Abstract: A method for operating a memory device is provided. In accordance with the method, the charges are stored in a source storage region, a drain storage region, and a channel storage region of a charge storage layer which respectively correspond to a source, a drain, and a channel of a SONOS transistor, thereby achieving 3-bit information storage in one cell. The channel storage region is programmed and erased by FN tunneling. Both of the source storage region and the drain storage region are programmed by channel hot electrons and erased by source-side or drain-side FN tunneling. The present invention can store three-bit data per cell, such that the storage density of the memory device can be substantially increased.

Abstract: A dual-gate transistor includes a first gate formed on a substrate, a first dielectric layer covering the first gate and the substrate, a semiconductor layer formed on the first dielectric layer, first and second electrodes formed on the semiconductor layer and spaced with an interval in order to separate each other, a second dielectric layer covering the first and second electrodes, and a second gate formed on the second dielectric layer, in which at least one of the first and second gates is non-overlapped with the second electrode.

Abstract: The present invention relates to a nonvolatile memory apparatus and a method of using a thin film transistor (TFT) as a nonvolatile memory by storing carriers in a body of the TFT, which operates a general TFT as a memory cell of a nonvolatile memory by manipulating the electrical characteristics of the TFT in order to integrate with other electrical components formed by TFTs, such as logic circuit or TFT-LCD pixel transistor, on the LCD panel without additional semiconductor manufacturing processes.

Abstract: A dual-gate transistor includes a first gate formed on a substrate, a first dielectric layer covering the first gate and the substrate, a semiconductor layer formed on the first dielectric layer, first and second electrodes formed on the semiconductor layer and spaced with an interval in order to separate each other, a second dielectric layer covering the first and second electrodes, and a second gate formed on the second dielectric layer, in which at least one of the first and second gates is non-overlapped with the second electrode.

Abstract: One embodiment of the present invention provides an operation method of a memory device. The memory device includes a source, a drain, and a channel region between the source and the drain, a gate dielectric with a charge storage layer on the channel region, and a gate on the gate dielectric, wherein the source, the drain and the channel region are located in a substrate. The operation method includes the following steps: applying a reverse bias between the gate and the drain of the memory device to generate band-to-band hot holes in the substrate near the drain; injecting the band-to-band hot holes to a drain side of the charge storage layer; and performing a program/erase operation upon the memory device. The band-to-band hot holes in the drain side of the charge storage layer are not completely vanished by the program/erase operation.

Abstract: There is a method for enabling a SONOS transistor to be used as both a switch and a memory. FN tunneling is carried out through the source or drain of the transistor, so as to further change the state of electrons stored in an upper charge storage layer adjacent to the drain or source, and the variation in gate-induced drain leakage is used to recognize the memory state of the drain and source. A stable threshold voltage of the transistor is always maintained during this operation. The present invention enables one single transistor having dual features of switch and memory, while being provided with a two-bit memory effect, thus providing a higher memory density in comparison with a general transistor.

Abstract: The present invention relates to an erasing method for nonvolatile memory, which uses forward bias between the source/drain region and body contact to inject majority carriers into the body, and then accelerates the majority carriers by an electric field between the body and the gate to energize the majority carriers to overcome the oxide barrier and to erase the nonvolatile memory.

Abstract: The present invention relates to an erasing method for nonvolatile memory, which uses forward bias between the source/drain region and body contact to inject majority carriers into the body, and then accelerates the majority carriers by an electric field between the body and the gate to energize the majority carriers to overcome the oxide barrier and to erase the nonvolatile memory.

Abstract: A method for programming a nonvolatile memory includes applying at least a voltage to a source or a drain, so as to inject carriers of the source or drain into a substrate; applying a third voltage to a gate or the substrate, so that the carriers which are in the substrate having enough energy can surmount an oxide layer to reach a charge storage device.

Abstract: A portable electronic device (20) includes a circuit board (21) and at least one conducting pole (22). The conducting pole is mounted on the circuit board and includes a breakable portion (2224), the breakable portion is configured to be the part that breaks when the conducting pole is crumpled.

Abstract: The present invention relates to a nonvolatile memory apparatus and a method of using a thin film transistor (TFT) as a nonvolatile memory by storing carriers in a body of the TFT, which operates a general TFT as a memory cell of a nonvolatile memory by manipulating the electrical characteristics of the TFT in order to integrate with other electrical components formed by TFTs, such as logic circuit or TFT-LCD pixel transistor, on the LCD panel without additional semiconductor manufacturing processes.

Abstract: A Thin Film Transistor comprises a gate electrode formed on a substrate; a gate insulation layer covering the gate electrode; an amorphous silicon (a-Si) region disposed on the gate insulation layer and above the gate electrode; a doped a-Si region formed on the a-Si region; the source and drain metal regions separately formed on the doped a-Si region and above the gate electrode, and isolated from the a-Si region; a passivation layer formed on the gate insulation layer and covering the source, drain and data-line (DL) metal regions; and a conductive layer formed on the passivation layer. The passivation layer has a first, second and third vias for respectively exposing the partial surfaces of the source, drain and DL metal regions. The first, second and third vias are filled with the conductive layer, so that the DL and source metal regions are connected via the conductive layer.

Abstract: A method for programming a nonvolatile memory is provided. The method includes applying at least a voltage to a source or a drain, so as to inject carriers of the source or drain into a substrate; applying a third voltage to a gate or the substrate, so that the carriers which are in the substrate having enough energy can surmount an oxide layer to reach a charge storage device.

Abstract: A non-volatile memory structure includes a substrate having two doped regions, a charge-trapping structure positioned substantially between the two doped regions, and a conductive structure positioned on the charge-trapping structure, wherein the charge-trapping structure includes a silicon-oxy-nitride layer and metallic nano-dots embedded in the silicon-oxy-nitride layer. The non-volatile memory structure formed by performing a first thermal oxidation process to form a high-k dielectric layer on a substrate, forming a metal-containing semiconductor layer including silicon or germanium on the high-k dielectric layer, forming a silicon layer on the metal-containing semiconductor layer, and performing a second thermal oxidation process to convert the metal-containing semiconductor layer to a silicon-oxy-nitride layer with embedded metallic nano-dots, wherein at least one of the first thermal oxidation process and the second thermal oxidation process is performed in a nitrogen-containing atmosphere.

Abstract: A portable electronic device (20) includes a circuit board (21) and at least one conducting pole (22). The conducting pole is mounted on the circuit board and includes a breakable portion (2224), the breakable portion is configured to be the part that breaks when the conducting pole is crumpled.

Abstract: A pixel circuit includes a first transistor coupled to a supply voltage end, a second transistor coupled to a ground end, a storage capacitor, a third transistor coupled to a data end, a fourth transistor, a fifth transistor coupled to the second transistor and the second end of the storage capacitor, and a light-emitting element coupled to the fourth transistor. The first transistor is used for conducting a supply voltage from the supply voltage end in response to a trigger of an enable signal. The second transistor is used for conducting a ground voltage from the ground end when a scan signal voltage is triggered. The storage capacitor includes a first end and a second end coupled to the first transistor and the second transistor, respectively. The third transistor is used for conducting a data signal voltage when the scan signal voltage is triggered. The fourth transistor is used for generating a conducting current based on the data signal voltage when the scan signal voltage is not triggered.

Abstract: A dual-gate transistor includes a first gate formed on a substrate, a first dielectric layer covering the first gate and the substrate, a semiconductor layer formed on the first dielectric layer, first and second electrodes formed on the semiconductor layer and spaced with an interval in order to separate each other, a second dielectric layer covering the first and second electrodes, and a second gate formed on the second dielectric layer, in which at least one of the first and second gates is non-overlapped with the second electrode.

Abstract: A method of manufacturing a floating gate is provided. The method includes the steps of forming a tunneling layer on a substrate, and forming a film layer containing a semiconductor component on the tunneling layer. The film layer consists of a semiconductor film or nano-dots.

Abstract: A memory cell, suitable for being disposed on a substrate, comprises a poly-Si island, a first dielectric layer, a trapping layer, a second dielectric layer and a control gate. The poly-Si island is disposed on the substrate and includes a source doped region, a drain doped region and a channel region there-between. The first dielectric layer is disposed on the poly-Si island, the trapping layer is disposed on the first dielectric layer, the second dielectric layer is disposed on the trapping layer and the control gate is disposed on the second dielectric layer. The above-described memory cell can be integrated into the manufacturing process of a low temperature polysilicon LCD panel (LTPS LCD panel) or an organic light emitting display panel (OLED panel).

Abstract: A Thin Film Transistor comprises a gate electrode formed on a substrate; a gate insulation layer covering the gate electrode; an amorphous silicon (a-Si) region disposed on the gate insulation layer and above the gate electrode; a doped a-Si region formed on the a-Si region; the source and drain metal regions separately formed on the doped a-Si region and above the gate electrode, and isolated from the a-Si region; a passivation layer formed on the gate insulation layer and covering the source, drain and data-line (DL) metal regions; and a conductive layer formed on the passivation layer. The passivation layer has a first, second and third vias for respectively exposing the partial surfaces of the source, drain and DL metal regions. The first, second and third vias are filled with the conductive layer, so that the DL and source metal regions are connected via the conductive layer.