mhurhangee/ep-ind-claims huggingface dataset:
A synchronization device comprising at least two actuating devices (100, 200) for moving a movable furniture part, and a synchronization rod having a longitudinal direction for synchronizing the movement of the at least two actuating devices (100, 200, wherein a first end portion of the synchronization rod is configured to be connected to a first rotary portion of the first actuating device and a second end portion of the synchronization rod is configured to be connected to a second rotary portion of the second actuating device, wherein mounting of the synchronization rod is also possible when the two actuating devices (100, 200) with the rotary portions (102, 202) are already pre-mounted to an item of furniture, wherein the synchronization rod, in a mounted condition, is connected to the rotary portions (102, 202) of the actuating devices (100, 200) in a torque-proof manner, characterized in that at least one rotary portion of the actuating devices (100, 200) includes a spring-loaded pressure portion bearing against the front face of the synchronization rod in the mounted condition, so that the synchronization rod is pre-stressed relative to the two rotary portions (102,202) between the two opposing rotary portions (102, 202) of the two actuating devices (100, 200) with a predetermined holding force in the longitudinal direction of the synchronization rod and is held without clearance between the two rotary portions (102, 202) in the longitudinal direction of the synchronization rod by the spring-loaded pressure portion.
Body ply skim compound comprising a cross-linkable unsaturated chain polymer base, a filler material and a vulcanization system; said compound being characterized by comprising: (a) polyepihalohydrin rubber; (b) epoxidized natural rubber as a cross-linkable unsaturated chain polymer base; and (c) a laminated structure material as a filler material.
A central nervous magnetic stimulation device for health care or medical devices, comprising a power source, a control circuit and a coil component; wherein, the control circuit comprises a main control chip and a main circuit, the power source is configured to supply power to the control circuit, and the control circuit is configured to output a time-varying current to the coil component to generate a corresponding time-varying magnetic field; wherein an action area of the time-varying magnetic field matches with a size of a human head, and the time-varying current is output at a frequency above 2000Hz; wherein the coil component is composed of at least one planar wound coil, and the interior of the coil is hollow, the coil component is configured to generate the time-varying magnetic field with an approximately uniform intensity distribution in the action area corresponding to the size of the human head; the time-varying current outputs rhythmically at a preset frequency, wherein the time-varying current outputs at a preset frequency and forming a series rhythm of rhythmically clustered distribution with appropriate duty cycles; alternatively, the time-varying current outputs at a preset frequency and forms a rhythmic envelope output in a differential frequency manner; and wherein the rhythmic output of the time-varying current exhibits intermittent characteristics; and wherein a maximum value of a peak intensity of the time-varying magnetic field within the action area that covers the user's head is greater than 0.5Gs and less than 20Gs, and a change rate of the peak intensity of the time-varying magnetic field over time, dB/dt, within the action area is less than 35T/s. wherein an action area of the time-varying magnetic field matches with a size of a human head, and the time-varying current is output at a frequency above 2000Hz; wherein the coil component is composed of at least one planar wound coil, and the interior of the coil is hollow, the coil component is configured to generate the time-varying magnetic field with an approximately uniform intensity distribution in the action area corresponding to the size of the human head; the time-varying current outputs rhythmically at a preset frequency, wherein the time-varying current outputs at a preset frequency and forming a series rhythm of rhythmically clustered distribution with appropriate duty cycles; alternatively, the time-varying current outputs at a preset frequency and forms a rhythmic envelope output in a differential frequency manner; and wherein the rhythmic output of the time-varying current exhibits intermittent characteristics; and wherein a maximum value of a peak intensity of the time-varying magnetic field within the action area that covers the user's head is greater than 0.5Gs and less than 20Gs, and a change rate of the peak intensity of the time-varying magnetic field over time, dB/dt, within the action area is less than 35T/s.
A cleaning shoe for an agricultural machine, the agricultural machine including a chassis and a header for harvesting agricultural material, the cleaning shoe comprising: a chaffer configured to be supported for movement relative to the chassis; a sieve positioned below at least a portion of the chaffer, the sieve configured to be supported for movement relative to the chassis; a first link including a first end and a second end coupled to the chaffer; a second link including a first end and a second end coupled to the sieve; and a drive shaft driven to rotate about a shaft axis, the drive shaft including a first cam and a second cam, the first cam coupled to the first end of the first link, the second cam coupled to the first end of the second link, the rotation of the drive shaft driving the first link to reciprocate the chaffer and driving the second link to reciprocate the sieve, the second cam angularly offset relative to the first cam by a phase angle about the shaft axis, characterized in that the phase angle is between approximately 160 degrees and approximately 100 degrees. a chaffer configured to be supported for movement relative to the chassis; a sieve positioned below at least a portion of the chaffer, the sieve configured to be supported for movement relative to the chassis; a first link including a first end and a second end coupled to the chaffer; a second link including a first end and a second end coupled to the sieve; and a drive shaft driven to rotate about a shaft axis, the drive shaft including a first cam and a second cam, the first cam coupled to the first end of the first link, the second cam coupled to the first end of the second link, the rotation of the drive shaft driving the first link to reciprocate the chaffer and driving the second link to reciprocate the sieve, the second cam angularly offset relative to the first cam by a phase angle about the shaft axis, characterized in that the phase angle is between approximately 160 degrees and approximately 100 degrees.
Method of secure transfer of a digital file originating from a first computerized system to at least one second computerized system via a secure transfer device, comprising: - writing the digital file on a first file management module of the secure transfer device (DISP), said first file management module being configured to store said digital file received from the first computerized system; - transferring the digital file to a verification module module that is internal to the secure transfer device; - verifying at least part of the digital file transferred into the verification module; - transferring the at least partially verified digital file to a second file management module of the secure transfer device based on the result of said verification; further comprising a step of formatting the digital file written on the first file management module comprising dividing said digital file into a plurality of data packets (F i) having a size smaller than a maximum size of data packets allowed to be transferred to the verification module, the verification being performed on at least one of said data packets; wherein the verification module comprises a first verification sub-module, the step of transferring comprising transferring at least one of said data packets to the first verification sub-module and the step of verifying comprising a first individual verification performed on each of the data packets transferred into the first verification sub-module; wherein the verification module further comprises a second verification sub-module, characterized in that the step of verifying further comprises the transfer of at least one of the data packets individually verified in the first verification sub-module to the second verification sub-module and a second verification performed on at least one of the data packets transferred in the second verification sub-module. - writing the digital file on a first file management module of the secure transfer device (DISP), said first file management module being configured to store said digital file received from the first computerized system; - transferring the digital file to a verification module module that is internal to the secure transfer device; - verifying at least part of the digital file transferred into the verification module; - transferring the at least partially verified digital file to a second file management module of the secure transfer device based on the result of said verification;
A system for an aircraft, the system comprising: a probe that includes a heater comprising a resistive heating element routed through the probe, wherein an operational voltage is provided to the resistive heating element to provide heating for the probe; characterised by further comprising: a control circuit configured to provide the operational voltage and monitor a capacitance between the resistive heating element and a metallic sheath of the heater over time; wherein the control circuit is further configured to determine a remaining useful life of the probe based on the capacitance. a probe that includes a heater comprising a resistive heating element routed through the probe, wherein an operational voltage is provided to the resistive heating element to provide heating for the probe; characterised by further comprising: a control circuit configured to provide the operational voltage and monitor a capacitance between the resistive heating element and a metallic sheath of the heater over time; wherein the control circuit is further configured to determine a remaining useful life of the probe based on the capacitance. a control circuit configured to provide the operational voltage and monitor a capacitance between the resistive heating element and a metallic sheath of the heater over time; wherein the control circuit is further configured to determine a remaining useful life of the probe based on the capacitance.
A method of repairing a rotary component of an aircraft propulsion system, comprising: identifying a non-compliant surface of the component, wherein the non-compliant surface is not within an allowable tolerance; cold spraying a powder comprising a metal onto the non-compliant surface; and forming a coating comprising the metal over the non-compliant surface, wherein an outer surface of the coating is within an allowable tolerance; wherein the component contains electronic equipment, optical equipment, or fluid sensing devices during the cold spraying, and wherein the cold spraying does not damage the electronic equipment; and wherein said cold spraying comprises restricting heat to the non-compliant surface and avoiding one or more undamaged portions of the component by masking off one or more portions of the non-compliant surface from the undamaged portions of the rotary component with a thermally insulating masking material, and localizing heat away from: (i) temperature sensitive materials in other parts of the component; (ii) said electronic equipment; or (iii) combinations of (i) and (ii). identifying a non-compliant surface of the component, wherein the non-compliant surface is not within an allowable tolerance; cold spraying a powder comprising a metal onto the non-compliant surface; and forming a coating comprising the metal over the non-compliant surface, wherein an outer surface of the coating is within an allowable tolerance; wherein the component contains electronic equipment, optical equipment, or fluid sensing devices during the cold spraying, and wherein the cold spraying does not damage the electronic equipment; and wherein said cold spraying comprises restricting heat to the non-compliant surface and avoiding one or more undamaged portions of the component by masking off one or more portions of the non-compliant surface from the undamaged portions of the rotary component with a thermally insulating masking material, and localizing heat away from: (i) temperature sensitive materials in other parts of the component; (ii) said electronic equipment; or (iii) combinations of (i) and (ii). (i) temperature sensitive materials in other parts of the component; (ii) said electronic equipment; or (iii) combinations of (i) and (ii).
A method of covalently attaching a chromosome within a cell to a matrix comprising modifying a plurality of nucleotides within the chromosome to include a matrix attachment moiety wherein the chromosome contacts the matrix, and attaching the matrix attachment moiety of the plurality of nucleotides to the matrix, thereby attaching the chromosome to the matrix. wherein the matrix attachment moiety comprises one or more of amine, amine reactive groups, acrydite, an acrydite modified entity, alkyne, biotin, azide, thiol, a thiol-modified entity, and entities suitable for click chemistry techniques; wherein the matrix is an expandable matrix comprising one or more of polyacrylamide, cellulose, alginate, polyamide, crosslinked agarose, cross-linked dextran, cross-linked polyethylene glycol, and optionally including avidin/streptavidin derivative or an antibody; and wherein the matrix attachment moiety and the matrix are selected based on the ability of the matrix attachment moiety to attach to the matrix. modifying a plurality of nucleotides within the chromosome to include a matrix attachment moiety wherein the chromosome contacts the matrix, and attaching the matrix attachment moiety of the plurality of nucleotides to the matrix, thereby attaching the chromosome to the matrix. wherein the matrix attachment moiety comprises one or more of amine, amine reactive groups, acrydite, an acrydite modified entity, alkyne, biotin, azide, thiol, a thiol-modified entity, and entities suitable for click chemistry techniques; wherein the matrix is an expandable matrix comprising one or more of polyacrylamide, cellulose, alginate, polyamide, crosslinked agarose, cross-linked dextran, cross-linked polyethylene glycol, and optionally including avidin/streptavidin derivative or an antibody; and wherein the matrix attachment moiety and the matrix are selected based on the ability of the matrix attachment moiety to attach to the matrix.
A display assembly for mounting on a head-worn device, and having: a partially reflective and transparent surface located in a field of view of a user of the device; a display projector for projecting light on to the partially reflective surface for reflection by the partially reflective surface towards the user of the display assembly; a sensor for use in tracking an eye of the user; a source of non-visible illumination for illuminating the eye of the user; the source of non-visible-illumination comprising the display projector; the display projector being arranged to interleave in time the non-visible illumination output with the display output; wherein the sensor is aligned to receive light forming an image of at least one eye of the user, the light forming the image being reflected by the partially reflective surface towards the sensor, the image being for use in eye-tracking, and the exit pupil of the display is illuminated wholly with non-visible light during the non-visible illumination interleaving time. a partially reflective and transparent surface located in a field of view of a user of the device; a display projector for projecting light on to the partially reflective surface for reflection by the partially reflective surface towards the user of the display assembly; a sensor for use in tracking an eye of the user; a source of non-visible illumination for illuminating the eye of the user; the source of non-visible-illumination comprising the display projector; the display projector being arranged to interleave in time the non-visible illumination output with the display output; wherein the sensor is aligned to receive light forming an image of at least one eye of the user, the light forming the image being reflected by the partially reflective surface towards the sensor, the image being for use in eye-tracking, and the exit pupil of the display is illuminated wholly with non-visible light during the non-visible illumination interleaving time.
A self-optimization method, characterized by comprising: acquiring, by a managed unit, a self-optimization trigger rule, the self-optimization trigger rule being created by a managing unit in accordance with self-optimization capability of the managed unit; executing, by the managed unit, a self-optimization when satisfying condition of the self-optimization trigger rule; wherein the self-optimization capability of the managed unit comprises at least one of: capability of handover optimization, and capability of random access channel optimization. acquiring, by a managed unit, a self-optimization trigger rule, the self-optimization trigger rule being created by a managing unit in accordance with self-optimization capability of the managed unit; executing, by the managed unit, a self-optimization when satisfying condition of the self-optimization trigger rule; wherein the self-optimization capability of the managed unit comprises at least one of: capability of handover optimization, and capability of random access channel optimization.
Guide device for tabular movable building elements, in particular doors, windows, partitions or shutters, comprising at least one closing plate with a basic body having a U-shaped cross-section, and with guide elements (6, 7), characterized in that the guide elements (6, 7) comprise a sloping guide surface and abut, with this guide surface, against a corresponding guide surface of a receiving element (4, 5) of the guide device or the basic body, and are mounted within the receiving element (4, 5) or the basic body with spring pretension, wherein by the spring pretension, a vertical movement is performed, and via the sloping guide surfaces (31, 35), a horizontal movement towards each other is simultaneously effected.
A machine tool for machining planar workpieces, preferably metal sheets, - with an upper tool, which is be movable along a stroke axis by a stroke drive device towards a workpiece to be machined by the upper tool and in the opposite direction and which is positionable by at least one motor drive assembly along an upper positioning axis running perpendicular to the stroke axis, - with a lower tool, which is aligned with the upper tool and is positionable by at least one motor drive assembly along a lower positioning axis which is aligned perpendicular to the stroke axis of the upper tool, - with at least one controller by means of which the motor drive assemblies (17, 26) for moving the upper and lower tools (11, 9) are controllable, characterized in that - the traversing movement of the upper tool along the upper positioning axis and the traversing movement of the lower tool along the lower positioning axis are each independently controllable, and - on the upper drive assembly at least one measuring device aligned with the lower drive assembly is provided and/or on the lower drive assembly at least one measuring device aligned with the upper drive assembly is provided. - with an upper tool, which is be movable along a stroke axis by a stroke drive device towards a workpiece to be machined by the upper tool and in the opposite direction and which is positionable by at least one motor drive assembly along an upper positioning axis running perpendicular to the stroke axis, - with a lower tool, which is aligned with the upper tool and is positionable by at least one motor drive assembly along a lower positioning axis which is aligned perpendicular to the stroke axis of the upper tool, - with at least one controller by means of which the motor drive assemblies (17, 26) for moving the upper and lower tools (11, 9) are controllable, characterized in that - the traversing movement of the upper tool along the upper positioning axis and the traversing movement of the lower tool along the lower positioning axis are each independently controllable, and - on the upper drive assembly at least one measuring device aligned with the lower drive assembly is provided and/or on the lower drive assembly at least one measuring device aligned with the upper drive assembly is provided.
An apparatus comprising: an inverted exhaust plenum module configured to discharge exhaust air received from at least one enclosure space into an exhaust plenum that is at least partially obscured from ambient air flows, wherein the inverted exhaust plenum module comprises: an exhaust plenum which extends downwards beneath separate roof element (214A-B) edges (221A-B) and comprises an upper end, spanning between the separate roof element edges, that is in open flow communication with the ambient environment; and at least one exhaust vent (224A-B) that is coupled to at least one side end of the exhaust plenum extending beneath at least one of the separate roof element edges and is configured to discharge exhaust air from at least one enclosure space into the exhaust plenum beneath the separate roof element edges, such that the at least one exhaust vent is at least partially obscured from exposure to impingement by ambient air flows flowing over the upper end of the exhaust plenum. an exhaust plenum which extends downwards beneath separate roof element (214A-B) edges (221A-B) and comprises an upper end, spanning between the separate roof element edges, that is in open flow communication with the ambient environment; and at least one exhaust vent (224A-B) that is coupled to at least one side end of the exhaust plenum extending beneath at least one of the separate roof element edges and is configured to discharge exhaust air from at least one enclosure space into the exhaust plenum beneath the separate roof element edges, such that the at least one exhaust vent is at least partially obscured from exposure to impingement by ambient air flows flowing over the upper end of the exhaust plenum.