mhurhangee/ep-ind-claims huggingface dataset:
Kitchen appliance, preferably kitchen appliance having a steam function, particularly preferably a steam drawer, comprising an interior chamber, preferably a cooking chamber, which is designed to receive at least one cooking utensil and/or at least one food item through an access opening from above, and comprising a lid which is designed to close and open the access opening of the interior chamber from above by pivoting by means of a pivoting element, preferably a hinge, characterised by at least one drip element which is designed and arranged to collect liquid, in particular condensate, running down the underside of the raised lid, and to conduct it into the interior chamber, preferably into a drain, wherein the drip element is designed to be moved away from the raised lid and towards the raised lid in portions over the access opening of the interior chamber. comprising an interior chamber, preferably a cooking chamber, which is designed to receive at least one cooking utensil and/or at least one food item through an access opening from above, and comprising a lid which is designed to close and open the access opening of the interior chamber from above by pivoting by means of a pivoting element, preferably a hinge, characterised by at least one drip element which is designed and arranged to collect liquid, in particular condensate, running down the underside of the raised lid, and to conduct it into the interior chamber, preferably into a drain, wherein the drip element is designed to be moved away from the raised lid and towards the raised lid in portions over the access opening of the interior chamber.
A preparation method of a thin-film transistor structure with a three-dimensional fin-shape channel, which is along the channel length direction thick in a middle and thin in both sides, wherein a preparation process is specifically as follows: (a) depositing and etching a bottom gate electrode on a substrate; (b) depositing a bottom dielectric layer at an upper part of a structure obtained from the step (a), and sequentially depositing a semiconductor film on the bottom dielectric layer; (c) etching the semiconductor film to obtain a fin-shape channel; (d) respectively depositing a source electrode and a drain electrode on the semiconductor film located at both sides of the fin-shape channel, and etching; (e) depositing a top dielectric layer and a top gate electrode at an upper part of a structure obtained from the step (d); and (f) etching the top gate electrode, and completing a preparation of a dual-gate fin-shape channel thin-film transistor. (a) depositing and etching a bottom gate electrode on a substrate; (b) depositing a bottom dielectric layer at an upper part of a structure obtained from the step (a), and sequentially depositing a semiconductor film on the bottom dielectric layer; (c) etching the semiconductor film to obtain a fin-shape channel; (d) respectively depositing a source electrode and a drain electrode on the semiconductor film located at both sides of the fin-shape channel, and etching; (e) depositing a top dielectric layer and a top gate electrode at an upper part of a structure obtained from the step (d); and (f) etching the top gate electrode, and completing a preparation of a dual-gate fin-shape channel thin-film transistor.
A lithium secondary battery comprising: a positive electrode including a positive electrode active material containing lithium; a negative electrode including a negative electrode collector having a surface, on which a lithium metal is deposited in a charged state; a separator disposed between the positive electrode and the negative electrode; and a nonaqueous electrolyte solution filled between the positive electrode and the negative electrode, the nonaqueous electrolyte solution having a lithium ion conductivity, wherein the negative electrode collector includes projection portions projecting from the surface toward the separator, there is no projection portion on an imaginary line extending from a first end to a second end opposite to the first end of the surface of the negative electrode collector and traversing a space between the projection portions, wherein the projection portions are in direct contact with the separator while securing the space, in which the lithium metal is deposited in the charged state. a positive electrode including a positive electrode active material containing lithium; a negative electrode including a negative electrode collector having a surface, on which a lithium metal is deposited in a charged state; a separator disposed between the positive electrode and the negative electrode; and a nonaqueous electrolyte solution filled between the positive electrode and the negative electrode, the nonaqueous electrolyte solution having a lithium ion conductivity, wherein the negative electrode collector includes projection portions projecting from the surface toward the separator, there is no projection portion on an imaginary line extending from a first end to a second end opposite to the first end of the surface of the negative electrode collector and traversing a space between the projection portions, wherein the projection portions are in direct contact with the separator while securing the space, in which the lithium metal is deposited in the charged state.
An offset number setting device comprising: a display that displays a turret surface selection screen for selecting a turret surface formed in a turret, a tool holder selection screen for selecting a tool holder mountable to the selected turret surface, and an offset number setting screen for setting an offset number for a tool to be mounted on the selected tool holder; and a data processor that processes information input by each of the screens, wherein the data processor includes a turret surface selection screen display unit, a tool holder selection screen display unit, an offset number setting screen display unit and a display linkage unit, wherein the display linkage unit operates in a step the turret surface selection screen display unit to display the turret surface selection screen, operates in a step the tool holder selection screen display unit to display the tool holder selection screen by selecting the turret surface, and operates in a step the offset number setting screen display unit to display the offset number setting screen by selecting the tool holder, and an offset number is set for the tool to be mounted on the tool holder along with the selection of the turret surface and the tool holder. a display that displays a turret surface selection screen for selecting a turret surface formed in a turret, a tool holder selection screen for selecting a tool holder mountable to the selected turret surface, and an offset number setting screen for setting an offset number for a tool to be mounted on the selected tool holder; and a data processor that processes information input by each of the screens, wherein the data processor includes a turret surface selection screen display unit, a tool holder selection screen display unit, an offset number setting screen display unit and a display linkage unit, wherein the display linkage unit operates in a step the turret surface selection screen display unit to display the turret surface selection screen, operates in a step the tool holder selection screen display unit to display the tool holder selection screen by selecting the turret surface, and operates in a step the offset number setting screen display unit to display the offset number setting screen by selecting the tool holder, and an offset number is set for the tool to be mounted on the tool holder along with the selection of the turret surface and the tool holder.
Method for operating a steer-by-wire steering system comprising a steering device with a steering actuator for setting a steering angle of steered wheels, and a steering wheel device for applying a steering wheel torque to a steering wheel, having the following steps: - detecting a current steering wheel angle; - controlling a steering position as a function of the current steering wheel angle and as a function of a current steering position in order to obtain a target steering control variable as a control variable for driving the steering actuator, - determining a target steering wheel torque (SLRM) for driving the steering wheel actuator as a function of the target steering control variable, characterized in that the target steering wheel torque (SLRM) is low-pass filtered. - detecting a current steering wheel angle; - controlling a steering position as a function of the current steering wheel angle and as a function of a current steering position in order to obtain a target steering control variable as a control variable for driving the steering actuator, - determining a target steering wheel torque (SLRM) for driving the steering wheel actuator as a function of the target steering control variable,
An undiluted oral hygiene composition comprising 20 - 80 % nitrates of which at least half the amount of nitrates consists of calcium nitrate, the remainder of the nitrates being selected from any pharmaceutically acceptable cation salt thereof, 5 - 30% UHP (urea hydrogen peroxide), 0 - 20% urea, and water adding up to 100%.
A lipid-based, creamy food filling that is bake-stable, the creamy food filling comprising: a continuous lipid phase including a low-melting lipid having a melting point of 40°C or lower; a solid phase dispersed in the continuous lipid phase and including a hydrophilic powder and a high-melting lipid with a melting point of at least 70°C; a water activity of 0.5 or lower; and particles of the hydrophilic powder and the high-melting lipid forming a particle size distribution of the creamy food filling effective to render the creamy food filling bake stable as evidenced by substantially no spreading of the filling and substantially no oil bleeding of the filling upon a sample of the creamy food filling heated for 10 minutes at 150°C; wherein the particle size distribution is a bi-modal particle size distribution including a dust particle portion having a sub-distribution of dust particles with a sufficient amount of sub-micron dust particles effective to render the creamy food filling bake stable and a creamy particle portion having a sub-distribution of creamy particles with a particle size greater than the particle size of the dust particles, wherein the dust particles are less than 4 microns, the sub-micron dust particles are 1 micron or less, and the creamy particles are greater than 4 microns. a continuous lipid phase including a low-melting lipid having a melting point of 40°C or lower; a solid phase dispersed in the continuous lipid phase and including a hydrophilic powder and a high-melting lipid with a melting point of at least 70°C; a water activity of 0.5 or lower; and particles of the hydrophilic powder and the high-melting lipid forming a particle size distribution of the creamy food filling effective to render the creamy food filling bake stable as evidenced by substantially no spreading of the filling and substantially no oil bleeding of the filling upon a sample of the creamy food filling heated for 10 minutes at 150°C; wherein the particle size distribution is a bi-modal particle size distribution including a dust particle portion having a sub-distribution of dust particles with a sufficient amount of sub-micron dust particles effective to render the creamy food filling bake stable and a creamy particle portion having a sub-distribution of creamy particles with a particle size greater than the particle size of the dust particles, wherein the dust particles are less than 4 microns, the sub-micron dust particles are 1 micron or less, and the creamy particles are greater than 4 microns.
A device comprising: a processor, a loudspeaker comprising a voice coil, one or more devices configured to determine loudspeaker voltage and loudspeaker current; and a memory storing a Bl product for the loudspeaker, the processor configured to: determine a Fourier space excursion-from-voltage transfer function H XV ( ω); determine an acoustic response of the loudspeaker, as a function of frequency, below a dovetail frequency, and relative to a respective acoustic response at the dovetail frequency, using at least a second time derivative of the Fourier space excursion-from-voltage transfer function H XV ( ω), wherein the dovetail frequency comprises a maximum frequency above which the excursion of the voice coil is below a minimum excursion and the excursion is not significantly affected; determine an equalization as a function of frequency using the acoustic response, the equalization comprising gains that, when applied to the acoustic response, will adjust the acoustic response to the respective acoustic response at the dovetail frequency; determine filter coefficients of a filter that corresponds to the equalization; and, apply the filter to an input signal for the loudspeaker. a processor, a loudspeaker comprising a voice coil, one or more devices configured to determine loudspeaker voltage and loudspeaker current; and a memory storing a Bl product for the loudspeaker, the processor configured to: determine a Fourier space excursion-from-voltage transfer function H XV ( ω); determine an acoustic response of the loudspeaker, as a function of frequency, below a dovetail frequency, and relative to a respective acoustic response at the dovetail frequency, using at least a second time derivative of the Fourier space excursion-from-voltage transfer function H XV ( ω), wherein the dovetail frequency comprises a maximum frequency above which the excursion of the voice coil is below a minimum excursion and the excursion is not significantly affected; determine an equalization as a function of frequency using the acoustic response, the equalization comprising gains that, when applied to the acoustic response, will adjust the acoustic response to the respective acoustic response at the dovetail frequency; determine filter coefficients of a filter that corresponds to the equalization; and, apply the filter to an input signal for the loudspeaker.
A method for inactivating the alpha-Gal antigen in biological tissues, particularly in tissues that can be used to manufacture bioprosthetic substitutes and/or in bioprosthetic substitutes that are already prepared and intended for human or veterinary clinical use, characterized in that it entails the following steps: - providing a solution based on caffeic acid for the inactivation of at least part of the alpha-Gal antigen in said tissues; - incubating the samples to be treated in said solutions in controlled conditions; - subjecting the treated tissues to a series of washes. - providing a solution based on caffeic acid for the inactivation of at least part of the alpha-Gal antigen in said tissues; - incubating the samples to be treated in said solutions in controlled conditions; - subjecting the treated tissues to a series of washes.
Box for food product formed from a blank, comprising a receptacle and a lid that is movable with respect to the receptacle between an open position and a closed position, the receptacle being formed by a plurality of walls (21, 22, 23, 24, 201, 202, 203 and 204) defining an internal volume of the box, and having an opening selectively blocked off by the lid, the box being characterized in that at least one of said walls (21, 22, 23, 24, 201, 202, 203 and 204) of the receptacle comprises a plurality of portions forming tabs distributed regularly along said wall (21, 22, 23, 24, 201, 202, 203 and 204), in the direction of the opening of the box and adapted for being able to be folded back into the internal volume of the box, so as to make it possible to manipulate a food product arranged in the internal volume.
A method for detecting and determining a location of at least one leakage site in a primary pipe having an inlet end and an outlet end, the primary pipe being at least partially within a secondary containment vessel having an internal gas pressure greater than the internal gas pressure in the primary pipe, the method comprising: introducing a tracer gas into the secondary containment vessel; establishing a flow of gas from the inlet end to the outlet end of the primary pipe; and detecting the presence of the tracer gas at the outlet end of the primary pipe; characterized in that the method further comprises: changing a flow rate of the gas in the primary pipe once an amount of the tracer gas detected at the outlet end of the primary pipe reaches a steady state; detecting a change in the amount of the tracer gas at the outlet end of the primary pipe; measuring an amount of time taken to detect the change in the amount of tracer gas from when the flow rate was changed, and using the amount of time taken to detect the change in the amount of tracer gas to determine the location of the at least one leakage site in the primary pipe. introducing a tracer gas into the secondary containment vessel; establishing a flow of gas from the inlet end to the outlet end of the primary pipe; and detecting the presence of the tracer gas at the outlet end of the primary pipe; changing a flow rate of the gas in the primary pipe once an amount of the tracer gas detected at the outlet end of the primary pipe reaches a steady state; detecting a change in the amount of the tracer gas at the outlet end of the primary pipe; measuring an amount of time taken to detect the change in the amount of tracer gas from when the flow rate was changed, and using the amount of time taken to detect the change in the amount of tracer gas to determine the location of the at least one leakage site in the primary pipe.
A surgical device for cutting tissue, the device comprising: a suction cup having a roof and an underside, an arm attached to the suction cup for manipulating the suction cup; a cutting element mounted to the suction cup and configured for cutting the tissue, wherein the cutting element and suction cup are collapsible for insertion through an incision in a tissue layer to access the tissue for cutting, and wherein the cutting element and suction cup are configured to return to a prior shape after the insertion; one or more suction elements connected to the suction cup for applying suction to the suction cup; and wherein the device is configured for performing a capsulotomy, and wherein the tissue layer is a cornea of an eye and the tissue is a lens capsule of the eye. a suction cup having a roof and an underside, an arm attached to the suction cup for manipulating the suction cup; a cutting element mounted to the suction cup and configured for cutting the tissue, wherein the cutting element and suction cup are collapsible for insertion through an incision in a tissue layer to access the tissue for cutting, and wherein the cutting element and suction cup are configured to return to a prior shape after the insertion; one or more suction elements connected to the suction cup for applying suction to the suction cup; and wherein the device is configured for performing a capsulotomy, and wherein the tissue layer is a cornea of an eye and the tissue is a lens capsule of the eye.
A mechanical thrombectomy system for removing a clot from within a vessel, the system comprising: an elongate inversion support comprising a catheter (607, 707) having a distal end and a distal end opening; a tractor (615, 713) comprising a flexible tube that extends distally in an un-inverted configuration within the catheter (607, 707), inverts over the distal end opening of the catheter (607, 707) and extends proximally in an inverted configuration along the distal end of the catheter (607, 707), wherein the tractor (615, 713) is configured to invert by rolling over the distal end opening of the catheter (607, 707) when a first end of the tractor is pulled proximally within the catheter (607, 707) or when the catheter is pushed distally; a puller (611, 705) connected to a first end of the tractor (615, 713) extending proximally; a clot engaging member (501, 501', 501", 601, 703) on the distal end of an elongate manipulator (503, 503', 503", 603); and a lumen extending continuously through the puller (611, 705) and the tractor (615, 713) and configured to pass the elongate manipulator (503, 503', 503", 603), characterized in that the clot engaging member (501, 501', 501", 601, 703) is configured to link to the puller (611, 705) so that the clot engaging member (501, 501', 501", 601, 703) and the puller (611, 705) are held in place in the vessel while the catheter (607, 707) is pushed distally. an elongate inversion support comprising a catheter (607, 707) having a distal end and a distal end opening; a tractor (615, 713) comprising a flexible tube that extends distally in an un-inverted configuration within the catheter (607, 707), inverts over the distal end opening of the catheter (607, 707) and extends proximally in an inverted configuration along the distal end of the catheter (607, 707), wherein the tractor (615, 713) is configured to invert by rolling over the distal end opening of the catheter (607, 707) when a first end of the tractor is pulled proximally within the catheter (607, 707) or when the catheter is pushed distally; a puller (611, 705) connected to a first end of the tractor (615, 713) extending proximally; a clot engaging member (501, 501', 501", 601, 703) on the distal end of an elongate manipulator (503, 503', 503", 603); and a lumen extending continuously through the puller (611, 705) and the tractor (615, 713) and configured to pass the elongate manipulator (503, 503', 503", 603), characterized in that the clot engaging member (501, 501', 501", 601, 703) is configured to link to the puller (611, 705) so that the clot engaging member (501, 501', 501", 601, 703) and the puller (611, 705) are held in place in the vessel while the catheter (607, 707) is pushed distally.