Taiwan Semiconductor Manufacturing Comp. Ltd.

National Applied Research Laboratories

Chien-Chao Huang

Fu-Liang Yang

Chenming Hu

Chao-Hsiung Wang

Yee-Chia Yeo

Chun-Chieh Lin

Wen-Chin Lee

Chung-Hu Ge

Chih-Hsin Ko

Chih-Chiang Tu

Chung-Hu Ke

Cheng-Chuan Huang

Shih-Chang Chen

Mong-Song Liang

Liang-Gi Yao

Hung-Ming Chen

Tien-Chih Chang

Tone-Xuan Chung

Kuo-Nan Yang

Chun-Sheng Liang

Kuang-Hsin Chen

Hsin-Hui Lee

Hsun-Chih Tsao

Cheng-Kuo Wen

How-Yu Chen

Chun Chich Lin

Horng-Huei Tseng

Carlos H Diaz

Cheng-Ming Lin

Chun-Lang Chen

Chia-Wei Chang

Fei-Gwo Tsai

Hao-Yu Chen

Jong-Yuh Chang

Tran-Hui Shen

Peng-Ren Chen

Chun-Chi Chen

Di-Hong Lee

Boming Hsu

Tang-Xuan Zhong

Chen Ming Hu

Shyi-Long Shy

Cheng-San Wu

Chun Chieh Lin

Chi Min-Hwa

Hsin-Ying Lee

Chao-Hsing Wang

Chao-Hsuing Wang

A method comprises providing a semiconductor alloy layer on a semiconductor substrate, forming a gate structure on the semiconductor alloy layer, forming source and drain regions in the semiconductor substrate on both sides of the gate structure, removing at least a portion of the semiconductor alloy layer overlying the source and drain regions, and forming a metal silicide region over the source and drain regions.

Semiconductor device having semiconductor alloy layer adjacent a gate structure

Semiconductor device with silicided source/drain region

Cobalt silicidation process for substrates comprised with a silicon-germanium layer

A semiconductor structure includes a semiconductor substrate comprising a PMOS region and an NMOS region; a PMOS device in the PMOS region; and an NMOS device in the NMOS region. The PMOS device includes a first gate stack on the semiconductor substrate; a first offset spacer on a sidewall of the first gate stack; a stressor in the semiconductor substrate and adjacent to the first offset spacer; and a first raised source/drain extension region on the stressor and adjoining the first offset spacer, wherein the first raised source/drain extension region has a higher p-type dopant concentration than the stressor. The NMOS device in the NMOS region includes a second gate stack on the semiconductor substrate; a second offset spacer on a sidewall of the second gate stack; a second raised source/drain extension region on the semiconductor substrate and adjoining the second offset spacer; and a deep source/drain region adjoining the second raised source/drain extension region, wherein the deep source/drain region is free from stressors formed in the semiconductor substrate.

CMOS device with raised source and drain regions

A semiconductor light emitting device and a method to form the same are disclosed. The device has at least one porous or low density dielectric region formed in or on top of a bottom electrode, at least one top electrode on the porous or low density dielectric region, and one or more color filters placed above the top electrode, wherein the porous or low density dielectric region contains light emitting nanocrystal materials.

Programming optical device

Embodiments of the invention provide a semiconductor device and a method of manufacture. MOS devices along with their polycrystalline or amorphous gate electrodes are fabricated such that the intrinsic stress within the gate electrode creates a stress in the channel region between the MOS source/drain regions. Embodiments include forming an NMOS device and a PMOS device after having converted a portion of the intermediate NMOS gate electrode layer to an amorphous layer and then recrystallizing it before patterning to form the electrode. The average grain size in the NMOS recrystallized gate electrode is smaller than that in the PMOS recrystallized gate electrode. In another embodiment, the NMOS device comprises an amorphous gate electrode.

Strained gate electrodes in semiconductor devices

An apparatus for mounting a pellicle onto a mask is provided. In one embodiment, the apparatus comprises a base provided with a track; a dummy plate holder coupled to the base, the dummy plate holder for receiving a dummy plate having an elevated portion on one side thereof; a mask holder for receiving a mask, the mask holder slidably coupled to the base; a pellicle holder for receiving a pellicle frame, the pellicle holder slidably coupled to the base; and drive means being adapted to drive the pellicle holder along the track towards the dummy plate holder, wherein during operation when the pellicle frame is mounted onto the mask causing the mask to contact the dummy plate, the mounting pressure in the mask is distributed by way of the elevated portion in the dummy plate, thus reducing distortion in the mask.

Method and pellicle mounting apparatus for reducing pellicle induced distortion

A method for fabricating a patterned layer is disclosed. Firstly, a semiconductor substrate is provided. Then, a precursory gas on the semiconductor substrate is formed. Finally, a patterned layer on the semiconductor substrate is deposited by reacting the precursory gas with at least one electron beam or at least one ion beam. The present invention not only fabricates a patterned layer on the substrate in a single step but also achieves a high lithographic resolution and avoids remains of contaminations by using the properties of the electron beam or the ion beam and the precursory gas.

Method for fabricating patterned layer

A method of manufacturing a microelectronic device includes forming a p-channel transistor on a silicon substrate by forming a poly gate structure over the substrate and forming a lightly doped source/drain region in the substrate. An oxide liner and nitride spacer are formed adjacent to opposing side walls of the poly gate structure and a recess is etched in the semiconductor substrate on opposing sides of the oxide liner. Raised SiGe source/drain regions are formed on either side of the oxide liner and slim spacers are formed over the oxide liner. A hard mask over the poly gate structure is used to protect the poly gate structure during the formation of the raised SiGe source/drain regions. A source/drain dopant is then implanted into the substrate including the SiGe regions.

Strained silicon device

A structure for an integrated circuit is disclosed. The structure includes a crystalline substrate and four crystalline layers. The first crystalline layer of first lattice constant is positioned on the crystalline substrate. The second crystalline layer has a second lattice constant different from the first lattice constant, and is positioned on said first crystalline layer. The third crystalline layer has a third lattice constant different than said second lattice constant, and is positioned on said second crystalline layer. The strained fourth crystalline layer includes, at least partially, a MOSFET device.

Relaxed silicon germanium substrate with low defect density

The present disclosure provide a method for making a mask. The method includes assigning a plurality of pattern features to different data types; writing the plurality of pattern features on a mask; inspecting the plurality of pattern features with different inspection sensitivities according to assigned data types; and repairing the plurality of pattern features on the mask according to the inspecting of the plurality of pattern features.

Mask making decision for manufacturing (DFM) on mask quality control

A method provides for dicing a wafer having a base material with a diamond structure. The wafer first undergoes a polishing process, in which a predetermined portion of the wafer is polished away from its back side. The wafer is then diced through at least one line along a direction at a predetermined offset angle from a natural cleavage direction of the diamond structure. A wafer is produced with one or more dies formed thereon with at least one of its edges at an offset angle from a natural cleavage direction of a diamond structure of a base material forming the wafer. At least one dicing line has one or more protection elements for protecting the dies from undesired cracking while the wafer is being diced along the dicing line.

Method for dicing semiconductor wafers

A method of forming a semiconductor structure includes forming a PMOS device and an NMOS device. The step of forming the PMOS device includes forming a first gate stack on a semiconductor substrate; forming a first offset spacer on a sidewall of the first gate stack; forming a stressor in the semiconductor substrate using the first offset spacer as a mask; and epitaxially growing a first raised source/drain extension (LDD) region on the stressor. The step of forming the NMOS device includes forming a second gate stack on the semiconductor substrate; forming a second offset spacer on a sidewall of the second gate stack; epitaxially growing a second raised LDD region on the semiconductor substrate using the second offset spacer as a mask; and forming a deep source/drain region adjoining the second raised LDD region.

Growing community of inventors

Hsin-Chu, Taiwan

Chien-Chao Huang