Abstract: A gesture input device for interacting with a wearable object is provided. A plurality of magnetic generators are disposed on the wearable object. The gesture input device includes a plurality of magnetic sensors and a controller. The magnetic sensors are disposed on the wearable object. The magnetic sensors are configured to sense a plurality of magnetic signals provided by the magnetic generators, and generate a plurality of voltage signals according to the magnetic signals. The controller is coupled to the magnetic sensors and configured to receive the voltage signals. When the wearable object is worn on a user's hand and the user's hand is in different gestures, the voltage signals generated by the magnetic sensors correspondingly change. The controller determines that the gesture of the user's hand according to the voltage signals.

Abstract: A gesture input device for interacting with a wearable object is provided. A plurality of magnetic generators are disposed on the wearable object. The gesture input device includes a plurality of magnetic sensors and a controller. The magnetic sensors are disposed on the wearable object. The magnetic sensors are configured to sense a plurality of magnetic signals provided by the magnetic generators, and generate a plurality of voltage signals according to the magnetic signals. The controller is coupled to the magnetic sensors and configured to receive the voltage signals. When the wearable object is worn on a user's hand and the user's hand is in different gestures, the voltage signals generated by the magnetic sensors correspondingly change. The controller determines that the gesture of the user's hand according to the voltage signals.

Abstract: A 3D sensing system includes a light source, an MEMS scanning mirror, an MEMS controller, one or multiple sensors, and an MCU. The MEMS scanning mirror is arranged to reflect the light provided by the light source. The MEMS controller is configured to control the angle of the MEMS scanning mirror in order to scan a surface. The one or multiple sensors are used to record the time when detecting the light reflected by the MEMS scanning mirror. The MCU is configured to calculate the location of the one or multiple sensors based on the recorded time by the one or multiple sensors.

Abstract: A VR tactile feedback system includes a hub, a feedback point wearable device set, a bionic tendon set, a motor device, and an MCU. The feedback point wearable device set includes multiple wearable devices which can be put on multiple feedback parts of a user. The bionic tendon set includes multiple bionic tendons each having a first end connected to a corresponding wearable device and a second end accommodated in the hub. The motor device is configured to apply multiple pulling forces to the multiple bionic tendons. The MCU is configured to instruct the motor device to adjust the values of the pulling forces according to VR content, thereby providing a corresponding tactile feedback at each feedback part of the user.

Abstract: A pixel structure including an element region and a viewing angle adjustment region is provided. The pixel structure includes a scan line, a first data line, a second data line, a first active element, a second active element, a planarization layer, and a reflective electrode. The first active element is electrically connected to the scan line and the first data line. The second active element is electrically connected to the scan line and the second data line. The reflective electrode is disposed on the planarization layer and electrically connected to the second active element. The reflective electrode has a fixed portion located in the element region and a cantilever portion located in the viewing angle adjustment region. The cantilever portion is connected to the fixed portion and is suspended. A display panel and an operation method of the display panel are also provided.

Abstract: The present invention provides a touch panel, including a touch-sensing circuit, an ESD protection circuit, and a processor. The touch-sensing circuit is composed of a plurality of sensing pads for sensing at least one touching object and outputting a sensing signal. The ESD protection circuit is connected to the touch-sensing circuit, surrounds the touch sensing circuit, and generates a circuit-loading. The processor is coupled to the touch sensing circuit and the ESD protection circuit to receive the sensing signal and the circuit-loading, performs an action according to the sensing signal, and determines whether to generate a warning signal according to a circuit-load change.

Abstract: A pixel structure including an element region and a viewing angle adjustment region is provided. The pixel structure includes a scan line, a first data line, a second data line, a first active element, a second active element, a planarization layer, and a reflective electrode. The first active element is electrically connected to the scan line and the first data line. The second active element is electrically connected to the scan line and the second data line. The reflective electrode is disposed on the planarization layer and electrically connected to the second active element. The reflective electrode has a fixed portion located in the element region and a cantilever portion located in the viewing angle adjustment region. The cantilever portion is connected to the fixed portion and is suspended. A display panel and an operation method of the display panel are also provided.

Abstract: A touch display device and a manufacturing method thereof are provided. The touch display device includes a flexible touch display panel, a plurality of first pads, a plurality of touch electrodes and a plurality of conducting wires. The flexible touch display panel includes a first bending area bending along a first bending axis. The first pads are disposed on the flexible touch display. The touch electrodes are disposed on the flexible touch display. The conducting wires are disposed on the flexible touch display. A plurality of first terminals of the conducting wires is electrically coupled to the touch electrodes respectively, and a plurality of second terminals of the conducting wires is electrically coupled to the first pads respectively. Conducting wires having a direction different from the axial direction of the first bending axis are not disposed in the first bending area of the flexible touch display panel.

Abstract: In a method of communication on a multidrop bus of a magnetic resonance system, an adaptive protocol script for telegrams on the multidrop bus is used, that implements adaptive protocol matching using telegram start characters, addresses and frame-type binding. For this purpose, a telegram frame is divided into a link layer and a service layer, the link layer being device-based and being responsible for differentiating addresses and frame types, and enabling devices that use different communication protocols to be simultaneously present on the bus. The service layer represents the load of the link layer, and its service script is operation-based, and the service layer provides, for the exterior, interfaces that are independent of the communication protocols used by the devices.

Abstract: In a method of communication on a multidrop bus of a magnetic resonance system, an adaptive protocol script for telegrams on the multidrop bus is used, that implements adaptive protocol matching using telegram start characters, addresses and frame-type binding. For this purpose, a telegram frame is divided into a link layer and a service layer, the link layer being device-based and being responsible for differentiating addresses and frame types, and enabling devices that use different communication protocols to be simultaneously present on the bus. The service layer represents the load of the link layer, and its service script is operation-based, and the service layer provides, for the exterior, interfaces that are independent of the communication protocols used by the devices.

Abstract: The present invention concerns a method and system for recording a monitoring log for use in a magnetic resonant imaging system, wherein a log document is crated and is shared in an external storage device, timed queries are made to monitoring points on a monitored target by a timer and the data collected are periodically reported to a control module; and wherein the control module formats the reported data into a record format and writes the record formed into the shared log document. When the log document is not accessible, a buffer queue is opened automatically in an internal storage device to buffer the reported data, and when the access returns to normal, the records and the recorded data in the buffer queue are written as a supplement into the log document.