mhurhangee/ep-ind-claims huggingface dataset:
A method for treating waste diaphragm paper of a lithium battery, comprising the following steps of: shearing and crushing waste diaphragm paper, and then carrying out pneumatic separation to obtain a light material and a copper-aluminum mixture; putting the light material into a flotation machine for separation to obtain diaphragm paper and battery powder; and pulping the battery powder, and then carrying out leaching of hydrometallurgy, pickling the diaphragm paper, and then filtering and spin-drying to obtain the diaphragm paper; wherein, in step, the method further comprises a step of putting the copper-aluminum mixture into an eddy-current separator for separation to obtain metallic copper and metallic aluminum; a rotor speed of the eddy-current separator ranges from 20 Hz to 40 Hz and a belt speed of the eddy-current separator ranges from 10 Hz to 15 Hz; in step, the specific operation of the leaching of hydrometallurgy is: after pulping the battery powder into a slurry, adding the slurry into a pickling solution for pickling, then adding a reducing agent for reductive leaching, and adjusting a pH to be acidic to obtain leachate; in step, the pickling solution used in the pickling is sulfuric acid with a concentration of 0.5 mol/L to 1.5 mol/L; and in step, the pickling is carried out at a rotating speed ranging from 200 r/min to 400 r/min, and the pickling lasts for 10 minutes to 30 minutes; and in step, in the process of pickling the diaphragm paper, a mass ratio of the diaphragm paper to the pickling solution is 1: (5 to 10). shearing and crushing waste diaphragm paper, and then carrying out pneumatic separation to obtain a light material and a copper-aluminum mixture; putting the light material into a flotation machine for separation to obtain diaphragm paper and battery powder; and pulping the battery powder, and then carrying out leaching of hydrometallurgy, pickling the diaphragm paper, and then filtering and spin-drying to obtain the diaphragm paper; wherein, in step, the method further comprises a step of putting the copper-aluminum mixture into an eddy-current separator for separation to obtain metallic copper and metallic aluminum; a rotor speed of the eddy-current separator ranges from 20 Hz to 40 Hz and a belt speed of the eddy-current separator ranges from 10 Hz to 15 Hz; in step, the specific operation of the leaching of hydrometallurgy is: after pulping the battery powder into a slurry, adding the slurry into a pickling solution for pickling, then adding a reducing agent for reductive leaching, and adjusting a pH to be acidic to obtain leachate; in step, the pickling solution used in the pickling is sulfuric acid with a concentration of 0.5 mol/L to 1.5 mol/L; and in step, the pickling is carried out at a rotating speed ranging from 200 r/min to 400 r/min, and the pickling lasts for 10 minutes to 30 minutes; and in step, in the process of pickling the diaphragm paper, a mass ratio of the diaphragm paper to the pickling solution is 1: (5 to 10).
Apparatus for forming an immersion film between a front lens of a microscope objective and a preparation in an inverted microscope, comprising a protective apparatus for avoiding liquid egress from the immersion film region, a device for delivering the immersion liquid into the immersion film region with delivery, discharge, control and sensor lines, characterized in that the protective apparatus is statically arranged in the base body of the microscope stand, the protective apparatus consists of a fixed base plate having an orifice, situated centrically with respect to the beam path, for holding an elastic membrane, and the membrane has an opening, situated centrically with respect to the beam path, for the front lens of the microscope objective, the membrane is formed as a shaped part with at least one incorporated channel for the delivery and at least one channel for the discharge, or the membrane is formed in double-walled fashion and consists of two individual membranes (11, 12) lying one above the other, between which the immersion liquid is deliverable to the front lens of the microscope objective and is dischargeable therefrom, the membrane is configured such that it terminates with the geometry of the front lens in a sealing fashion in the work area of the microscope objective, and the base plate has at least one discharge channel through which the excess immersion liquid running off via the membrane is dischargeable.
Cooking device having a cooking compartment, which is delimited by walls (4 to 8) of a muffle, and having an air guidance apparatus, which has at least one air shaft for supplying a flow of cooling air to a lighting apparatus of the cooking device arranged for the purpose of lighting the cooking compartment, wherein the air shaft is arranged above the muffle and the air guidance apparatus has an air shaft base and an air shaft cover, the lighting apparatus has at least one light source (34, 55) arranged entirely outside of the cooking compartment, around which light source the flow of cooling air flows, which is guided out of a cooking compartment embodied above the air shaft cover into a pressure shaft portion of the air shaft, viewed with respect to a position of a fan, for flow purposes, in the air guidance apparatus, wherein the air guidance apparatus has a suction shaft portion which is separate from the cooking compartment and is viewed in respect of a position of the fan, for flow purposes, in the air guidance apparatus, wherein the lighting apparatus has at least one light guide (19, 59), through which the light emitted by the light source (34, 55) can be routed into the cooking compartment, characterised in that a first light guide (19, 59) extends in the manner of a rod and extends projecting at least through the suction shaft portion through an opening in the air shaft base, and wherein the light source (34, 55) is arranged at a distance (d), which is calculated in the axial direction of the rod-shaped light guide (19, 59), from an end of the rod-shaped light guide (19, 59) which faces the light source (34, 55).
Busbar for a conductor rail for electrical supply of an electrical load which is movable along the conductor rail, characterised in that the surface of the side of the busbar intended to make contact with a sliding body of a current collector has at least one groove-like depression which, at least in sections, runs obliquely to the longitudinal direction of the busbar defined by the intended direction of movement of the sliding body.
A system for controlling a work vehicle, the system comprising: - a controller configured to control motion of the work vehicle; - an electronic joystick (300, 400) communicatively coupled to the controller, the electronic joystick (300, 400) configured to transmit signals to the controller as the electronic joystick is moved between a neutral position (302, 402) and a full stroke position (304, 306, 404, 406), the electronic joystick (300, 400) being configured such that a varying joystick force is required to move the electronic joystick (300, 400) between the neutral (302, 402) and full stroke positions (304, 306, 404, 406), wherein a rate of change of the joystick force is varied as the electronic joystick (300, 400) is moved across a start/stop position (200A, 200B) defined between the neutral (302, 402) and full stroke (304,306, 404, 406) positions, and wherein the variation in the rate of change of the joystick force at the start/stop position (200A, 200B) is provided by first and second springs operably coupled to the electronic joystick, wherein the first spring is configured to apply a first force against the electronic joystick as the electronic joystick is moved from the neutral position (200A, 200B) and the second spring is configured to apply a second force against the electronic joystick as the electronic joystick is moved across the start/stop position (200A, 200B) such that the rate of change in the joystick force is increased across the start/stop position (200A, 200B), the system being characterized by further comprising a vibration source associated with the electronic joystick, wherein the vibration source is configured to generate a vibratory response when the electronic joystick is moved across the start/stop position (200a, 200B). - a controller configured to control motion of the work vehicle; - an electronic joystick (300, 400) communicatively coupled to the controller, the electronic joystick (300, 400) configured to transmit signals to the controller as the electronic joystick is moved between a neutral position (302, 402) and a full stroke position (304, 306, 404, 406), the electronic joystick (300, 400) being configured such that a varying joystick force is required to move the electronic joystick (300, 400) between the neutral (302, 402) and full stroke positions (304, 306, 404, 406), wherein
A method in a S4-Serving General Packet Radio Service Support (S4-SGSN) node for radio resource management, the SGSN node being comprised in a radio network, the method comprising: receiving a notification of a secondary Packet Data Protocol activation or a PDP context modification procedure, the notification comprising a bearer Quality of Service (QoS) parameter; comparing the bearer QoS parameter with a maximum allowed SGSN Quality of Service (QoS) parameter configured in the S4-SGSN node; and determining a decision, within the S4-SGSN node, on the secondary PDP activation or the PDP context modification procedure based on the comparing. receiving a notification of a secondary Packet Data Protocol activation or a PDP context modification procedure, the notification comprising a bearer Quality of Service (QoS) parameter; comparing the bearer QoS parameter with a maximum allowed SGSN Quality of Service (QoS) parameter configured in the S4-SGSN node; and determining a decision, within the S4-SGSN node, on the secondary PDP activation or the PDP context modification procedure based on the comparing.
A food handling apparatus comprising a first member (102, 104, 106, 307, 308, 310a, 310b, 310c) and a second (102,104, 106, 307, 308, 310a, 310b, 310c) member, the first member being arranged to move relative the second member, wherein the first member comprises an alloy that is in contact with the second member, the alloy comprising 13,0 - 17,5 wt% nickel, 2,5 - 6,0 wt% zinc, 3,0 - 6,0 wt% tin, 1,2 - 2,1 wt% bismuth, 0,30 - 0,95 wt% selenium, and copper that balances the alloy. 13,0 - 17,5 wt% nickel, 2,5 - 6,0 wt% zinc, 3,0 - 6,0 wt% tin, 1,2 - 2,1 wt% bismuth, 0,30 - 0,95 wt% selenium, and copper that balances the alloy.
A method, comprising: at a source device, establishing an initial output voltage swing level and an initial emphasis level for signals outputted from a display port interface of the source device as a result of executing a link training process with a target device; receiving, by the display port interface, a charging current and providing the charging current to a battery of the source device so as to charge the battery at an initial charge rate; at one or more processors of the source device, determining whether a prescribed temperature threshold has been exceeded by a source device temperature of the source device, and responsive to determining that the prescribed temperature threshold has been exceeded, instructing the display port interface to increase a level of the combination of the output voltage swing level and the emphasis level; at the one or more processors, determining whether the level of the combination of the emphasis level and the output voltage swing level is at a maximum level available for the display port interface, and, responsive to determining that the level of combination of the emphasis level and the output voltage swing level is at the maximum level, reducing the charge rate of the battery. at a source device, establishing an initial output voltage swing level and an initial emphasis level for signals outputted from a display port interface of the source device as a result of executing a link training process with a target device; receiving, by the display port interface, a charging current and providing the charging current to a battery of the source device so as to charge the battery at an initial charge rate; at one or more processors of the source device, determining whether a prescribed temperature threshold has been exceeded by a source device temperature of the source device, and responsive to determining that the prescribed temperature threshold has been exceeded, instructing the display port interface to increase a level of the combination of the output voltage swing level and the emphasis level; at the one or more processors, determining whether the level of the combination of the emphasis level and the output voltage swing level is at a maximum level available for the display port interface, and, responsive to determining that the level of combination of the emphasis level and the output voltage swing level is at the maximum level, reducing the charge rate of the battery.
A light fixture for absorbing sound energy, the light fixture comprising: - a lamp fitting configured for receiving a first light source; - a reflector for reflecting and/or modifying light from the first light source, the reflector comprising a top section configured for attachment to a bottom section of the lamp fitting; and - a body comprising: i. a set of discs, wherein a plurality of the discs have at least one opening configured for receiving the lamp fitting; and ii. a set of supporting elements configured for holding the set of discs such that the set of discs are separated by a predefined gap. wherein at least one of the discs and/or one of the supporting elements comprise a sound absorbing material. - a lamp fitting configured for receiving a first light source; - a reflector for reflecting and/or modifying light from the first light source, the reflector comprising a top section configured for attachment to a bottom section of the lamp fitting; and - a body comprising: i. a set of discs, wherein a plurality of the discs have at least one opening configured for receiving the lamp fitting; and ii. a set of supporting elements configured for holding the set of discs such that the set of discs are separated by a predefined gap. wherein at least one of the discs and/or one of the supporting elements comprise a sound absorbing material. i. a set of discs, wherein a plurality of the discs have at least one opening configured for receiving the lamp fitting; and ii. a set of supporting elements configured for holding the set of discs such that the set of discs are separated by a predefined gap.
A combination consisting of lipophilic extracts of Piper nigrum, Zingiber officinale and Boswellia serrata, wherein said extract of Zingiber officinale contains at least 10% by weight gingerols, said extract of Piper nigrum contains at least 1% by weight pellitorin, and said extract of Boswellia serrata contains at least 2% by weight serratol.
A light emitting device, comprising: an electrode layer; a dielectric pattern provided on the electrode layer; a light emitting structure comprising a first semiconductor layer, an active layer, and a second semiconductor layer provided over the dielectric pattern; and a resonator structure in the light emitting structure, wherein the resonator structure comprises a pattern of cylinders on the light emitting structure, wherein the dielectric pattern is nonconductive material in which current does not flow, wherein the horizontal width of the pattern of cylinders has a value greater than a single mode transmission condition (λ/n), wherein λ is a centric wavelength of the active layer and n is a refractive index of the light emitting structure wherein the horizontal width of the pattern of cylinders is smaller than a thickness of the light emitting structure, wherein the horizontal width of the dielectric pattern is smaller than the horizontal width of the pattern of cylinders, wherein the distance between the bottom of the pattern of cylinders and the active layer is 5×λ/n or less, characterized in that the dielectric pattern is arranged in spatial alignment with the pattern of cylinders, and the pattern of cylinders is arranged in phase with the dielectric pattern. an electrode layer; a dielectric pattern provided on the electrode layer; a light emitting structure comprising a first semiconductor layer, an active layer, and a second semiconductor layer provided over the dielectric pattern; and a resonator structure in the light emitting structure,
An electrolytic synthesis method of nitrogen trifluoride, comprising electrolytically synthesizing nitrogen trifluoride gas from ammonium fluoride in an ammonium fluoride-containing molten salt mixture using a carbonaceous electrode as an anode, wherein the method comprises: a step of dissolving, in the molten salt mixture, metal ions capable of electrolytically yielding a highly oxidized metal fluoride through reaction with fluorine radicals (F·) that are generated upon the discharge of fluoride ions which are a component of the ammonium fluoride, thereby reacting the metal ions with the fluorine radicals (F·) to yield the highly oxidized metal fluoride, and reacting the highly oxidized metal fluoride with ammonium ions on a surface of the electrode and in a solution to synthesize nitrogen trifluoride gas; wherein the metal ions comprise ions of at least one metal selected from the group consisting of Ni, Mn, and Co. a step of dissolving, in the molten salt mixture, metal ions capable of electrolytically yielding a highly oxidized metal fluoride through reaction with fluorine radicals (F·) that are generated upon the discharge of fluoride ions which are a component of the ammonium fluoride, thereby reacting the metal ions with the fluorine radicals (F·) to yield the highly oxidized metal fluoride, and reacting the highly oxidized metal fluoride with ammonium ions on a surface of the electrode and in a solution to synthesize nitrogen trifluoride gas; wherein the metal ions comprise ions of at least one metal selected from the group consisting of Ni, Mn, and Co.
Device for injecting a medium into or underneath the skin with a series of pressure pulses, comprising: a supply container for the medium, an application unit for injecting the medium into or underneath the skin with a controllable injection nozzle, a hydraulic high pressure pump for pumping the medium from the supply container into the application unit, and an electronic control unit configured to control the application unit to inject the medium into or underneath the skin with a series of pressure pulses, wherein the device is characterized in that the application unit comprises at least an injection nozzle which can be closed and opened by a movable nozzle needle. a supply container for the medium, an application unit for injecting the medium into or underneath the skin with a controllable injection nozzle, a hydraulic high pressure pump for pumping the medium from the supply container into the application unit, and an electronic control unit configured to control the application unit to inject the medium into or underneath the skin with a series of pressure pulses, wherein the device is characterized in that the application unit comprises at least an injection nozzle which can be closed and opened by a movable nozzle needle.
An actuator for connecting and disconnecting a dog clutch between two coaxial shafts (1, 2) by means of an axially movable clutch sleeve, the actuator comprising an electric motor, characterized in that a motor shaft of the motor is connected to a rotatable actuator rod, which is provided at its end with an eccentric pin for such cooperation with the clutch sleeve that a rotation of the actuator rod 180° or less by means of the motor from a rotational position corresponding to one axial end position of the clutch sleeve to a rotational position corresponding to the other axial end position of the clutch sleeve leads to a connection or disconnection of the dog clutch.
A composition comprising an effective amount of a JAM-C-binding antibody that blocks adhesion of JAM-C-expressing B-cell lymphoma to JAM-B for use in a method of treating JAM-C positive B-cell lymphoma in a patient.
An apparatus comprising: a resistive memory cell including: two electrodes (820, 825); a dielectric structured as an operably variable resistance region between the two electrodes (820, 825), the dielectric disposed on one of the two electrodes, characterized in that a plurality of structural pairs (817-1....817-N) disposed between the dielectric and the other one of the two electrodes, each structural pair (817-1....817-N) having an oxide (815-1....815-N) disposed on a metallic barrier (810-1....810-N), the structural pairs (817-1....817-N) stacked on each other between the dielectric and the other one of the two electrodes, each metallic barrier (810-1....810-N) having a structure and a material composition providing oxygen diffusivity above a first threshold during program or erase operations of the resistive memory cell and oxygen diffusivity below a second threshold during a retention state of the resistive memory cell, the first threshold greater than the second threshold. a resistive memory cell including: two electrodes (820, 825); a dielectric structured as an operably variable resistance region between the two electrodes (820, 825), the dielectric disposed on one of the two electrodes, characterized in that a plurality of structural pairs (817-1....817-N) disposed between the dielectric and the other one of the two electrodes, each structural pair (817-1....817-N) having an oxide (815-1....815-N) disposed on a metallic barrier (810-1....810-N), the structural pairs (817-1....817-N) stacked on each other between the dielectric and the other one of the two electrodes, each metallic barrier (810-1....810-N) having a structure and a material composition providing oxygen diffusivity above a first threshold during program or erase operations of the resistive memory cell and oxygen diffusivity below a second threshold during a retention state of the resistive memory cell, the first threshold greater than the second threshold. two electrodes (820, 825); a dielectric structured as an operably variable resistance region between the two electrodes (820, 825), the dielectric disposed on one of the two electrodes, characterized in that a plurality of structural pairs (817-1....817-N) disposed between the dielectric and the other one of the two electrodes, each structural pair (817-1....817-N) having an oxide (815-1....815-N) disposed on a metallic barrier (810-1....810-N), the structural pairs (817-1....817-N) stacked on each other between the dielectric and the other one of the two electrodes, each metallic barrier (810-1....810-N) having a structure and a material composition providing oxygen diffusivity above a first threshold during program or erase operations of the resistive memory cell and oxygen diffusivity below a second threshold during a retention state of the resistive memory cell, the first threshold greater than the second threshold.