mhurhangee/ep-ind-claims huggingface dataset:
Alkali metal-chalcogen cell, comprising - an anode, - a cathode and - a separator arranged between the anode and the cathode, where the anode comprises an alkali metal and the cathode comprises a chalcogen, characterized in that the separator has a polymer-ionophore component (3, 4) which comprises a polymeric matrix material and an alkali metal ionophores, where the alkali metal ionophores are chemically and/or physically bound to the matrix material and/or in the matrix material. - an anode, - a cathode and - a separator arranged between the anode and the cathode, where the anode comprises an alkali metal and the cathode comprises a chalcogen, characterized in that the separator has a polymer-ionophore component (3, 4) which comprises a polymeric matrix material and an alkali metal ionophores, where the alkali metal ionophores are chemically and/or physically bound to the matrix material and/or in the matrix material.
A female member for use in forming a valve system, the female member including a socket for receiving a probe (7, 1110), the socket having a fluid exit, and a closing member arranged relative to the first fluid exit of the socket and so as to move between an open position and closed position, wherein in the open position, the closing member does not obstruct said fluid exit and in the closed position, the closing member seals said fluid exit; wherein the female member further comprises a securing means (100, 200) for securing and releasing the closing member; characterised in that the securing means (100, 200) further comprises arms (110, 210, 1248, 1249, 1288, 1289) pivotally attached to the closing member and configured to secure and release the probe, wherein the arms (110, 210, 1248, 1249, 1288, 1289) are connected to a common pivot axis at two spaced locations across the pivot axis, and the arms (110, 210) extend from the two spaced locations to a catch (115, 215, 1246, 1286) for securing the respective part, the catch (115, 215, 1246, 1286) extending parallel to the pivot axis and between the arms (110, 210, 1248, 1249, 1288, 1289); a cam and follower arrangement configured to control the movement of each arm (110, 210, 1248, 1249, 1288, 1289), wherein each arm includes a follower (120, 1244, 1284) for following a cam to control the movement of the catch.
A liquid diffuser device, comprising: - a support frame with an upper passageway to direct a liquid jet and a lower hollow tubular body defining a first longitudinal axis and provided with a substantially transverse bottom wall; - a liquid jet deflecting member having an upper plate located at a predetermined distance from said upper passageway and fixed to a lower stem, said stem defining a second longitudinal axis and being housed into said tubular body; - means for movably coupling said stem to said bottom wall, comprising at least one lower contact surface of said stem and at least one upper contact surface of said bottom wall, said contact surfaces (14, 15) being shaped to allow rotation of said stem relative to said bottom wall and oscillation of said second axis relative to said first axis responsive to the action of the liquid jet on said plate; wherein said coupling means comprise an intermediate contact member secured to the lower end portion of said stem, said intermediate contact member being continuously contacting said upper contact surface of said bottom wall, characterized in that said contact surfaces (14, 15) are mating against each other, a first sphere being secured in a central concave portion of said bottom wall and having an external surface with a predetermined first diameter (Φ 1) providing said upper contact surface of said bottom wall, said lower end portion of said stem having a hollow seat downwardly open to provide a housing in which said intermediate member is stably encased, said intermediate contact member being a second sphere with a maximum diameter (Φ 2) smaller than said first diameter (Φ 1), said first sphere and said intermediate contact member being made of a relatively high hardness and wear resistance with respect to said frame, said intermediate contact member being continuously in contact with said upper contact surface of said bottom wall to avoid downward shifting of said stem consequent to wear of said contact surfaces (14, 15) and to keep the distance of said plate from said passageway substantially unchanged. - a support frame with an upper passageway to direct a liquid jet and a lower hollow tubular body defining a first longitudinal axis and provided with a substantially transverse bottom wall; - a liquid jet deflecting member having an upper plate located at a predetermined distance from said upper passageway and fixed to a lower stem, said stem defining a second longitudinal axis and being housed into said tubular body; - means for movably coupling said stem to said bottom wall, comprising at least one lower contact surface of said stem and at least one upper contact surface of said bottom wall, said contact surfaces (14, 15) being shaped to allow rotation of said stem relative to said bottom wall and oscillation of said second axis relative to said first axis responsive to the action of the liquid jet on said plate;
A flow measuring device, comprising: a container for receiving a flow of liquid; a plurality of optical sensors associated with the container, each of the plurality of optical sensors producing an output signal dependent upon the presence of liquid reaching a level in the container associated with each optical sensor; characterized in that it further comprises a digital signal processor configured to execute instructions that cause the digital signal processor to: modify the output signal produced by the plurality of optical sensors using at least one predetermined temperature compensation factor to minimize the prospect of the output signal reaching a predetermined threshold voltage V T that determines the presence of liquid; calculate a flow rate from the time at which the liquid traverses between two levels in the container, wherein the level in the container is determined based on a comparison between the modified output signal and the predetermined threshold voltage V T. a container for receiving a flow of liquid; a plurality of optical sensors associated with the container, each of the plurality of optical sensors producing an output signal dependent upon the presence of liquid reaching a level in the container associated with each optical sensor; characterized in that it further comprises a digital signal processor configured to execute instructions that cause the digital signal processor to: modify the output signal produced by the plurality of optical sensors using at least one predetermined temperature compensation factor to minimize the prospect of the output signal reaching a predetermined threshold voltage V T that determines the presence of liquid; calculate a flow rate from the time at which the liquid traverses between two levels in the container, wherein the level in the container is determined based on a comparison between the modified output signal and the predetermined threshold voltage V T. modify the output signal produced by the plurality of optical sensors using at least one predetermined temperature compensation factor to minimize the prospect of the output signal reaching a predetermined threshold voltage V T that determines the presence of liquid; calculate a flow rate from the time at which the liquid traverses between two levels in the container, wherein the level in the container is determined based on a comparison between the modified output signal and the predetermined threshold voltage V T.
A power distribution apparatus comprising an array of multiple relays connected in parallel between at least one input power feed and at least one output power feed for supplying operating power to electronic equipment, each of said relays being operative to switch between first and second states in connection with a power switching event wherein, in said first state, power from a first power source flows between a first input power feed, and a first output power feed and, in said second state, power flow from said first power source between said first input power feed and said first output power feed is interrupted, said array having multiple input branches associated with said multiple relays, wherein each input branch includes a time-dependent, current-limiting device comprising an NTC resistor operationally disposed in series with a respective relay of said input branch and a respective input power feed of said input branch to limit current flow through said input branch in connection with said switching event.
A high-stiffness high-strength thin steel sheet consisting of C: 0.02-0.15%, Si: not more than 1.5%, Mn: 1.5-4.0%, P: not more than 0.05%, S: not more than 0.01%, Al: not more than 1.5%, N: not more than 0.01% and Nb: 0.02-0.40% as mass%, and optionally one or two of Ti: 0.01-0.50% and V: 0.01-0.50% as mass%, and further optionally one or more of Cr: 0.1-1.0%, Ni: 0.1-1.0%, Mo: 0.1-1.0%, Cu: 0.1-2.0% and B: 0.0005-0.0030% as mass%, provided that C, N and Nb contents satisfy the relationships of the following equations and: 0.01 ≤ C + 12 / 14 × N − 12 / 92.9 × Nb ≤ 0.06 N ≤ 14 / 92.9 × Nb − 0.01 and provided that, in case one or two of Ti and V is present, the relationships of the following equations and are satisfied instead of the equations and: 0.01 ≤ C + 12 / 14 × N * − 12 / 92.9 × Nb − 12 / 47.9 × Ti * − 12 / 50.9 × V ≤ 0.06 N * ≤ 14 / 92.9 × Nb − 0.01 provided that N* in the equations and is N* = N-(14/47.9)×Ti at N-(14/47.9)×Ti > 0 and N* = 0 at N-(14/47.9)×Ti ≤ 0, and Ti* in the equation is Ti* = Ti-(47.9/14)×N-(47.9/32.1)×S at Ti-(47.9/14)×N-(47.9/32.1)×S > 0 and Ti* = 0 at Ti-(47.9/14)×N-(47.9/32.1)×S ≤ 0 and the remainder being iron and inevitable impurities, and having a texture comprising a ferrite phase as a main phase and having a martensite phase at an area ratio of not less than 16%, and having a tensile strength of not less than 700 MPa, a Young's modulus of not less than 225 GPa and a thickness of not more than 2.0 mm.
A reactor system for high pressure polymerization of ethylene comprising a device for injecting and mixing a reactive fluid in a flow of a process fluid for the preparation of polyolefins, comprising • an annular part having an outer wall and an inner wall, wherein the annular part is arranged for having a flow of the process fluid in a transport direction; characterized in that the device further comprises: • a support structure connected to the inner wall of the annular part; • an injector part mounted on the support structure, wherein the injector part is cylindrically shaped and wherein the cylindrical axis A-A' of the injector part is parallel with a central axis of the annular part and is in the central part of the annular part; wherein the injector part comprises a nozzle for injecting the reactive fluid, disposed at a downstream side of the injector part relative to the transport direction; • a supply channel extending from the outer wall of the annular part through the support structure to the nozzle of the injector part, and wherein the annular part, the support structure and the injector part are made from a single piece of metal. • an annular part having an outer wall and an inner wall, wherein the annular part is arranged for having a flow of the process fluid in a transport direction; • a support structure connected to the inner wall of the annular part; • an injector part mounted on the support structure, wherein the injector part is cylindrically shaped and wherein the cylindrical axis A-A' of the injector part is parallel with a central axis of the annular part and is in the central part of the annular part; wherein the injector part comprises a nozzle for injecting the reactive fluid, disposed at a downstream side of the injector part relative to the transport direction; • a supply channel extending from the outer wall of the annular part through the support structure to the nozzle of the injector part, and wherein the annular part, the support structure and the injector part are made from a single piece of metal.
A tubular recovery apparatus comprising a recovery tower mounted to a support structure, the recovery tower configured to pull a tubular section along a firing line extending along the recovery tower, the recovery tower comprising a cutting or separating mechanism for separating or decoupling a tubular section from a catenary, a magazine removably mounted to the recovery tower while the apparatus is in use, the magazine being configured for receiving a plurality of recovered tubular sections, and a feed mechanism configured to feed one or more tubular sections from the firing line of the recovery tower to the magazine, wherein at least part of the recovery tower is movable in use between a deployed, pulling position for recovering tubular sections, and a loading position for loading the magazine onto the recovery tower.
A wok support for an induction hob, wherein: - said wok support is provided for receiving a wok pan on its upper side, - said wok support is arrangeable upon the induction hob, - the wok support includes at least one first coil arranged in a lower part of said wok support and at least one second coil arranged in an upper part of said wok support, - an upper side of at least one second coil is at least partially concave, - the at least one first coil is electrically connected to the at least one second coil, - the at least one first coil has a flat form and extends horizontally, - the wok support includes a housing with a top wall and a bottom wall, and - the wok support comprises at least one thermal cutout, so that the electric connection between the first coil and the second coil can be interrupted, and/or at least one heat transmission element extending from the top wall to the bottom wall, so that the temperature of the wok pan is transferred to a sensor of the induction hob. - said wok support is provided for receiving a wok pan on its upper side, - said wok support is arrangeable upon the induction hob, - the wok support includes at least one first coil arranged in a lower part of said wok support and at least one second coil arranged in an upper part of said wok support, - an upper side of at least one second coil is at least partially concave, - the at least one first coil is electrically connected to the at least one second coil, - the at least one first coil has a flat form and extends horizontally, - the wok support includes a housing with a top wall and a bottom wall, and - the wok support comprises at least one thermal cutout, so that the electric connection between the first coil and the second coil can be interrupted, and/or at least one heat transmission element extending from the top wall to the bottom wall, so that the temperature of the wok pan is transferred to a sensor of the induction hob.
A method for processing PWM data, characterized in that the method comprises: determining a pulse width of each convergent point at which pulse widths converge around a same pulse width in learned PWM data, learned PWM data being recorded waveform widths of infrared signals; replacing each of the pulse widths converging around the corresponding same pulse width with the pulse width of the corresponding convergent point; generating a pulse-width query table containing the pulse width of each convergent point; and representing the PWM data by each index of each pulse width in the pulse-width query table; characterized in that, determining a pulse width of each convergent point at which pulse widths converge around a same pulse width in learned PWM data comprises: marking each pulse width in the learned PWM data on a pulse-width coordinate of a one-dimensional form; and determining each region on the pulse-width coordinate where a marking density is equal to or larger than a preset density, and determining pulse widths in the region as the pulse widths converging around a same pulse width; calculating an average value of the pulse widths in the region; and determining the average value as the pulse width of the convergent point at which pulse widths converge around a same pulse width determining a pulse width of each convergent point at which pulse widths converge around a same pulse width in learned PWM data, learned PWM data being recorded waveform widths of infrared signals; replacing each of the pulse widths converging around the corresponding same pulse width with the pulse width of the corresponding convergent point; generating a pulse-width query table containing the pulse width of each convergent point; and representing the PWM data by each index of each pulse width in the pulse-width query table; characterized in that, determining a pulse width of each convergent point at which pulse widths converge around a same pulse width in learned PWM data comprises: marking each pulse width in the learned PWM data on a pulse-width coordinate of a one-dimensional form; and determining each region on the pulse-width coordinate where a marking density is equal to or larger than a preset density, and determining pulse widths in the region as the pulse widths converging around a same pulse width; calculating an average value of the pulse widths in the region; and determining the average value as the pulse width of the convergent point at which pulse widths converge around a same pulse width marking each pulse width in the learned PWM data on a pulse-width coordinate of a one-dimensional form; and determining each region on the pulse-width coordinate where a marking density is equal to or larger than a preset density, and determining pulse widths in the region as the pulse widths converging around a same pulse width; calculating an average value of the pulse widths in the region; and determining the average value as the pulse width of the convergent point at which pulse widths converge around a same pulse width
A sulfidizing agent obtainable by mixing M y S x and ZSH in a weight ratio of from 90:10 to 10:90, wherein M is selected from Li +, Na +, K +, Rb +, Cs +, NH 4 +, Mg 2+ or Ca 2+, y is 1 or 2, x is from 2.1 to 5, and Z is independently selected from Li +, Na +, K +, Rb +, Cs + and NH 4 +.
A method for providing an advertisement on a lock screen of a mobile communication terminal, the method comprising the steps of: detecting a user input by an activation button while the mobile communication terminal is in an inactive state in which a touch screen display of the mobile communication terminal is turned off while the mobile communication terminal is being communicable; upon detecting the user input, changing the mobile communication terminal from the inactive state to an active state in which the touch screen display is turned on displaying the lock screen while the mobile communication terminal is being communicable; executing an application when the mobile communication terminal is activated; and in addition to changing to the active state, further performing displaying of the advertisement on the lock screen only when there is no update of information provided by the application to the user of the mobile communication terminal, wherein the lock screen displayed on the touch screen includes an interface for receiving a user input, wherein in response to an additional input through the interface of the touch screen display while the advertisement is displayed on the lock screen, an additional information related to the advertisement is displayed on the touch screen display. detecting a user input by an activation button while the mobile communication terminal is in an inactive state in which a touch screen display of the mobile communication terminal is turned off while the mobile communication terminal is being communicable; upon detecting the user input, changing the mobile communication terminal from the inactive state to an active state in which the touch screen display is turned on displaying the lock screen while the mobile communication terminal is being communicable; executing an application when the mobile communication terminal is activated; and in addition to changing to the active state, further performing displaying of the advertisement on the lock screen only when there is no update of information provided by the application to the user of the mobile communication terminal,
A continuous flow device for the preparation of nanoparticles comprising: a first feeding unit with a first feed pump connected to a first raw material source; a first reactor unit with a first heatable reactor-zone configured to be heated to a first temperature value; a second reactor unit with a second heatable reactor-zone configured to be heated to a second temperature value, each of said units connected into a flow path in the listed series order; at least one pressure controller arranged in said flow path; a mixing unit inserted into said flow path between said first and second reactor units (2, 3); a second feeding unit with a second feed pump connected to a second raw material source, said second feed pump being in fluid communication with the mixing unit; a control unit configured to be capable of controlling at least one of the pressure value set by said pressure controller and the temperature values of said heatable reactor-zones (13, 15), characterized in that said device further comprises a final product analyzer unit with an optical detector connected to said flow path after the last reactor unit to analyze a property of the nanoparticles leaving the last reactor unit, said analyzer unit is connected to the control unit to provide said control unit with results obtained by the analyzer unit regarding the analyzed property to adjust operating parameters of the device based on said results when the nanoparticles are under preparation, each heatable reactor-zone is followed by a respective cooling unit (14, 16) inserted in cascade with the respective reactor-zone (13, 15) within said flow path. a first feeding unit with a first feed pump connected to a first raw material source; a first reactor unit with a first heatable reactor-zone configured to be heated to a first temperature value; a second reactor unit with a second heatable reactor-zone configured to be heated to a second temperature value, each of said units connected into a flow path in the listed series order; at least one pressure controller arranged in said flow path; a mixing unit inserted into said flow path between said first and second reactor units (2, 3); a second feeding unit with a second feed pump connected to a second raw material source, said second feed pump being in fluid communication with the mixing unit; a control unit configured to be capable of controlling at least one of the pressure value set by said pressure controller and the temperature values of said heatable reactor-zones (13, 15), characterized in that said device further comprises a final product analyzer unit with an optical detector connected to said flow path after the last reactor unit to analyze a property of the nanoparticles leaving the last reactor unit, said analyzer unit is connected to the control unit to provide said control unit with results obtained by the analyzer unit regarding the analyzed property to adjust operating parameters of the device based on said results when the nanoparticles are under preparation, each heatable reactor-zone is followed by a respective cooling unit (14, 16) inserted in cascade with the respective reactor-zone (13, 15) within said flow path.