising the steps: • providing a supporting structure; • optionally applying utility lines on this supporting structure; • applying a foamed polymer-containing material applied on the supporting structure and if applicable the utility lines in order to obtain a floor surface; • levelling the floor surface by means of a milling apparatus comprising at least one milling cutter; • optionally applying a layer of rigid, flat boards on the levelled side of the layer of foamed polymer-containing material; • applying a floor heating layer provided with heat conductors supported by the levelled side of the layer of foamed polymer-containing material, or if applicable by the layer of rigid, flat boards; • applying an upper external floor covering placed on the floor heating layer. • providing a supporting structure; • optionally applying utility lines on this supporting structure; • applying a foamed polymer-containing material applied on the supporting structure and if applicable the utility lines in order to obtain a floor surface; • levelling the floor surface by means of a milling apparatus comprising at least one milling cutter; • optionally applying a layer of rigid, flat boards on the levelled side of the layer of foamed polymer-containing material; • applying a floor heating layer provided with heat conductors supported by the levelled side of the layer of foamed polymer-containing material, or if applicable by the layer of rigid, flat boards; • applying an upper external floor covering placed on the floor heating layer.
Pneumatic actuator (1, 101) for setting a control armature (13, 113), in particular a control valve, having a first working chamber (5, 105), a second working chamber, in particular a return chamber (21, 121), wherein both chambers (5, 21, 105, 121) are pneumatically separated from each other by a movable dividing wall (23, 123) to which the control armature (13, 113) is coupled in a force-transmitting manner and which, in case of a pressure difference between the working chambers (5, 21, 105, 121), is displaced in a first control direction, and having a positioner (7, 107) which can, for building up the pressure difference, output at least one pneumatic control signal to the first working chamber (5, 105) and, if applicable, to the second working chamber (21, 121), wherein the first and the second working chambers (5, 21, 105, 121) are pneumatically connected to each other via a pneumatic short-circuit duct and that a balancing valve is disposed in the short-circuit duct for closing and/or opening the short-circuit duct, characterised in that the actuator comprises a position sensor for detecting an erratic movement of the control armature and/or that a pressure sensor is provided in at least one working chamber (5, 21, 105, 121) which pressure sensor is connected in a signal transmitting manner to the positioner (7, 107), wherein the balancing valve is driven by the respectively designed positioner (7, 107) in such a way that in case of a stick-slip state of the control armature (13, 113), the balancing valve pneumatically shortcircuits the first and the second working chamber (5, 21, 105, 121) for achieving a pressure balance between the chambers.