Abstract: In a calibration process for an eye-tracking application, a calibration mark is displayed on an instrument, and the user is instructed to keep the gaze focused on the calibration mark. Next, a dynamic image is displayed on the instrument, and the user is instructed to move his head or the instrument as indicated by the dynamic image while keeping the gaze focused on the calibration mark. The ocular information of the user is recorded during the head movement or the instrument movement for calibrating the eye-tracking application.

Abstract: An image processing device includes an input unit, a display unit, a communication unit, a storage unit, a processor, at least one first camera, and at least one second camera. The first camera includes an infrared light filter and a switch configured for controlling the first camera to switch between a first mode and a second mode. The storage unit stores one or more programs, when executed by the processor, the one or more programs causing the processor to: control the switch to switch the first camera to the first mode; control the first camera to capture a first image in the first mode; control the second camera to capture a second image; obtain a depth image by performing frame synchronization processing on the first image and the second image; and output the depth image. An image processing method and a computer readable storage medium are also provided.

Abstract: A method of monitoring eye strain includes detecting the blink status, the vergence status and the pupil status of a user, and then determining whether the user encounters eye strain according to at least one of the blink status, the vergence status and the pupil status of the user. The method further includes facilitating the user to blink or informing the user of eye strain.

Abstract: The invention provides an image compensation method suitable to a display. First, an image processing circuit obtains pixel data related to a current pixel, a first and a second adjacent pixels from an image frame. The first and the second adjacent pixels are respectively located at two opposite sides of the current pixel. Then, the image processing circuit determines whether a color block edge exists between the current pixel, the first adjacent pixel and the second adjacent pixel according to the pixel data related to the current pixel, the first adjacent pixel and the second adjacent pixel. The image processing circuit performs first color edge compensation on the pixel data related to the current pixel when determining that the color block edge exists between the current pixel and the first adjacent pixel and no color block edge exists between the current pixel and the second adjacent pixel. An image processing circuit is further provided.

Abstract: A pixel driving circuit includes a driving transistor, a first switch, a second switch, a third switch, a fourth switch, a first capacitor, a second capacitor, an initial-voltage-signal terminal, a data-voltage-signal terminal, and a driving-voltage-signal terminal. The driving transistor includes a gate terminal, a source terminal, and a drain terminal. The first switch is disposed between the gate terminal and the drain terminal. The gate terminal is connected with the initial-voltage-signal terminal via the second switch. The source terminal is connected with the driving-voltage-signal terminal and the data-voltage-signal terminal via the third switch and the fourth switch, respectively. The first capacitor is connected between the gate terminal and a ground terminal. The second capacitor is connected between the gate terminal and the source terminal. A pixel driving method and a display panel are also provided.

Abstract: A memory structure formed above a semiconductor substrate includes two or more modules each formed on top of each other separated by a layer of global interconnect conductors. Each memory module may include a 3-dimensional array of memory transistors organized as NOR array strings. Each 3-dimensional array of memory transistors is provided vertical local word lines as gate electrodes to the memory transistors. These vertical local word lines are connected by the layers of global interconnect conductors below and above the 3-dimensional array of memory transistors to circuitry formed in the semiconductor substrate.

Abstract: Eye-tracking methods and devices are provided for reducing operating workload. One sub frame of an eye frame and/or a scene frame is used to estimate the eyeball position. Such an approach can reduce operating workload and power consumption.

Abstract: The present disclosure provides an OLED pixel driving circuit and an OLED display apparatus utilizing the circuit scheme of 3T1C. The normal displaying mode and detecting mode of the pixel driving circuit both include two phases by controlling the conductions of different transistors. And, the pixel driving circuit is capable of implementing corresponding data compensation under the displaying mode according to the detected voltage threshold Vth of the driving TFT and the intrinsic conductivity factor value k of the aged OLED. This is capable of improving the uniformity of display and the illuminating efficiency.

Abstract: An adaptive eye-tracking calibration method includes generating an eye model acting as a current eye model; calibrating the eye model; comparing real-time pupil data set and pupil data set of the current eye model to obtain a pupil data difference when an event happens; and generating a new eye model if the pupil data difference is greater than a predetermined threshold.

Abstract: A compensation method for pixel aging applicable to controlling circuit of a display device having a display panel is provided. The method includes: receiving a display content; predicting an aging of each of a plurality of pixels of the display panel resulting from the display content in order to obtain an aging prediction; generating a display data to compensate the display panel based on the aging prediction; and outputting the display content. Besides, a controlling circuit using the method for compensating a display device is also provided.

Abstract: Correction method and device for an eye-tracker are provided. A non-predetermined scene frame is provided and analyzed to obtain a salient feature information, which is in-turn used to correct an eye-tracking operation. The correction can be done at the initial or during the wearing of an eye-tracker.

Abstract: An image operation method and system for obtaining an eye's gazing direction are provided. The method and system employ multiple extraction stages for extracting eye-tracking features. An eye frame is divided into sub-frames, which are then sequentially temporarily stored in a storage unit. Launch features of sub frames are sequentially extracted from the sub frames by a first feature extraction stage, where a data of a former sub-frame is extracted before a data of a latter sub-frame is needed to be stored. Next, the remaining feature extraction stages apply a superposition operation on the launch features to obtain terminal features, which are then computed to obtain an eye's gazing direction.

Abstract: The present disclosure is generally directed to treatment methods and compositions comprising administering anti-SSEA-4 antibodies; alone or in additive and/or synergistic combination with other therapeutic agents in oncology to enhance therapeutic efficacy whereby the interaction alters the epitope binding of Siglec-9 protein; including human Siglec-9 or a mammalian Siglec-9; wherein the use of such anti-SSEA-4 compositions are efficacious in preventing, reducing risk, or treating an individual with cancer.

Abstract: An optical transmitting module and a head mounted display device are provided. The optical transmitting module includes a waveguide and a first lens. The waveguide is located on a transmission path of an image beam. The waveguide includes a plurality of beam splitters configured to split the image beam the image beam into a first image beam and a second image beam. The second image beam reflected by the beam splitter is outputted from the waveguide, so as to display a virtual image. The first lens causes a plurality of virtual images displayed by a plurality of the second image beams reflected from different beam splitters at the same angle to coincide on a focal plane of the first lens. The head mounted display device can eliminate a ghost image phenomenon that occurs when the user observes the images displayed in a range closer to the eye.

Abstract: A method of enhancing a network-based publication system with curator lists is disclosed. Information pertaining to an item is received from a submitter of a listing of the item on a network-based publication system. Metadata pertaining to the information about the item is received from a curator of the information pertaining to the item. A presentation of the information on a curator list is controlled based on the metadata.

Abstract: A method of building object-recognizing model automatically retrieves sample images corresponding to different angles of views of an appearance of a physical object by an image capturing device, configures identification information of the sample images, selects one of cloud training service providers according to user's operation, transmits the sample images and the identification information to a cloud server of the selected cloud training service provider for making the cloud server execute a learning training on the sample images, and receives an object-recognizing model corresponding to the identification information from the cloud server. Thereby, the development time is dramatically shortened and the development efficiency is significantly improved.

Abstract: In a dual mode eye tracking method and system, an infrared (IR) ray is emitted to perform an IR tracking mode and visible light (VL) calibration. When a first error between a VL associated gaze position and an IR associated gaze position is less than a first threshold, the IR ray is turned off to perform a VL tracking mode. In a VL checking period, when a second error between a VL associated gaze position and an IR associated gaze position is less than a second threshold, the IR ray is turned off to continue the VL tracking mode.

Abstract: A digital control driving method and a driving display device are disclosed. In the method, dividing an image frame into K sub-frames by a hit using a digital control method is adopted. Wherein in one frame period of the image frame, an occupied time of each K sub-frame is the same, and driving times of the K sub-frames are different. The K sub-frames are driven to display on the display panel in a special transmission mode within one frame time of the image frame. The transmission voltage value has only two values, corresponding to the light emission and non-emission of the pixel points on the display panel. The source driver IC only output two grayscale voltages so as to effectively avoid a drift of the Vth of the driving TFT such that an entire brightness of the AMOLED panel is even to improve the display quality.