mhurhangee/ep-ind-claims huggingface dataset:
A refrigerator comprising a body; a refrigeration cabin which is provided in the body and wherein the foodstuffs to be cooled are placed; a door which isolates the refrigeration cabin from the outer environment; a UV light source which has an active position where the UV light source emits light onto the foodstuffs and a passive position where there is no light emitted; and a compartment wherein the UV light emitted by the UV light source is sent onto the foodstuffs, at least one temperature sensor which is disposed in the compartment and which measures the surface temperature of the foodstuffs; characterized by a heating member which has an open position where the surface temperature of the foodstuff is increased according to the information received from the temperature sensor and a closed position where there is no heating; and a control unit which enables the heating member and the UV light source to be controlled according to the data received from the temperature sensor, and a timer which enables the calculation of the time the UV light source is in the active position, and the control unit which enables the UV light source to be switched to the passive position when the target UV application time predetermined by the manufacturer of the refrigerator is completed.
A method of preparing Sertoli-like cells from stem cells, the method comprising: inducing differentiation into intermediate mesoderm by culturing stem cells in a medium containing a glycogen synthase kinase 3β (glycogen synthase kinase 3: GSK-3) inhibitor, a base fibroblast growth factor (bFGF), and a retinoic acid, wherein the stem cells are embryonic stem cells, for 3 to 8 days, wherein the inducing of differentiation into the IM comprises (a) culturing stem cells in a medium containing a GSK-3 inhibitor for 1 to 3 days, and (b) additionally culturing after adding of bFGF and RA to the medium for 2 to 5 days; inducing differentiation into SLC by culturing the induced IM in a medium containing bFGF, a fibroblast growth factor (fibroblast growth factor 9: FGF9), prostaglandin D2, follicle-stimulating hormone, and a glial cell-induced neurotrophic factor (GDNF) for 5 to 7 days; culturing the SLCs in a medium on matrigel wherein the SLCs form a tube-like structure; and isolating or purifying induced SLC. inducing differentiation into intermediate mesoderm by culturing stem cells in a medium containing a glycogen synthase kinase 3β (glycogen synthase kinase 3: GSK-3) inhibitor, a base fibroblast growth factor (bFGF), and a retinoic acid, wherein the stem cells are embryonic stem cells, for 3 to 8 days, wherein the inducing of differentiation into the IM comprises (a) culturing stem cells in a medium containing a GSK-3 inhibitor for 1 to 3 days, and (b) additionally culturing after adding of bFGF and RA to the medium for 2 to 5 days; inducing differentiation into SLC by culturing the induced IM in a medium containing bFGF, a fibroblast growth factor (fibroblast growth factor 9: FGF9), prostaglandin D2, follicle-stimulating hormone, and a glial cell-induced neurotrophic factor (GDNF) for 5 to 7 days; culturing the SLCs in a medium on matrigel wherein the SLCs form a tube-like structure; and isolating or purifying induced SLC.
A monolithic terahertz radiation source on a single chip comprising: a cathode (15,35,45,55) configured to emit an electron beam; an anode (16,36,46,56) configured to focus the electron beam emitted from the cathode; a collector (18,38,48,58) configured to collect the emitted electron beam focused by the anode; an oscillating circuit (17,37,47,57) positioned between the anode and the collector, the oscillating circuit being configured to convert energy of the emitted passing electron beam into electromagnetic wave energy; and an output unit (19,39,49,59) configured to externally emit the electromagnetic wave energy; wherein the cathode, the anode, the collector, the oscillating circuit and the output unit are provided as a monolithic etched substrate layer on an insulating layer; characterised in that an electron beam emitting surface of the cathode is perpendicular to the substrate layer (12,32,42,52), and wherein the electron beam emitting surface is concave with respect to an emission direction of the electron beam and the electron beam emitting surface is a two-dimensional surface curved around an axis which is perpendicular to the substrate layer. a cathode (15,35,45,55) configured to emit an electron beam; an anode (16,36,46,56) configured to focus the electron beam emitted from the cathode; a collector (18,38,48,58) configured to collect the emitted electron beam focused by the anode; an oscillating circuit (17,37,47,57) positioned between the anode and the collector, the oscillating circuit being configured to convert energy of the emitted passing electron beam into electromagnetic wave energy; and an output unit (19,39,49,59) configured to externally emit the electromagnetic wave energy;
A device for the temporary stretching and relieving of the spine of a human body, composed of a unit displaceable motorically along a rail arrangement, which unit comprises a plurality of belts or straps for ventrally fixing in a detachably manner the upper body area below the shoulders, wherein the upper body dorsally gets to rest against the displaceable unit, characterized in that, when the rail arrangement is used, a positionally adjustable vibration or massage plate that is dorsally oriented and in connection with a vibration generation device, is arranged in the area of the lumbar vertebrae, wherein the displaceable unit, configured in the manner of a backrest, is supported to be movable within a double rail, wherein within the distance space between the rails, an electric drive unit is formed, and the rails are dorsally provided with a bracket for attaching the device on a seating furniture.
A method for manufacturing a xylanase composition with increased stability comprising: providing a xylanase; providing a stabilizer, comprising glycerol; and mixing the xylanase and the stabilizer to form a xylanase composition; wherein the xylanase is from an anaerobic fungus, and the content of the glycerol is at least 60 wt%, based on the total weight of the xylanase composition. providing a xylanase; providing a stabilizer, comprising glycerol; and mixing the xylanase and the stabilizer to form a xylanase composition; wherein the xylanase is from an anaerobic fungus, and the content of the glycerol is at least 60 wt%, based on the total weight of the xylanase composition.
Engine control valve having a body that delimits an internal duct and comprising a flap mounted in a pivoting manner by way of a pin, said flap comprising a first part and being able to pivot between an open position allowing fluid to pass through the duct and a closed position in which the flap comes into contact with a gasket, in particular a flat gasket, of the valve, said gasket having an external contour that externally surrounds the external contour of the flap and comprising an opening and a solid portion, said first part closing off the opening in the gasket when the flap is in a closed position, Characterized in that the gasket has a reinforcing region in its solid portion, so as to prevent said gasket from deforming under the effect of a high pressure and a high temperature of the gases present in said valve.
A turbofan engine comprising an engine core positioned radially inwardly of an outer fixed structure with respect to the longitudinal axis of the engine, the aft or downstream end of the outer fixed structure having a terminal plane (123; 223; 323; 423; 523) which is substantially normal to the longitudinal axis of the engine, the radius R of the internal surface (120; 220; 320; 420; 520) of the outer fixed structure in the terminal plane being a function R(φ) of azimuthal position φ in the terminal plane with respect to the longitudinal axis of the engine such that (i) the radius has a constant value R 0 within a first azimuthal interval of at least 180°; (ii) the radius has a value greater than R 0 at any azimuthal position within a second azimuthal interval; and (iii) the radius has a value less than R 0 at any azimuthal position within a third azimuthal interval; (iv) the radius has a value greater than R 0 at any azimuthal position within a fourth azimuthal interval; wherein the second azimuthal interval is contiguous with the first and third azimuthal intervals, the fourth azimuthal interval is contiguous with the first and third azimuthal intervals, the first, second, third and fourth azimuthal intervals form a total azimuthal interval of 360°, and characterised in that R(φ) is single-valued at all azimuthal positions φ at which the internal surface of the outer fixed structure exists in the terminal plane. (i) the radius has a constant value R 0 within a first azimuthal interval of at least 180°; (ii) the radius has a value greater than R 0 at any azimuthal position within a second azimuthal interval; and (iii) the radius has a value less than R 0 at any azimuthal position within a third azimuthal interval; (iv) the radius has a value greater than R 0 at any azimuthal position within a fourth azimuthal interval; wherein the second azimuthal interval is contiguous with the first and third azimuthal intervals, the fourth azimuthal interval is contiguous with the first and third azimuthal intervals, the first, second, third and fourth azimuthal intervals form a total azimuthal interval of 360°, and characterised in that R(φ) is single-valued at all azimuthal positions φ at which the internal surface of the outer fixed structure exists in the terminal plane.
A load control system for controlling the amount of power delivered from an AC power source to an electrical load located in a space of a building, the load control system comprising: a sensor configured for detecting the presence or absence of an occupant in the space; a load control circuit adapted to be coupled in series electrical connection between the source and the load for controlling the amount of power delivered to the load, the load control circuit configured for being responsive to the sensor to control the amount of power delivered to the load, such that, while the load control system is operating in a first mode of operation, defined for a first predetermined period of time, the load control circuit is configured to turn the load on when the sensor detects the presence of the occupant and to turn the load off when the sensor detects the absence of the occupant, and characterized in that: while the load control system is operating in a second mode of operation, defined for a second predetermined period of time, the load control circuit is configured to turn the load off when the sensor detects the absence of the occupant and to not turn the load on when the sensor detects the presence of the occupant; wherein the load control system is configured to automatically change between the first and second modes of operation. a sensor configured for detecting the presence or absence of an occupant in the space; a load control circuit adapted to be coupled in series electrical connection between the source and the load for controlling the amount of power delivered to the load, the load control circuit configured for being responsive to the sensor to control the amount of power delivered to the load, such that, while the load control system is operating in a first mode of operation, defined for a first predetermined period of time, the load control circuit is configured to turn the load on when the sensor detects the presence of the occupant and to turn the load off when the sensor detects the absence of the occupant, and characterized in that: while the load control system is operating in a second mode of operation, defined for a second predetermined period of time, the load control circuit is configured to turn the load off when the sensor detects the absence of the occupant and to not turn the load on when the sensor detects the presence of the occupant; wherein the load control system is configured to automatically change between the first and second modes of operation.
A method of three-dimensional wire frame printing wherein material is printed by a printhead configured to move relative to the material at a printhead speed and extrude material at an extruding speed, the method comprising: printing an initial portion of material from a starting point; pausing printing of the initial portion of material so as to form a first anchor point, such that a first direction is defined from the starting point to the first anchor point, and wherein the anchor point lies in a plane substantially perpendicular to the first direction such that the initial portion of material is on the printed side of the plane; resuming printing from the first anchor point by printing, from the first anchor point, two or more intermediate portions of material on the non-printed side of the plane; and printing a final portion of material to a second anchor point on the printed side of the plane; wherein: the printhead speed and the extruding speed are independently variable; the average printhead speed is greater than the average extruding speed for the period of time during which the intermediate and final portions of material are printed between the first and second anchor points (202, 206); and a first intermediate portion is printed on the opposite side of the initial portion to the second anchor point. printing an initial portion of material from a starting point; pausing printing of the initial portion of material so as to form a first anchor point, such that a first direction is defined from the starting point to the first anchor point, and wherein the anchor point lies in a plane substantially perpendicular to the first direction such that the initial portion of material is on the printed side of the plane; resuming printing from the first anchor point by printing, from the first anchor point, two or more intermediate portions of material on the non-printed side of the plane; and printing a final portion of material to a second anchor point on the printed side of the plane; the printhead speed and the extruding speed are independently variable; the average printhead speed is greater than the average extruding speed for the period of time during which the intermediate and final portions of material are printed between the first and second anchor points (202, 206); and a first intermediate portion is printed on the opposite side of the initial portion to the second anchor point.
Food product display stand, comprising - a display space, intended to receive food products, - at least one member for diffusing fine droplets of liquid towards the display space, and - a generator of fine droplets, linked upstream to the diffusion member, characterized in that the generator of fine droplets comprises: - a tank intended to receive the liquid to be diffused, - an ultrasound emitter, housed in the tank so as to be covered by a minimum quantity of liquid to be diffused when it is operating, intended to emit ultrasounds into the liquid of the tank, - a nozzle for focusing the emitted ultrasounds, housed in the tank, intended to focus the ultrasounds towards a point of the liquid, the stand further comprising a heat exchanger intended to exchange heat between the liquid to be diffused and the display space. - a display space, intended to receive food products, - at least one member for diffusing fine droplets of liquid towards the display space, and - a generator of fine droplets, linked upstream to the diffusion member, - a tank intended to receive the liquid to be diffused, - an ultrasound emitter, housed in the tank so as to be covered by a minimum quantity of liquid to be diffused when it is operating, intended to emit ultrasounds into the liquid of the tank, - a nozzle for focusing the emitted ultrasounds, housed in the tank, intended to focus the ultrasounds towards a point of the liquid, the stand further comprising a heat exchanger intended to exchange heat between the liquid to be diffused and the display space.
A molten sodium secondary cell, comprising: a negative electrode compartment comprising a sodium metal negative electrode, which electrochemically oxidizes to release sodium ions during discharge and electrochemically reduces sodium ions to sodium metal during recharging; a positive electrode compartment comprising a positive electrode disposed in a molten positive electrolyte consisting of NaFSA (sodium bis(fluorosulfonyl)amide), wherein the positive electrode comprises a sodium intercalation electrode; and a sodium ion conductive electrolyte membrane that separates the sodium metal negative electrode from the molten positive electrolyte, wherein the sodium metal negative electrode is molten and in contact with the conductive electrolyte membrane as the cell operates; wherein the sodium ion conductive electrolyte membrane comprises a NaSICON-type material, and wherein the cell functions at an operating temperature between 107° C and 150° C. a negative electrode compartment comprising a sodium metal negative electrode, which electrochemically oxidizes to release sodium ions during discharge and electrochemically reduces sodium ions to sodium metal during recharging; a positive electrode compartment comprising a positive electrode disposed in a molten positive electrolyte consisting of NaFSA (sodium bis(fluorosulfonyl)amide), wherein the positive electrode comprises a sodium intercalation electrode; and a sodium ion conductive electrolyte membrane that separates the sodium metal negative electrode from the molten positive electrolyte, wherein the sodium metal negative electrode is molten and in contact with the conductive electrolyte membrane as the cell operates; wherein the sodium ion conductive electrolyte membrane comprises a NaSICON-type material, and wherein the cell functions at an operating temperature between 107° C and 150° C.
A hair treatment application device comprising a first plate and a second plate positionable in a juxtaposed relationship when said hair treatment application device is in a closed state, said first and second plates being coupled together via a connection, said first and second plates each has an internal (101; 201) and external (102; 202) surface and said first and second plates each has a perimeter edge (103; 203), characterized in that said device further comprises: a. a fluid containment means, which extends from said internal surface of said first plate upwards to provide an internal surface and external surface of said fluid containment means, whereby said internal surface of said fluid containment means and said internal surface of said first plate define a fluid containment zone to contain a hair treatment composition therein; and b. a fluid control means, which extends upward from the internal surface of said second plate; wherein said fluid control means of said second plate surrounds said fluid containment means of said first plate, when said hair treatment application device is in a closed state; wherein said fluid containment means and said fluid control means independently comprise materials selected from the group consisting of porous compressible materials, porous non-compressible materials, non-porous compressible materials, non-porous non-compressible materials, tines, bristles and combination thereof; and wherein said fluid containment means comprise tines, bristles or teeth or mixtures thereof; wherein said fluid control means is a continuous strip of porous compressible material or wherein said fluid control means comprises an internal side which faces said fluid containment means when said application device is in a closed state, and an outer side, wherein said outer side of said fluid control means comprises an impervious membrane. a. a fluid containment means, which extends from said internal surface of said first plate upwards to provide an internal surface and external surface of said fluid containment means, whereby said internal surface of said fluid containment means and said internal surface of said first plate define a fluid containment zone to contain a hair treatment composition therein; and b. a fluid control means, which extends upward from the internal surface of said second plate;
A curable composition comprising a resin matrix, the resin matrix comprising cationically curable components comprising an aziridino moiety and radiation curable components comprising a (meth)acrylate moiety, a curing system, the curing system comprising a starter (A-S) suitable for curing the cationically curable components and a photo-initiator (B-I) for curing the radiation curable components, the curable composition being provided as a Base Part and Catalyst Part being separated before use, wherein the Base Part comprises components and and wherein the Catalyst Part comprises components (A-S) and (B-I). a resin matrix, the resin matrix comprising cationically curable components comprising an aziridino moiety and radiation curable components comprising a (meth)acrylate moiety, cationically curable components comprising an aziridino moiety and radiation curable components comprising a (meth)acrylate moiety, a curing system, the curing system comprising a starter (A-S) suitable for curing the cationically curable components and a photo-initiator (B-I) for curing the radiation curable components, a starter (A-S) suitable for curing the cationically curable components and a photo-initiator (B-I) for curing the radiation curable components, the curable composition being provided as a Base Part and Catalyst Part being separated before use, wherein the Base Part comprises components and and wherein the Catalyst Part comprises components (A-S) and (B-I).
A method for improving the operational reliability of at least one thermally loaded functional part of at least one brake of a vehicle, in particular a utility vehicle and/or a trailer, and/or for reducing brake wear and/or drive energy, the method comprising the following steps: inputting a temperature signal of the at least one brake, this temperature signal representing at least one temperature of the brake and/or of a functional part of the brake and this temperature being detected by at least one sensor, and inputting a braking request signal and/or brake pressure signal for the at least one brake; detecting a thermal error situation using the temperature signal and the braking request signal and/or brake pressure signal; and supplying an adapted braking request signal and/or an adapted brake pressure signal using the thermal error situation detected in order to improve the operational reliability of the at least one thermally loaded functional part of the at least one brake and/or achieve a reduction in brake wear and/or drive energy, characterised in that the temperature is measured using a pole wheel sensor and/or an ABS sensor, the amplitude of the signal of the pole wheel sensor supplying temperature data. inputting a temperature signal of the at least one brake, this temperature signal representing at least one temperature of the brake and/or of a functional part of the brake and this temperature being detected by at least one sensor, and inputting a braking request signal and/or brake pressure signal for the at least one brake; detecting a thermal error situation using the temperature signal and the braking request signal and/or brake pressure signal; and supplying an adapted braking request signal and/or an adapted brake pressure signal using the thermal error situation detected in order to improve the operational reliability of the at least one thermally loaded functional part of the at least one brake and/or achieve a reduction in brake wear and/or drive energy, characterised in that the temperature is measured using a pole wheel sensor and/or an ABS sensor, the amplitude of the signal of the pole wheel sensor supplying temperature data.