mhurhangee/ep-ind-claims huggingface dataset:
An organic light-emitting element having a structure in which a first electrode, an organic material layer, and a second electrode are sequentially stacked on a substrate, an external terminal of the second electrode provided to be insulated from the first electrode on the substrate, and a conductive pattern that electrically connects the second electrode with the external terminal of the second electrode, wherein the external terminal of the second electrode is directly supplied with the external voltage and the second electrode is supplied with the external voltage from the external terminal of the second electrode through the conductive pattern, wherein a shape of the second electrode is the same as that of the organic material layer, wherein an area of the second electrode is the same as that of the organic material layer or has a size difference from that of the organic material layer in a range within 10%, wherein the end of the second electrode is at the same position as that of the organic material layer and is located on the external terminal of the second electrode, and characterized in that: at least a portion of the organic material layer is stacked on the external terminal of the second electrode.
End seal, connectable at the end of a flexible, notched wiring tube, which end seal is arranged to seal a space between cables (L1, L2, L3) pulled in the wiring tube and the proper wiring tube and which seal comprises a support means to which a sealing diaphragm (141, 142) is connected and which, when the end seal is mounted, abuts against said cables, the support means of said end seal comprising a support ring to which the sealing diaphragm (141, 142) is connected, which support ring consists of two support ring parts (121, 122) that are connected to each other by a hinge joint, and each support ring part (121, 122) being provided with a diaphragm part (141, 142) as well as each support ring part (121, 122) being provided with a locking part (151, 152) that, on a first support ring part, consists of a male part and that, on a second support ring part, consists of a female part, wherein the support ring parts (121, 122) with their diaphragm parts (141, 142) can, by the locking parts (151, 152), be locked together into a ring-shaped end seal, characterized in that the diaphragm parts (141, 142) abut edge to edge with each other along a straight edge line which extends parallel to a diameter of the support ring and along the same diameter when the support ring is folded and against said cables (L1, L2, L3) sealing towards the cables when the support ring parts (121, 122) are interlocked.
A baseband processing unit comprising: • a circuit board extending in a plane and having a top surface, an opposite bottom surface and four side surfaces connecting the top and bottom surface, • a first optical port cage, a second optical port cage, a first optical module, and a second optical module; wherein the first optical port cage and the second optical port cage are arranged in a thickness direction, being a direction perpendicular to the plane, of the circuit board, and both, the first optical port cage and the second optical port cage, are provided with multiple pins, the second optical port cage is installed on the bottom surface of circuit board, the first optical module is plug-connected to the first optical port cage, the second optical module is plug-connected to the second optical port cage, and an extraction lever of the first optical module and an extraction lever of the second optical module are located on a same side of one of the side surfaces of the circuit board; wherein a first base plate is disposed on the top surface of the circuit board, the first base plate is fastened on the circuit board, the first base plate is provided with a crimping hole whose opening is located on a surface of the first base plate, which faces away from the circuit board, and a pin of the first optical port cage is plug-connected to the crimping hole of the first base plate. • a circuit board extending in a plane and having a top surface, an opposite bottom surface and four side surfaces connecting the top and bottom surface, • a first optical port cage, a second optical port cage, a first optical module, and a second optical module; wherein the first optical port cage and the second optical port cage are arranged in a thickness direction, being a direction perpendicular to the plane, of the circuit board, and both, the first optical port cage and the second optical port cage, are provided with multiple pins, the second optical port cage is installed on the bottom surface of circuit board, the first optical module is plug-connected to the first optical port cage, the second optical module is plug-connected to the second optical port cage, and an extraction lever of the first optical module and an extraction lever of the second optical module are located on a same side of one of the side surfaces of the circuit board; wherein a first base plate is disposed on the top surface of the circuit board, the first base plate is fastened on the circuit board, the first base plate is provided with a crimping hole whose opening is located on a surface of the first base plate, which faces away from the circuit board, and a pin of the first optical port cage is plug-connected to the crimping hole of the first base plate.
A method for forming a joint in a stack of at least two sheets of material, where the stack of sheet material has a thickness of at least 1.0mm and the sheets have an ultimate tensile strength in the range 50-600MPa, at least one of the sheets being a light metal alloy, using a self-piercing rivet comprising the steps of: positioning the material over a die; providing a substantially cylindrical self-piercing rivet that is fully hollow so as to define a bore that extends along its entire length, the rivet having been coated at least along a portion of its bore by a lubricant; positioning the rivet over the sheet material at a position opposite the die; using a punch to set the rivet and force it into the sheet material such that it pierces the upper surface thereof, such that a shank of the rivet deforms outwardly to interlock with the material but without penetration to the die side of the material, and such that the sheet material flows to a top of the bore; wherein the rivet has a shank with an outside diameter of 5.4mm or less, and the die has a die cavity having a maximum depth in the range 0.5mm to 2.0mm and a volume that is 60% or less of the effective solid volume of the rivet.
Piston compressor for compressing a gas, having an inlet valve, which is arranged between an inlet line for gas for compression and a compression chamber of the piston compressor, and having an outlet valve, which is arranged between the compression chamber of the piston compressor and an outlet line for compressed gas, wherein the piston compressor has a separate closing device (31, 32) which is arranged downstream of the outlet valve in a flow direction of the gas and by means of which the outlet line can be closed off with respect to the compression chamber; characterised by a clutch by means of which the piston compressor is separable from a drive device, and a control device which has a signal connection both with respect to the clutch and with respect to the valve device; wherein a switchable valve device forms the closing device; and the control device is configured to switch the switchable valve device into a closed position when the clutch between the piston compressor and the drive device is open. wherein the piston compressor has a separate closing device (31, 32) which is arranged downstream of the outlet valve in a flow direction of the gas and by means of which the outlet line can be closed off with respect to the compression chamber; characterised by a clutch by means of which the piston compressor is separable from a drive device, and a control device which has a signal connection both with respect to the clutch and with respect to the valve device; wherein a switchable valve device forms the closing device; and the control device is configured to switch the switchable valve device into a closed position when the clutch between the piston compressor and the drive device is open.
Headband for a headset comprising an elongate cabinet adapted for placement behind the ear lobe, and with a speaker enclosure fastened to the cabinet part by a pivotal link and extending from the upper part of the cabinet and a microphone boom extending from the lower tip of the cabinet, and wherein the speaker enclosure has sound exit openings pointing in directions towards the ear and away from the ear whereby the headband comprises a band extending over the head of a user and where the band has a soft pad for engaging the side of the head of a user at one end thereof and a connector for connecting a headset at the other end thereof, whereby the connector comprises two shells (40,41) hinged to each other to allow a closing and opening movement and whereby the shells (40,41) define a hollow space for accommodating a speaker enclosure of a headset when the shells (40,41) are closed.
An airfoil comprising: a composite core with a first Young's Modulus in a spanwise direction, wherein the core comprises first fibers made of HiNicalon-STM and/or SCS-6TM; and an outer section at least partially surrounding the core with a second Young's Modulus in the spanwise direction, wherein the first Young's Modulus is higher than the second Young's Modulus, wherein the outer section comprises a plurality of plies formed of HiNicalonTM, and wherein the first fibers are unidirectional in the spanwise direction. a composite core with a first Young's Modulus in a spanwise direction, wherein the core comprises first fibers made of HiNicalon-STM and/or SCS-6TM; and an outer section at least partially surrounding the core with a second Young's Modulus in the spanwise direction, wherein the first Young's Modulus is higher than the second Young's Modulus, wherein the outer section comprises a plurality of plies formed of HiNicalonTM, and wherein the first fibers are unidirectional in the spanwise direction.
Fitting for a vehicle seat, in particular for a motor vehicle seat, having a first fitting part, having a second fitting part which is rotatable relative to the first fitting part about an axis, having a driveable eccentric which is mounted so as to be rotatable about the axis, and having at least one catch which is guided by the first fitting part so as to be movable in a radial direction with respect to the axis and which, for the locking of the fitting, can be moved radially outward under the action of the eccentric and interacts radially at the outside with the second fitting part, characterized in that the at least one catch is composed of a first catch part and a second catch part, and each of the catch parts (13a, 13b) has a toothing (13a', 13b') for interacting with a toothing, in the form of a toothed ring, of the second fitting part.
A die (302,304) for a printhead, comprising: a plurality of fluidic actuator arrays (622,626), proximate to a plurality of fluid feed holes; a plurality of address lines, proximate to a plurality of logic circuits on a low-voltage side of the plurality of fluid feed holes; and an address decoder circuit that couples to at least a portion of the address lines to select a fluidic actuator in a fluidic actuator array (622,626) for firing, wherein: the address decoder circuit is customized to select a different address for each fluidic actuator in the fluidic actuator array (622,626); and a logic circuit that triggers a driver circuit located in a high-voltage side of the plurality of fluid feed holes opposite the low-voltage side, based, at least in part, on a bit value for the fluidic actuator array (622,626), the fluidic actuator selected by the address decoder circuit, and a firing signal. a plurality of fluidic actuator arrays (622,626), proximate to a plurality of fluid feed holes; a plurality of address lines, proximate to a plurality of logic circuits on a low-voltage side of the plurality of fluid feed holes; and an address decoder circuit that couples to at least a portion of the address lines to select a fluidic actuator in a fluidic actuator array (622,626) for firing, wherein: the address decoder circuit is customized to select a different address for each fluidic actuator in the fluidic actuator array (622,626); and a logic circuit that triggers a driver circuit located in a high-voltage side of the plurality of fluid feed holes opposite the low-voltage side, based, at least in part, on a bit value for the fluidic actuator array (622,626), the fluidic actuator selected by the address decoder circuit, and a firing signal. the address decoder circuit is customized to select a different address for each fluidic actuator in the fluidic actuator array (622,626); and a logic circuit that triggers a driver circuit located in a high-voltage side of the plurality of fluid feed holes opposite the low-voltage side, based, at least in part, on a bit value for the fluidic actuator array (622,626), the fluidic actuator selected by the address decoder circuit, and a firing signal.
An industrial controller configured to control at least one industrial activity, the industrial controller comprising: a control program hosted by the industrial controller, configured to control the industrial activity; a cloud agent configured for: sending cloud variables to analytics application from the control program; and the control program configured for: controlling the industrial activity using updated optimized cloud variables generated by the analytics application, wherein the updated optimized cloud variables are generated based on the cloud variables received from the cloud agent, wherein the control program is configured to include cloud constructs which request the updated optimized cloud variables on runtime and to reload the updated optimized cloud variables in the control program, wherein the cloud constructs define the cloud variables that are to be updated by the cloud analytics application. a control program hosted by the industrial controller, configured to control the industrial activity; a cloud agent configured for: sending cloud variables to analytics application from the control program; and the control program configured for: controlling the industrial activity using updated optimized cloud variables generated by the analytics application, wherein the updated optimized cloud variables are generated based on the cloud variables received from the cloud agent, wherein the control program is configured to include cloud constructs which request the updated optimized cloud variables on runtime and to reload the updated optimized cloud variables in the control program, wherein the cloud constructs define the cloud variables that are to be updated by the cloud analytics application. sending cloud variables to analytics application from the control program; and the control program configured for: controlling the industrial activity using updated optimized cloud variables generated by the analytics application, wherein the updated optimized cloud variables are generated based on the cloud variables received from the cloud agent, wherein the control program is configured to include cloud constructs which request the updated optimized cloud variables on runtime and to reload the updated optimized cloud variables in the control program, wherein the cloud constructs define the cloud variables that are to be updated by the cloud analytics application. controlling the industrial activity using updated optimized cloud variables generated by the analytics application, wherein the updated optimized cloud variables are generated based on the cloud variables received from the cloud agent, wherein the control program is configured to include cloud constructs which request the updated optimized cloud variables on runtime and to reload the updated optimized cloud variables in the control program, wherein the cloud constructs define the cloud variables that are to be updated by the cloud analytics application.
A stratified scavenging two-stroke engine comprising: a crankcase; a cylinder having a cylinder bore; an intake passage supplying air-fuel mixture into the crankcase via an intake port; a scavenging passage supplying the air-fuel mixture from the crankcase into the cylinder bore via a scavenging port; a leading-air passage supplying leading air into the scavenging passage; and an exhaust passage being disposed on an opposite side of the intake passage with the cylinder bore the exhaust passage discharging exhaust gas via an exhaust port, the cylinder and the crankcase are provided by separate bodies that are coupled to each other, the scavenging passage includes a main passage provided near the exhaust port and a sub passage provided near the intake port, the outer circumference of the piston is provided with a pair of recesses for communicating the leading-air passage and the scavenging passages in conjunction with the upward movement of the piston, characterized in that the main passage and the sub passage are isolated from each other by a partition that extends over substantially an entire length of the main passage and the sub passage, the sub passage includes an air-fuel mixture inlet provided at a position corresponding to an opening end of the cylinder bore that faces the crankcase, the inlet functions as a flow rate adjuster, the opening end of the cylinder bore is formed in a cylindrical skirt that is inserted into the crankcase a vicinity of the inlet of the sub passage is defined by a part of an outer circumference of the skirt, the partition, an inner wall of the crankcase spaced from the part of the skirt, and a closure extending from the inner wall toward the skirt, and the inlet is provided by a clearance having a predetermined width formed between a peripheral edge of the closure and the outer circumference of the skirt.
A helmet with a multi-directional suspension system comprising an outer shell of the helmet and an inner shell of the helmet and at least three suspension connectors, wherein each suspension connector comprises two opposite parts, wherein a first part of the suspension connector is connected to the first one of the inner shell of the helmet or the outer shell of the helmet and a second part of the suspension connector is connected to the second one of the inner shell of the helmet or the outer shell of the helmet, wherein each part of the suspension connector comprises a base where each base is connected by at least three flexible suspensions characterized in that each base comprises at least one bracket extending therefrom in a direction towards the base of the opposite part and the tops of the brackets are connected by at least one flexible suspension, wherein the top of the bracket of the first part is closer to the base of the second part than the top of the bracket of the second part, wherein the length of the flexible suspensions is adapted such that all the flexible suspensions are in a tensioned state.
A computer implemented method of monitoring a communication network, the method comprising checking if remote electrical tilt, RET, equipment operates as intended, the method further comprising obtaining first information (401, 501) related to remote electrical tilt configurations deployed in the communication network; obtaining second information (411, 511) related to cell documentation; rearranging (302, 303, 306) at least one of the first information and the second information by grouping at least one of the first information and the second information by antenna instances, comparing the first and second information to identify mismatches between the first and second information, if any; and outputting an alarm concerning mismatches identified as a result of the comparison. obtaining first information (401, 501) related to remote electrical tilt configurations deployed in the communication network; obtaining second information (411, 511) related to cell documentation; rearranging (302, 303, 306) at least one of the first information and the second information by grouping at least one of the first information and the second information by antenna instances, comparing the first and second information to identify mismatches between the first and second information, if any; and outputting an alarm concerning mismatches identified as a result of the comparison.
Use of carboxylic acids in the rinsing step of machine washing processes in such quantities that the pH value of the after-treatment liquor is adjusted to a value in the range below pH 7 to shorten the drying time of the washed and, if necessary, spin-dried textiles.
A method for managing user interface elements on a touch screen, the method comprising the steps of: displaying, on the touch screen, a plurality of UI elements in original docking positions, where further activation of any one UI element of which causes a particular corresponding function, application, or program to be executed; detecting a plurality of simultaneous current contact points on the touch screen; and re-arranging the plurality of UI elements on the touch screen from the original docking positions to place one of the plurality of UI elements under each current contact point on the touch screen in response to the detecting the plurality of simultaneous current contact points on the touch screen. displaying, on the touch screen, a plurality of UI elements in original docking positions, where further activation of any one UI element of which causes a particular corresponding function, application, or program to be executed; detecting a plurality of simultaneous current contact points on the touch screen; and re-arranging the plurality of UI elements on the touch screen from the original docking positions to place one of the plurality of UI elements under each current contact point on the touch screen in response to the detecting the plurality of simultaneous current contact points on the touch screen.