Abstract: A FinFET and methods for forming a FinFET are disclosed. A method includes forming trenches in a semiconductor substrate to form a fin, depositing an insulating material within the trenches, and removing a portion of the insulating material to expose sidewalls of the fin. The method also includes recessing a portion of the exposed sidewalls of the fin to form multiple recessed surfaces on the exposed sidewalls of the fin, wherein adjacent recessed surfaces of the multiple recessed surfaces are separated by a lattice shift. The method also includes depositing a gate dielectric on the recessed portion of the sidewalls of the fin and depositing a gate electrode on the gate dielectric.

Abstract: A shallow trench isolation (STI) structure is formed on a substrate. Part of the STI structure is removed to form a first fin structure and a second fin structure extending above a support structure on the substrate. A first part of the STI structure is located between the first fin structure and the second fin structure and has a first top surface higher than an interface between the first fin structure and the support structure. A second part of the STI structure is located adjacent to the first fin structure and has a second top surface lower than the interface between the first fin structure and the support structure. An etching process is performed to remove part of the first fin structure and the second fin structure. Part of the support structure adjacent to the second part of the STI structure is removed during the etching process.

Abstract: An in-cell touch display panel includes a substrate, a semiconductor stack, a transparent layer, an insulation layer, and a metal layer. The semiconductor stack is disposed on the substrate, and includes a plurality of pixel control elements. The transparent layer is disposed on the semiconductor layer stack, and includes a plurality of first touch electrode portions and a plurality of first connecting lines extending along a first direction. The insulation layer is disposed on the transparent layer. The metal layer is disposed on the insulation layer, and includes a plurality of second touch electrode portions and a plurality of second connecting lines extending along a second direction. The second connecting lines and the first touch electrode portions form a plurality of first touch electrode strips, and the first connecting lines and the second touch electrode portions form a plurality of second touch electrode strips.

Abstract: Devices are described herein that include a first fin structure formed on a substrate. A second fin structure formed on the substrate. One or more gate structures are formed on the first fin structure and the second fin structure. A first in-fin source/drain region is associated with a first volume and is disposed between the first fin structure and the second fin structure. A fin-end source/drain region is associated with a second volume larger than the first volume, the first fin structure being disposed between the first in-fin source/drain region and the fin-end source/drain region. The gate structures, the first in-fin source/drain region, and the fin-end source/drain region are configured to form one or more transistors.

Abstract: A tire pressure monitor can include: a wireless transmitting port wirelessly coupled to a first air pressure sensor arranged inside of a tire of a vehicle, where the wireless transmitting port is configured to receive an internal air pressure from the first air pressure sensor; and a controller coupled to the first wireless transmitting port, where the controller is configured to determine a current tire pressure in accordance with a difference between the internal air pressure and an external air pressure outside of the tire.

Abstract: An in-cell touch display device includes a first substrate, a plurality of common lines and a plurality of data lines. The common lines are disposed on the first substrate and extend along a first direction. The data lines are disposed on the first substrate and extend along a second direction. The common lines intersect and are insulated from the data lines. A plurality of touch sensing capacitors are formed at intersections of the common lines and the data lines to perform touch sensing.

Abstract: A control method for a touch display device including a display panel is provided. The display panel includes multiple first gate lines and multiple second gate lines respectively corresponding to a first field and a second field of a frame, and multiple sensing electrodes for touch sensing. Within one single frame period, the control method includes: scanning the first gate lines to update the first field; controlling the sensing electrodes to perform touch sensing and providing a first touch report; scanning the second gates lines to update the second field; and controlling the sensing electrodes to perform touch sensing and providing a second touch report. At least one of the first gates lines is located between two of the second gate lines, and at least one of the second gate lines is located between two of the first gate lines.

Abstract: An in-cell touch display panel includes a substrate, a semiconductor stack, a transparent layer, an insulation layer and a metal layer. The semiconductor stack is disposed on the substrate, and includes a plurality of pixel control elements. The transparent layer is disposed on the semiconductor stack, and includes a plurality of first touch electrode strips extending along a first direction. The insulation layer is disposed on the transparent layer. The metal layer is disposed on the insulation layer, and includes a plurality of second touch electrode strips extending along a second direction. The first touch electrode strips intersect and are insulated from the second touch electrode strips.

Abstract: A driving circuit for a touch display panel is selectively operable in a display mode or a touch mode. The driving circuit includes a touch driving circuit and a display driving circuit. When the driving circuit operates in the display mode, the display driving circuit transmits corresponding data to multiple data lines of a pixel array of the touch display panel. When the driving circuit operates in the touch mode, the touch driving circuit transmits a driving signal to a common electrode of the touch display panel, and the display driving circuit controls at least a part of multiple gate lines and multiple data lines of the pixel array to cause that part to have a signal waveform at least partially same as that of the driving signal. A voltage of the common electrode reflects a touch action.

Abstract: A tire-monitoring device is arranged on a tire and includes a tire pressure sensor and a temperature sensor respectively sense tire pressure and temperature and respectively generate a tire pressure signal and a temperature signal received by a controller. When the controller determines that the tire pressure value continuously varies for a preset period or determines that a rising variation of the temperature value is larger than a preset variation, the controller generates a transmission control signal received by a wireless transmitter. The wireless transmitter transmits the tire pressure signal and the temperature signal to an external device, so as to display the tire pressure value and the temperature value. The present invention directly observes that the vehicle has started according to the continual variation of the tire pressure value and the variation of the temperature value and notifies the transmitter that the transmitter transmits the signal.

Abstract: The present invention discloses a tire pressure detector set with a Bluetooth signal conversion function, which is installed in a vehicle and comprises at least one tire pressure detection element and a signal conversion element. The tire pressure detection element is installed in a wheel of the vehicle, detects information of the wheel, and transmits a Bluetooth signal. The signal conversion element is installed in the vehicle, receives the Bluetooth signal, undertakes data format conversion and converts the Bluetooth signal into an RF signal according to the model code of the vehicle and the data format required by an in-vehicle central control system, and transmits the RF signal to a wireless RF receiver of the in-vehicle central control system.

Abstract: A system and method using a wireless tire pressure detector to transmit data and form a network topology is disclosed herein. The method comprises steps: installing a wireless tire pressure detector in a receiver, and a sender persistently transmitting at least one piece of broadcast information; while the receiver approaches the sender, the wireless tire pressure detector of the receiver using a first transmission module to receive the broadcast information, send the broadcast information to a display device in a vehicle or store the broadcast information in a cloud database, and send the broadcast information to a second transmission module, and using the second transmission module to send the broadcast information to a wireless tire pressure detector of another vehicle, wherein the display device uses an application program to process and display the broadcast information, and wherein the display device includes a video device and an audio device.

Abstract: A FinFET and methods for forming a FinFET are disclosed. A method includes forming trenches in a semiconductor substrate to form a fin, depositing an insulating material within the trenches, and removing a portion of the insulating material to expose sidewalls of the fin. The method also includes recessing a portion of the exposed sidewalls of the fin to form multiple recessed surfaces on the exposed sidewalls of the fin, wherein adjacent recessed surfaces of the multiple recessed surfaces are separated by a lattice shift. The method also includes depositing a gate dielectric on the recessed portion of the sidewalls of the fin and depositing a gate electrode on the gate dielectric.

Abstract: A tire status monitoring-transmission system and a transmission device thereof are disclosed.

Abstract: A touch sensing method of an electronic apparatus is provided. The electronic device includes a touch sensor and a motion sensor. The touch sensing method includes: performing touch detection with the touch sensor to generate a touch signal having a first amplitude; performing motion detection with the motion sensor to generate a motion signal having a second amplitude; determining whether the first amplitude is smaller than a first predetermined value, and determining whether the second amplitude is greater than a second predetermined value; and when the first amplitude is smaller than the first predetermined value and the second amplitude is greater than the second predetermined value, increasing a signal gain corresponding to the touch signal.

Abstract: A method for forming FinFETs comprises forming a plurality of first fins and a plurality of second fins over a substrate and embedded in isolation regions, depositing a first photoresist layer over the substrate, removing the first photoresist layer over an n-type region, applying a first ion implantation process to the first isolation regions, wherein dopants with a first polarity type are implanted in the first isolation regions, depositing a second photoresist layer over the substrate, removing the second photoresist layer over a p-type region, applying a second ion implantation process to the second isolation regions, wherein dopants with a second polarity type are implanted in the second isolation regions, applying an annealing process to the isolation regions and recessing the first isolation regions and the second isolation regions through an etching process.

Abstract: A finFET and methods for forming a finFET are disclosed. A structure comprises a substrate, a fin, a gate dielectric, and a gate electrode. The substrate comprises the fin. The fin has a major surface portion of a sidewall, and the major surface portion comprises at least one lattice shift. The at least one lattice shift comprises an inward or outward shift relative to a center of the fin. The gate dielectric is on the major surface portion of the sidewall. The gate electrode is on the gate dielectric.

Abstract: An in-cell touch display panel includes a substrate, a semiconductor stack, a transparent layer, an insulation layer and a metal layer. The semiconductor stack is disposed on the substrate, and includes a plurality of pixel control elements. The transparent layer is disposed on the semiconductor stack, and includes a plurality of first touch electrode strips extending along a first direction. The insulation layer is disposed on the transparent layer. The metal layer is disposed on the insulation layer, and includes a plurality of second touch electrode strips extending along a second direction. The first touch electrode strips intersect and are insulated from the second touch electrode strips.

Abstract: An in-cell touch display device includes a first substrate, a plurality of common lines and a plurality of data lines. The common lines are disposed on the first substrate and extend along a first direction. The data lines are disposed on the first substrate and extend along a second direction. The common lines intersect and are insulated from the data lines. A plurality of touch sensing capacitors are formed at intersections of the common lines and the data lines to perform touch sensing.

Abstract: An in-cell touch display panel includes a substrate, a semiconductor stack, a transparent layer, an insulation layer, and a metal layer. The semiconductor stack is disposed on the substrate, and includes a plurality of pixel control elements. The transparent layer is disposed on the semiconductor layer stack, and includes a plurality of first touch electrode portions and a plurality of first connecting lines extending along a first direction. The insulation layer is disposed on the transparent layer. The metal layer is disposed on the insulation layer, and includes a plurality of second touch electrode portions and a plurality of second connecting lines extending along a second direction. The second connecting lines and the first touch electrode portions form a plurality of first touch electrode strips, and the first connecting lines and the second touch electrode portions form a plurality of second touch electrode strips.