Abstract: A water level sensor includes a first electrode, a second electrode and a controller. The first electrode is installed at a first height in a tank that stores water containing impurities including microorganisms that can form a biofilm. The second electrode is installed at a second height higher than the first height in the tank. The controller detects that water reaches the second height through contact of the first electrode and the second electrode with water.

Abstract: A dispensing device includes: a pump that discharges a liquid; a pipe through which a liquid discharged by the pump flows; a dispensing portion that is connected to the pipe and dispenses a liquid that flows through the pipe; a nozzle that houses the pipe, the dispensing portion being arranged therein in an opening portion; and an antenna that is provided inside the nozzle and transmits and receives radio signals.

Abstract: A light-beam therapeutic apparatus for ensuring patient safety. The light-beam therapeutic apparatus includes an apparatus body portion having a light source; a light guide rod that guides light from the light source, a connecting socket, a cooling fan, an electronic component that performs control required for a therapy, and a control display panel that displays contents of the therapy; a therapeutic portion including a light guide portion including a plurality of bundled optical fibers, and a pad portion formed of the optical fibers spread out adjacently to one another into a flat-panel shape. The therapeutic portion is formed into a light-receiving plug that is insertable into a connecting socket of the apparatus body portion. The light-receiving plug is configured to be kept in a coupled state by an attracting action of a permanent magnet provided on a side of the connecting socket.

Abstract: A light-beam therapeutic apparatus used for a therapy for neonatal hyperbilirubinemia is disclosed, which includes an apparatus body portion having a light source; a light guide rod that guides light from the light source, a connecting socket, a cooling fan, an electronic component that performs control required for a therapy, and a control display panel that displays the contents of therapy; a therapeutic portion including a light guide portion including a plurality of bundled optical fibers, and a pad portion formed of the optical fibers spread out adjacently to one another into a flat-panel shape, and the therapeutic portion is formed into a light-receiving plug insertable into a connecting socket of the apparatus body portion, and the optical fibers positioned on the pad portion are subjected to exposing processing and have a protecting surface layer portion formed of a bag member filled with transparent and highly flexible high-molecular gel.

Abstract: A light-emitting diode (LED) therapeutic apparatus includes a body portion formed of a light-weight resin material into a rectangular housing; a printed circuit board including a plurality of LEDs having different emission colors mounted linearly in a plurality of rows at required intervals; a thermal radiating plate provided with a plurality of thermal radiating studs formed of a light-weight thermally conductive material; and a transparent plate mounted on an opening surface of the body portion. The thermal radiating plate is mounted in tight contact in the body portion, and the printed circuit board is mounted in tight contact with the heat radiating studs. The heat generated by the LEDs is radiated from the surface of the body portion via the thermal radiating plate from the thermal radiating studs. The LEDs may be maintained to a junction allowable temperature or lower so that a long life span without noise is achieved.

Abstract: A light-beam therapeutic apparatus ensured patient safety is disclosed, which includes an apparatus body portion having a light source; a light guide rod that guides light from the light source, a connecting socket, a cooling fan, an electronic component that performs control required for a therapy, and a control display panel that displays the contents of therapy; a therapeutic portion including a light guide portion including a plurality of bundled optical fibers, and a pad portion formed of the optical fibers spread out adjacently to one another into a flat-panel shape, wherein the therapeutic portion is formed into a light-receiving plug insertable into a connecting socket of the apparatus body portion, and the light-receiving plug is configured to be kept in a coupled state by an attracting action of a permanent magnet provided on the side of the connecting socket.

Abstract: A light-beam therapeutic apparatus used for a therapy for neonatal hyperbilirubinemia is disclosed, which includes an apparatus body portion having a light source; a light guide rod that guides light from the light source, a connecting socket, a cooling fan, an electronic component that performs control required for a therapy, and a control display panel that displays the contents of therapy; a therapeutic portion including a light guide portion including a plurality of bundled optical fibers, and a pad portion formed of the optical fibers spread out adjacently to one another into a flat-panel shape, and the therapeutic portion is formed into a light-receiving plug insertable into a connecting socket of the apparatus body portion, and the optical fibers positioned on the pad portion are subjected to exposing processing and have a protecting surface layer portion formed of a bag member filled with transparent and highly flexible high-molecular gel.

Abstract: An LED therapeutic apparatus is disclosed, which includes a body portion formed of a light-weight resin material into a rectangular housing; a printed circuit board including a plurality of LEDs having different emission colors mounted linearly in a plurality of rows at required intervals; a thermal radiating plate provided with a plurality of thermal radiating studs formed of a light-weight thermally conductive material; and a transparent plate mounted on an opening surface of the body portion. The thermal radiating plate is mounted in tight contact in the body portion, and the printed circuit board is mounted in tight contact with the heat radiating studs. The heat generated by the LEDs is radiated from the surface of the body portion via the thermal radiating plate from the thermal radiating studs. The LEDs may be maintained to a junction allowable temperature or lower, and the long life span without noise is achieved.