mhurhangee/ep-ind-claims huggingface dataset:
A method of producing a non-grain oriented electrical strip or sheet having ternary Fe-Zr-Si precipitates in its microstructure, wherein the method comprises the following working steps: a) Providing a hot-rolled strip consisting of a steel which contains, in addition to iron and unavoidable impurities (in % by weight) Si: 2.0 - 4.5%, Zr: 0.03 - 0.3%, Al: up to 2.0%, Mn: up to 1.0%, C: up to 0.01%, N: up to 0.01%, S: up to 0.01%, P: up to 0.015%; b) Cold rolling of the hot strip into a cold strip; and c) final annealing of the cold strip, whereby - the final annealing of the cold strip is carried out in two stages; - the cold strip is maintained at an annealing temperature of 900 - 1100°C for 1 - 300 s in the first stage of final annealing and at a temperature of 600 - 800°C for 50 - 120 s in the second stage of final annealing; - and the cold strip is cooled to a temperature below 100°C after the second stage of final annealing. a) Providing a hot-rolled strip consisting of a steel which contains, in addition to iron and unavoidable impurities (in % by weight) Si: 2.0 - 4.5%, Zr: 0.03 - 0.3%, Al: up to 2.0%, Mn: up to 1.0%, C: up to 0.01%, N: up to 0.01%, S: up to 0.01%, P: up to 0.015%; Si: 2.0 - 4.5%, Zr: 0.03 - 0.3%, Al: up to 2.0%, Mn: up to 1.0%, C: up to 0.01%, N: up to 0.01%, S: up to 0.01%, P: up to 0.015%; b) Cold rolling of the hot strip into a cold strip; and c) final annealing of the cold strip, whereby - the final annealing of the cold strip is carried out in two stages; - the cold strip is maintained at an annealing temperature of 900 - 1100°C for 1 - 300 s in the first stage of final annealing and at a temperature of 600 - 800°C for 50 - 120 s in the second stage of final annealing; - and the cold strip is cooled to a temperature below 100°C after the second stage of final annealing. - the final annealing of the cold strip is carried out in two stages; - the cold strip is maintained at an annealing temperature of 900 - 1100°C for 1 - 300 s in the first stage of final annealing and at a temperature of 600 - 800°C for 50 - 120 s in the second stage of final annealing; - and the cold strip is cooled to a temperature below 100°C after the second stage of final annealing.
An information processing apparatus, comprising: a behavior recognition unit configured to recognize behavior of a user on a basis of sensing information of a sensor, wherein a recognized user behavior is at least one of stopping, walking, running, and being on a vehicle; a processing controller configured to control, on a basis of the recognized user behavior, signal processing; and a signal processing unit configured to execute signal processing of noise reduction and external sound monitor in accordance with a control from the processing controller. a behavior recognition unit configured to recognize behavior of a user on a basis of sensing information of a sensor, wherein a recognized user behavior is at least one of stopping, walking, running, and being on a vehicle; a processing controller configured to control, on a basis of the recognized user behavior, signal processing; and a signal processing unit configured to execute signal processing of noise reduction and external sound monitor in accordance with a control from the processing controller.
A cooling device comprising at least one regeneratively operating primary cooling circuit, in particular a solar-powered cooling circuit, the cooling circuit comprising at least one compressor, at least one condenser, at least one evaporator, at least one cooling chamber, at least one temperature sensor for measuring the temperature of the cooling chamber (T air) in said cooling chamber, and a control device, the control device being capable of storing a set temperature value of the cooling chamber and a comparison temperature value (T SET), the cooling of the cooling chamber being capable of being interrupted by the control device, and the comparison temperature value (T SET) being adjustable by the control device as a function of time and/or temperature of the cooling chamber (T air), the comparison temperature value (T SET) corresponding to the set temperature when the control device is started, and the control device interrupting the cooling of the cooling chamber when the actual temperature of the cooling chamber (T air) has reached the comparison temperature value (T SET), characterized in that the control device reduces the comparison temperature value (T SET) after a predetermined time period (t 0) by a stored correction value (d SET), as long as the actual temperature of the cooling chamber (T air) has not reached the value of the comparison temperature (T SET) within the time period (t 0), the control device switches the compressor off, when the actual temperature of the cooling chamber (T air) falls below the comparison temperature value (T SET) by a hysteresis value and the control device switches the compressor on, when the actual temperature of the cooling chamber (T air) rises beyond the comparison temperature value (T SET) by a hysteresis value.
A blast furnace or steelworks operating method comprising: Step for separating and collecting CO 2 and/or CO from mixed gas containing CO 2 and/or CO; Step for adding hydrogen to CO 2 and/or CO separated and collected in Step and converting CO 2 and/or CO into CH 4, wherein the amount of hydrogen is in a stoichiometric proportion with respect to CO 2 and/or CO to range from 1 to 1.2; Step for separating and removing H 2 O from gas obtained after Step; and Step for producing hydrogen by using reaction heat generated in Step, wherein an outlet temperature of a methanation reactor is set to 400 to 500 °C, and gas obtained after Step is: blown, as a reducing agent, into a blast furnace; or used as fuel in a facility of steelworks. Step for separating and collecting CO 2 and/or CO from mixed gas containing CO 2 and/or CO; Step for adding hydrogen to CO 2 and/or CO separated and collected in Step and converting CO 2 and/or CO into CH 4, wherein the amount of hydrogen is in a stoichiometric proportion with respect to CO 2 and/or CO to range from 1 to 1.2; Step for separating and removing H 2 O from gas obtained after Step; and Step for producing hydrogen by using reaction heat generated in Step, wherein an outlet temperature of a methanation reactor is set to 400 to 500 °C, and gas obtained after Step is: blown, as a reducing agent, into a blast furnace; or used as fuel in a facility of steelworks. blown, as a reducing agent, into a blast furnace; or used as fuel in a facility of steelworks.
An iontophoresis apparatus, comprising: (a) a first earplug configured for insertion in a patient's ear, wherein the first earplug comprises: (i) a first electrode, and (ii) a first fluid port operable to deliver fluid to the patient's ear; (b) a second earplug configured for insertion in a patient's ear, wherein the second earplug comprises: (i) a second electrode, and (ii) a second fluid port operable to deliver fluid to the patient's ear; (c) a ground pad; (d) a driving circuit (750, 800) including: (i) a first channel for the first electrode; (ii) a second channel for the second electrode; and (iii) a current sink operable to draw current through the first electrode and the second electrode; and (e) a control unit, wherein the control unit is configured to couple with the first electrode, the second electrode, and the ground pad, wherein the control unit comprises a channel switching assembly operable to provide alternating communication between (i) the current sink and the first channel and (ii) the current sink and the second channel, such that the current sink can draw current through one of the first channel and the second channel at a given instant, based on alternating clock pulses associated with the first electrode and the second electrode. (a) a first earplug configured for insertion in a patient's ear, wherein the first earplug comprises: (i) a first electrode, and (ii) a first fluid port operable to deliver fluid to the patient's ear; (i) a first electrode, and (ii) a first fluid port operable to deliver fluid to the patient's ear; (b) a second earplug configured for insertion in a patient's ear, wherein the second earplug comprises: (i) a second electrode, and (ii) a second fluid port operable to deliver fluid to the patient's ear; (i) a second electrode, and (ii) a second fluid port operable to deliver fluid to the patient's ear; (c) a ground pad; (d) a driving circuit (750, 800) including: (i) a first channel for the first electrode; (ii) a second channel for the second electrode; and (iii) a current sink operable to draw current through the first electrode and the second electrode; and (i) a first channel for the first electrode; (ii) a second channel for the second electrode; and (iii) a current sink operable to draw current through the first electrode and the second electrode; and (e) a control unit, wherein the control unit is configured to couple with the first electrode, the second electrode, and the ground pad, wherein the control unit comprises a channel switching assembly operable to provide alternating communication between (i) the current sink and the first channel and (ii) the current sink and the second channel, such that the current sink can draw current through one of the first channel and the second channel at a given instant, based on alternating clock pulses associated with the first electrode and the second electrode.
Middle door retraction device with a housing in which a driving element is adjustable between a first parked position (14; 16) secured in a non-positive and/or positive-locking manner and a resting position, and between a second parked position (16; 14) secured in a non-positive and/or positive-locking manner and said resting position, with a damping device and with an energy storage device charged when the driving element is located in the parked position (14; 16) and discharged when the driving element is located in the resting position, wherein the driving element can be coupled with a transfer slide, which can be moved linearly in the housing depending on the direction of the stroke, characterized in that - the damping device is supported in the single-piece transfer slide and has two piston rods (114; 144) pointing in opposite directions, which can be alternatively stressed when retracting by fitting closely against the housing or by being connected to the same, and - in that the energy storage device is part of an energy storage assembly that can be supported on the housing and on the transfer slide depending on the direction of the stroke. - the damping device is supported in the single-piece transfer slide and has two piston rods (114; 144) pointing in opposite directions, which can be alternatively stressed when retracting by fitting closely against the housing or by being connected to the same, and - in that the energy storage device is part of an energy storage assembly that can be supported on the housing and on the transfer slide depending on the direction of the stroke.
A composition for inhibiting sprouting of potato tubers, comprising a first sprout inhibiting agent containing 3-decen-2-one, and chlorpropham (CIPC).
Method for operating a motor vehicle, in which an emergency call of the motor vehicle is issued, and via the emergency call image data from at least one camera of the motor vehicle and status data from at least one vehicle component of the motor vehicle different from the camera are transmitted to a vehicle-external device, wherein the status data prior to the transmission to the vehicle-external device, are embedded in an image signal formed from the image data according to a predetermined image code standard, and the image signal with the embedded status data is transmitted to the vehicle-external device, characterized in that after transmission of the emergency call to the vehicle-external device, an image instruction is received by the motor vehicle for an occupant of the motor vehicle from the vehicle-external device, and the image instruction is displayed for the occupant on a display unit of the motor vehicle and/or on a mobile unit coupled to the motor vehicle, wherein in the vehicle-external device different ready-made, situation-specific image instructions for the occupant of the motor vehicle are present, and by means of the received image instruction a procedure is provided for a standard problem solution with respect to the detected situation in which the occupant currently finds him/herself.
Method for controlling the temperature of a glow plug, wherein a setpoint temperature (Tset) is used to determine a setpoint value (R set) of a temperature-dependent electric variable, and an effective voltage (U eff) which is generated by pulse width modulation is applied to the glow plug, characterized in that a mathematical model, which calculates an output variable from an input variable and provides the output variable at its output, is used to calculate an expected value (R e) of the electric variable, the electric variable is measured, a first error signal e 1 (t) is generated by evaluating the calculated value (R e), a value calculated from the value of the effective voltage (U eff) and the error signal (e 1 (t)) is used as the input variable of the mathematical model, wherein the mathematical model calculates an output variable from the input variable, said output variable defining the expected value (R e) of the electric variable, and the output variable of the mathematical model is used to calculate a corrected value for the effective voltage (U eff) and the effective voltage (U eff) is changed to the corrected value.
A touch screen system comprising: a touch screen; capacitive grid associated with the touch screen and comprising a first capacitive sub-grid and a second capacitive sub-grid; a first microcontroller unit controlling the first capacitive sub-grid; a second microcontroller unit controlling the second capacitive sub-grid; wherein the capacitive grid is divided in the first capacitive sub-grid and the second capacitive sub-grid that have half of the resolution of the capacitive grid wherein the first microcontroller unit and the second microcontroller unit are configured to get respectively a first touch position and a second touch position after a touch input on the touch screen, wherein the first microcontroller unit and the second microcontroller unit are configured to test respectively a second channel associated with the second microcontroller unit and a first channel associated with the first microcontroller unit by sending a stimuli signal respectively to the first capacitive sub-grid and to the second capacitive sub-grid, wherein at least one of the first microcontroller unit and the second microcontroller unit are configured to determine a consolidated touch position by correlation of the first touch position and the second touch position. a touch screen; capacitive grid associated with the touch screen and comprising a first capacitive sub-grid and a second capacitive sub-grid; a first microcontroller unit controlling the first capacitive sub-grid; a second microcontroller unit controlling the second capacitive sub-grid; wherein the capacitive grid is divided in the first capacitive sub-grid and the second capacitive sub-grid that have half of the resolution of the capacitive grid wherein the first microcontroller unit and the second microcontroller unit are configured to get respectively a first touch position and a second touch position after a touch input on the touch screen, wherein the first microcontroller unit and the second microcontroller unit are configured to test respectively a second channel associated with the second microcontroller unit and a first channel associated with the first microcontroller unit by sending a stimuli signal respectively to the first capacitive sub-grid and to the second capacitive sub-grid, wherein at least one of the first microcontroller unit and the second microcontroller unit are configured to determine a consolidated touch position by correlation of the first touch position and the second touch position.
Device for intensifying or reversing a geo-gravomagnetic field having a certain frequency in order to add moisture to or remove moisture from moist capillary-bearing masonry or similar soil capillary systems, to transport dissolved salts in the capillary water or to colloidally plug the capillaries after the drying out, and to reduce or suppress and to intensify a gravomagnetic disturbance field of a certain frequency by means of at least one electrical conductor, which is arranged in a housing and is wound into a spiral or conical spiral coil (100, 101, 102, 103, 101a, 102a, 103a), wherein the winding diameter of the coil decreases from the outer end to the centre of the coil in the manner of a spiral, wherein the largest coil radius between the outer end of the coil and the coil axis is a whole number multiple of half of a grid line width having a permissible deviation of one eighth of a grid line width of the grid network of the gravomagnetic field, wherein the grid line width is between 10 cm and 100 cm, wherein at least one of the coils (100, 101, 102, 103, 101a, 102a, 103a) is applied as a conductor path on one side of an insulating plate, characterized in that the plate in an area around the coil axis has no conductor path, this area having a diameter of at least 3mm, preferably at least 5mm, more preferably at least 8mm.
A collapsible enclosure for accommodating a user, comprising: a body formed by a plurality of walls including at least a front wall, a back wall, a first side wall, a second side wall, a top wall, and a bottom wall coupled to one another to form an interior, the interior configured to be occupied by the user; a plurality of deformable frame members, wherein each of the front wall, the back wall, the first side wall, and the second side wall includes at least one of the plurality of deformable frame members; a window defined in one of the front wall, back wall, first side wall and second side wall, wherein the window is selectively engageable with the respective wall such that the window is disposable between an open and closed position; and a door defined in one of the front wall, back wall, first side wall, and second side wall, wherein the door is selectively engageable with the respective wall such that the door is disposable between an open and closed position; wherein, the front wall defines a first plane and the back wall defines a second plane, the first plane and second plane are substantially parallel to one another; further wherein, the body is collapsible between an upright configuration that defines the interior and a collapsible configuration; and characterized in that the enclosure further comprises a removable roof structure positioned over the top wall and extending downward over an upper portion of the front wall, an upper portion of the back wall, an upper portion of the first side wall, and an upper portion of the second side wall. a body formed by a plurality of walls including at least a front wall, a back wall, a first side wall, a second side wall, a top wall, and a bottom wall coupled to one another to form an interior, the interior configured to be occupied by the user; a plurality of deformable frame members, wherein each of the front wall, the back wall, the first side wall, and the second side wall includes at least one of the plurality of deformable frame members; a window defined in one of the front wall, back wall, first side wall and second side wall, wherein the window is selectively engageable with the respective wall such that the window is disposable between an open and closed position; and a door defined in one of the front wall, back wall, first side wall, and second side wall, wherein the door is selectively engageable with the respective wall such that the door is disposable between an open and closed position; wherein, the front wall defines a first plane and the back wall defines a second plane, the first plane and second plane are substantially parallel to one another; further wherein, the body is collapsible between an upright configuration that defines the interior and a collapsible configuration; and characterized in that the enclosure further comprises a removable roof structure positioned over the top wall and extending downward over an upper portion of the front wall, an upper portion of the back wall, an upper portion of the first side wall, and an upper portion of the second side wall.
Flow-through ion exchange medium comprising a monolithic stationary phase having interconnecting pores defined by pore walls, and fine ion exchange polymeric layering particles having a median diameter ranging from 0.002 to 0.2 microns uniformly spread on and irreversibly bound directly or indirectly to the pore walls.
Process for the recovery of one or more transition metals, and lithium as Li-salt, typically from a material comprising waste lithium ion batteries or parts thereof, which process comprises the steps of (a) providing a particulate material containing a transition metal compound and/or transition metal, the transition metal being selected from the group consisting of Ni and Co, and at least a fraction of said Ni and/or Co are in an oxidation state lower than +2; which particulate material further contains a lithium salt; (b) treating the material provided in step (a) with an alkaline earth hydroxide and a polar solvent, typically a protic solvent; (c) separating the solid residue containing the transition metal from the liquid, optionally followed by subjecting said solid residue to a solid-solid separation for the removal of transition metal such as Ni; and (d) treating the solids containing the transition metal in way to dissolve at least part of the Ni and/or Co, typically using a mineral acid or an ammoniacal solution. (a) providing a particulate material containing a transition metal compound and/or transition metal, the transition metal being selected from the group consisting of Ni and Co, and at least a fraction of said Ni and/or Co are in an oxidation state lower than +2; which particulate material further contains a lithium salt; (b) treating the material provided in step (a) with an alkaline earth hydroxide and a polar solvent, typically a protic solvent; (c) separating the solid residue containing the transition metal from the liquid, optionally followed by subjecting said solid residue to a solid-solid separation for the removal of transition metal such as Ni; and (d) treating the solids containing the transition metal in way to dissolve at least part of the Ni and/or Co, typically using a mineral acid or an ammoniacal solution.