A foldable electronic device has a foldable region and includes a supporting film including a recess portion in the foldable region, a flexible substrate disposed on the supporting film, a control unit disposed under the supporting film, and a biometric sensing structure electrically connected to the control unit.

A foldable electronic device has a foldable region and includes a supporting film including a recess portion in the foldable region, a flexible substrate disposed on the supporting film, a control unit disposed under the supporting film, and a biometric sensing structure electrically connected to the control unit.

Provided are a pen sensing unit and a display device. The pen sensing unit comprises a first pen line extending in a first direction; a pen scan line extending in a second direction intersecting the first direction; and a pen sensor member connected to the first pen line and the pen scan line and configured to sense input from a pen, wherein the pen sensor member comprises a pen sensor and a pen sensor circuit connected to a first end of the pen sensor, and the pen sensor circuit comprises a first thin film transistor.

Systems and methods for optimizing sensory signal capturing by reconfiguring robotic device configurations. In an implementation, upcoming sensor readings are predicted based on navigation path data. Based on the predicted sensor readings, optimized sensor parameters that will improve the quality of resulting sensory signals are determined. Sensors of a robotic device are reconfigured based on the optimized sensor parameters. In another implementation, deficiencies in sensory signals are determined. A motion configuration of a robotic device is optimized based on the deficiencies to allow for capturing better quality sensory signals.

A system, a wearable device and method for monitoring hand actions. The method comprises: obtaining a visual input from a sensor located on the wearable device worn by a subject. The sensor is configured to capture at least an interior portion of a hand of the subject. The method further comprises identifying, based on the visual input, an object and an action performed by the hand of the subject with respect to an object. The method further comprises performing a responsive action based on at least one of the action and the object. The wearable device is configured to be utilized for self-service shopping, manual fulfillment of a shopping order of a customer, mapping locations of items, detecting violation of safety rules, monitoring health-care systems, managing labs or manufacturing plant, or for other applications related to hand actions monitoring.

A display panel of the present disclosure includes a substrate layer, a light emitting layer and a plurality of photosensitive elements, the light emitting layer includes a plurality of pixel units, the photosensitive elements are formed between the pixel units, the photosensitive elements are configured to sensing light reflected by the fingers and emitted by the pixel units for fingerprint identification, when the finger attaches to the display panel, the light emitted by the light emitting layer and reflected by the fingers reaches the photosensitive elements, the photosensitive elements receive the light for fingerprint identification.

A time-of-flight image sensor (TOF) for imaging with ambient light subtraction. In one embodiment, the TOF image sensor includes a pixel array, a control circuit, and a signal processing circuit. The signal processing circuit reads out a first data signal from respective first floating diffusions and respective second floating diffusions during a first frame while a light generator is not emitting, reads out a second data signal from the respective first floating diffusions and the respective second floating diffusions during a second frame after the first integration and after a second integration while the light generator is emitting, generate a third data signal indicative of ambient light, generate a fourth data signal indicative of the ambient light and a light signal reflected off an object, and generate a fifth data signal indicative of the light signal by subtracting the third data signal from the fourth data signal.

A conveyor debris detection system and method detect foreign objects on a conveyor based on size or matching a preset image stored in a database. Non-debris objects such as eggs are filtered out by color. The debris detection system includes a frame and housing for placement above the conveyor, a lighting unit attached to the frame for illuminating the conveyor below the frame, and a camera attached to the frame for capturing images of the objects moving along the conveyor wherein the images are captured at preset time intervals. A processor unit receives the images and identifies the foreign objects and initiates a debris signal when foreign objects are identified. An alarm sounds when foreign objects are detected so that the foreign objects can be removed to prevent damage or contamination from the foreign objects.

System, processes and devices for monitoring betting activities using bet recognition devices and a server. Each bet recognition device has an imaging component for capturing image data for a gaming table surface. The bet recognition device receives calibration data for calibrating the bet recognition device. A server processor coupled to a data store processes the image data received from the bet recognition devices over the network to detect, for each betting area, a number of chips and a final bet value for the chips.

There is provided a biometric imaging system comprising a display panel. The display panel in turn comprises: a plurality of display pixels configured to emit visible light and controllable to form an image in the display; and a plurality of non-visible light emitting elements configured to emit linearly polarized non-visible light; a camera configured to receive polarized non-visible light having an orientation which is rotated with respect to the emitted linearly polarized light; and control circuitry configured to: activate the plurality of non-visible light emitting elements to emit linearly polarized light towards a biometric object; and control the camera to capture an image based on light reflected by the biometric object having a polarization which is rotated with respect to the emitted linearly polarized light.