Abstract: A breather device comprises a substantially enclosed breather chamber (132) defined between a first end wall (102D) of a motor case and a second end wall (82B) of a gear case opposing each other, a motor communication hole (122) provided in the first end wall, an external communication passage (124) formed in the motor case or the gear case at a position lower than the motor communication hole so as to communicate the breather chamber to outside, and a partition wall (128) extending laterally across the breather chamber and projecting from one of the first end wall and the second wall toward the opposing end wall so as to define a small gap (130) between the partition wall and the opposing end wall, the partition wall being positioned between the motor communication hole and the external communication passage.

Abstract: A breather device (140) for a gear case (82) defining a gear chamber (83) therein, comprising a breather chamber (146) defined in a part of the gear case; a breathing hole (152) formed in a wall part defining an upper part of the breather chamber so as to communicate the breather chamber with outside; a communication hole (148, 150) formed in a wall part separating a lower part of the breather chamber from the gear chamber so as to communicate the breather chamber with the gear chamber; and a separating wall (154) extending partly across the breather chamber so as to define a circuitous passage between the breathing hole and the communication hole.

Abstract: A work machine includes: a drive rotation speed detector configured to detect a signal indicating a rotation of a drive source; a work rotation speed detector configured to detect a signal indicating rotation of a work rotation shaft; and a control device configured to, on the basis of comparison between signals acquired from the drive rotation speed detector and the work rotation speed detector, stop the drive source in a case where there is a rotation speed difference between a driven shaft in a rotating state due to power transmission from the drive source and the work rotation shaft. The work rotation speed detector includes: a detection target member configured to rotate together with the work rotation shaft; and a sensor mounting member configured to hold a detection sensor configured to detect rotation of the detection target member.

Abstract: The information processing device includes a plurality of integrated circuits that are interconnected via an external bus. Each of the integrated circuits is structured to be connectable via an internal bus to a CPU, a user logic, and a bridge. One integrated circuit is set as a master integrated circuit, which controls other integrated circuits, and the other integrated circuits are set as slave integrated circuits. CPUs of the slave integrated circuits are set in a reset state. Only the CPU of the master integrated circuit can be boot and it controls the user logic of the slave integrated circuit via the bridge of the slave integrated circuit and the external bus.

Abstract: A moving image data creation system includes a developing section 2a for developing the film 4a provided by the customer 3, a reading section 2a to read a plurality of still image data from the film developed, a creating section 2c to create a difference data for each of the plurality of still image data, wherein the difference data which denotes the difference between a number of still image data, wherein the number being calculated from a preset display time for one image, a recording section 2d to record the moving image data, the still image data, a slideshow execution program, and a music data on an information recording medium.

Abstract: There is described a system and a method for transferring digital image data for archiving and for ordering photographic prints through the network between a photofinisher and a customer.

Abstract: In an exposure control mechanism for a camera, and more particularly for a still video camera which obtains an image signal using an image sensor, a first preliminary exposure is conducted with almost all the center portion of an automatic exposure luminance range exposed to light of the most suitable exposure level. The specific number of pixels obtained through this exposure is limited to within the foregoing middle luminance range. However, since the total number of pixels are known, the total number of pixels saturated with image pick-up signals due to high exposure intensity in the portion recognized as white, and the total number of pixels in the portion recognized as black due to low exposure intensity, can be obtained by distribution data of pixels in an image pick-up screen with regard to the luminance level obtained by the first preliminary exposure.