mhurhangee/ep-ind-claims huggingface dataset:
A method for performing a remote network diagnostic on one or more mobile devices (110A-110N), the method being performed by a diagnostic platform and comprising: selecting one or more mobile devices (110A-110N) to perform a set of tests to evaluate performance of a wireless network; install, using remote command and control instructions from the diagnostic platform, a diagnostic application on the one or more mobile devices (110A-110N), wherein the diagnostic application, once installed on the one or more mobile devices (110A-110N), performs the set of tests to evaluate the network performance; and receive, at the diagnostic platform, messages from the diagnostic application that include captured data, wherein the captured data includes device specific information identifying hardware or software configurations of the one or more mobile devices (110A-110N), and wherein the captured data includes data about the network performance in response to the set of tests used by the diagnostic application to evaluate the network performance of each of the one or more mobile devices (110A-110N) moving about a geographic region; and generating analytics based on the captured data, wherein the analytics identify optimal hardware configurations, wherein the optimal hardware configurations include a best performance while optimizing one or more configurations for a mobile device's chipset in light of the network performance of the wireless network. selecting one or more mobile devices (110A-110N) to perform a set of tests to evaluate performance of a wireless network; install, using remote command and control instructions from the diagnostic platform, a diagnostic application on the one or more mobile devices (110A-110N), wherein the diagnostic application, once installed on the one or more mobile devices (110A-110N), performs the set of tests to evaluate the network performance; and receive, at the diagnostic platform, messages from the diagnostic application that include captured data, wherein the captured data includes device specific information identifying hardware or software configurations of the one or more mobile devices (110A-110N), and wherein the captured data includes data about the network performance in response to the set of tests used by the diagnostic application to evaluate the network performance of each of the one or more mobile devices (110A-110N) moving about a geographic region; and wherein the captured data includes device specific information identifying hardware or software configurations of the one or more mobile devices (110A-110N), and wherein the captured data includes data about the network performance in response to the set of tests used by the diagnostic application to evaluate the network performance of each of the one or more mobile devices (110A-110N) moving about a geographic region; and generating analytics based on the captured data, wherein the analytics identify optimal hardware configurations, wherein the optimal hardware configurations include a best performance while optimizing one or more configurations for a mobile device's chipset in light of the network performance of the wireless network.
A switchable capacitor, comprising: a solid dielectric; a pair of electrodes (30,32), a first one of the electrodes having the solid dielectric thereon and a second, flexible one of the electrodes being suspended over the solid dielectric when the switchable capacitor is in a de-activated state; and a top plate disposed between the solid dielectric and the second, flexible electrode and connected to a reference potential, the top plate having a plurality of apertures therein, wherein when the switchable capacitor is electrostatically driven to an activated state, the second, flexible one of the electrodes contacts the top plate, and when the switchable capacitor is returned to the de-activated state, charge on the top plate is discharged to the reference potential. a solid dielectric; a pair of electrodes (30,32), a first one of the electrodes having the solid dielectric thereon and a second, flexible one of the electrodes being suspended over the solid dielectric when the switchable capacitor is in a de-activated state; and a top plate disposed between the solid dielectric and the second, flexible electrode and connected to a reference potential, the top plate having a plurality of apertures therein, wherein when the switchable capacitor is electrostatically driven to an activated state, the second, flexible one of the electrodes contacts the top plate, and when the switchable capacitor is returned to the de-activated state, charge on the top plate is discharged to the reference potential.
An energy degrader in a radiation therapy system, the energy degrader comprising: a first material configured to attenuate energy of a particle beam by virtue of particle scattering, wherein said particle scattering causes spatial emittance growth of said particle beam; and a second material operable to constrain said spatial emittance growth by virtue of particle interactions; wherein said first material and said second material have different atomic or molecular weights; characterised in that the energy degrader further comprises a plurality of moveable members, wherein each moveable member comprises said first material and said second material. a first material configured to attenuate energy of a particle beam by virtue of particle scattering, wherein said particle scattering causes spatial emittance growth of said particle beam; and a second material operable to constrain said spatial emittance growth by virtue of particle interactions; wherein said first material and said second material have different atomic or molecular weights; characterised in that the energy degrader further comprises a plurality of moveable members, wherein each moveable member comprises said first material and said second material.
A method of manipulating droplets in an electro-wetting on dielectric (EWOD) device, the EWOD device having first and second substrates (36,72) defining a fluid chamber therebetween and a plurality of electro-wetting electrodes (38,38A,38B), the method comprising selectively actuating the electro-wetting electrodes (38,38A,38B) to: cause first and second droplets (A,B; 4A,4B) in a fluid medium in the fluid chamber of the EWOD device to contact each other to form a droplet interface bilayer, the first droplet (A;4A) containing fluid of a first composition including a first solvent species and the second droplet (B;4B) containing fluid of a second composition, the second composition being different to the first composition and having a higher osmotic pressure than the first composition; maintain the first and second droplets contacting each other to maintain the droplet interface bilayer and thereby allow a solvent species to pass from the first droplet (A;4A) to the second droplet (B;4B) via the droplet interface bilayer; and cause the first droplet (A;4A) to separate from the second droplet (B;4B). cause first and second droplets (A,B; 4A,4B) in a fluid medium in the fluid chamber of the EWOD device to contact each other to form a droplet interface bilayer, the first droplet (A;4A) containing fluid of a first composition including a first solvent species and the second droplet (B;4B) containing fluid of a second composition, the second composition being different to the first composition and having a higher osmotic pressure than the first composition; maintain the first and second droplets contacting each other to maintain the droplet interface bilayer and thereby allow a solvent species to pass from the first droplet (A;4A) to the second droplet (B;4B) via the droplet interface bilayer; and cause the first droplet (A;4A) to separate from the second droplet (B;4B).
Support unit for a self-supporting installation system having a support yoke for disposing at least partially outside of a trench and extending in the intended installed position in a bridge-like manner above a pipe for disposing outside of and/or inside of the trench and for lowering into the trench, characterized in that the support unit comprises two support walls (10, 11) for disposing at least partially in the interior of the trench and spaced apart from each other in the transverse direction of the support unit, that the support walls (10, 11) each connect to one of the two ends of the support yoke, that the support yoke is releasably connected to the two support walls (10, 11) in a connecting region (14, 15) for each, and that the support yoke and the two support walls (10, 11) together form a barrier-free lowering space within which the pipe intended therefore can be lowered from the region of the support yoke into the region of the support walls (10, 11).
A planar micro fluidic chemical separation device defining: a substrate having a chromatographic separation channel located in the plane of the device; and a via situated perpendicular to the separation channel and extending between the separation channel and an outer surface of the substrate for fluid communication with the separation channel, wherein the via has a cross-sectional area that is less than a cross-sectional area of a first region of the separation channel to inhibit band-broadening caused by passage of a sample band through the via. a substrate having a chromatographic separation channel located in the plane of the device; and a via situated perpendicular to the separation channel and extending between the separation channel and an outer surface of the substrate for fluid communication with the separation channel, wherein the via has a cross-sectional area that is less than a cross-sectional area of a first region of the separation channel to inhibit band-broadening caused by passage of a sample band through the via.
A method for the production of a monolithic multilayer actuator made of a piezoceramic or electrostrictive material, wherein the actuator is formed as a stacked arrangement in basically mechanical series connection of a plurality of piezo plates by sintering of green sheets, existing inner electrodes (3; 4) in the plate stack are guided to opposite outer surfaces of the stack, and are switched in parallel there by means of basic metallization and exterior contacting of respective electrode groups, characterized in that weakenings in the structure, which act as microdisturbances, are incorporated in a specific manner into the actuator structure at a distance in the range of 1 to 4 mm along the longitudinal axis of the stack thereof, essentially parallel to and at a distance from the inner electrodes (3; 4) in the region of the at least two opposite outer surfaces to which the inner electrodes (3; 4) are brought out, and furthermore the basic metallisation and/or the exterior contacting is formed in a tensileresistant or elastic manner at least in the area of the microdisturbances in the actuator structure, wherein the microdisturbances prevent sintering together of the green sheets in a locally restricted manner and in the region of the microdisturbances a layer or a quantity of an organic binder is applied during the stack build-up which contains a volume proportion of up to 50% of organic particles with a diameter ≤ 200 nm, which burn out nearly completely during the sintering process.
A method of manufacturing a silicon carbide semiconductor device comprising, in the following order: a silicon carbide semiconductor base body preparation step of preparing a silicon carbide semiconductor base body having a first main surface which is an element forming surface and a second main surface which is a surface on a side opposite to the first main surface; a polishing step of polishing the silicon carbide semiconductor base body from a second main surface side thus forming unevenness on the second main surface; a thin metal film forming step of forming a thin metal film made of metal capable of forming a metal carbide on the second main surface of the silicon carbide semiconductor base body; a laser beam irradiating step of irradiating a laser beam which falls within a visible region or within an infrared region to the thin metal film so as to heat the thin metal film thus forming a metal carbide on a boundary face between the silicon carbide semiconductor base body and the thin metal film; an etching step of removing by etching a metal containing byproduct layer possibly formed on a surface side of the metal carbide by a non-oxidizing chemical solution thus exposing a surface of the metal carbide; and an electrode layer forming step of forming an electrode layer on the metal carbide. a silicon carbide semiconductor base body preparation step of preparing a silicon carbide semiconductor base body having a first main surface which is an element forming surface and a second main surface which is a surface on a side opposite to the first main surface; a polishing step of polishing the silicon carbide semiconductor base body from a second main surface side thus forming unevenness on the second main surface; a thin metal film forming step of forming a thin metal film made of metal capable of forming a metal carbide on the second main surface of the silicon carbide semiconductor base body; a laser beam irradiating step of irradiating a laser beam which falls within a visible region or within an infrared region to the thin metal film so as to heat the thin metal film thus forming a metal carbide on a boundary face between the silicon carbide semiconductor base body and the thin metal film; an etching step of removing by etching a metal containing byproduct layer possibly formed on a surface side of the metal carbide by a non-oxidizing chemical solution thus exposing a surface of the metal carbide; and an electrode layer forming step of forming an electrode layer on the metal carbide.
Electrical energy distribution system having a three-phase medium-voltage network and a three-phase low-voltage network (50, 70) and at least one voltage level converter (40, 60) between the three-phase medium-voltage network and the three-phase low-voltage network (50, 70), wherein the voltage level converter (40, 60) comprises a converter element for converting the voltage level and a control device, which is connected to the converter element and actuates same, which control device, in the case of a fault in a low-voltage network (50, 70) fed by the converter element, turns off the operation of the converter element overall or turns off at least the energy infeed operation in the direction of the low-voltage network (50, 70) completely or at least temporarily, wherein - upon identification of a short circuit, the control device switches to a fault location mode in which it can determine the location of the short circuit with the aid of the converter element, characterized in that - the control device and the fault location mode are designed in such a way that - during fault location operation, the control device actuates the converter element in such a way that it generates one or more electrical pulses (Pi) and feeds said pulses into the low-voltage network (50, 70), - the control device detects pulses (Pz) reflected at the fault point and returned to the voltage level converter (40, 60) and - the control device determines the fault location based on the returned pulses (Pz). - upon identification of a short circuit, the control device switches to a fault location mode in which it can determine the location of the short circuit with the aid of the converter element, characterized in that - the control device and the fault location mode are designed in such a way that - during fault location operation, the control device actuates the converter element in such a way that it generates one or more electrical pulses (Pi) and feeds said pulses into the low-voltage network (50, 70), - the control device detects pulses (Pz) reflected at the fault point and returned to the voltage level converter (40, 60) and - the control device determines the fault location based on the returned pulses (Pz). - during fault location operation, the control device actuates the converter element in such a way that it generates one or more electrical pulses (Pi) and feeds said pulses into the low-voltage network (50, 70), - the control device detects pulses (Pz) reflected at the fault point and returned to the voltage level converter (40, 60) and - the control device determines the fault location based on the returned pulses (Pz).
Printing apparatus comprising: - a support plane to support at least a print support; - at least two printing groups aligned along a longitudinal axis, and each provided with at least a printing head; - a support structure provided to support said printing groups above said support plane, - at least a moving device to move said printing groups towards/away with respect to said support plane, - at least two containment devices each associated with respective positioning means, wherein said positioning means are configured to selectively move, independently with respect to each other and in a parallel direction with respect to said longitudinal axis, the respective containment device at least in a first operative position in which said containment device is positioned under said at least a printing head of one of said printing groups, and in a second inactive position in which said containment device is in a position not interfering with movement of said printing group towards or away with respect to said support plane characterized in that said containment devices are disposed on parallel and distanced lying planes and, in the second inactive position, said containment devices are superimposed to each other. - a support plane to support at least a print support; - at least two printing groups aligned along a longitudinal axis, and each provided with at least a printing head; - a support structure provided to support said printing groups above said support plane, - at least a moving device to move said printing groups towards/away with respect to said support plane, - at least two containment devices each associated with respective positioning means,
Drive belt for a continuously variable transmission comprising an array of several hundred transverse elements provided on and in sliding relationship with an endless carrier of the belt, whereof each transverse element includes a head part that is located radially outward from the carrier, a body part that is located radially inward from the carrier, and a neck part that is provided there between, an axially oriented rocking edge being defined in the body part, radially outward wherefrom the body part is provided with an essentially constant dimension Dr in the longitudinal direction of the belt, i.e. thickness Dr, and radially inward wherefrom the thickness of the body part decreases, in which drive belt gaps (LP; CLP) are formed between at least some of the body parts of adjacent transverse elements when these are contacting through their head parts in a straightened section of the drive belt by the head parts of a part or of all of the transverse elements of the drive belt being bent in the said longitudinal direction relative to the respective body parts thereof by an amount of bending that differs between the transverse elements of the drive belt, characterised in that, the design of the drive belt satisfies the equation: 4 ⋅ Dr ⋅ Csi L ≤ Δ D ≤ 40 ⋅ Dr ⋅ Csi L, wherein Csi is an amount of play initially present in longitudinal direction between the transverse elements of the drive belt when placed in a circular posture at the radial position of the rocking edges, L is a circumference length, i.e. total dimension in longitudinal direction, of the drive belt at the radial position of rocking edges of the transverse elements thereof and wherein ΔD is the size in longitudinal direction of the said gaps (LP; CLP) when averaged between all of the transverse elements of the drive belt. Csi is an amount of play initially present in longitudinal direction between the transverse elements of the drive belt when placed in a circular posture at the radial position of the rocking edges, L is a circumference length, i.e. total dimension in longitudinal direction, of the drive belt at the radial position of rocking edges of the transverse elements thereof and wherein ΔD is the size in longitudinal direction of the said gaps (LP; CLP) when averaged between all of the transverse elements of the drive belt.
Holding mechanism comprising an endpiece adapted for being integrated into a supporting core for a reel of material comprising a cylindrical part adapted to engage in the said core and a discoidal part that bears against the opposing face of the core, having a protruding overhanging appendage, the said appendage being provided along its length with a guiding and retention groove constituting a guide path, the endpiece cooperating with a guide formed on a bracket supporting the reel of material facing a housing of a wiping material dispenser and a drum of a corresponding cutting device, the guide being located on the inside of the bracket on the side adapted to receive the reel of material and the drum of the corresponding cutting device, the guide having a protruding flat shape cooperating with the retention groove of the endpiece, characterized in that the guide is articulated and pivot on an axis relative to the bracket supporting the reel of material facing the housing of the dispenser, and in that the guide is mounted pivoting on said axis between the two support blocks (13 - 14) protruding and molded with the bracket, with a gap (d) relative to the opposing face of the bracket in order to have two positions depending on the presence or not of the endpiece, and in that the guide has a slot forming a groove for the passage and retention of the endpiece, the said slot having a vertical part extended by an horizontal or inclined part, and in that the protruding flat shape is disposed on a face of the guide facing said slot and has a width corresponding exactly to the width of the groove formed on the appendage of the endpiece for the passage and retention of the endpiece, and in that the guide is made in the form of a swinging flap between the two blocks (13, 14), the apparent sides of the two blocks (13, 14) constitute bearing faces (13a, 14a), and in that in the initial positioning phase, the guide is in a swung away position and its bottom face contacts the wall of the bracket, and in that the insertion of the endpiece through its appendage into the flap guide causes its discoidal part to contact the bearing faces (13a - 14a) of the two blocks (13 - 14) positioned on either side of the guide, the liaison and coupling formed between the face of the protruding flat shape of the guide and the groove of the endpiece pivoting the said guide to the vertical until the endpiece has reached a bottom position.
A high-voltage wiring structure in a vehicle, comprising: an extending member extending in an extending direction which is a longitudinal direction or a width direction of the vehicle; a plurality of bulkheads (26, 44) respectively provided at a plurality of portions of the extending member in the extending direction; a high-voltage wire extended from a battery for driving the vehicle, characterized in that: the high-voltage wiring structure comprises a pipe, in which the high-voltage wire is inserted, and which is surrounded by the extending member, wherein a plurality of portions of the pipe in a longitudinal direction of the pipe are respectively fixed to the bulkheads (26, 44) by welding. an extending member extending in an extending direction which is a longitudinal direction or a width direction of the vehicle; a plurality of bulkheads (26, 44) respectively provided at a plurality of portions of the extending member in the extending direction; a high-voltage wire extended from a battery for driving the vehicle, the high-voltage wiring structure comprises a pipe, in which the high-voltage wire is inserted, and which is surrounded by the extending member, wherein a plurality of portions of the pipe in a longitudinal direction of the pipe are respectively fixed to the bulkheads (26, 44) by welding.