Taiwan Semiconductor Manufacturing Comp. Ltd.

Kuan-Chi Tsai

Wei-Kung Tsai

Kuo-Yu Cheng

Chih-Ping Chao

Chung-Long Chang

Wen-Tsao Chen

Ming-Ray Mao

Chun-Hung Chen

Tsung-Yu Yang

Shih-Shiung Chen

Chih-Hsun Lin

Keng-Yu Chen

Ying-Ti Lu

Shao-Yu Chen

Yu-Lung Yeh

Hsiang-Fu Chen

Chia-Ming Hung

Ching-Chung Hsu

Chun-Hong Chen

I-Hsuan Chiu

Chih-Ho Tai

Yi-Sin Wang

Kang-Yi Lien

Chen-Yao Tang

Kun-Mao Wu

Chih-Hung Hsueh

Cheng-Chang Hsu

Sheng-Wen Su

Shaw-Jang Liou

Yu Hung Chen

Yi-Chieh Huang

Hsiang-Chi Chen

Jun-De Jin

Kun-Yu Lin

Yu-Wen Chen

Shih-Hsien Yang

Yong-En Syu

Ching-Hung Huang

Bo-Chang Su

Yen-Hsiang Hsu

Chun-Liang Fan

Wen-Chao Chen

Wei-Te Wang

Chuang-Han Hsieh

Tai-Chun Lin

A semiconductor device and method of manufacturing the device that includes a growth die and a dummy die. The method includes patterning, on an integrated circuit wafer, at one least growth die, and patterning at least one dummy die that is positioned on at least a portion of a circumference of the integrated circuit wafer. The patterned growth and dummy dies are etched on the wafer. A bond wave is initiated at a starting point on the integrated circuit wafer. The starting point is positioned on an edge of the integrated circuit wafer opposite the portion on which the at least one dummy die is patterned. Upon application of pressure at the starting point, a uniform bond wave propagates across the wafers, bonding the two wafers together.

Bond wave optimization method and device

A device includes a dielectric layer, an interlayer metal pad in the dielectric layer, a first capacitor over the interlayer metal pad, and a second capacitor over the dielectric layer. The first capacitor includes a first bottom capacitor electrode over and in contact with the interlayer metal pad, a first top capacitor electrode, and a first inter-electrode dielectric layer between the first bottom capacitor electrode and the first top capacitor electrode. The second capacitor includes a second bottom capacitor electrode over and in contact with the dielectric layer, a second top capacitor electrode, and a second inter-electrode dielectric layer between the second bottom capacitor electrode and the second top capacitor electrode.

Integrated circuit

Some embodiments of the present disclosure are directed to a device. The device includes a substrate comprising a silicon layer disposed over an insulating layer. The substrate includes a transistor device region and a radio-frequency (RF) region. An interconnect structure is disposed over the substrate and includes a plurality of metal layers disposed within a dielectric structure. A handle substrate is disposed over an upper surface of the interconnect structure. A trapping layer separates the interconnect structure and the handle substrate.

Trap layer substrate stacking technique to improve performance for RF devices

An integrated circuit includes a stacked MIM capacitor and a thin film resistor and methods of fabricating the same are disclosed. A capacitor bottom metal in one capacitor of the stacked MIM capacitor and the thin film resistor are substantially at the same layer of the integrated circuit, and the capacitor bottom metal and the thin film resistor are also made of substantially the same materials. The integrated circuit with both of a stacked MIM capacitor and a thin film resistor can be made in a cost benefit way accordingly, so as to overcome disadvantages mentioned above.

Integrated circuit and manufacturing method thereof

A device comprises a metal via having a lower portion in a first etch stop layer and an upper portion in a first dielectric layer over a substrate, a second etch stop layer over and in direct contact with the first dielectric layer, a second dielectric layer over and in direct contact with the first etch stop layer, a stress reduction layer over and in direct contact with the second dielectric layer, a third etch stop layer over and in direct contact with the stress reduction layer and a metal structure over the metal via, wherein the metal structure comprises a lower portion in the second etch stop layer and the second dielectric layer and an upper portion in the stress reduction layer.

Stress reduction apparatus with an inverted cup-shaped layer

A semiconductor device comprises a substrate and a high-electron-mobility transistor (HEMT). The substrate is formed with a recess. At least a portion of the HEMT is disposed in the recess. A method for manufacturing the semiconductor device is also disclosed. A radio frequency (RF) front-end module that employs the semiconductor device is also disclosed.

Semiconductor device including a high-electron-mobility transistor (HEMT) and method for manufacturing the same

Embodiments for forming a semiconductor device structure are provided. The semiconductor device structure includes a substrate and a buried oxide layer formed over the substrate. An interface layer is formed between the substrate and the buried oxide layer. The semiconductor device structure also includes a silicon layer formed over the buried oxide layer; and a polysilicon layer formed over the substrate and in a deep trench. The polysilicon layer extends through the silicon layer, the buried oxide layer and the interface layer.

Semiconductor device and method for forming the same

A device comprises a metal via having a lower portion in a first etch stop layer and an upper portion in a first dielectric layer over a substrate, a second etch stop layer over and in direct contact with the first dielectric layer, a second dielectric layer over and in direct contact with the first etch stop layer, a stress reduction layer over and in direct contact with the second dielectric layer, a third etch stop layer over and in direct contact with the stress reduction layer and a metal structure over the metal via, wherein the metal structure comprises a lower portion in the second etch stop layer and the second dielectric layer and an upper portion in the stress reduction layer, wherein a top surface of the metal structure is level with a top surface of the stress reduction layer.

Stress reduction apparatus

In accordance with some embodiments, a semiconductor device is provided. The semiconductor device structure includes a substrate, and the substrate has a device region and an edge region. The semiconductor device structure also includes a silicon layer formed on the substrate and a transistor formed on the silicon layer. The transistor is formed at the device region of the substrate. The semiconductor device structure further includes a metal ring formed in the silicon layer. The metal ring is formed at the edge region of the substrate, and the transistor is surrounded by the metal ring.

Semiconductor device structure with metal ring on silicon-on-insulator (SOI) substrate

The present disclosure relates to a semiconductor substrate including, a first silicon layer comprising an upper surface with protrusions extending vertically with respect to the upper surface. An isolation layer is arranged over the upper surface meeting the first silicon layer at an interface, and a second silicon layer is arranged over the isolation layer. A method of manufacturing the semiconductor substrate is also provided.

Substrate fabrication method to improve RF (radio frequency) device performance

A method for forming a radio frequency area of an integrated circuit are provided. The method includes forming a buried oxide layer over a substrate, and an interface layer is formed between the substrate and the buried oxide layer. The method also includes etching through the buried oxide layer and the interface layer to form a deep trench, and a bottom surface of the deep trench is level with a bottom surface of the interface layer. The method further includes forming an implant region directly below the deep trench and forming an interlayer dielectric layer in the deep trench.

Mechanisms for forming radio frequency (RF) area of integrated circuit structure

The semiconductor device includes a substrate, a bottom electrode, a capacitor dielectric layer, a top electrode, an etching stop layer, a first anti-reflective coating layer and a capping layer. The bottom electrode is on the substrate. The capacitor dielectric layer is on the bottom electrode. The capacitor dielectric layer has a first region and a second region adjacent to the first region. The top electrode is on the first region of the capacitor dielectric layer. The etching stop layer is on the top electrode. The first anti-reflective coating layer is on the etching stop layer, in which the first anti-reflective coating layer, the etching stop layer and the top electrode together have a sidewall. The capping layer overlies the sidewall, the etching stop layer, the second region of the capacitor dielectric layer, in which the capping layer is formed from oxide or nitride.

MIM capacitors for leakage current improvement

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Kaohsiung, Taiwan

Kuan-Chi Tsai