Abstract: Provided are a microscope including a stage that is movable in a direction perpendicular to an observation optical axis and a camera capturing an image of a sample mounted on the stage; and a processor including hardware, wherein the processor is configured to implement: a generating unit configured to join the image of the sample to generate a joined image; a determination unit configured to determine whether the position of the stage is a position suitable for image capturing; a notifying unit configured to, when it is determined that the position is suitable, issue a notification to that effect; and a control unit configured to control the generating unit so as to join the image obtained by the camera when the moving speed of the stage is at or below a prescribed threshold, in the state where it is being notified that the position is suitable for image capturing.

Abstract: An emergency stop system includes a hazard switch that is a momentary switch, an automatic stop controller that performs automatic stop control for causing a vehicle to automatically stop when a predetermined condition is met, and a hazard light controller that controls hazard lights. While automatic stop control is not being performed, the hazard light controller switches the hazard lights between a flashing state and a turned-off state each time a user presses the hazard switch. The hazard light controller brings the hazard lights into the flashing state upon start of the automatic stop control, and turns off the hazard lights (i.e., transitions the hazard lights to the turned-off state) upon depression of the hazard switch while the hazard lights are flashing during execution of the automatic stop control.

Abstract: An automatic stop controller (including a deceleration setting unit and a deceleration instruction unit) performs automatic stop control of a vehicle by using a first deceleration in response to (i) the detection or estimation of a stop intention by a stop intention detector or (ii) the detection or estimation of an unable-to-drive state of the driver of the vehicle by an unable-to-drive state detector while the vehicle is traveling. The automatic stop controller performs automatic stop control of the vehicle by using a second deceleration larger than the first deceleration in response to (i) the detection or estimation of the stop intention by the stop intention detector and (ii) the detection or estimation of the unable-to-drive state of the driver by the unable-to-drive state detector.

Abstract: A road-condition determining unit determines the condition of a travelling road on which a vehicle is travelling. When a predetermined condition is satisfied, a stopping controller operates a braking mechanism to perform an automatic stop process of stopping the vehicle, and uses a steering mechanism to change the orientation of steered wheels of the vehicle in accordance with the condition of the travelling road which is determined by the road-condition determining unit when the automatic stop process is to end.

Abstract: An emergency vehicle control device, when an emergency vehicle stop switch is operated for an operation time threshold value or longer in a state where automatic vehicle stop control is not executed, determines that the automatic vehicle stop control is intended to be executed. Later, when the interval between the previous operation and the current operation of the emergency vehicle stop switch is within an operation interval threshold value, the determination that the automatic vehicle stop control is intended to be executed is sustained, whereas when the interval exceeds the operation interval threshold value and the emergency vehicle stop switch is operated for the operation time threshold value or longer, it is determined that the execution of the automatic vehicle stop control is intended to be cancelled.

Abstract: An emergency vehicle control device includes an emergency vehicle stop switch (emergency situation detector) that detects or estimates an emergency situation; and an accelerator operation detector that detects whether or not an accelerator is being operated. When an emergency situation is detected or estimated by the emergency situation detector and an accelerator non-operation state lasting for an accelerator non-operation time threshold value or longer is detected by the accelerator operation detector while the vehicle is running, the vehicle is automatically stopped regardless of whether or not a steering operation is performed.

Abstract: An emergency vehicle control device includes an emergency vehicle stop switch that detects or estimates an emergency situation; an accelerator operation detector that detects whether or not an accelerator is being operated; and a cruise controller that executes vehicle speed maintaining control or inter-vehicle distance maintaining control for a preceding vehicle. In the case where an emergency situation is detected or estimated by the emergency vehicle stop switch while a vehicle is running, execution of control by the cruise controller is prohibited, and when an accelerator non-operation state lasting for an accelerator non-operation time threshold value or longer since the prohibition of the control is detected by the accelerator operation detector, the vehicle is automatically stopped.

Abstract: Proper exposure is achieved within a short period of time even when image-acquisition elements are switched. Provided is an image-acquisition device for a microscope, which includes an optical-path branching section that branches light from an object into two optical paths; a first image-acquisition element and a second image-acquisition element that are respectively disposed in the two optical paths branching from the optical-path branching section and that acquire images of the light from the object under different image-acquisition conditions; and an exposure-time calculator that calculates an exposure time for the second image-acquisition element on the basis of an exposure time for the first image-acquisition element and a ratio of the image-acquisition conditions of the first and second image-acquisition elements.

Abstract: A photographing control unit comprising a drive signal generator, an analog front end, a synchronization signal generation unit, and a system control unit controls an imager under a predetermined photographing condition, so that the imager photographs an observation image of a sample observed by a microscope and formed on a light receiving surface of the imager. A computing unit obtains inputs of a plurality of photographing parameters, determines a photographing condition based on the obtained photographing parameters, and sets the photographing condition for the photographing control unit. A display unit displays the designable ranges of the photographing parameters. Here, when the computing unit obtains the input of a priority parameter, it changes the designable range of the plurality of photographing parameters other than the priority parameter based on the priority parameter and causes the display unit to display the designable range after the change.

Abstract: Proper exposure is achieved within a short period of time even when image-acquisition elements are switched. Provided is an image-acquisition device for a microscope, which includes an optical-path branching section that branches light from an object into two optical paths; a first image-acquisition element and a second image-acquisition element that are respectively disposed in the two optical paths branching from the optical-path branching section and that acquire images of the light from the object under different image-acquisition conditions; and an exposure-time calculator that calculates an exposure time for the second image-acquisition element on the basis of an exposure time for the first image-acquisition element and a ratio of the image-acquisition conditions of the first and second image-acquisition elements.

Abstract: A photographing control unit comprising a drive signal generator, an analog front end, a synchronization signal generation unit, and a system control unit controls an imager under a predetermined photographing condition, so that the imager photographs an observation image of a sample observed by a microscope and formed on a light receiving surface of the imager. A computing unit obtains inputs of a plurality of photographing parameters, determines a photographing condition based on the obtained photographing parameters, and sets the photographing condition for the photographing control unit. A display unit displays the designable ranges of the photographing parameters. Here, when the computing unit obtains the input of a priority parameter, it changes the designable range of the plurality of photographing parameters other than the priority parameter based on the priority parameter and causes the display unit to display the designable range after the change.