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    • 1. 发明申请
    • Method and system for forming source regions in memory devices
    • 用于在存储器件中形成源区的方法和系统
    • US20050179080A1
    • 2005-08-18
    • US11094035
    • 2005-03-30
    • Yi-Shing ChangWen-Ting Chu
    • Yi-Shing ChangWen-Ting Chu
    • H01L21/336H01L21/8242H01L21/8247H01L27/115H01L29/788
    • H01L27/11521H01L27/115
    • A memory device and the method for manufacturing same is disclosed. The device comprises a first oxide layer on top of a substrate, a floating gate layer on top of the first oxide layer, a second oxide layer over the floating gate layer, wherein the second oxide layer and the floating gate layer have a first opening and a second opening respectively, and wherein the width of second opening is bigger than the width of the narrowest region of the first opening so that the floating gate layer is pulled back horizontally underneath the second oxide layer. A source region is in the substrate underneath the first oxide layer, and a third oxide layer fills in the first and second openings conforming to the contour thereof, wherein the third oxide has a third opening to reach a portion of the source region. Further, a control gate material fills in the third opening.
    • 公开了一种存储器件及其制造方法。 该器件包括在衬底的顶部上的第一氧化物层,在第一氧化物层的顶部上的浮动栅极层,浮置栅极层上的第二氧化物层,其中第二氧化物层和浮动栅极层具有第一开口和 第二开口,其中第二开口的宽度大于第一开口的最窄区域的宽度,使得浮栅层在第二氧化物层下方被水平地拉回。 源区域位于第一氧化物层下方的衬底中,并且第三氧化物层填充符合其轮廓的第一和第二开口,其中第三氧化物具有到达源极区域的一部分的第三开口。 此外,控制门材料填充在第三开口中。
    • 2. 发明申请
    • Method and system for forming source regions in memory devices
    • 用于在存储器件中形成源区的方法和系统
    • US20050009273A1
    • 2005-01-13
    • US10617470
    • 2003-07-11
    • Yi-Shing ChangWen-Ting Chu
    • Yi-Shing ChangWen-Ting Chu
    • H01L21/336H01L21/8242H01L21/8247H01L27/115H01L29/788
    • H01L27/11521H01L27/115
    • A memory device and the method for manufacturing the same is disclosed. The device includes a first oxide layer on top of a substrate, a floating gate layer on top of the first oxide layer, and a second oxide layer over the floating gate layer. The second oxide layer and the floating gate layer have a first opening and a second opening respectively wherein the width of second opening is bigger than the width of the narrowest region of the first opening so that the floating gate layer is pulled back horizontally underneath the second oxide layer. A source region is in the substrate underneath the first oxide layer, and a third oxide layer fills in the first and second openings conforming to the contour thereof. The third oxide has a third opening to reach a portion of the source region. Further, a control gate material fills in the third opening.
    • 公开了一种存储器件及其制造方法。 该器件包括在衬底的顶部上的第一氧化物层,在第一氧化物层的顶部上的浮动栅极层和浮置栅极层上的第二氧化物层。 第二氧化物层和浮栅层分别具有第一开口和第二开口,其中第二开口的宽度大于第一开口的最窄区域的宽度,使得浮栅层在第二开口和第二开口的第二开口下方水平地被拉回 氧化层。 源区域位于第一氧化物层下方的衬底中,并且第三氧化物层填充符合其轮廓的第一和第二开口。 第三氧化物具有第三开口以到达源区的一部分。 此外,控制门材料填充在第三开口中。
    • 3. 发明申请
    • Space process to prevent the reverse tunneling in split gate flash
    • 空间过程,以防止分流门闪光中的反向隧道
    • US20050184331A1
    • 2005-08-25
    • US10786798
    • 2004-02-25
    • Kuo-Chi TuWen-Ting ChuYi-Shing ChangYi-Jiun Lin
    • Kuo-Chi TuWen-Ting ChuYi-Shing ChangYi-Jiun Lin
    • H01L21/28H01L21/336H01L29/423H01L29/788
    • H01L29/66825H01L21/28273H01L29/42324
    • A split gate flash memory cell structure is disclosed for prevention of reverse tunneling. A gate insulator layer is formed over a semiconductor surface and a floating gate is disposed over the gate insulator layer. A floating gate insulator layer is disposed over the floating gate and sidewall insulator spacers are disposed along bottom portions of the floating gate sidewall adjacent to said gate insulator layer. The sidewall insulator spacers are formed from a spacer insulator layer that had been deposited in a manner that constitutes a minimal expenditure of an available thermal budget and etching processes used in fashioning the sidewall insulator spacers etch the spacer insulator layer faster than the gate insulator layer and the floating gate insulator layer. An intergate insulator layer is disposed over exposed portions of the gate insulator layer, the floating gate, the floating gate insulator layer and the sidewall insulator spacers. A conductive control gate is disposed over the intergate insulator layer, covering about half of the floating gate.
    • 公开了一种用于防止反向隧道的分裂门闪存单元结构。 在半导体表面上形成栅极绝缘体层,并且在栅极绝缘体层上方设置浮置栅极。 浮置栅极绝缘体层设置在浮置栅极之上,并且侧壁绝缘体间隔物沿邻近所述栅极绝缘体层的浮动栅极侧壁的底部设置。 侧壁绝缘体间隔物由间隔绝缘体层形成,该间隔绝缘体层以构成可用热预算的最小消耗量的方式沉积,并且蚀刻工艺用于形成侧壁绝缘体间隔层比栅极绝缘体层更快蚀刻间隔绝缘体层, 浮栅绝缘体层。 栅极绝缘体层设置在栅极绝缘体层,浮置栅极,浮置栅极绝缘体层和侧壁绝缘体间隔物的暴露部分之上。 导电控制栅极设置在栅极绝缘体层之上,覆盖浮动栅极的大约一半。
    • 7. 发明授权
    • Space process to prevent the reverse tunneling in split gate flash
    • 空间过程,以防止分流门闪光中的反向隧道
    • US07030444B2
    • 2006-04-18
    • US10786798
    • 2004-02-25
    • Kuo-Chi TuWen-Ting ChuYi-Shing ChangYi-Jiun Lin
    • Kuo-Chi TuWen-Ting ChuYi-Shing ChangYi-Jiun Lin
    • H01L29/788
    • H01L29/66825H01L21/28273H01L29/42324
    • A split gate flash memory cell structure is disclosed for prevention of reverse tunneling. A gate insulator layer is formed over a semiconductor surface and a floating gate is disposed over the gate insulator layer. A floating gate insulator layer is disposed over the floating gate and sidewall insulator spacers are disposed along bottom portions of the floating gate sidewall adjacent to said gate insulator layer. The sidewall insulator spacers are formed from a spacer insulator layer that had been deposited in a manner that constitutes a minimal expenditure of an available thermal budget and etching processes used in fashioning the sidewall insulator spacers etch the spacer insulator layer faster than the gate insulator layer and the floating gate insulator layer. An intergate insulator layer is disposed over exposed portions of the gate insulator layer, the floating gate, the floating gate insulator layer and the sidewall insulator spacers. A conductive control gate is disposed over the intergate insulator layer, covering about half of the floating gate.
    • 公开了一种用于防止反向隧道的分裂门闪存单元结构。 在半导体表面上形成栅极绝缘体层,并且在栅极绝缘体层上方设置浮置栅极。 浮置栅极绝缘体层设置在浮置栅极之上,并且侧壁绝缘体间隔物沿邻近所述栅极绝缘体层的浮动栅极侧壁的底部设置。 侧壁绝缘体间隔物由间隔绝缘体层形成,该间隔绝缘体层以构成可用热预算的最小消耗量的方式沉积,并且蚀刻工艺用于形成侧壁绝缘体间隔层比栅极绝缘体层更快蚀刻间隔绝缘体层, 浮栅绝缘体层。 栅极绝缘体层设置在栅极绝缘体层,浮置栅极,浮置栅极绝缘体层和侧壁绝缘体间隔物的暴露部分之上。 导电控制栅极设置在栅极绝缘体层之上,覆盖浮动栅极的大约一半。
    • 8. 发明授权
    • Method and system for forming source regions in memory devices
    • 用于在存储器件中形成源区的方法和系统
    • US07227218B2
    • 2007-06-05
    • US11094035
    • 2005-03-30
    • Yi-Shing ChangWen-Ting Chu
    • Yi-Shing ChangWen-Ting Chu
    • H01L29/788
    • H01L27/11521H01L27/115
    • A memory device and the method for manufacturing same is disclosed. The device comprises a first oxide layer on top of a substrate, a floating gate layer on top of the first oxide layer, a second oxide layer over the floating gate layer, wherein the second oxide layer and the floating gate layer have a first opening and a second opening respectively, and wherein the width of second opening is bigger than the width of the narrowest region of the first opening so that the floating gate layer is pulled back horizontally underneath the second oxide layer. A source region is in the substrate underneath the first oxide layer, and a third oxide layer fills in the first and second openings conforming to the contour thereof, wherein the third oxide has a third opening to reach a portion of the source region. Further, a control gate material fills in the third opening.
    • 公开了一种存储器件及其制造方法。 该器件包括在衬底的顶部上的第一氧化物层,在第一氧化物层的顶部上的浮动栅极层,浮置栅极层上的第二氧化物层,其中第二氧化物层和浮动栅极层具有第一开口和 第二开口,其中第二开口的宽度大于第一开口的最窄区域的宽度,使得浮栅层在第二氧化物层下方被水平地拉回。 源区域位于第一氧化物层下方的衬底中,并且第三氧化物层填充符合其轮廓的第一和第二开口,其中第三氧化物具有到达源极区域的一部分的第三开口。 此外,控制门材料填充在第三开口中。