Mediatek Corporation

United Microelectronics Corp.

Tung-Hsing Lee

Ming-Tzong Yang

Cheng-Chou Hung

Wei-Che Huang

Yu-Hua Huang

Ching-Chung Ko

Tzu-Hung Lin

Tao Cheng

Tien-Chang Chang

Shyh-Fann Ting

Tzyy-Ming Cheng

Yuan-Hung Chung

Chien-Li Kuo

Po-Chao Tsao

Cheng-Tung Huang

Ming-Da Tsai

Bernard Mark Tenbroek

Sheng-Hao Lin

Li-Shian Jeng

Zheng Zeng

Tai-Ju Chen

Kuei-Ti Chan

Chih-Ming Su

Yu-Tung Chang

Yun-San Huang

Tao-Yi Lee

Chien-Hsing Lee

Chia-Yu Yang

Tzermin Shen

Cheng-Jyi Chang

Yi-Chia Lee

Tai-Yuan Lee

Chin-Wei Lin

Sun-Chin Wei

Min-Yi Chang

Da-Kung Lo

Buo-Chin Hsu

Da-Ching Cho

Wen-Koi Lai

Yu-Lung Chin

Yu-Lin Yang

Chia-Chun Sun

Chih-Min Lin

Rong-Tang Chen

Da-Ching Chiou

A dynamic voltage stress (DVS) condition optimization includes selecting a testing block from a plurality of blocks in a die of a wafer, acquiring a plurality of testing block measurement temperatures of the testing block when the testing block is processed by a DVS testing flow, acquiring a correlation table of the plurality of testing block measurement temperatures and a plurality of DVS block predict temperatures of the testing block, configuring a tip burnt block temperature according to the testing block measurement temperatures, determining a DVS block target temperature selected from the DVS block predict temperatures according to the correlation table and the tip burnt block temperature, and generating a DVS block voltage for applying to the testing block in the die of the wafer according to the DVS block target temperature.

Dynamic voltage stress condition optimization method and dynamic voltage stress condition optimization system capable of performing block-based dynamic voltage stress wafer testing process

A semiconductor package structure having a substrate, wherein the substrate has a front side and a back side, a through silicon via (TSV) interconnect structure formed in the substrate, and a first guard ring doped region and a second guard ring doped region formed in the substrate. The second guard ring doped region is disposed between the first guard ring doped region and the TSV interconnect structure.

Semiconductor package structure and method for forming the same

A semiconductor integrated circuit includes an inductor and a plurality of high permeability patterns. The inductor includes one conductive loop. The high permeability patterns are disposed adjacent to the conductive loop.

Semiconductor integrated circuit

A method for forming a semiconductor package structure is provided. The method for forming a semiconductor package structure includes providing a substrate, wherein the substrate has a front side and a back side, forming a first guard ring doped region and a second guard ring doped region in the substrate, wherein the first guard ring doped region and the second guard ring doped region have different conductive types, forming a trench through the substrate from a back side of the substrate, conformally forming an insulating layer lining the back side of the substrate, a bottom surface and sidewalls of the trench, removing a portion of the insulating layer on the back side of the substrate to form a through via, and forming a conductive material in the through via, wherein a through silicon via (TSV) interconnect structure is formed by the insulating layer and the conductive material.

Semiconductor package structure having first and second guard ring regions of different conductivity types and method for forming the same

An implementation of the invention is directed to a passive device cell having a substrate layer, and intermediary layer formed above the substrate layer, and a passive device formed above the intermediary layer. The intermediary layer includes a plurality of LC resonators and a plurality of segmented conductive lines, wherein the plurality of segmented conductive lines are disposed between the plurality of LC resonators.

Passive device cell and fabrication process thereof

A semiconductor device includes a semiconductor substrate of a first conductivity type having a chip region enclosed by a seal ring region. An insulating layer is on the semiconductor substrate. A seal ring structure is embedded in the insulating layer corresponding to the seal ring region. And, a plurality of doping regions are located beneath the first seal ring structure.

Seal ring structure with capacitor

The invention provides a body-contact metal-oxide-semiconductor field effect transistor (MOSFET) device. The body-contact MOSFET device includes a substrate. An active region is disposed on the substrate. A gate strip is extended along a first direction disposed on a first portion of the active region. A source doped region and a drain doped region are disposed on a second portion and a third portion of the active region, adjacent to opposite sides of the gate strip. The opposite sides of the gate strip are extended along the first direction. A body-contact doped region is disposed on a fourth portion of the active region. The body-contact doped region is separated from the gate strip by a fifth portion of the active region. The fifth portion is not covered by any silicide features.

Body-contact metal-oxide-semiconductor field effect transistor device

An electronic device package has a base and an electronic device chip mounted on the base. The electronic device chip includes a semiconductor substrate having a front side and a back side, a electronic component disposed on the front side of the semiconductor substrate, an interconnect structure disposed on the electronic component, a through hole formed through the semiconductor substrate from the back side of the semiconductor substrate, connecting to the interconnect structure, and a TSV structure disposed in the through hole. The interconnect structure is electrically connected to the RF component, and a thickness of the semiconductor substrate is less than that of the interconnect structure.

Radio-frequency device package and method for fabricating the same

A semiconductor package structure and method for forming the same are provided. The semiconductor package structure includes a substrate and the substrate has a front side and a back side. The semiconductor package structure includes a through silicon via (TSV) interconnect structure formed in the substrate; and a first guard ring doped region and a second guard ring doped region formed in the substrate, and the first guard ring doped region and the second guard ring doped region are adjacent to the TSV interconnect structure.

A method for fabricating a electronic device package provides a electronic device chip, wherein the electronic device chip includes a semiconductor substrate having a front side and a back side, wherein the semiconductor substrate has a first thickness, an electronic component disposed on the front side of the semiconductor substrate, and an interconnect structure disposed on the electronic component. The method further performs a thinning process to remove a portion of the semiconductor substrate from the back side thereof. The method then removes a portion of the thinned semiconductor substrate and a portion of a dielectric layer of the interconnect structure from a back side of the thinned semiconductor substrate until a first metal layer pattern of the interconnect structure is exposed, thereby forming a through hole. Finally, the method forms a TSV structure in the through hole, and mounts the electronic device chip on a base.

A semiconductor diode includes a semiconductor substrate having a lightly doped region with a first conductivity type therein. A first heavily doped region with a second conductivity type opposite to the first conductivity type is in the lightly doped region. A second heavily doped region with the first conductivity type is in the lightly doped region and is in direct contact with the first heavily doped region. A first metal silicide layer is on the semiconductor substrate and is in direct contact with the first heavily doped region. A second metal silicide layer is on the semiconductor substrate and is in direct contact with the second heavily doped region. The second metal silicide layer is spaced apart from the first metal silicide layer.

Semiconductor diode

A lateral bipolar junction transistor includes an emitter region; a base region surrounding the emitter region; a gate disposed at least over a portion of the base region; and a collector region surrounding the base region; wherein the portion of the base region under the gate does not under go a threshold voltage implant process.

Lateral bipolar junction transistor

An embodiment of the invention provides a passive device cell. The passive device cell has a substrate layer, a passive device, and an intermediary layer formed between the substrate layer and the passive device. The intermediary layer includes a plurality of LC resonators.

The invention provides a radio-frequency (RF) device package and a method for fabricating the same. An exemplary embodiment of a radio-frequency (RF) device package includes a base, wherein a radio-frequency (RF) device chip is mounted on the base. The RF device chip includes a semiconductor substrate having a front side and a back side. A radio-frequency (RF) component is disposed on the front side of the semiconductor substrate. An interconnect structure is disposed on the RF component, wherein the interconnect structure is electrically connected to the RF component, and a thickness of the semiconductor substrate is less than that of the interconnect structure. A through hole is formed through the semiconductor substrate from the back side of the semiconductor substrate, and is connected to the interconnect structure. A TSV structure is disposed in the through hole.

An integrated inductor includes a winding consisting of an aluminum layer atop a passivation layer, wherein the aluminum layer does not extend into the passivation layer and has a thickness that is not less than about 2.0 micrometers. The passivation layer has a thickness not less than about 0.8 micrometers. By eliminating copper from the integrated inductor and increasing the thickness of the passivation layer, the distance between the bottom surface of the inductor structure and the main surface of the semiconductor substrate is increased, thus the parasitic substrate coupling may be reduced and the Q-factor may be improved. Besides, the increased thickness of the aluminum layer may help improve the Q-factor as well.

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Taipei, Taiwan

Tung-Hsing Lee