mhurhangee/ep-ind-claims huggingface dataset:
A cooking appliance, including: a housing having a cooking compartment and a bottom part defining a bottom surface of the cooking compartment; a base below the bottom part; and an induction heating part installed between the bottom part and the base, the induction heating part including: a working coil for inductively heating an object in the cooking compartment installed adjacent to the bottom part; a receiver coil installed adjacent to the base and configured to wirelessly receive power for operating the cooking appliance from a working coil of another appliance located below the bottom of the cooking appliance; the cooking appliance characterized by an electromagnetic shielding plate provided between the working coil and the receiver coil and configured to shield electromagnetic waves. a housing having a cooking compartment and a bottom part defining a bottom surface of the cooking compartment; a base below the bottom part; and an induction heating part installed between the bottom part and the base, the induction heating part including: a working coil for inductively heating an object in the cooking compartment installed adjacent to the bottom part; a receiver coil installed adjacent to the base and configured to wirelessly receive power for operating the cooking appliance from a working coil of another appliance located below the bottom of the cooking appliance; the cooking appliance characterized by an electromagnetic shielding plate provided between the working coil and the receiver coil and configured to shield electromagnetic waves. a working coil for inductively heating an object in the cooking compartment installed adjacent to the bottom part; a receiver coil installed adjacent to the base and configured to wirelessly receive power for operating the cooking appliance from a working coil of another appliance located below the bottom of the cooking appliance; the cooking appliance characterized by an electromagnetic shielding plate provided between the working coil and the receiver coil and configured to shield electromagnetic waves.
A method of internally distributing Hg in a fluorescent tube body in a vertical pumping device, comprising the steps of: - providing a bottom by closing the downward facing end of the fluorescent tube body; - arranging, in a first indexed process position, at least one first solid body comprising a predetermined first amount of bound Hg to be able to achieve a first release of the first amount of Hg in the fluorescent tube body by gasification; - arranging, in a second indexed process position, at least one second solid body (9") comprising a predetermined second amount of bound Hg to be able to achieve a second release of the second amount of Hg in the fluorescent tube body by gasification; - achieving the said first release of the first amount of Hg with heat and underpressure attained in the fluorescent tube body for purification; - achieving the said second release of the second amount of Hg with heat and underpressure attained for the occluded mercury vapour of the fluorescent tube body; - releasing the fluorescent tube body from the vertical pumping device. - providing a bottom by closing the downward facing end of the fluorescent tube body; - arranging, in a first indexed process position, at least one first solid body comprising a predetermined first amount of bound Hg to be able to achieve a first release of the first amount of Hg in the fluorescent tube body by gasification; - arranging, in a second indexed process position, at least one second solid body (9") comprising a predetermined second amount of bound Hg to be able to achieve a second release of the second amount of Hg in the fluorescent tube body by gasification; - achieving the said first release of the first amount of Hg with heat and underpressure attained in the fluorescent tube body for purification; - achieving the said second release of the second amount of Hg with heat and underpressure attained for the occluded mercury vapour of the fluorescent tube body; - releasing the fluorescent tube body from the vertical pumping device.
A protection block including: a bumper surface for receiving impact forces; an elongate structure positioning surface arranged in use to be positioned substantially against or adjacent to a border defined by a structure to be protected; at least one resiliently flexible joining member joining said bumper surface to said structure positioning surface; at least two pairs of locating apertures, characterised in that each locating aperture is substantially circular and is bounded by a continuous wall and is arranged to receive a locating pin, and adjacent locating apertures of each pair of locating apertures are separated by a spacing configured to expand or contract when impact forces are applied to the bumper surface; said locating apertures arranged so that when a plurality of said protection blocks are stacked a locating pin can be positioned within at least one of the locating apertures of each of said plurality of protection blocks to locate the plurality of protection blocks together to form a combination of protection blocks, and combinations of protection blocks are configured to be connected together to form a protective barrier in which at least one protection block is common to an adjacently located connected combination of protection blocks. a bumper surface for receiving impact forces; an elongate structure positioning surface arranged in use to be positioned substantially against or adjacent to a border defined by a structure to be protected; at least one resiliently flexible joining member joining said bumper surface to said structure positioning surface; at least two pairs of locating apertures, characterised in that each locating aperture is substantially circular and is bounded by a continuous wall and is arranged to receive a locating pin, and adjacent locating apertures of each pair of locating apertures are separated by a spacing configured to expand or contract when impact forces are applied to the bumper surface; said locating apertures arranged so that when a plurality of said protection blocks are stacked a locating pin can be positioned within at least one of the locating apertures of each of said plurality of protection blocks to locate the plurality of protection blocks together to form a combination of protection blocks, and combinations of protection blocks are configured to be connected together to form a protective barrier in which at least one protection block is common to an adjacently located connected combination of protection blocks.
A lighting device comprising: a printed circuit board; a plurality of light sources disposed on the printed circuit board; a reflection unit disposed on the printed circuit board; a resin layer disposed on the reflection unit so that the light sources are embedded; and the reflection unit is formed between the printed circuit board and the resin layer; a light reflection member disposed on both side surfaces of the resin layer; and a diffusion plate having an upper surface disposed over the light sources and a side wall which is integrally formed with the upper surface and formed to extend in a lower side direction, and which is adhered onto the light reflection member, wherein the upper surface of the diffusion plate is spaced apart from the resin layer, wherein the reflection unit comprises a reflection sheet disposed on the printed circuit board, a transparent sheet disposed on the reflection sheet, and a separation member disposed between the reflection sheet and the transparent sheet, and characterized in that the separation member comprises a plurality of unit separation members, and a cross sectional shape of at least one of the unit separation members comprises a polygonal shape. a printed circuit board; a plurality of light sources disposed on the printed circuit board; a reflection unit disposed on the printed circuit board; a resin layer disposed on the reflection unit so that the light sources are embedded; and the reflection unit is formed between the printed circuit board and the resin layer; a light reflection member disposed on both side surfaces of the resin layer; and a diffusion plate having an upper surface disposed over the light sources and a side wall which is integrally formed with the upper surface and formed to extend in a lower side direction, and which is adhered onto the light reflection member, wherein the upper surface of the diffusion plate is spaced apart from the resin layer, wherein the reflection unit comprises a reflection sheet disposed on the printed circuit board, a transparent sheet disposed on the reflection sheet, and a separation member disposed between the reflection sheet and the transparent sheet, and characterized in that the separation member comprises a plurality of unit separation members, and a cross sectional shape of at least one of the unit separation members comprises a polygonal shape.
A radial liner section (48, 480) being a portion of the circumference of the inside of a tunnel, the radial liner section comprising elongate liner section supports (50, 52, 500, 520) formed integrally with the radial liner section, characterized in that the elongate liner section supports (50, 52, 500, 520) comprise a first raised end and a second raised end located at respective opposing longitudinal sides of said liner section (48, 480); wherein extending from the first raised end is a neck portion (54, 540) terminating in an expanded tubular head (56, 560), and within the second raised end there is provided a recess (58, 580) having a complementary but larger shape than the expanded tubular head (56, 560); wherein within the recess (58, 580) is located a slot within which a neck portion (54, 540) of a circumferentially adjacent liner section is locatable in use; and wherein an aperture is provided extending through the expanded tubular head, the aperture being adapted to receive a tensioner which extends there through in use.
- Stable staining composition which is suitable for sterilisation in an autoclave and which comprises in an aqueous solution: - at least one dye, - at least one water-soluble polyol of formula H(HCOH) n H, where n is a whole number greater than 3, for use in a method selected from: - an ophthalmic surgical treatment method applied to the human or animal body, in which said composition is applied in contact with an ophthalmic medium so as to perform in physiologically acceptable conditions a selective staining during the performance of at least one ophthalmic surgical procedure, - a diagnostic method applied to the human or animal body (in vivo). - at least one dye, - at least one water-soluble polyol of formula H(HCOH) n H, where n is a whole number greater than 3, - an ophthalmic surgical treatment method applied to the human or animal body, in which said composition is applied in contact with an ophthalmic medium so as to perform in physiologically acceptable conditions a selective staining during the performance of at least one ophthalmic surgical procedure, - a diagnostic method applied to the human or animal body (in vivo).
A humidity controlling container comprising an accommodating chamber in which contents are accommodated, wherein a wall portion thereof includes: an innermost layer which defines the accommodating chamber; a first resin composition layer which surrounds the innermost layer from a side opposite to the accommodating chamber; a second resin composition layer which surrounds the first resin composition layer from the side opposite to the accommodating chamber; and an outermost layer which surrounds the second resin composition layer from the side opposite to the accommodating chamber, the first resin composition layer has a higher dehumidification capacity for a space of the same volume than the second resin composition layer, and the second resin composition layer has a larger absorbable amount of water than the first resin composition layer; the innermost layer and the outermost layer are formed of an olefin-based resin; the first resin composition layer and the second resin composition layer are formed of an olefin-based resin mixed with a moisture absorbent; and characterized in that an intermediate layer formed of an olefin-based resin is interposed between the first resin composition layer and the second resin composition layer and in that the thickness of the innermost layer is the smallest of all the layers of the the wall portion and in that the thickness of the first resin composition layer is the largest. an innermost layer which defines the accommodating chamber; a first resin composition layer which surrounds the innermost layer from a side opposite to the accommodating chamber; a second resin composition layer which surrounds the first resin composition layer from the side opposite to the accommodating chamber; and an outermost layer which surrounds the second resin composition layer from the side opposite to the accommodating chamber, the first resin composition layer has a higher dehumidification capacity for a space of the same volume than the second resin composition layer, and the second resin composition layer has a larger absorbable amount of water than the first resin composition layer; the innermost layer and the outermost layer are formed of an olefin-based resin; the first resin composition layer and the second resin composition layer are formed of an olefin-based resin mixed with a moisture absorbent; and characterized in that an intermediate layer formed of an olefin-based resin is interposed between the first resin composition layer and the second resin composition layer and in that the thickness of the innermost layer is the smallest of all the layers of the the wall portion and in that the thickness of the first resin composition layer is the largest.
A liquid level measuring probe comprising: a capacitive sensor extending into a liquid in a tank with the capacitance of the sensor changing depending on the level of the liquid; an electronic circuitry for providing a signal representing the level of the liquid by detecting the capacitance of the capacitive sensor, said electronic circuitry being located remotely from the capacitive sensor; and a cable for electrically coupling the capacitive sensor to the electronic circuitry, wherein the electronic circuitry comprises a temperature-stabilized detector comprising four transistors wired in a diode configuration and a coupling capacitor C1, two transistors of said four transistors in combination with the coupling capacitor C1 to provide a voltage doubler that converts an input AC signal to a 2x DC level and two transistors of said four transistors to stabilize the temperature of the output of the temperature-stabilized detector. a capacitive sensor extending into a liquid in a tank with the capacitance of the sensor changing depending on the level of the liquid; an electronic circuitry for providing a signal representing the level of the liquid by detecting the capacitance of the capacitive sensor, said electronic circuitry being located remotely from the capacitive sensor; and a cable for electrically coupling the capacitive sensor to the electronic circuitry, wherein the electronic circuitry comprises a temperature-stabilized detector comprising four transistors wired in a diode configuration and a coupling capacitor C1, two transistors of said four transistors in combination with the coupling capacitor C1 to provide a voltage doubler that converts an input AC signal to a 2x DC level and two transistors of said four transistors to stabilize the temperature of the output of the temperature-stabilized detector.
Regulator, configured to receive a hot air flow carrying pneumatic power via an air inlet, to treat this hot air and to transmit the treated hot air to an air outlet configured to supply a pneumatic actuator, comprising at least one temperature-sensitive electrical and/or mechanical element (36, 37), and a regulator body, the regulator body is composed of a heat-conducting hollow enclosure forming a cavity at least partially surrounding a duct (22, 122a, 122b) for transporting the hot air flow, said cavity comprising a cooling air inlet, the regulator being characterized in that the cavity is at least partially filled with a structural reinforcing metal mesh (144, 144') that allows the cooling air to circulate from the cooling air inlet (32, 132) to a cooling air outlet (34, 134), and in that the temperature-sensitive electrical and/or mechanical element (36, 37) is arranged in the cavity or in contact with the hollow enclosure of the regulator body so as to be cooled by the cooling air by thermal conduction.
A modular reconfigurable workcell comprising: an enclosure including: one or more modular docking bays on a surface of the enclosure that support attachment of docking modules in a fixed geometric configuration, wherein respective modular docking bays include a plurality of electrical connections for a variety of power and communication busses of the docking modules to be attached; an electrical subsystem for coupling the communication busses between the one or more modular docking bays and providing power circuitry to the one or more modular docking bays; and one or more docking modules inserted within the one or more modular docking bays, wherein the one or more docking modules provide an electrical and mechanical interface between a respective peripheral and the workcell. an enclosure including: one or more modular docking bays on a surface of the enclosure that support attachment of docking modules in a fixed geometric configuration, wherein respective modular docking bays include a plurality of electrical connections for a variety of power and communication busses of the docking modules to be attached; an electrical subsystem for coupling the communication busses between the one or more modular docking bays and providing power circuitry to the one or more modular docking bays; and one or more modular docking bays on a surface of the enclosure that support attachment of docking modules in a fixed geometric configuration, wherein respective modular docking bays include a plurality of electrical connections for a variety of power and communication busses of the docking modules to be attached; an electrical subsystem for coupling the communication busses between the one or more modular docking bays and providing power circuitry to the one or more modular docking bays; and one or more docking modules inserted within the one or more modular docking bays, wherein the one or more docking modules provide an electrical and mechanical interface between a respective peripheral and the workcell.
Modified herpes simplex virus comprising a glycoproteic envelope, which has a heterologous peptide ligand permitting the HSV to penetrate in a cell via the interaction with a given receptor it is designed to bind, wherein the given receptor is overexpressed or selectively expressed by diseased cells, and wherein the peptide ligand replaces a portion of gD of the glycoproteic envelope of HSV deleted between positions 1 to 8 and 38 to 55, or between positions 40 to 61 and 210 to 218.
Method for treating at least one surface of a workpiece in the form of a narrow side of a board of wood or wooden material for use as a floor covering, wherein a defined amount of heat is introduced by a laser, a microwave emitter or an electron beam into a volume in the form of layers that lies directly behind the surface to be treated, wherein the beam has a depth of penetration of at least 0.3 mm and impinges substantially perpendicularly on the surface to be treated.
A control system of an internal combustion engine which is provided with an air flow detector which is arranged in an engine intake passage, characterized in that a transition period from the initial operating state to the end operating state for obtaining the output value of an air flow detector is predetermined, the initial operating state and the end operating state being determined in the period from the time of startup of the internal combustion engine to when the warmup operation ends, the air flow detector detects air flow in said transition period, the control system calculates a total amount of intake air which flows into a combustion chamber during said transition period based on detected output value of the air flow detector, a reference intake air amount for said transition period is determined, and the control system calculates a correction value based on a deviation of the total amount of intake air from the reference intake air amount and corrects the output value of the air flow detector based on the correction value.
A pneumatic tire comprising: a tire tread section; and a plurality of stud pins; the tire tread section being provided with a plurality of holes (20A, 20B, 20C) in a tread surface thereof, the holes allowing the stud pins to be inserted therein; the stud pins being inserted into the holes (20A, 20B, 20C); the stud pins each including: a body portion and a flange disposed closer to a bottom side of each of the holes (20A, 20B, 20C) than the body portion; and the flange having an outer diameter larger than the body portion; the holes (20A, 20B, 20C) each including: a securing portion coming into contact with an outer peripheral surface of the body portion of each of the stud pins to secure the stud pin; and an enlarged diameter portion disposed closer to a bottom wall side of each of the holes (20A, 20B, 20C) than the securing portion, the enlarged diameter portion having an inner diameter larger than the securing portion, the enlarged diameter portion coming into contact with an outer peripheral surface of the flange of each of the stud pins to secure the stud pin; the enlarged diameter portion including a side wall coming into contact with the outer peripheral surface of the flange, the side wall being provided with one or a plurality of protrusions (30A, 30B, 30C) protruding toward an interior of each of the holes (20A, 20B, 20C); and the protrusions (30A, 30B, 30C) each deforming to match the outer peripheral surface of the flange inserted into the enlarged diameter portion, such that an entire surface of the protrusion (30A, 30B, 30C) comes into contact with the outer peripheral surface of the flange, characterized in that the side wall of the enlarged diameter portion is inclined such that a cross-sectional area of an opening orthogonal to a depth direction of the holes (20A, 20B, 20C) expands continuously toward the bottom wall. a tire tread section; and a plurality of stud pins; a body portion and a flange disposed closer to a bottom side of each of the holes (20A, 20B, 20C) than the body portion; and the flange having an outer diameter larger than the body portion; a securing portion coming into contact with an outer peripheral surface of the body portion of each of the stud pins to secure the stud pin; and an enlarged diameter portion disposed closer to a bottom wall side of each of the holes (20A, 20B, 20C) than the securing portion, the enlarged diameter portion having an inner diameter larger than the securing portion, the enlarged diameter portion coming into contact with an outer peripheral surface of the flange of each of the stud pins to secure the stud pin; the enlarged diameter portion including a side wall coming into contact with the outer peripheral surface of the flange, the side wall being provided with one or a plurality of protrusions (30A, 30B, 30C) protruding toward an interior of each of the holes (20A, 20B, 20C); and the protrusions (30A, 30B, 30C) each deforming to match the outer peripheral surface of the flange inserted into the enlarged diameter portion, such that an entire surface of the protrusion (30A, 30B, 30C) comes into contact with the outer peripheral surface of the flange,