Samsung Electronics Co., Ltd.

Yong-Won Cha

Kyu-Tae Na

Dae-Lok Bae

Yong-Hoon Son

Jong-Wook Lee

Pil-Kyu Kang

In-Seok Yeo

Eunkee Hong

Seung-hyun Lim

Ju-seon Goo

Won-Jin Kim

Sung-Kwan Kang

Yong-Soon Choi

Kyong-Hee Joo

Dong-Chul Suh

Methods of fabricating a semiconductor device include forming a mask pattern on a semiconductor substrate and which exposes defined regions of the semiconductor substrate. Oxygen ions are implanted into the defined regions of the semiconductor substrate using the mask pattern as an ion implantation mask. The oxygen ion implanted regions of the semiconductor substrate are annealed at one or more temperatures in a range that is sufficiently high to form silicon oxide substantially throughout the oxygen ion implanted regions by reacting the implanted oxygen ions with silicon in the oxygen ion implanted regions, and that is sufficiently low to substantially prevent oxidation of the semiconductor substrate adjacent to the oxygen ion implanted regions.

Methods of fabricating semiconductor devices having isolation regions formed from annealed oxygen ion implanted regions

A method of fabricating a three-dimensional semiconductor device is provided along with a three-dimensional semiconductor device fabricated thereby. The method includes forming a heat conductive plug to channel heat away from devices on a substrate, while high temperature processes are performed on a stacked semiconductor layer. The ability to use high temperature processes on the stacked semiconductor layer without adversely effecting devices on the substrate allows the formation of a high quality single-crystalline stacked semiconductor layer. The high quality single-crystalline semiconductor layer can then be used to fabricate improved thin film transistors.

Methods of manufacturing a three-dimensional semiconductor device and semiconductor devices fabricated thereby

Methods of filling trenches/gaps defined by circuit elements on an integrated circuit substrate are provided. The methods include forming a first high-density plasma layer on an integrated circuit substrate including at least one trench thereon using a first reaction gas. The first high-density plasma layer is etched using an etch gas including nitrogen fluoride gas (NF). A second high-density plasma layer is formed on the etched first high-density plasma layer using a second reaction gas including nitrogen fluoride.

Methods of filling trenches using high-density plasma deposition (HDP)

In a method of forming a thin layer having a desired composition, a source gas is provided onto a substrate loaded in a chamber for a first time, and the source gas is chemisorbed onto the substrate. While the source gas is provided, a plasma is generated in the chamber for a second time to change the chemisorbed source gas into the thin layer having the desired composition. The thin layer may have a stoichiometrical composition or a non-stoichiometrical composition.

Method of forming a thin layer and method of manufacturing a non-volatile semiconductor device using the same

Methods of fabricating a semiconductor device are provided. A semiconductor substrate is provided that includes a single crystalline structure within at least a defined region thereof. A thin layer is formed on the semiconductor substrate. The thin layer is patterned to form a plurality of spaced apart field structures and to expose therebetween portions of the semiconductor substrate having the single crystalline structure. A non-crystalline layer is formed on the exposed portions of the semiconductor substrate having the single crystalline structure. The non-crystalline layer is planarized to expose upper surfaces of the field structures and define non-crystalline active structures from the non-crystalline layer between the field structures. A laser beam is generated that heats the non-crystalline active structures to change them into single crystalline active structures having substantially the same single crystalline structure as the defined region of the semiconductor substrate.

Methods of fabricating semiconductor devices having laser-formed single crystalline active structures

A method of forming a trench isolation layer can include forming an isolation layer in a trench using High Density Plasma Chemical Vapor Deposition (HDPCVD) with a carrier gas comprising hydrogen. Other methods are disclosed.

Methods of forming trench isolation layers using high density plasma chemical vapor deposition

Methods of forming an electronic device including a substrate and a raised pattern on the substrate are provided. For example, a first insulating layer may be formed on the raised pattern and on the substrate. More particularly, forming the first insulating layer may include forming a first portion of the first insulating layer using a first processing condition and forming a second portion of the first insulating layer using a second processing condition. After forming the first insulating layer including the first and second portions, portions of the first insulating layer may be removed to expose portions of the raised pattern while maintaining portions of the first insulating layer on the substrate. After removing portions of the first insulating layer, a second insulating layer may be formed on the exposed portions of the raised pattern and on the maintained portions of the first insulating layer.

Growing community of inventors

Gyeonggi-do, South Korea

Yong-Won Cha