mhurhangee/ep-ind-claims huggingface dataset:
A modular conveyor belt comprising: a plurality of first rows of first belt modules and a plurality of second rows of second belt modules wherein the first rows and the second rows are alternately connected to each other at hinge joints between consecutive first and second rows; wherein each of the first rows has a drive face (56;57) for receiving a drive tooth and wherein all the second rows are devoid of drive faces and wherein the first rows of first belt modules and the second rows of second belt modules each comprise: a plurality of links ( 50, 52; 42, 44) extending in a direction of belt travel from a first link end to a second link end and separated by gaps (47; 46) between facing sides of consecutive links; a plurality of bridges ( 48; 49) extending between facing sides of consecutive links across the gaps between the first link ends and the second link ends characterized in that the modular conveyor belt further comprises a drive pocket formed in one of the links in each of the first rows and bounded by the drive face (56, 57) to receive a drive tooth. a plurality of first rows of first belt modules and a plurality of second rows of second belt modules wherein the first rows and the second rows are alternately connected to each other at hinge joints between consecutive first and second rows; wherein each of the first rows has a drive face (56;57) for receiving a drive tooth and wherein all the second rows are devoid of drive faces and wherein the first rows of first belt modules and the second rows of second belt modules each comprise: a plurality of links ( 50, 52; 42, 44) extending in a direction of belt travel from a first link end to a second link end and separated by gaps (47; 46) between facing sides of consecutive links; a plurality of bridges ( 48; 49) extending between facing sides of consecutive links across the gaps between the first link ends and the second link ends characterized in that the modular conveyor belt further comprises a drive pocket formed in one of the links in each of the first rows and bounded by the drive face (56, 57) to receive a drive tooth. a plurality of links ( 50, 52; 42, 44) extending in a direction of belt travel from a first link end to a second link end and separated by gaps (47; 46) between facing sides of consecutive links; a plurality of bridges ( 48; 49) extending between facing sides of consecutive links across the gaps between the first link ends and the second link ends characterized in that the modular conveyor belt further comprises a drive pocket formed in one of the links in each of the first rows and bounded by the drive face (56, 57) to receive a drive tooth.
A transceiver (115, 130) to be mated together with a front connector and a back connector, the transceiver (115, 130) comprising: a circuit board including a front end, a back end, a top, and a bottom; first lands (115c, 115d) located on the top and the bottom of the circuit board at the front end to be mated with the front connector (132, 142, 152, 162, 172, 182, 192, 202) so as to transmit and/or receive high-speed signals; second lands located on the bottom of the circuit board near the back end to be mated with the back connector (134, 144, 154, 164, 174, 184, 194, 204) so as to transmit and/or receive low-speed signals; and an optical engine configured to convert optical signals into electrical signals and/or convert electrical signal into optical signals, the optical engine being mounted to the circuit board and configured to be connected to a fiber optic cable. a circuit board including a front end, a back end, a top, and a bottom; first lands (115c, 115d) located on the top and the bottom of the circuit board at the front end to be mated with the front connector (132, 142, 152, 162, 172, 182, 192, 202) so as to transmit and/or receive high-speed signals; second lands located on the bottom of the circuit board near the back end to be mated with the back connector (134, 144, 154, 164, 174, 184, 194, 204) so as to transmit and/or receive low-speed signals; and an optical engine configured to convert optical signals into electrical signals and/or convert electrical signal into optical signals, the optical engine being mounted to the circuit board and configured to be connected to a fiber optic cable.
Lighting device for a motor vehicle having at least one adaptive lighting unit (18, 20), which includes an immovably arranged lighting source and at least one optical component in the form of a lens arranged at least partially in a ray path of the lighting source, as well as an adjusting device which is configured to move the optical component, wherein the adjusting device includes a micromechanical actuator, wherein the optical component is arranged and designed such that from a movement of the optical component by means of the micromechanical actuator results a pivoting of a light cone (32, 32a, 32b) which can be generated by means of the lighting source in cooperation with the optical component, wherein the optical component is mounted able to pivot about an axis and the micromechanical actuator is configured to pivot the optical component about the axis, wherein the lighting device is configured to provide a basic lighting distribution having a dipped beam function and/or a main beam function, a partial main beam function or marker light function, wherein the movable light cone (32, 32a, 32b) which can be generated by means of the lighting source in cooperation with the optical component can be superimposed at least partially on the basic light distribution, in that the lighting device is configured to increase in each case with the movable light cone (32, 32a, 32b) an illumination strength in a central region of the basic light distribution, and/or to increase the illumination strength adjacent to objects excluded by the basic light distribution as a partial main beam with a vertical light-dark-boundary, and/or in curves or as another type of topology compensation to illuminate a roadway course in an adaptive manner, characterised in that the micromechanical actuator is an electrostatic actuator with a shape of an electrostatic torsional structure with which the optical component is moved.
Articulation device for a medical instrument, comprising: a coupling (80, 90) for releasable mechanical connection of the articulation device to a tool or to the distal end of a shaft; a locking device (84, 85, 86, 93, 94, 95, 96) on the coupling (80, 90) for locking the mechanical connection; a hinge (71, 72), which enables the coupling (80, 90) to be angled relative to an end of the articulation device remote from the coupling (80, 90), characterized in that the locking device (84, 85, 86, 93, 94, 95, 96) is designed such that the mechanical connection is locked at all working angular positions (74, 75) of the hinge (71, 72) within a predetermined working range of working angular positions (74, 75) and is releasable at a predetermined release angular position (73, 76) of the hinge (71, 72). a coupling (80, 90) for releasable mechanical connection of the articulation device to a tool or to the distal end of a shaft; a locking device (84, 85, 86, 93, 94, 95, 96) on the coupling (80, 90) for locking the mechanical connection; a hinge (71, 72), which enables the coupling (80, 90) to be angled relative to an end of the articulation device remote from the coupling (80, 90), characterized in that the locking device (84, 85, 86, 93, 94, 95, 96) is designed such that the mechanical connection is locked at all working angular positions (74, 75) of the hinge (71, 72) within a predetermined working range of working angular positions (74, 75) and is releasable at a predetermined release angular position (73, 76) of the hinge (71, 72).
An in vitro method of reducing TDP-43 toxicity in a human neuronal cell or human glial cell suffering from or susceptible to such toxicity, comprising: providing to the cell a therapeutically effective amount of a UPF1 polypeptide, thereby reducing the TDP-43 toxicity in the cell.
A method for operating a robotic cleaner, the method comprising: generating at least one map including information regarding a space to be cleaned by using information measured by at least one sensor; setting a cleaning path by using the at least one map; and cleaning according to the cleaning path, characterised in that the at least one map includes at least one of a first map that indicates a cleaning complete state, a second map that indicates reachability of the robotic cleaner, and a third map that indicates an area difficult to be cleaned. generating at least one map including information regarding a space to be cleaned by using information measured by at least one sensor; setting a cleaning path by using the at least one map; and cleaning according to the cleaning path, characterised in that the at least one map includes at least one of a first map that indicates a cleaning complete state, a second map that indicates reachability of the robotic cleaner, and a third map that indicates an area difficult to be cleaned.
A fluid composition containing a source of iron in non-ionic form and the vehicle, characterised in that it consists of elemental iron with average particle size D 50 in the range from 7 to 10 micrometres in an amount from 0.1% to 15.0% w/w, and a vehicle selected from glycerol and/or a vegetable oil and/or fish oil in an amount from 85% to 99.9% w/w., individually or in a mixture.
Device for a production of cable harnesses, in particular of cable harnesses for household appliances, comprising a stand at which a a rotor is rotatably mounted, the rotor comprising at least two rotor arms on which at least two mounting boards are mounted, wherein each mounting board allows to produce at least one cable harness, and wherein at least one electrical stand contact (50, 52) is mounted to the stand and can be connected to an electrical test device, and wherein an electrical mating contact is associated with each mounting board and can be connected to a cable harness which is arranged on the mounting board, wherein the mating contact of each mounting board comes into electrical contact with the stand contact (50, 52) in a specific rotational position of the rotor, in order to connect the cable harness to the test device.
An intake structure for an internal combustion engine for use on a saddle-type vehicle, having upper, lower, left, and right ribs (71, 72, 73, 74) for dealing with vibrations and being erected respectively on upper, lower, left, and right surfaces of an intake pipe of the engine, wherein: an injector is disposed between the upper rib and one of the left rib and the right rib, and injector-side installation holes (84A, 84B) are disposed between the upper rib and the other of the left rib and the right rib, and the injector and the injector-side installation holes (84A, 84B) are disposed respectively on left and right sides of the upper rib, characterized in that the left and right ribs extend longitudinally along the intake pipe. an injector is disposed between the upper rib and one of the left rib and the right rib, and injector-side installation holes (84A, 84B) are disposed between the upper rib and the other of the left rib and the right rib, and the injector and the injector-side installation holes (84A, 84B) are disposed respectively on left and right sides of the upper rib, characterized in that the left and right ribs extend longitudinally along the intake pipe.
A developer cartridge attachable to and detachable from a main casing of an image forming device, the developer cartridge comprising: a cartridge housing; a developing roller disposed within the cartridge housing; and a first rotator configured to transmit a driving force to the developing roller, characterized in that the first rotator is movable with respect to the cartridge housing in an advancing direction parallel to an axial direction of the developing roller and in a retracting direction opposite to the advancing direction to be movable between a retracted position and an advanced position, the first rotator has an engaged portion that is configured to engage with a second rotator disposed on the main casing when the first rotator is moved in the advancing direction to the advanced position and that is configured to disengage from the second rotator when the first rotator is moved in the retracting direction to the retracted position, the developer cartridge is mountable to the main casing by being inserted in a mounting direction orthogonal to the advancing and retracting directions whereby, as the developer cartridge is inserted to the main casing in the mounting direction, the first rotator moves from the advanced position to the retracting position, then the first rotator moves from the retracting position to the advanced position and the first rotator coaxially confronts the second rotator. a cartridge housing; a developing roller disposed within the cartridge housing; and a first rotator configured to transmit a driving force to the developing roller, characterized in that the first rotator is movable with respect to the cartridge housing in an advancing direction parallel to an axial direction of the developing roller and in a retracting direction opposite to the advancing direction to be movable between a retracted position and an advanced position, the first rotator has an engaged portion that is configured to engage with a second rotator disposed on the main casing when the first rotator is moved in the advancing direction to the advanced position and that is configured to disengage from the second rotator when the first rotator is moved in the retracting direction to the retracted position, the developer cartridge is mountable to the main casing by being inserted in a mounting direction orthogonal to the advancing and retracting directions whereby, as the developer cartridge is inserted to the main casing in the mounting direction, the first rotator moves from the advanced position to the retracting position, then the first rotator moves from the retracting position to the advanced position and the first rotator coaxially confronts the second rotator.
A method for establishing a communication between a gateway and a communication module, comprising: • periodically radiobroadcasting in successive radiobroadcasting periods from a gateway a synchronization signal, the synchronization signal being emitted during an emission window exhibiting a defined duration Dx within each radiobroadcasting period, • periodically activating in successive activation periods a receiver of a communication module, the receiver being activated during an awake window within each activation period, the duration of the awake window being less than the duration Tr of the activation period, • receiving the synchronization radio signal by the receiver of the communication module during an overlap between a said awake window and a said emission window, • radiobroadcasting a data message from an emitter of the communication module, the radiobroadcasting of the data message being triggered by the reception of the synchronization signal, • receiving the data message by a receiver of the gateway, characterized in that: • the duty cycle DC=Dx/Tx between the duration of the emission window Dx of the synchronization signal and the duration Tx of the radiobroadcasting period is less than 50%, • the duration Tr of the activation period is equal to Tr=Tx/(1+DC). • periodically radiobroadcasting in successive radiobroadcasting periods from a gateway a synchronization signal, the synchronization signal being emitted during an emission window exhibiting a defined duration Dx within each radiobroadcasting period, • periodically activating in successive activation periods a receiver of a communication module, the receiver being activated during an awake window within each activation period, the duration of the awake window being less than the duration Tr of the activation period, • receiving the synchronization radio signal by the receiver of the communication module during an overlap between a said awake window and a said emission window, • radiobroadcasting a data message from an emitter of the communication module, the radiobroadcasting of the data message being triggered by the reception of the synchronization signal, • receiving the data message by a receiver of the gateway, • the duty cycle DC=Dx/Tx between the duration of the emission window Dx of the synchronization signal and the duration Tx of the radiobroadcasting period is less than 50%, • the duration Tr of the activation period is equal to Tr=Tx/(1+DC).
A system for positioning a radiation source comprising: a gantry; a radiation source mounted on the gantry; positron emission detectors mounted on the gantry, wherein the positron emission detectors are configured to detect a positron emission path that intersects a region of interest within a coordinate system, the emission path being substantially perpendicular to a pre-determined direction of margin of extension from the region of interest; and a controller in communication with the radiation source and the positron emission detectors, the controller configured to position the radiation source along the emission path, wherein the radiation source is configured to generate a radiation beam with a width that corresponds to a width of the margin of extension.
A process for recovery of metal comprising copper and/or a precious metal from a metal containing material, including the steps of: • leaching the metal containing material with an alkaline solution having a pH of at least 9 and containing a lixiviant comprising an amino acid or derivative thereof to produce a metal containing leachate; and • extracting the metal from the leachate, wherein the amino acid comprises glycine at a concentration of at least 0.01 M. • leaching the metal containing material with an alkaline solution having a pH of at least 9 and containing a lixiviant comprising an amino acid or derivative thereof to produce a metal containing leachate; and • extracting the metal from the leachate, wherein the amino acid comprises glycine at a concentration of at least 0.01 M.
A system for determining an adjustment for a vehicle control system, the system comprising: at least one processing device programmed to: receive, from at least one camera (122, 124, 126) of a vehicle, at least two images representative of an environment of the vehicle, the environment including a road surface ahead of the vehicle, where at least one of the two images includes color information; align at least a portion of the at least two images using an estimated motion of the vehicle; provide at least the aligned portions of the at least two images to a trained system configured to determine a characteristic of the road surface using the aligned portions of the at least two images, wherein the trained system is associated with a learning system trained over aligned portions of at least two images; receive, from the trained system, the determined characteristic of the road surface; and provide, to the vehicle control system, based on at least the determined characteristic of the road surface, control information for changing at least one setting of the vehicle control system. receive, from at least one camera (122, 124, 126) of a vehicle, at least two images representative of an environment of the vehicle, the environment including a road surface ahead of the vehicle, where at least one of the two images includes color information; align at least a portion of the at least two images using an estimated motion of the vehicle; provide at least the aligned portions of the at least two images to a trained system configured to determine a characteristic of the road surface using the aligned portions of the at least two images, wherein the trained system is associated with a learning system trained over aligned portions of at least two images; receive, from the trained system, the determined characteristic of the road surface; and provide, to the vehicle control system, based on at least the determined characteristic of the road surface, control information for changing at least one setting of the vehicle control system.
A device for pulsed electric discharge in a liquid, said device comprising at least a pair of electrodes, configured to be immersed in said liquid, and a voltage generator capable of applying a heating voltage (Vc) between the electrodes of said at least one pair of electrodes for a so-called "heating" period in order to heat the liquid until a pulsed electric discharge is caused in said liquid, said device being characterized in that it further comprises a control module configured to: - control the voltage generator from a predetermined heating voltage set point so that said voltage generator applies a heating voltage (Vc) between the electrodes of said at least one pair of electrodes during the heating period until a pulsed electric discharge is obtained between said electrodes, - measure the voltage across the electrodes in order to determine the breakdown voltage (V B) at which the pulsed electric discharge occurred, the device being characterized in that the control module is further configured to: - estimate the quantity of energy supplied to the liquid during the heating period, so-called "quantity of heating energy" (E loss), from the predetermined heating voltage set point (Vc) and the breakdown voltage (V B) measured, - determine a new heating voltage set point (Vc) to be applied between the electrodes of said at least one pair of electrodes at the next pulsed electric discharge from the heating energy quantity (E loss) estimated and a predefined breakdown voltage set point (V B). - control the voltage generator from a predetermined heating voltage set point so that said voltage generator applies a heating voltage (Vc) between the electrodes of said at least one pair of electrodes during the heating period until a pulsed electric discharge is obtained between said electrodes, - measure the voltage across the electrodes in order to determine the breakdown voltage (V B) at which the pulsed electric discharge occurred, the device being characterized in that the control module is further configured to: - estimate the quantity of energy supplied to the liquid during the heating period, so-called "quantity of heating energy" (E loss), from the predetermined heating voltage set point (Vc) and the breakdown voltage (V B) measured, - determine a new heating voltage set point (Vc) to be applied between the electrodes of said at least one pair of electrodes at the next pulsed electric discharge from the heating energy quantity (E loss) estimated and a predefined breakdown voltage set point (V B).