An image capturing device capable of intermittent image capture, based on a predetermined given timing, to acquire multiple first images includes a detecting unit, an acquiring unit, and a setting unit. The detecting unit detects at least either a zooming operation or a panning operation that is performed when an image of a subject is captured. The acquiring unit causes a second image to be acquired in accordance with the zooming operation or the panning operation when at least either the zooming operation or the panning operation has been detected. The setting unit sets the second image as an image corresponding to at least one frame forming a time-lapse motion picture when at least either the zooming operation or the panning operation has been detected. The second image is acquired at a different timing from the given timing for acquiring the first images.

Embodiments are disclosed for re-timing a video sequence to an audio sequence based on the detection of motion beats in the video sequence and audio beats in the audio sequence. In particular, in one or more embodiments, the disclosed systems and methods comprise receiving a first input, the first input including a video sequence, detecting motion beats in the video sequence, receiving a second input, the second input including an audio sequence, detecting audio beats in the audio sequence, modifying the video sequence by matching the detected motions beats in the video sequence to the detected audio beats in the audio sequence, and outputting the modified video sequence.

Embodiments are disclosed for re-timing a video sequence to an audio sequence based on the detection of motion beats in the video sequence and audio beats in the audio sequence. In particular, in one or more embodiments, the disclosed systems and methods comprise receiving a first input, the first input including a video sequence, detecting motion beats in the video sequence, receiving a second input, the second input including an audio sequence, detecting audio beats in the audio sequence, modifying the video sequence by matching the detected motions beats in the video sequence to the detected audio beats in the audio sequence, and outputting the modified video sequence.

The disclosure can provide a method for shooting a video. The method includes: obtaining a target music file for shooting the video and a preset shooting duration; obtaining shooting guidance information based on beat information of the target music file and the preset shooting duration; the shooting guidance information including a number of clips of the video within the preset shooting duration and a clip duration of each of the clips; and displaying the shooting guidance information in a shooting interface.

The disclosure can provide a method for shooting a video. The method includes: obtaining a target music file for shooting the video and a preset shooting duration; obtaining shooting guidance information based on beat information of the target music file and the preset shooting duration; the shooting guidance information including a number of clips of the video within the preset shooting duration and a clip duration of each of the clips; and displaying the shooting guidance information in a shooting interface.

A video signal output system includes a first video chip and a second video chip. The first video chip includes a first video signal output circuit and a simulation signal generating circuit. The simulation signal generating circuit outputs a first simulation signal and a second simulation signal. The second video chip includes a second video signal output circuit. The first video signal output circuit generates a first horizontal synchronization signal according to the first simulation signal, and generates a first vertical synchronization signal according to the second simulation signal. The second video signal output circuit generates a second horizontal synchronization signal according to the first simulation signal, and generates a second vertical synchronization signal according to the second simulation signal.

A video signal output system includes a first video chip and a second video chip. The first video chip includes a first video signal output circuit and a simulation signal generating circuit. The simulation signal generating circuit outputs a first simulation signal and a second simulation signal. The second video chip includes a second video signal output circuit. The first video signal output circuit generates a first horizontal synchronization signal according to the first simulation signal, and generates a first vertical synchronization signal according to the second simulation signal. The second video signal output circuit generates a second horizontal synchronization signal according to the first simulation signal, and generates a second vertical synchronization signal according to the second simulation signal.

The invention relates to a method allowing the use of the information accessible by fluorescence imaging to be optimized. For this purpose, it implements the combination of a protocol for calibration and synchronization of a pulsed light for exciting a fluorescent marker, with the operation in “rolling shutter” mode of a fluorescence camera. An appropriate correction factor allows the complete signal integrated by all of the photodiodes of the camera to be used so that no image is lost.

The invention relates to a method allowing the use of the information accessible by fluorescence imaging to be optimized. For this purpose, it implements the combination of a protocol for calibration and synchronization of a pulsed light for exciting a fluorescent marker, with the operation in “rolling shutter” mode of a fluorescence camera. An appropriate correction factor allows the complete signal integrated by all of the photodiodes of the camera to be used so that no image is lost.

A wireless media distribution system is provided comprising an access point (6) for broadcasting media and a plurality of stations (2) for reception and playback of media. Each station is configured for receiving and decoding a timestamp in a beacon frame transmitted repeatedly from the access point. This is used to control the output signal of a station physical layer clock (12) which is then used as a clock source for an application layer time synchronisation protocol. This application layer time synchronisation protocol can then be used in the station to control an operating system clock (8) for regulating playback of media.