Abstract:
An embodiment of the invention provides a 3D camera module. The 3D camera module comprise a first lens, a second lens, a shutter control device, a first mirror, a second mirror and an image sensor. The first lens receives a first light beam. The second lens receives a second light beam. The shutter control device to control the first lens and the second camera and only one of the first shutter and the second shutter is turned on in one time period. The first mirror reflects the first light beam to the image sensor. The second mirror reflects the second light beam to the image sensor. The image sensor receives the first light beam and the second light beam to capture a first image and a second image and a 3D image is generated according to the first image and the second image.
Abstract:
An embodiment of the invention provides a 3D camera module. The 3D camera module comprise a first lens, a second lens, a shutter control device, a first mirror, a second mirror and an image sensor. The first lens receives a first light beam. The second lens receives a second light beam. The shutter control device to control the first lens and the second camera and only one of the first shutter and the second shutter is turned on in one time period. The first mirror reflects the first light beam to the image sensor. The second mirror reflects the second light beam to the image sensor. The image sensor receives the first light beam and the second light beam to capture a first image and a second image and a 3D image is generated according to the first image and the second image.
Abstract:
A structure of the lockable door includes a door cover, a first sliding member, a fastening member, and a second sliding member. The door cover is hinged to a case, and can selectively cover an opening of the case. The first sliding member is inserted through the door cover, and can be slidably mounted on one side surface of the door cover. The fastening member is slidably mounted on the other side surface of the door cover, and has at least one protrusion. The first sliding member is inserted through the fastening member, and the first sliding member and the second sliding member are connected to each other. When the first sliding member is in a retaining position, the second sliding member moves to be on the protrusion, and the first sliding member presses the door cover towards the second sliding member, so as to enhance waterproofness.
Abstract:
A structure of the lockable door includes a door cover, a first sliding member, a fastening member, and a second sliding member. The door cover is hinged to a case, and can selectively cover an opening of the case. The first sliding member is inserted through the door cover, and can be slidably mounted on one side surface of the door cover. The fastening member is slidably mounted on the other side surface of the door cover, and has at least one protrusion. The first sliding member is inserted through the fastening member, and the first sliding member and the second sliding member are connected to each other. When the first sliding member is in a retaining position, the second sliding member moves to be on the protrusion, and the first sliding member presses the door cover towards the second sliding member, so as to enhance waterproofness.
Abstract:
An electronic apparatus and a backlight brightness control method thereof are provided. The control method includes the following steps. Detection of an ambient brightness for the electronic apparatus is made to output an ambient brightness signal. Next, whether to adjust the backlight brightness for the display is determined according to a comparison between the ambient brightness signal and a current backlight brightness. If the comparison result indicates that the ambient brightness decrement is lower than a decrement threshold, then an adjustment value is selected from a plurality of step sizes according to the current backlight brightness to decrease the backlight brightness gradually, so that the backlight brightness changes towards a target backlight brightness corresponding to the ambient brightness signal. The step sizes include a first step size and a second step size. The backlight brightness for the display is adjusted according to the current backlight brightness and the adjustment value.
Abstract:
A portable electronic device and an autofocus control method of a camera of the portable electronic device are disclosed. The portable electronic device provides a G-sensor to detect the orientation of the portable electronic device, and provides a storage unit to store autofocus lookup tables for different orientations of the portable electronic device, respectively. According to orientation information from the G-sensor, the central processing unit of the portable electronic device selects one autofocus lookup table from the storage unit and thereby generates an actuating signal for a focus model. The focus model of the portable electronic device is actuated by the actuating signal to adjust an image distance between a lens module and an image sensor of the camera.
Abstract:
The invention provides an image processing system. In one embodiment, the image processing system comprises a first camera, a second camera, a depth map generator, and an automatic focusing module. The first camera generates a first image. The second camera generates a second image. The depth map generator generates a depth map comprising information about visual shift between the first image and the second image. The automatic focusing module estimates a distance between a target object and a center position between the first camera and the second camera, and adjusts the focusing lengths of the first camera and the second camera according to the estimated distance.
Abstract:
A portable electronic device and an autofocus control method of a camera of the portable electronic device are disclosed. The portable electronic device provides a G-sensor to detect the orientation of the portable electronic device, and provides a storage unit to store autofocus lookup tables for different orientations of the portable electronic device, respectively. According to orientation information from the G-sensor, the central processing unit of the portable electronic device selects one autofocus lookup table from the storage unit and thereby generates an actuating signal for a focus model. The focus model of the portable electronic device is actuated by the actuating signal to adjust an image distance between a lens module and an image sensor of the camera.
Abstract:
A step-sensing treadmill includes a frame assembly includes a lower frame securely mounted on a ground, a controller electrically connected to a dashboard and two step-sensing units each of which is mounted between the walking belt assembly and a left side or a right side of the lower frame of the frame assembly, and is collaborated with the controller to continuously sense a voltage variation caused by user's movement on walking belt relative to the walking belt in a motionless state. When the first voltage variation is greater than a predetermined voltage variation threshold, the controller determines that one user's left or right step on the walking belt is made, and increments a left or right step number by one. The left and right step numbers can be used to further calculate calorie burned, and determine exercising conditions of the user during an exercise activity.
Abstract:
An electronic apparatus and a backlight brightness control method thereof are provided. The control method includes the following steps. Detection of an ambient brightness for the electronic apparatus is made to output an ambient brightness signal. Next, whether to adjust the backlight brightness for the display is determined according to a comparison between the ambient brightness signal and a current backlight brightness. If the comparison result indicates that the ambient brightness decrement is lower than a decrement threshold, then an adjustment value is selected from a plurality of step sizes according to the current backlight brightness to decrease the backlight brightness gradually, so that the backlight brightness changes towards a target backlight brightness corresponding to the ambient brightness signal. The step sizes include a first step size and a second step size. The backlight brightness for the display is adjusted according to the current backlight brightness and the adjustment value.