Abstract: The invention proposed damper protection for direct drive motor angle limits This mechanism includes main components: Assembly guideway-spring, and Assembly angle limit bar, and Assembly direct-drive motor. The content mentioned in the invention describes the damping spring integrated inside the direct motor to protect the device when operating within the desired stroke limit It can be applied to high-precision devices and motors. The invention's products can be applied in Direct-drive motor mechanisms that limit rotation angle with high-accuracy such as robotic arms, multi-sensor automatic observation devices, or unmanned equipment.

Abstract: The Coaxial Angular Velocity Sensor System is an electronic sensor, which processes and supplies the output signal of the inertial angular velocity with high accuracy and great reliability. The device consists of the main components: angular velocity sensor, analog-digital converter, microcontroller, temperature sensor, power source, mechanical anti-noise-proof chassis. The device's microprocessor comes with a signal processing algorithm that helps increase the accuracy of the device's output. Because of its compact size, high precision, and low cost, the device is used in high precision devices such as UAV cameras, or in life applications such as self-balancing vehicles.

Abstract: The Coaxial Angular Velocity Sensor System is an electronic sensor, which processes and supplies the output signal of the inertial angular velocity with high accuracy and great reliability. The device consists of the main components: angular velocity sensor, analog-digital converter, microcontroller, temperature sensor, power source, mechanical anti-noise-proof chassis. The device's microprocessor comes with a signal processing algorithm that helps increase the accuracy of the device's output. Because of its compact size, high precision, and low cost, the device is used in high precision devices such as UAV cameras, or in life applications such as self-balancing vehicles.

Abstract: An electronic apparatus, a method, and computer-readable medium are disclosed. The electronic apparatus includes a communicator, a display, and a processor. The communicator is configured to obtain a brainwave signal. The processor is configured to display on the display a character input window and a keyboard UI including a plurality of character keys. The processor is also configured to identify a character key to input to the character input window from the plurality of character keys based on at least one channel signal from the obtained brain wave signal. The channel signal includes a F7 channel, a F8 channel, and an AF3 channel. The processor is also configured to display a character corresponding to the identified character key to the character input window.

Abstract: An electronic apparatus, a method, and computer-readable medium are disclosed. The electronic apparatus includes a communicator, a display, and a processor. The communicator is configured to obtain a brainwave signal. The processor is configured to display on the display a character input window and a keyboard UI including a plurality of character keys. The processor is also configured to identify a character key to input to the character input window from the plurality of character keys based on at least one channel signal from the obtained brain wave signal. The channel signal includes a F7 channel, a F8 channel, and an AF3 channel. The processor is also configured to display a character corresponding to the identified character key to the character input window.