1161 results about "EyeTap" patented technology

The invention discloses an augmented reality technology based manufacturing equipment intelligent system, comprising a fault monitoring sub-system (101), which includes a sensor module (111) and an industrial control computer (110). The sensor module (111) is used to measuring the operation parameters of the manufacturing equipment (100) and the industrial control computer (110) is used to read the operation parameters. The system further comprises a pair of portable augmented reality glasses (102) which are in connection with the sensor module (111) through a wireless network. The portable augmented reality glasses (102) comprise an operation training sub-module (220), an operation monitoring sub-module (221), a fault diagnosing sub-module (222), and a remote repair sub-module (223). The invention also discloses an implementation method for the augmented reality technology based manufacturing equipment intelligent system. With the system, it is possible to complete operating training, operating monitoring, fault diagnosing and remote repair services to manufacturing equipment at a low expanse.

The invention provides an anti-fake iris identity authentication method used for intelligent glasses. According to the method, requirements for periphery devices are low, multiple faking methods can be detected, and the high-adaptability anti-fake purpose is achieved. The method comprises the steps of (1) extracting standard images and saving user iris characteristics in the standard images as standard iris characteristics; (2) generating a random incident light intensity change sequence based on ambient light to stimulate the eyes of a user, collecting a dynamic user eye image, obtaining an eye image sequence, and extracting and saving user iris characteristics in the dynamic eye image as iris characteristics to be detected; (3) obtaining a pupil diameter change sequence through the dynamic user eye image and calculating the matching rate Pass1 between the pupil diameter change sequence and the incident light intensity change sequence; (4) selecting an image to be authenticated from the dynamic user eye image, selecting a comparison standard image from the standard images, and calculating the matching rate Pass2 of the iris characteristics of the image to be authenticated and the iris characteristics of the comparison standard image; (5) obtaining an authentication result according to the Pass1 and the Pass2.

The invention is directed to an optical system for a fundus camera for reflection-free opthalmoscopy having a beam path with refractive and reflective optical elements which are used substantially in common for illumination and observation or recording. An imaging mirror system substantially comprising a plurality of reflecting optical elements in the form of mirrors and is provided for illuminating and imaging the fundus. At least one optical element, for example, mirror, is formed as a freeform mirror with an imaging, reflecting freeform surface. The optical elements are arranged in a housing in a precisely defined position and attitude relative to one another in such a way that an imaging of the reflecting surfaces of the optical elements on the image of the imaged retina is prevented within a wide diopter range of the patient's eye to be examined.

The invention is an interactive wearable video game (1), in which one or more players interact with physical objects through physical actions/contact/physiological signals to control a video game. The apparatus includes a series of wireless electronic sensors (7 to 16) to be placed in the user's body/surrounding environment, detecting the user's input actions in real time—output result is visualized on a binocular see-through display glasses system (2). The invention allows for the players to move around by connecting with the physical space, and to use their full bodies to control the game, exercise and share interactions. It allows for the connection between both virtual and physical realities—mixed reality concept by augmenting the user's perceptions among the surrounding environment. Users can either communicate from maximum physical proximity through a Web connection. The invention is rechargeable by converting produced solar energy into electric energy.

The embodiments of the invention provide a glasses type communication apparatus. The glasses type communication apparatus is characterized by comprising a lens frame which is used for allowing a user to wear the glasses type communication apparatus on the head, a display module which is arranged on the lens frame for receiving data information and generating a corresponding visual picture according to the data information for the user to watch, a shooting module which is arranged on the lens frame for obtaining image information and outputting the image information, and a communication module which is arranged on the lens frame and establishes a communication channel with an external processing device through a communication protocol. The communication module receives data emitted by the external processing device through the communication channel so as to parse the data information from the data and sends the data information to the display module. The communication module is also used for receiving the image information outputted by the shooting module and transmitting the image information to the extern al processing device through the communication channel.

The subject disclosure is directed towards a hybrid stereo image/motion parallax system that uses stereo 3D vision technology for presenting different images to each eye of a viewer, in combination with motion parallax technology to adjust each image for the positions of a viewer's eyes. In this way, the viewer receives both stereo cues and parallax cues as the viewer moves while viewing a 3D scene, which tends to result in greater visual comfort/less fatigue to the viewer. Also described is the use of goggles for tracking viewer position, including training a computer vision algorithm to recognize goggles instead of only heads/eyes.

A stereoscopic image display device comprises: a display device that displays left-eye image data in a left-eye frame and right-eye image data in a right-eye frame; liquid crystal shutter glasses that alternately open and close a left-eye shutter and a right-eye shutter in synchronization with the display device; and a control circuit that controls the ON duty ratio of a backlight of the display device to a first set value if the luminance of each of the left-eye and right-eye frames is less than a predetermined reference value, and controls the ON duty ratio of the backlight of the display device to a second set value if the luminance of each of the left-eye and right-eye frames is greater than the reference value.

The invention discloses a surgical navigation system and method based on an AR (augmented reality) technique. The surgical navigation system comprises a scanning device, a processor, a dynamic positioning acquisition device and an AR glasses, the scanning device scans a patient to obtain scanning image data and transmits the scanning image data to the processor before an operation is performed, the processor receives the scanning image data and generates a three-dimensional analog image of the patient, the dynamic positioning acquisition device acquires a positioning image and first real-time dynamic data of the patient in a coordinate system of the dynamic positioning acquisition device in the operation process and is used for acquiring second real-time dynamic data of the AR glasses in the coordinate system of the dynamic positioning acquisition device and transmitting the second real-time dynamic data to the processor, the processor generates a three-dimensional navigation image according to the three-dimensional analog image, the positioning image, the first real-time dynamic data and the second real-time dynamic data and transmits the three-dimensional navigation image to the AR glasses, the AR glasses receives and displays the three-dimensional navigation image. The surgical navigation system can dynamically display operation processes in the AR glasses, and the surgical navigation system and the patient are accurately overlaid in the AR glasses.

The invention belongs to the technical field of image recognition, and discloses an image recognition method based on eye movement fixation point guidance, MR glasses and a medium, and the method comprises the steps of carrying out the infrared and color camera mixing to obtain an image; mixing the IR camera and the RGB camera to obtain a live-action image, and mixing the IR camera and the RGB camera to obtain a live-action image; mixing the low-resolution camera and the high-resolution camera to obtain a live-action image and recognize the live-action image; mixing the physical camera and thevirtual camera to obtain an image of a real/virtual target and identifying the image; calculating the interest degree by detecting behaviors and physiological data of a user, and then starting a camera to obtain an exterior image and recognize the exterior image; in addition, in the process of acquiring the image of the real/virtual target by mixing the physical camera and the virtual camera, thecamera is started by detecting the behavior and physiological data of the user to calculate the interest degree, and then the physical camera or the virtual camera is selected to be used for acquiring and recognizing the image according to the position and/or depth of the fixation point.

The invention relates to 3D glasses, a 3D display system and a 3D display method. The 3D display system comprises a 3D display device and the 3D glasses. The 3D glasses comprise a 3D image presenting module, a gesture information acquiring module, a gesture information processing module and an information transmitting module, wherein the 3D image presenting module is used for presenting 3D images provided by the 3D display device to a user, the gesture information acquiring module is used for acquiring gesture information of the user and providing the gesture information for the gesture information processing module, the gesture information processing module is used for generating processing information according to the gesture information and providing the processing information for the information transmitting module, and the information transmitting module is used for sending the processing information to the 3D display device. The 3D glasses can acquire the gesture information of the user and determine operation orders of the user according to the gesture information, the 3D images seen by the user can be further updated according to the operation orders, and the interaction between the user and the seen 3D contents can be achieved. The 3D glasses are used for interactive operation of virtual environments like 3D games.

The present invention relates to a video system for piloting a drone in an immersive mode. The system comprises the drone and a remote station provided with virtual reality glasses rendering images transmitted from the drone, and provided with means for detecting changes of orientation of the user's head. The drone generates a viewpoint image (P'1) and a bird's eye image (P'2) whose field is wider and whose definition is lower. When the sight axis of the viewpoint image is modified in response to changes of position of the user's head, the station generates locally during the movement of the user's head a combination of the current viewpoint and bird's eye images, with outlines (CO') adjusted as a function of the changes of position detected by the detection means.

The video display apparatus is provided that the breaking up of the video image should not be viewed by users when the frame rate of video content items is changed in association with the change in the number of viewed content items. The video display apparatus, which is capable of viewing a plurality of video content items using the shutter eyeglasses, controls the plurality of video content items by time-division, and performs the shutter control of the shutter eyeglasses in association with the display videos. The video time-division output processing section applies time-division processing to data representing the plurality of video content items in accordance with the control command provided by the control section to output the resulting data to the display section. The control section changes the frame rate of the display videos depending on the number of video content items which are to be viewed. When the number of video content items which are to be viewed is changed, the control section controls the shutters of all of the shutter eyeglasses so that they close for the frame period of the video'content items that are first output after a change of the frame rate.

The invention belongs to the technical field of holographic images of intelligent glasses, and discloses an intelligent adjusting method for preventing holographic images from blocking sight of near-to-eye display equipment. The intelligent adjusting method comprises the following steps: judging three-dimensional space coordinates of a fixation points of eyeballs; judging the change condition of pupils of human eyes; judging whether a real object exists at the position of the fixation points or not through an artificial intelligence image recognition technology; based on the judgment result, judging whether the user has a watching requirement on an object behind the holographic image or not at the moment; and if the user is paying attention to the object behind the holographic virtual image, controlling the near-eye display equipment to reduce the brightness of the holographic image or turn off the near-eye display equipment by the computer control system, or moving a watching shielding program, wherein when the visual fixation points of the human eyes leave the body of the object or the fixation points returns to the holographic virtual image, the holographic virtual image state (light brightness and position) presented by the optical near-to-eye display equipment recovers to the initial state. For the intelligent adjusting method for preventing holographic images from blocking sight of near-to-eye display equipment, the problem that the light brightness of the holographic image light source interferes with real object observation of a user is solved.

The invention relates to a perception correcting and training system on the basis of the binocular integration which comprises an integration perception function checker, an image controller controlled by a computer, an image branching device, 3D (three-dimensional) display equipment, a signal transmitter, 3D spectacles, a signal receiver of the 3D spectacles and a solid figure picture database. Two data buffer regions are arranged in a video card of the integration perception function checker, one of two similar pictures is respectively accommodated in each data buffer region and an initial position of image data can be changed in the buffer regions; the integration perception function checker automatically selects a plurality of training pictures which accord with an integration perception function of a trained person; the image controller controlled by the computer randomly selects the training picture; the image branching device simultaneously sends the solid figure picture to the 3D display equipment and the signal transmitter; and the working efficiency of the signal transmitter is the same with the working efficiency of the signal receiver, or is integral multiples of the working efficiency of the signal receiver. The perception correcting and training system on the basis of the binocular integration is convenient to use and low in cost, and has a good effect of correcting and training the amblyopia or the strabismus.