Abstract: The purpose of the present invention is to provide a manufacturing device and a manufacturing method that use carbon fiber reinforced plastic (CFRP) as a source material for the efficient, low-cost manufacture of recycled carbon fibers exhibiting excellent ease of handling. A device for manufacturing recycled carbon fibers is provided with: a dry distillation-carbonization furnace (101) having a box-shaped main body (105), a dry distillation-carbonization chamber (102) which accommodates CFRP (40), a combustion chamber (103) equipped with a burner (104), and a heating chamber (115) formed in the space between the main body (105) and the dry distillation-carbonization chamber (102); and a continuous furnace (26) that continuously heats the CFRP (25) after dry distillation and removes a portion of the fixed carbon.

Abstract: The purpose of the present invention is to provide a manufacturing device and a manufacturing method that use carbon fiber reinforced plastic (CFRP) as a source material for the efficient, low-cost manufacture of recycled carbon fibers exhibiting excellent ease of handling. A device for manufacturing recycled carbon fibers is provided with: a dry distillation-carbonization furnace (101) having a box-shaped main body (105), a dry distillation-carbonization chamber (102) which accommodates CFRP (40), a combustion chamber (103) equipped with a burner (104), and a heating chamber (115) formed in the space between the main body (105) and the dry distillation-carbonization chamber (102); and a continuous furnace (26) that continuously heats the CFRP (25) after dry distillation and removes a portion of the fixed carbon.

Abstract: A photographed image display device (200) includes an LCD module (230). The LCD module (230) includes a graphic memory (231) operable to store image data and an LCD (232) operable to display an image based on the image data stored in the graphic memory. The photographed image display device (200) includes a photographing unit (210) operable to output image data of an object sequentially, and a storing unit (260) operable to store image data. Here, the sequentially output image data is transferred to the graphic memory (231). When receiving a storage instruction for the image data, the photographed image display device (200) judges whether the transfer of the image data to the graphic memory (231) has been completed. When the transfer has been completed, the photographed image display device (200) reads the image data from the graphic memory (231) and store the read image data to the storing unit (260).

Abstract: A photographed image display device (200) includes an LCD module (230). The LCD module (230) includes a graphic memory (231) operable to store image data and an LCD (232) operable to display an image based on the image data stored in the graphic memory. The photographed image display device (200) includes a photographing unit (210) operable to output image data of an object sequentially, and a storing unit (260) operable to store image data. Here, the sequentially output image data is transferred to the graphic memory (231). When receiving a storage instruction for the image data, the photographed image display device (200) judges whether the transfer of the image data to the graphic memory (231) has been completed. When the transfer has been completed, the photographed image display device (200) reads the image data from the graphic memory (231) and store the read image data to the storing unit (260).

Abstract: A controller of a DC brushless motor comprises a microcomputer. The microcomputer receives signals from three hall elements being disposed in association with the DC brushless motor and for detecting the rotating position of a rotor magnet of the DC brushless motor. On the basis of the position detecting signals, the data of the rotating number of the rotor magnet may be evaluated. When the number of the rotation thus evaluated is below the predetermined rotating number, the microcomputer stops the power supply to the DC brushless motor from a switching power source. In order to evaluate such data of rotating number, an internal interruption is started at every predetermined period in the microcomputer. The microcomputer determines at every internal interruption whether or not a counter which is reset at each rotation of the rotor magnet has overflowed, and the data of rotating number is evaluated on the basis of repetition times of the internal interruptions and periods required for such overflow.