Abstract: An optical irradiation equipment provided with a cage body having an UV radiation transmission window, and an excimer lamp which is arranged in an interior of said cage body, wherein gas flow openings being connected to one of a cooling gas supply mechanism and a cooling gas suction mechanism are provided at a periphery of said UV radiation transmission window.

Abstract: A light processing apparatus irradiates an ultra violet light through a square or a rectangular light transmitting window onto a work piece that has a square or rectangular pattern formation portion. The apparatus includes a light emitting unit that comprises a casing, an ultraviolet irradiance lamp arranged inside the casing and the light transmitting window member provided in one face of the casing. One side of the light transmitting window and one side of the pattern formation portion are not parallel to each other.

Abstract: A filament lamp is provided. The filament lamp includes: a long light emitting section including a plurality of filaments aligned with one another in an axial direction of the light emitting section, wherein electric power is independently supplied to each of the filaments; a sealing section that seals the light emitting section, including: a first sealing section provided at one end of the light emitting section; and a second sealing section provided at the other end of the light emitting section; a plurality of metal foils embedded in the sealing section; a plurality of external leads each connected to a corresponding one of the metal foils and extending from the sealing section to the outside; and a plurality of glass pipes each provided on the sealing section so as to cover a corresponding one of the external leads.

Abstract: A filament lamp having a filament and an internal lead in which the filament is insulated from contact with the internal lead and prevent from moving during operation to maintain a uniform distribution of light. To this end, the filament lamp includes a luminous tube having an inner wall, and opposing ends on which sealing parts are formed. Multiple filaments are sequentially disposed inside the tube in an axial direction, and internal leads are connected to each filament. An insulating wall is provided along the inner wall of the luminous tube in the axial direction and is disposed around at least one of the multiple filaments. Internal leads running partly parallel to the filaments are positioned between the luminous tube and insulating wall and do not engage the ring supporters of the multiple filaments, which could cause the filaments to move and distribute light in a nonuniform pattern.

Abstract: A light processing apparatus irradiates an ultra violet light through a square or a rectangular light transmitting window onto a work piece that has a square or rectangular pattern formation portion. The apparatus includes a light emitting unit that comprises a casing, an ultraviolet irradiance lamp arranged inside the casing and the light transmitting window member provided in one face of the casing. One side of the light transmitting window and one side of the pattern formation portion are not parallel to each other.

Abstract: To provide a photo-irradiation type heat treatment apparatus that eliminates the adverse influence of a light transmitting window on the temperature distribution of an article to be treated without losing the original function of a reflecting mirror a photo-irradiation type heat treatment apparatus in which heat treating of an article is performed by irradiating the article with light emitted from multiple filament lamps through a light transmitting window, by providing the apparatus with a reflecting mirror having an opening at its central area so that cooling air can pass therethrough and by providing an air permeable reflector so as to cover the opening in the reflecting mirror.

Abstract: A filament lamp includes multiple filament assemblies having filaments connected to paired leads, arrayed in order within a light emitting tube and following a tube axis thereof. Each lead is electrically connected in a seal area. Each filament is powered independently. The light emitting tube includes insulating walls or inner tubes between the filaments and leads that have openings through which the leads pass, and located along the tube axis in proximity to the inner wall of the light emitting tube. Multiple lead accommodation spaces corresponding to the number of leads are provided in the light emitting tube by the insulating walls with each lead passing through an opening in the insulating wall and placed without short circuits in its lead accommodation space.

Abstract: An optical irradiation equipment provided with a cage body having an UV radiation transmission window, and an excimer lamp which is arranged in an interior of said cage body, wherein gas flow openings being connected to one of a cooling gas supply mechanism and a cooling gas suction mechanism are provided at a periphery of said UV radiation transmission window.

Abstract: A filament lamp having a filament and an internal lead in which the filament is insulated from contact with the internal lead and prevent from moving during operation to maintain a uniform distribution of light. To this end, the filament lamp includes a luminous tube having an inner wall, and opposing ends on which sealing parts are formed. Multiple filaments are sequentially disposed inside the tube in an axial direction, and internal leads are connected to each filament. An insulating wall is provided along the inner wall of the luminous tube in the axial direction and is disposed around at least one of the multiple filaments. Internal leads running partly parallel to the filaments are positioned between the luminous tube and insulating wall and do not engage the ring supporters of the multiple filaments, which could cause the filaments to move and distribute light in a nonuniform pattern.

Abstract: A filament lamp is provided. The filament lamp includes: a long light emitting section including a plurality of filaments aligned with one another in an axial direction of the light emitting section, wherein electric power is independently supplied to each of the filaments; a sealing section that seals the light emitting section, including: a first sealing section provided at one end of the light emitting section; and a second sealing section provided at the other end of the light emitting section; a plurality of metal foils embedded in the sealing section; a plurality of external leads each connected to a corresponding one of the metal foils and extending from the sealing section to the outside; and a plurality of glass pipes each provided on the sealing section so as to cover a corresponding one of the external leads.

Abstract: To provide a filament lamp having a plurality of filaments disposed together in sequence in the tube axis direction of a light-emitting tube, with miniaturized hermetically sealed parts, by certain sheets of metal foil (26a, 26b), of the plurality of metal foils (24a, 24b, 25a, 25b, 26a, 26b), being disposed out of alignment with the tube axis direction in relation to the other of the metal foils (24a, 24b, 25a, and 25b), and are also disposed staggered in a direction perpendicular to the tube axis direction.

Abstract: To provide a photo-irradiation type heat treatment apparatus that eliminates the adverse influence of a light transmitting window on the temperature distribution of an article to be treated without losing the original function of a reflecting mirror a photo-irradiation type heat treatment apparatus in which heat treating of an article is performed by irradiating the article with light emitted from multiple filament lamps through a light transmitting window, by providing the apparatus with a reflecting mirror having an opening at its central area so that cooling air can pass therethrough and by providing an air permeable reflector so as to cover the opening in the reflecting mirror.

Abstract: A filament lamp includes multiple filament assemblies having filaments connected to paired leads, arrayed in order within a light emitting tube and following a tube axis thereof. Each lead is electrically connected in a seal area. Each filament is powered independently. The light emitting tube includes insulating walls or inner tubes between the filaments and leads that have openings through which the leads pass, and located along the tube axis in proximity to the inner wall of the light emitting tube. Multiple lead accommodation spaces corresponding to the number of leads are provided in the light emitting tube by the insulating walls with each lead passing through an opening in the insulating wall and placed without short circuits in its lead accommodation space.

Abstract: A variable vibration motor includes a rotor shaft having a fixed weight and a movable weight mounted thereon. Adjustable means are provided on the motor casing for adjusting the movable weight to various rotational positions about the rotor shaft, and manually operable means outside of the motor casing are provided for adjusting the adjustable means and thereby vary the rotational position of the movable weight when the motor is running.