Abstract: A disposable integrated endoscope integrates two light-emitting diodes (LED) and two CMOS image sensors on the front end of the endoscope, which not only can avoid the use of expensive light-guide prisms, be made as a relatively inexpensive and disposable integrated endoscope, but also provide a clearer 3D image of the internal tissues or organs of human body by means of the light emitted by the LEDs. In addition, by furnishing a heat dissipation structure having a heat-pipe at the front end of the endoscope, the high heat generated by the image sensors at the front end of the endoscope can be quickly dissipated to the rear end of the endoscope to achieve a good heat dissipation effect, so as to avoid scalding human tissues due to the temperature of the front end of the endoscope reaches 48° C. or above.

Abstract: An augmented reality (AR) head-mounted display suitable for use with an endoscope to display the images captured by the endoscope in front of a doctor in an augmented reality manner. The AR head-mounted display utilizes a forehead pad that is raised and tilted at a larger angle to match a rear-head pad that is at the eye level of the wearer and is tilted at a smaller angle. The connection cable of the AR head-mounted display is extending to and clamped on a clip structure of the rear-head pad, and then further extending downward from the back of the wearer. No matter whether the wearer is in a straight-up or head-down position, such head-mount design can always be ergonomically and stably held on the wearer’s head; there will be no loosening nor displacement even if the wearer’s head is lowered for a long time.

Abstract: A disposable integrated endoscope integrates two light-emitting diodes (LED) and two CMOS image sensors on the front end of the endoscope, which not only can avoid the use of expensive light-guide prisms, be made as a relatively inexpensive and disposable integrated endoscope, but also provide a clearer 3D image of the internal tissues or organs of human body by means of the light emitted by the LEDs. In addition, by furnishing a heat dissipation structure having a heat-pipe at the front end of the endoscope, the high heat generated by the image sensors at the front end of the endoscope can be quickly dissipated to the rear end of the endoscope to achieve a good heat dissipation effect, so as to avoid scalding human tissues due to the temperature of the front end of the endoscope reaches 48° C. or above.

Abstract: An integrated endoscope and visualization system comprises an endoscope, a visualization processing module and a 3D display device such as smart-glasses or naked-eye 3D display. The endoscope is equipped with two image capturing modules such as CMOS image sensors and can be disposable. The visualization processing module receives and encodes the images obtained by the two image capturing modules in order to generate an output visualization signal. The output visualization signal is transmitted to and displayed by the 3D display device in a 3D manner. The integrated endoscope and visualization system not only provides a 3D vision of surgical target during an endoscopic surgery operation, but also allow the medical personnel to walk or move during the surgery while keeping looking at the 3D images captured by the endoscope through wearable display devices.

Abstract: An exemplary embodiment of a wireless monitoring device includes a sensitive patch with a sensor for sensing a body part and generating a signal. A wireless transmitter includes a first connection portion coupling to the sensitive patch for transmitting the signal. A mounting belt device is affixed to the wireless transmitter and securable in a closed loop configuration for coupling the wireless transmitter to an object. A wireless receiver is adapted for receiving the signal. The wireless receiver includes a display surface for displaying a value corresponding the signal and a supporting surface with a second connection portion. The wireless receiver and the wireless transmitter are detachably combined by coupling the first connection portion and the second connection portion, thereby keeping the wireless receiver and the wireless transmitter in an upright position.

Abstract: An exemplary embodiment of a wireless monitoring device includes a sensitive patch with a sensor for sensing a body part and generating a signal. A wireless transmitter includes a first connection portion coupling to the sensitive patch for transmitting the signal. A mounting belt device is affixed to the wireless transmitter and securable in a closed loop configuration for coupling the wireless transmitter to an object. A wireless receiver is adapted for receiving the signal. The wireless receiver includes a display surface for displaying a value corresponding the signal and a supporting surface with a second connection portion. The wireless receiver and the wireless transmitter are detachably combined by coupling the first connection portion and the second connection portion, thereby keeping the wireless receiver and the wireless transmitter in an upright position.