Taiwan Semiconductor Manufacturing Comp. Ltd.

Kuo-An Liu

Gwan-Sin Chang

Zhiqiang Wu

Chung-Cheng Wu

Kai Tak Lam

Bharath Kumar Pulicherla

Li-Jui Chen

Chan-Lon Yang

Tien-Wei Chiang

Chia-Hsiang Chen

Zhi-Qiang Wu

Harry-Hak-Lay Chuang

Shang-Chieh Chien

Heng-Hsin Liu

Tai-Yu Chen

Chieh Hsieh

Chung-Wei Wu

Sagar Deepak Khivsara

Chih-Han Lin

Pinyen Lin

Li-Te S Lin

Dian-Hau Chen

Sheng-Kang Yu

Chun-Hsiang Fan

Chun-Fu Cheng

Yuan-Yang Hsiao

Chen-Chiu Huang

Meng-Yu Lin

Wen-Chiung Tu

Chieh-Chun Chiang

A method for forming a semiconductor device structure is provided. The method includes providing a substrate, a fin, and a semiconductor layer. The fin is over the substrate, the semiconductor layer is over the fin, the substrate and the fin are made of different materials, and the fin and the semiconductor layer are made of different materials. The method includes forming a dielectric layer over the semiconductor layer and the fin. The method includes forming a semiconductor structure over a sidewall of the dielectric layer. The method includes removing a first top portion of the dielectric layer over a top surface of the semiconductor layer. The method includes forming a gate over the semiconductor layer, the dielectric layer, and the semiconductor structure.

Semiconductor device structure with fin and method for forming the same

In some embodiments, the present application provides an integrated chip. The integrated chip includes a chip comprising a semiconductor device. A shielding structure abuts the chip. The shielding structure comprises a first horizontal region adjacent to a first horizontal surface of the chip. The first horizontal region comprises a first multilayer structure comprising a first dielectric layer and two or more metal layers. The first dielectric layer is disposed between the two or more metal layers.

DC and AC magnetic field protection for MRAM device using magnetic-field-shielding structure

A semiconductor device includes a substrate having a semiconductor fin. A gate structure is over the semiconductor fin, in which the gate structure has a tapered profile and comprises a gate dielectric. A work function metal layer is over the gate dielectric, and a filling metal is over the work function metal layer. A gate spacer is along a sidewall of the gate structure, in which the work function metal layer is in contact with the gate dielectric and a top portion of the gate spacer. An epitaxy structure is over the semiconductor fin.

Semiconductor device and manufacturing method thereof

A photolithography system utilizes tin droplets to generate extreme ultraviolet radiation for photolithography. The photolithography system irradiates the droplets with a laser. The droplets become a plasma and emit extreme ultraviolet radiation. The photolithography system senses contamination of a collector mirror by the tin droplets and adjusts the flow of a buffer fluid to reduce the contamination.

System and method for performing extreme ultraviolet photolithography processes

Methods and semiconductor structures are provided. A semiconductor structure according to the present disclosure includes a plurality of transistors, an interconnect structure electrically coupled to the plurality of transistors, a metal feature disposed over the interconnect structure and electrically isolated from the plurality of transistors, an insulation layer disposed over the metal feature, and a first redistribution feature and a second redistribution feature disposed over the insulation layer. A space between the first redistribution feature and the second redistribution feature is disposed directly over at least a portion of the metal feature.

Reduction of cracks in passivation layer

In some embodiments, the present application provides a method for manufacture a memory device. The method includes forming a multilayer stack including a first magnetic layer and a first dielectric layer and forming another magnetic layer. The multilayer stack and the another magnetic layer are tailored to meet dimensions of a package structure. The package structure includes a chip having a memory cell and an insulating material enveloping the chip, where an outer surface of the package structure comprises the insulating material. The tailored multilayer stack and the tailored another magnetic layer are attached to the outer surface of the package structure.

In some embodiments, the present application provides a memory device. The memory device includes a chip that includes a magnetic random access memory (MRAM) cell. A magnetic-field-shielding structure comprised of conductive or magnetic material at least partially surrounds the chip. The magnetic-field-shielding structure comprises a sidewall region that laterally surrounds the chip, an upper region extending upward from the sidewall region, and a lower region extending downward from the sidewall region. At least one of the upper region and/or lower region terminate at an opening over the chip.

Protection of MRAM from external magnetic field using magnetic-field-shielding structure

In some embodiments, the present application provides a memory device. The memory device includes a chip that includes a magnetic random access memory (MRAM) cell. A magnetic-field-shielding structure at least partially surrounding the chip including a multilayer stack. The multilayer stack includes a magnetic layer and a dielectric layer. A first magnetic region is located inside an inner surface of the magnetic field shielding structure and a second magnetic region is located immediately outside an outer surface of the magnetic field shielding structure. A magnetic field in the first magnetic region is less than a magnetic field in the second magnetic region.

A method includes forming a gate layer over a semiconductor fin; forming a patterned mask over the gate layer; performing a first etching process to pattern the gate layer using the patterned mask as an etch mask, the patterned gate layer comprising a first gate extending across the semiconductor fin; depositing, by using an directional ion beam, a protection layer to wrap around a top surface, a first sidewall and a second sidewall of the first gate, the protection layer extending along the first and second sidewalls of the first gate towards a bottom surface of the first gate without extending to the bottom surface of the first gate on the second sidewall of the first gate; and after depositing the protection layer, performing a second etching process to a portion of the second sidewall of the first gate exposed by the protection layer.

Semiconductor structure and fabrication method thereof

A method includes forming a dummy gate over a substrate. A pair of gate spacers are formed on opposite sidewalls of the dummy gate. The dummy gate is removed to form a trench between the gate spacers. A first ion beam is directed to an upper portion of the trench, while leaving a lower portion of the trench substantially free from incidence of the first ion beam. The substrate is moved relative to the first ion beam during directing the first ion beam to the trench. A gate structure is formed in the trench.

An EUV collector mirror for an extreme ultra violet (EUV) radiation source apparatus includes an EUV collector mirror body on which a reflective layer as a reflective surface is disposed, a trajectory correcting device attached to or embedded in the EUV collector mirror body and a trajectory correcting device to adjust the trajectory of metal from the reflective surface of the EUV collector mirror body to an opposite side of the EUV collector mirror body.

Apparatus and method for prevention of contamination on collector of extreme ultraviolet light source

A semiconductor structure is disclosed that includes the fin structure and the plurality of gates. The plurality of gates disposed with respect to the fin structure and including the first gate, the second gate, and the third gate. The spacing between the first gate and the second gate is smaller than the spacing between the second gate and the third gate. The second gate is disposed between the first gate and the third gate. The foot portion of the first gate, facing the second gate, and the first foot portion of the second gate, facing the first gate, have no lateral extension. The second foot portion of the second gate, facing the third gate, and the foot portion of the third gate, facing the second gate, have no lateral extension and/or cut.

Growing community of inventors

Hsinchu, Taiwan

Kuo-An Liu