摘要:
A structure and method of forming the structure are disclosed. According to an embodiment, a structure includes three devices in respective three regions of a substrate. The first device comprises a first gate stack, and the first gate stack comprises a first dielectric layer. The second device comprises a second gate stack, and the second gate stack comprises a second dielectric layer. The third device comprises a third gate stack, and the third gate stack comprises a third dielectric layer. A thickness of the third dielectric layer is less than a thickness of the second dielectric layer, and the thickness of the second dielectric layer is less than a thickness of the first dielectric layer. A gate length of the third gate stack differs in amount from a gate length of the first gate stack and a gate length of the second gate stack.
摘要:
A ferroelectric memory device according to an embodiment of the present invention includes a substrate, a gate electrode which is arranged on the substrate, a ferroelectric layer which is arranged on the gate electrode, a first insulating layer which is arranged on the ferroelectric layer, a drain electrode which is arranged on a part of the first insulating layer, a second insulating layer which is arranged on the drain electrode, a channel layer which is arranged on the second insulating layer and the first insulating layer, and a source electrode which is arranged on the channel layer. The channel layer is arranged between one side of the drain electrode and the source electrode. One side of the drain electrode and the source electrode are in contact with the channel layer.
摘要:
본원은, 플렉서블 비휘발성 메모리 소자용 강유전체 캐패시터, 트랜지스터형 플렉서블 비휘발성 강유전체 메모리 소자, 1T-1R(1Transistor-1Resistor) 플렉서블 강유전체 메모리 소자 및 이들의 제조 방법에 관한 것으로서, 강유전체층과 반도체층 사이의 계면에 고분자 접착층을 형성함으로써 계면에서의 전기적 특성 및 물리화학적 특성을 향상시킬 수 있다.
摘要:
PURPOSE: A ferroelectric capacitor for a flexible nonvolatile memory device, a flexible nonvolatile ferroelectric memory device, and a manufacturing method thereof are provided to improve electric, physical, and chemical properties in an interface between a ferroelectric layer and a semiconductor layer. CONSTITUTION: A contact layer(110) is formed on a flexible substrate(100). A first electrode(120) is formed on the contact layer. A ferroelectric layer(130) is formed on the first electrode. A second electrode(140) is formed on the ferroelectric layer. An insulation layer(150) is formed on the second electrode layer. A polymer protection layer(160) is formed on the second electrode.
摘要:
PURPOSE: The inorganic hybrid non-destructive read thin film transistor ferroelectrics memory and manufacturing method thereof use the oxide semiconductor and oxide electrode and the transparency memory device is embodied. CONSTITUTION: The source/drain electrodes(2a, 2b) are formed in the oxide semiconductor(3). The inorganic material intermediate(4) is formed on the oxide semiconductor. The organic ferroelectric(5) is formed on the inorganic material intermediate. The gate electrode(6) is formed on the organic ferroelectric.
摘要:
A ferroelectric memory device, an FET, and manufacturing methods of the same are provided to stabilize a memory operation by improving the hysteresis of a ferroelectric layer. A ferroelectric memory device comprises a substrate(10), a gate electrode(21), a drain electrode(24), a source electrode(25), a channel fabrication layer(22), and a ferroelectric layer(23). The ferroelectric layer is made of a mixture of an inorganic ferroelectric material and an organic material. The channel fabrication layer, such as the organic material or an inorganic semiconductor layer, is formed between the gate electrode and the ferroelectric layer. The channel fabrication layer is an insulation layer.
摘要:
PURPOSE: A method for fabricating a metal-ferro-metal oxide semiconductor(MFMOS)/metal-ferro-metal semiconductor(MFMS) non-volatile memory transistors is provided to prevent a ferroelectric material from being damaged in a plasma etching process by obviating the necessity of a gate stack etching process and minimizing etch-inducing damage. CONSTITUTION: A bottom electrode(16) is formed. A ferroelectric layer(24) is deposited over an active region beyond the margins of the bottom electrode. A top electrode(26) is deposited on the ferroelectric layer. A structure obtained by the above-described steps is metalized to form a source electrode(32), a gate electrode(34) and a drain electrode(36).