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    • 1. 发明授权
    • Storage electrode including tungsten silicide wall and large grained wall
    • 存储电极包括硅化钨壁和大颗粒壁
    • US06653680B2
    • 2003-11-25
    • US10042213
    • 2002-01-11
    • Cha Deok DongSeung Cheol LeeSang Wook ParkDong Jin Kim
    • Cha Deok DongSeung Cheol LeeSang Wook ParkDong Jin Kim
    • H01L2994
    • H01L28/91H01L21/76895H01L28/84
    • A cylindrical storage electrode in a semiconductor device is manufactured by forming a contact hole in a poly oxide film and by forming a first thin film on the film and in the hole. Next, a core oxide film and an anti-reflective coating film are formed on the first thin film to determine the height of the cylinder. A pattern is then formed by etching the anti-reflective coating film, core oxide film and the first thin film such that the poly oxide film is exposed. A second thin film is formed on the overall resultant structure, and a tungsten silicide layer is formed on the second thin film. Inner and outer walls of the cylinder are then formed by blanket-etching the tungsten silicide film and the second thin film such that the core oxide film is exposed. After the core oxide film is removed, a selective metastable polysilicon (SMPS) process is performed so that different grain growths are generated at the inner and outer walls of the cylinder. A storage electrode is then formed by annealing the cylinder. By depositing an amorphous silicon film on the inner wall of the cylinder-type capacitor and Si-rich tungsten silicide film on the outer wall, the surface area of the inner wall expands through normal SMPS and a rugged tungsten silicide film is formed on the outer wall. Spacing between cells is preserved, while generation of a bridge is prevented.
    • 半导体器件中的圆柱形存储电极通过在多氧化物膜中形成接触孔并在膜上和孔中形成第一薄膜来制造。 接下来,在第一薄膜上形成芯氧化膜和抗反射涂膜,以确定气缸的高度。 然后通过蚀刻抗反射涂膜,芯氧化物膜和第一薄膜使得暴露多晶氧化物膜形成图案。 在总体结构上形成第二薄膜,在第二薄膜上形成硅化钨层。 然后通过对硅化钨膜和第二薄膜进行毯式蚀刻来形成圆筒的内壁和外壁,使得芯氧化膜暴露。 在去除核心氧化物膜之后,进行选择性亚稳态多晶硅(SMPS)工艺,使得在圆筒的内壁和外壁处产生不同的晶粒生长。 然后通过使圆筒退火形成存储电极。 通过在圆筒型电容器的内壁和外壁上的富Si硅化钨膜上沉积非晶硅膜,内壁的表面积通过正常的SMPS膨胀,并且在外部形成坚固的硅化钨膜 壁。 保留了单元间的间隔,同时防止了桥的产生。
    • 2. 发明授权
    • Method of manufacturing storage electrode in semiconductor device
    • 在半导体器件中制造存储电极的方法
    • US06348377B2
    • 2002-02-19
    • US09867602
    • 2001-05-31
    • Cha Deok DongSeung Cheol LeeSang Wook ParkDong Jin Kim
    • Cha Deok DongSeung Cheol LeeSang Wook ParkDong Jin Kim
    • H01L218242
    • H01L28/91H01L21/76895H01L28/84
    • A cylindrical storage electrode in a semiconductor device is manufactured by forming a contact hole in a poly oxide film and by forming a first thin film on the film and in the hole. Next, a core oxide film and an anti-reflective coating film are formed on the first thin film to determine the height of the cylinder. A pattern is then formed by etching the anti-reflective coating film, core oxide film and the first thin film such that the poly oxide film is exposed. A second thin film is formed on the overall resultant structure, and a tungsten silicide layer is formed on the second thin film. Inner and outer walls of the cylinder are then formed by blanket-etching the tungsten silicide film and the second thin film such that the core oxide film is exposed. After the core oxide film is removed, a selective metastable polysilicon (SMPS) process is performed so that different grain growths are generated at the inner and outer walls of the cylinder. A storage electrode is then formed by annealing the cylinder. By depositing an amorphous silicon film on the inner wall of the cylinder-type capacitor and Si-rich tungsten silicide film on the outer wall, the surface area of the inner wall expands through normal SMPS and a rugged tungsten silicide film is formed on the outer wall. Spacing between cells is preserved, while generation of a bridge is prevented.
    • 半导体器件中的圆柱形存储电极通过在多氧化物膜中形成接触孔并在膜上和孔中形成第一薄膜来制造。 接下来,在第一薄膜上形成芯氧化膜和抗反射涂膜,以确定气缸的高度。 然后通过蚀刻抗反射涂膜,芯氧化物膜和第一薄膜使得暴露多晶氧化物膜形成图案。 在总体结构上形成第二薄膜,在第二薄膜上形成硅化钨层。 然后通过对硅化钨膜和第二薄膜进行毯式蚀刻来形成圆筒的内壁和外壁,使得芯氧化膜暴露。 在去除核心氧化物膜之后,进行选择性亚稳态多晶硅(SMPS)工艺,使得在圆筒的内壁和外壁处产生不同的晶粒生长。 然后通过使圆筒退火形成存储电极。 通过在圆筒型电容器的内壁和外壁上的富Si硅化钨膜上沉积非晶硅膜,内壁的表面积通过正常的SMPS膨胀,并且在外部形成坚固的硅化钨膜 壁。 保留了单元间的间隔,同时防止了桥的产生。
    • 6. 发明授权
    • Method of manufacturing semiconductor device
    • 制造半导体器件的方法
    • US06913976B2
    • 2005-07-05
    • US10659814
    • 2003-09-11
    • Seung Cheol LeeSang Wook Park
    • Seung Cheol LeeSang Wook Park
    • H01L21/8247H01L21/28H01L27/115H01L29/788H01L29/792H10L21/336
    • H01L29/7881H01L21/28247H01L21/28273
    • Disclosed is a method of manufacturing the semiconductor devices. The method comprising the steps of forming a gate electrode on a semiconductor substrate, depositing an oxide film for a spacer on the gate electrode, implementing an anisotropic dry etch process for the oxide film for the spacer to form spacers at the sidewalls of the gate electrode, and implementing a rapid thermal annealing process for the spacers under an oxygen atmosphere in order to segregate hydrogen contained within the spacers toward the surface. Therefore, hydrogen contained within the spacer oxide film is not diffused into the tunnel oxide film and the film quality of the tunnel oxide film is thus improved. As a result, program or erase operation characteristics of the flash memory device and a retention characteristic of the flash memory device could be improved.
    • 公开了半导体器件的制造方法。 该方法包括以下步骤:在半导体衬底上形成栅电极,在栅电极上沉积用于间隔物的氧化物膜,实现用于间隔物的氧化膜的各向异性干蚀刻工艺,以在栅电极的侧壁处形成间隔物 并且在氧气氛下实施用于间隔物的快速热退火工艺,以便将包含在间隔物内的氢气朝向表面分离。 因此,间隔氧化膜中所含的氢不会扩散到隧道氧化膜中,因此隧道氧化膜的膜质量得到改善。 结果,可以提高闪速存储器件的编程或擦除操作特性以及闪速存储器件的保持特性。
    • 8. 发明授权
    • Method for manufacturing semiconductor device
    • 制造半导体器件的方法
    • US07067389B2
    • 2006-06-27
    • US10887258
    • 2004-07-08
    • Seung Cheol LeeSang Wook Park
    • Seung Cheol LeeSang Wook Park
    • H01L21/76
    • H01L27/11543H01L21/823462H01L27/105H01L27/11526
    • The present invention discloses a method for forming an element isolation film of a semiconductor device, comprising the steps of: sequentially forming a pad oxide film, a pad nitride film and a mask oxide film on a semiconductor substrate on which a first region for forming a high voltage device and a second region for forming a low voltage device or a flash memory cell are defined; etching the mask oxide film, the pad nitride film and the pad oxide film in the first region and the mask oxide film in the second region, and forming an oxide film for the high voltage device in the first region; removing the residual pad nitride film in the second region; removing the nitride film and partially removing the oxide film for the high voltage device in the first region, wherein the oxide film for the high voltage device has a third thickness; removing the residual pad oxide film in the second region; partially removing the oxide film for the high voltage device in the first region according to a cleaning process, wherein the oxide film for the high voltage device has a third thickness; and forming a tunnel oxide film over the resulting structure, wherein a gate oxide film for a high voltage device including the oxide film for the high voltage device and the tunnel oxide film is formed in the first region, and the tunnel oxide film for the low voltage device and cell is formed in the second region.
    • 本发明公开了一种形成半导体器件的元件隔离膜的方法,包括以下步骤:在半导体衬底上依次形成衬垫氧化膜,衬垫氮化物膜和掩模氧化物膜,在半导体衬底上形成第一区域 定义高压装置和用于形成低电压装置或闪存单元的第二区域; 在所述第一区域中蚀刻所述掩模氧化膜,所述衬垫氮化物膜和所述衬垫氧化物膜,并且在所述第二区域中蚀刻所述掩模氧化物膜,并且在所述第一区域中形成用于所述高电压器件的氧化物膜; 去除所述第二区域中的所述残留的衬垫氮化物膜; 去除所述氮化物膜并部分地去除所述第一区域中的所述高电压器件的氧化物膜,其中所述高压器件的氧化物膜具有第三厚度; 去除所述第二区域中的残余衬垫氧化物膜; 根据清洁过程,部分去除第一区域中的高电压器件的氧化膜,其中用于高压器件的氧化物膜具有第三厚度; 并在所得到的结构上形成隧道氧化膜,其中在第一区域中形成用于包括用于高压器件的氧化物膜和隧道氧化物膜的高电压器件的栅极氧化膜,并且用于低电压的隧道氧化物膜 电压装置和电池形成在第二区域中。