mhurhangee/ep-ind-claims huggingface dataset:
Rack cooling structure comprising an air intake connected to an air inlet tube of substantially cylindrical shape having a diameter D61, an air exhaust connected to an air outlet tube of substantially cylindrical shape having a diameter D71, at least one base segment having a substantially cylindrical shape with a diameter D31, at least one connecting segment having a substantially cylindrical shape with a diameter D51, the said air inlet tube being connected to a tapered section, the said tapered section being connected to an outside tube, the said outside tube having a diameter D171, a plurality of equidistant radially positioned cold air holes arranged on the said outside tube, each cold air hole being arranged connected to a corresponding air stream conductor, the said air stream conductor being arranged on the inside of the said outside tube, the said air outlet tube having a plurality of equidistant radially positioned hot air holes, a plurality of equidistant radially positioned connectors being arranged both on the said at least one connecting segment and on the said at least one base segment, at least one cable, the said at least one cable being arranged to connect at least two of the plurality of connectors, characterized in that the said air inlet tube, the said air outlet tube, the said at least one base segment, the said at least one connecting segment, the said tapered section and the said outside tube are all arranged coaxial to each other on a vertical axis, the said at least one connecting segment comprises a plurality of circular arc shaped interfaces, each interface comprising at least one of the cold air holes, at least one connector, at least one connecting means and at least one of the hot air holes, wherein when a device plugs into the interface of the connecting segment of the rack, it connects the electronic device it holds to the at least one connector.
An array substrate, comprising: a base substrate, thin-film transistors (TFTs) each including a gate electrode, a gate insulating layer, an active layer, an ohmic contact layer, a source electrode and a drain electrode, an isolation layer and an organic resin layer formed on the base substrate, and a common electrode layer formed on the organic resin layer, wherein the isolation layer covers the source electrodes and the drain electrodes of the TFTs; the organic resin layer covers the isolation layer and is provided with first through holes corresponding to the drain electrodes of the TFTs; the isolation layer is provided with second through holes communicated with the first through holes to expose partial drain electrodes; and the diameter of the second through holes is greater than that of the first through holes, wherein the through holes (9,11) are configured to connect the drain electrode with a pixel electrode.
Roller folding head (10, 30) suitable for attachment to a robot arm, comprising - a base body (12, 32); - a first folding roller (16, 36) in shape of a round disc, comprising a first folding surface (18, 38) along an edge circumference of the first folding roller (16, 36) and a first axis of rotation (20, 40), wherein an axle bearing of the first axis of rotation is stationary connected to the base body; and - a second folding roller (22, 42) in shape of a round disc, comprising a second folding surface (24, 44) along an edge circumference of the second folding roller (22, 42) and a second axis of rotation, wherein an axle bearing (64, 74) of the second axis of rotation is adjustably connected to the base body so that a folding angle which the first folding surface (18, 38) and the second folding surface (24, 44) enclose with one another is changeable, and - a motor; characterised in that the roller folding head (10, 30) further comprising - a bevel gear, and - a worm gear, comprising a circular arc-shaped gear segment and a worm shaft, wherein the gear segment comprising an angular range of approximately 90° - 100° and wherein the axle bearing (64, 74) of the second axis of rotation is adjustable via the worm gear, wherein the second axis of rotation is fixedly connected to the gear segment and the motor is coupled to the worm shaft via the bevel gear.. - a base body (12, 32); - a first folding roller (16, 36) in shape of a round disc, comprising a first folding surface (18, 38) along an edge circumference of the first folding roller (16, 36) and a first axis of rotation (20, 40), wherein an axle bearing of the first axis of rotation is stationary connected to the base body; and - a second folding roller (22, 42) in shape of a round disc, comprising a second folding surface (24, 44) along an edge circumference of the second folding roller (22, 42) and a second axis of rotation, wherein an axle bearing (64, 74) of the second axis of rotation is adjustably connected to the base body so that a folding angle which the first folding surface (18, 38) and the second folding surface (24, 44) enclose with one another is changeable, and - a motor; characterised in that the roller folding head (10, 30) further comprising - a bevel gear, and - a worm gear, comprising a circular arc-shaped gear segment and a worm shaft, wherein the gear segment comprising an angular range of approximately 90° - 100° and wherein the axle bearing (64, 74) of the second axis of rotation is adjustable via the worm gear, wherein the second axis of rotation is fixedly connected to the gear segment and the motor is coupled to the worm shaft via the bevel gear..
A device for generating electric energy, the device comprising: a panel that is at least partially transmissive for visible light, the panel having a receiving surface for receiving incident light and being arranged such that a portion of the incident light is redirected towards regions that are at edges of the panel; and a plurality of photovoltaic elements (106, 220, 222) comprising a first and a second photovoltaic element (106, 220, 222) that are positioned at or in the proximity of the same edge of the panel, the first photovoltaic element being perpendicular to the second photovoltaic element (220, 222); a plurality of diodes comprising first and second diodes that are series connected with the first and second photovoltaic elements (106, 220 222), the first photovoltaic element and the first diode being parallel connected with the second photovoltaic element (220, 222) and the second diode; wherein the device is arranged to generate the electricity from at least a portion of the redirected light; characterised in that the first photovoltaic element is positioned to receive light that is redirected through the edge of the panel, and the second photovoltaic element (200, 222) is positioned to receive light that is redirected through an area in the proximity of the edge and is oriented parallel and over, or parallel and below, the receiving surface of the panel, and wherein the first and second photovoltaic elements (106, 200, 222) are oriented along the same edge of the panel. a panel that is at least partially transmissive for visible light, the panel having a receiving surface for receiving incident light and being arranged such that a portion of the incident light is redirected towards regions that are at edges of the panel; and a plurality of photovoltaic elements (106, 220, 222) comprising a first and a second photovoltaic element (106, 220, 222) that are positioned at or in the proximity of the same edge of the panel, the first photovoltaic element being perpendicular to the second photovoltaic element (220, 222); a plurality of diodes comprising first and second diodes that are series connected with the first and second photovoltaic elements (106, 220 222), the first photovoltaic element and the first diode being parallel connected with the second photovoltaic element (220, 222) and the second diode; wherein the device is arranged to generate the electricity from at least a portion of the redirected light; characterised in that the first photovoltaic element is positioned to receive light that is redirected through the edge of the panel, and the second photovoltaic element (200, 222) is positioned to receive light that is redirected through an area in the proximity of the edge and is oriented parallel and over, or parallel and below, the receiving surface of the panel, and wherein the first and second photovoltaic elements (106, 200, 222) are oriented along the same edge of the panel.
A calibration device for calibrating the modulation effected by an optical intensity modulator using a light intensity measurement device, the calibration device comprising: an optical switch for switching the output path from the optical intensity modulator alternately to each of a first waveguide and a second waveguide; an optical attenuator being provided on the first waveguide; a light intensity measurement device being connected to the first waveguide and the second waveguide, the light intensity measurement device being arranged to measure the intensity of light propagating through whichever of the first waveguide and the second waveguide is optically coupled to the output path from the optical intensity modulator; a control device arranged to receive the light intensity measured by the light intensity measurement device, the control device configured to control a signal being applied to the optical intensity modulator; and a signal source arranged to receive a control signal from the control device, the signal source arranged to supply and adjust the signal being applied to the optical intensity modulator and thereby effect an adjustment of the intensity of the light transmitted by the optical intensity modulator. an optical switch for switching the output path from the optical intensity modulator alternately to each of a first waveguide and a second waveguide; an optical attenuator being provided on the first waveguide; a light intensity measurement device being connected to the first waveguide and the second waveguide, the light intensity measurement device being arranged to measure the intensity of light propagating through whichever of the first waveguide and the second waveguide is optically coupled to the output path from the optical intensity modulator; a control device arranged to receive the light intensity measured by the light intensity measurement device, the control device configured to control a signal being applied to the optical intensity modulator; and a signal source arranged to receive a control signal from the control device, the signal source arranged to supply and adjust the signal being applied to the optical intensity modulator and thereby effect an adjustment of the intensity of the light transmitted by the optical intensity modulator.
A connector shroud, comprising: an inner housing having a grooved control link formed on an outer surface, the grooved control link having a first section, a second section, and a third section that communicate with each other, the second section extending in a longitudinal direction; a coupling nut sleeved onto the inner housing, the coupling nut being configured to be coupled to an object; and a lock nut sleeved onto the inner housing, the lock nut comprising a pin formed on an inner surface, the pin being movable in the grooved control link, wherein when the pin is in the second section, pulling the lock nut causes the lock nut to move away from the coupling nut, and when the pin is in the first section or the third section, twisting the lock nut causes the coupling nut to rotate. an inner housing having a grooved control link formed on an outer surface, the grooved control link having a first section, a second section, and a third section that communicate with each other, the second section extending in a longitudinal direction; a coupling nut sleeved onto the inner housing, the coupling nut being configured to be coupled to an object; and a lock nut sleeved onto the inner housing, the lock nut comprising a pin formed on an inner surface, the pin being movable in the grooved control link, wherein when the pin is in the second section, pulling the lock nut causes the lock nut to move away from the coupling nut, and when the pin is in the first section or the third section, twisting the lock nut causes the coupling nut to rotate.
A method of generating an oxygenated compound from an aqueous feedstock solution comprising water and at least one water soluble oxygenated hydrocarbon having two or more carbon atoms and selected from ethanediol, ethanedione, acetic acid, propanol, propanediol, propionic acid, glycerol, glyceraldehyde, dihydroxyacetone, lactic acid, pyruvic acid, malonic acid, butanediols, butanoic acid, aldotetroses, tautaric acid, aldopentoses, aldohexoses, ketotetroses, ketopentoses, ketohexoses, alditols, sugars, sugar alcohols, cellulosics, lignocellulosics, saccharides, starches and polyols, the method comprising the steps of: a) generating aqueous phase reforming hydrogen by contacting an oxygenated hydrocarbon in a first portion of the aqueous feedstock solution with a first catalytic material comprising at least one Group VIII metal; and b) reacting the APR hydrogen with an oxygenated hydrocarbon in a second portion of the feedstock solution to reduce the oxygenated hydrocarbon over a second catalytic material, the second catalytic material being different than the first catalytic material and wherein the second catalytic material comprises (i) copper, at least one Group VIII metal or an alloy or mixture thereof, or (ii) a bi-functional catalyst comprising an acidic support; to produce a reaction product comprising at least one reduced oxygenated hydrocarbon compound selected from the group consisting of a diol, a polyol, a ketone, an aldehyde, a carboxylic acid and an alcohol. a) generating aqueous phase reforming hydrogen by contacting an oxygenated hydrocarbon in a first portion of the aqueous feedstock solution with a first catalytic material comprising at least one Group VIII metal; and b) reacting the APR hydrogen with an oxygenated hydrocarbon in a second portion of the feedstock solution to reduce the oxygenated hydrocarbon over a second catalytic material, the second catalytic material being different than the first catalytic material and wherein the second catalytic material comprises (i) copper, at least one Group VIII metal or an alloy or mixture thereof, or (ii) a bi-functional catalyst comprising an acidic support;
A hydrogen fueling method performed by a dispenser, comprising: obtaining initial state values from a hydrogen supply unit of the dispenser and at least one hydrogen tank of a compressed hydrogen storage system, CHSS; calculating a mass flow, a temperature of the hydrogen tank and a pressure of the hydrogen tank, and a state of charge, SOC, using a pre-stored thermodynamic model based on the initial state values; obtaining each difference, if the calculated SOC is equal to or more than a preset SOC, wherein the each difference comprises: a first difference between the calculated mass flow and a prestored first safety threshold, a second difference between the calculated temperature of the hydrogen tank and a prestored second safety threshold, and a third difference between the calculated pressure of the hydrogen tank and a prestored third safety threshold; determining (53400, S3500), based on the each difference, whether to reduce, increase, or maintain a pressure ramp rate applied when the mass flow, the temperature and the pressure is calculated, wherein the hydrogen fueling method further comprises: when a preset time elapses, repeating steps of the calculating, the obtaining and the determining (S3400, S3500). obtaining initial state values from a hydrogen supply unit of the dispenser and at least one hydrogen tank of a compressed hydrogen storage system, CHSS; calculating a mass flow, a temperature of the hydrogen tank and a pressure of the hydrogen tank, and a state of charge, SOC, using a pre-stored thermodynamic model based on the initial state values; obtaining each difference, if the calculated SOC is equal to or more than a preset SOC, wherein the each difference comprises: a first difference between the calculated mass flow and a prestored first safety threshold, a second difference between the calculated temperature of the hydrogen tank and a prestored second safety threshold, and a third difference between the calculated pressure of the hydrogen tank and a prestored third safety threshold; determining (53400, S3500), based on the each difference, whether to reduce, increase, or maintain a pressure ramp rate applied when the mass flow, the temperature and the pressure is calculated, wherein the hydrogen fueling method further comprises: when a preset time elapses, repeating steps of the calculating, the obtaining and the determining (S3400, S3500). a first difference between the calculated mass flow and a prestored first safety threshold, a second difference between the calculated temperature of the hydrogen tank and a prestored second safety threshold, and a third difference between the calculated pressure of the hydrogen tank and a prestored third safety threshold; determining (53400, S3500), based on the each difference, whether to reduce, increase, or maintain a pressure ramp rate applied when the mass flow, the temperature and the pressure is calculated, wherein the hydrogen fueling method further comprises: when a preset time elapses, repeating steps of the calculating, the obtaining and the determining (S3400, S3500).
An ADP-(P2Y 12)-like receptor modulator for use in the treatment of lithium-induced nephrogenic diabetes insipidus in a subject having a neurological disorder, wherein the exogenously administered ADP-(P2Y 12)-like receptor modulator for use decreases the activity of an ADP-(P2Y 12)-like receptor compared to the activity of an ADP-(P2Y 12) -like receptor in the absence of the exogenously administered modulator of the ADP-(P2Y 12) -like receptor.
A method for selecting an operating channel for a small cell, the method being executed by an apparatus and comprising: selecting an initial channel from a channel list downloaded from an operations, administration, and management, OAM, node as an operating channel at a small cell; determining at least one downlink quality metric provided by one or more served user equipments, UEs; determining at least one uplink quality metric based on communications received from the one or more served UEs; determining to select a different operating channel from the channel list at the small cell based at least in part on comparing (410, 412) the at least one downlink quality metric and the at least one uplink quality metric to respective thresholds; causing (424, 426) one or more connected mode UEs served by the small cell to handover to one or more neighboring cells based at least in part on the determining to select the different operating channel; modifying one or more parameters configured for one or more idle mode UEs camped on the small cell to cause the one or more idle mode UEs to reselect to the one or more neighboring cells based at least in part on the determining to select the different operating channel; and switching to use the different operating channel at least when the one or more connected mode UEs are handed over to the one or more neighboring cells. selecting an initial channel from a channel list downloaded from an operations, administration, and management, OAM, node as an operating channel at a small cell; determining at least one downlink quality metric provided by one or more served user equipments, UEs; determining at least one uplink quality metric based on communications received from the one or more served UEs; determining to select a different operating channel from the channel list at the small cell based at least in part on comparing (410, 412) the at least one downlink quality metric and the at least one uplink quality metric to respective thresholds; causing (424, 426) one or more connected mode UEs served by the small cell to handover to one or more neighboring cells based at least in part on the determining to select the different operating channel; modifying one or more parameters configured for one or more idle mode UEs camped on the small cell to cause the one or more idle mode UEs to reselect to the one or more neighboring cells based at least in part on the determining to select the different operating channel; and switching to use the different operating channel at least when the one or more connected mode UEs are handed over to the one or more neighboring cells.
A centrifugal compressor comprising: a casing further comprising a diffuser; a rotating shaft which is supported inside the casing; an impeller which is arranged on the rotating shaft and rotates to compress a fluid; and a washing liquid injection device which injects a washing liquid into a flow path formed by the impeller and the casing; wherein the washing liquid injection device is provided with a plurality of nozzles (31, 41) which are arranged along a circumferential direction of the rotating shaft to inject the washing liquid into the flow path, and a plurality of chambers which communicate with each corresponding nozzle among the plurality of nozzles and supply the washing liquid to the corresponding nozzle, characterized in that the plurality of nozzles (31,41) includes a first nozzle which is arranged on at least one of the diffuser front wall and the diffuser rear wall which form the diffuser in the flow path and formed so as to inject the washing liquid to the other of them and a second nozzle which is arranged outside in the radial direction of the diffuser in the flow path and also along the radial direction and which is formed so as to inject the washing liquid to the diffuser and also formed in such a manner that at least one of the directions at which the washing liquid is injected is the same as the rotating direction of the impeller. a casing further comprising a diffuser; a rotating shaft which is supported inside the casing; an impeller which is arranged on the rotating shaft and rotates to compress a fluid; and a washing liquid injection device which injects a washing liquid into a flow path formed by the impeller and the casing; wherein the washing liquid injection device is provided with a plurality of nozzles (31, 41) which are arranged along a circumferential direction of the rotating shaft to inject the washing liquid into the flow path, and a plurality of chambers which communicate with each corresponding nozzle among the plurality of nozzles and supply the washing liquid to the corresponding nozzle, characterized in that the plurality of nozzles (31,41) includes a first nozzle which is arranged on at least one of the diffuser front wall and the diffuser rear wall which form the diffuser in the flow path and formed so as to inject the washing liquid to the other of them and a second nozzle which is arranged outside in the radial direction of the diffuser in the flow path and also along the radial direction and which is formed so as to inject the washing liquid to the diffuser and also formed in such a manner that at least one of the directions at which the washing liquid is injected is the same as the rotating direction of the impeller.