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    • 1. 发明授权
    • Staggered source/drain and thin-channel TFT structure and fabrication method thereof
    • 交错源极/漏极和薄沟道TFT结构及其制造方法
    • US07678623B2
    • 2010-03-16
    • US11410168
    • 2006-04-24
    • Kow-Ming ChangGin-Min Lin
    • Kow-Ming ChangGin-Min Lin
    • H01L21/00
    • H01L29/78696H01L29/42384H01L29/66757H01L29/78609H01L29/78618
    • This invention relates to a process for fabricating a staggered source/drain and thin-channel TFT structure, which simplifies the conventional process for fabricating the structure by decreasing the number of mask steps and achieving better results at suppressing the electric field near the drain junction and reducing the leakage current. The process comprises (1) re-crystallizing a-Si into poly-Si (02), which is performed by depositing an a-Si layer on a substrate and then applying a general photolithographic step and a RIE etching step for defining the amorphous Si islands provided with higher regions and lower regions, wherein the residual width of the thin channel of the a-Si is about 5 to 200 nm after etching; then the a-Si is changed into poly-Si (02) after a subsequent annealing; (2) defining the gate region (05), source/drain region (07) and the channel; (3) applying the implantation; and (4) applying the connection.
    • 本发明涉及一种用于制造交错的源极/漏极和薄沟道TFT结构的方法,其通过减少掩模步骤的数量并且在抑制漏极结附近的电场方面获得更好的结果来简化制造结构的常规工艺,以及 减少漏电流。 该方法包括(1)将a-Si重结晶成多晶硅(O 2),其通过在衬底上沉积a-Si层然后施加一般的光刻步骤和RIE蚀刻步骤来定义非晶Si 设置有较高区域和较低区域的岛,其中a-Si的薄沟道的残留宽度在蚀刻后为约5至200nm; 然后在随后的退火之后将a-Si变成多晶硅(O 2); (2)限定栅极区(05),源极/漏极区(07)和沟道; (3)应用植入; 和(4)应用连接。
    • 2. 发明授权
    • Semiconductor structure with a dielectric layer and its producing method
    • 具有介电层的半导体结构及其制造方法
    • US06284621B1
    • 2001-09-04
    • US09239000
    • 1999-01-27
    • Kow-Ming ChangJi-Yi Yang
    • Kow-Ming ChangJi-Yi Yang
    • H01L21764
    • H01L21/7682
    • A semiconductor structure with a dielectric layer and its producing method are disclosed. The semiconductor structure includes a semiconductor substrate having thereon a plurality of metal lines and there are a plurality of concave regions formed between the metal lines. The dielectric layer is formed on the semiconductor by a method which can prevent the dielectric material from flowing into the concave regions. The method includes the steps of (a) providing a semiconductor substrate having thereon a plurality of metal lines forming therebetween a plurality of concave regions; and (b) forming the dielectric layer on the metal lines. The concave regions are only filled with air so that the capacitance of the semiconductor is lowered.
    • 公开了具有介电层的半导体结构及其制造方法。 半导体结构包括其上具有多个金属线的半导体衬底,并且在金属线之间形成有多个凹区。 通过可以防止电介质材料流入凹入区域的方法在半导体上形成电介质层。 该方法包括以下步骤:(a)提供其上形成有多个金属线之间的多个凹陷区域的半导体衬底; 和(b)在金属线上形成电介质层。 凹区仅填充有空气,使得半导体的电容降低。
    • 4. 发明授权
    • Production of a refractory metal by chemical vapor deposition of a bilayer-stacked tungsten metal
    • 通过双层堆叠的钨金属的化学气相沉积生产难熔金属
    • US06194295B1
    • 2001-02-27
    • US09312483
    • 1999-05-17
    • Kow-Ming ChangI-Chung DengTa-Hsun Yeh
    • Kow-Ming ChangI-Chung DengTa-Hsun Yeh
    • H01L213205
    • H01L21/28568C23C16/14C23C16/56H01L21/28044H01L21/76843H01L21/76856
    • Provided a process for producing a refractory metal by chemical vapor deposition of a bilayer-stacked tungsten metal by depositing a bilayer-stacked tungsten metal in a same chamber in the manner of not breaking the vacuum therein. Firstly, a layer of amorphous-like tungsten is deposited to increase thermal stability and to prevent diffusion of fluorine atom. Next, a nitridizing treatment is performed thereon to promote further the barrier property and thermal stability of the amorphous-like tungsten. Finally, conventional selective chemical vapor deposited tungsten having low is deposited on the amorphous-like tungsten. Through the deposition of bilayer tungsten according to the process of the invention, thermal stability of conventional selective chemical vapor deposited tungsten can be increased greatly. For the manufacture of a extremely large integrated circuit, stacked tungsten not only can prevent fluorine atom from diffusing downwardly in the course of deposition, but also can increase thermal stability, and furthermore, the resistance thereof is much lower that that of tungsten disilicide. Accordingly, the process of the invention is indeed a technique having high potential.
    • 提供一种通过双层堆叠的钨金属的化学气相沉积制造难熔金属的方法,方法是以不破坏真空的方式在相同的室中沉积双层堆叠的钨金属。 首先,沉积一层非晶态钨以提高热稳定性并防止氟原子的扩散。 接着,进行氮化处理,进一步促进非晶态钨的阻隔性和热稳定性。 最后,传统的选择性化学气相沉积的钨沉积在非晶态钨上。 通过根据本发明的方法沉积双层钨,可以大大提高常规选择性化学气相沉积钨的热稳定性。 为了制造极大的集成电路,堆积的钨不仅可以防止氟原子在沉积过程中向下扩散,而且还可以增加热稳定性,此外,其电阻远低于二硅化钨的电阻。 因此,本发明的方法确实是具有高潜力的技术。
    • 6. 发明授权
    • Structure and method for manufacturing devices having inverse T-shaped
well regions
    • 用于制造具有反T形阱区的器件的结构和方法
    • US6046475A
    • 2000-04-04
    • US864988
    • 1997-05-29
    • Kow-Ming ChangJi-yi YangMing-Ray Mao
    • Kow-Ming ChangJi-yi YangMing-Ray Mao
    • H01L29/10H01L31/119
    • H01L29/1079
    • A structure for manufacturing devices having inverse T-shaped well regions, which are formed on a substrate, comprises a first doped region and second doped region which have higher impurity concentrations and two third doped regions which have a lower impurity concentration. The first doped region formed on the substrate by a high-energy ion-implantation process is kept at a predetermined distance from the surface of the substrate. The second doped region extends from the surface of the substrate toward the downside to connect to the first doped region, such that two third doped regions are formed. The second doped region is formed by an ion-implantation process through an opening of a mask. Furthermore, a gate is formed above the second doped region, and source and drain regions are formed on the substrate. Therefore, a device having an inverse T-shaped well region is completely fabricated.
    • 用于制造具有反T形阱区的器件的结构,其形成在衬底上,包括具有较高杂质浓度的第一掺杂区和第二掺杂区和具有较低杂质浓度的两个第三掺杂区。 通过高能离子注入工艺在衬底上形成的第一掺杂区域保持在离衬底表面预定距离处。 第二掺杂区域从衬底的表面向下延伸以连接到第一掺杂区域,使得形成两个第二掺杂区域。 第二掺杂区域通过离子注入工艺通过掩模的开口形成。 此外,在第二掺杂区域上方形成栅极,并且在衬底上形成源极和漏极区域。 因此,具有逆T形阱区域的器件被完全制造。
    • 10. 发明申请
    • Staggered source/drain and thin-channel TFT structure and fabrication method thereof
    • 交错源极/漏极和薄沟道TFT结构及其制造方法
    • US20070161161A1
    • 2007-07-12
    • US11410168
    • 2006-04-24
    • Kow-Ming ChangGin-Min Lin
    • Kow-Ming ChangGin-Min Lin
    • H01L21/84H01L21/00
    • H01L29/78696H01L29/42384H01L29/66757H01L29/78609H01L29/78618
    • This invention relates to a process for fabricating a staggered source/drain and thin-channel TFT structure, which simplifies the conventional process for fabricating the structure by decreasing the number of mask steps and achieving better results at suppressing the electric field near the drain junction and reducing the leakage current. The process comprises (1) re-crystallizing a-Si into poly-Si (02), which is performed by depositing an a-Si layer on a substrate and then applying a general photolithographic step and a RIE etching step for defining the amorphous Si islands provided with higher regions and lower regions, wherein the residual width of the thin channel of the a-Si is about 5 to 200 nm after etching; then the a-Si is changed into poly-Si (02) after a subsequent annealing; (2) defining the gate region (05), source/drain region (07) and the channel; (3) applying the implantation; and (4) applying the connection.
    • 本发明涉及一种用于制造交错的源极/漏极和薄沟道TFT结构的方法,其通过减少掩模步骤的数量并且在抑制漏极结附近的电场方面获得更好的结果来简化制造结构的常规工艺,以及 减少漏电流。 该方法包括(1)将a-Si重结晶成多晶硅(O 2),其通过在衬底上沉积a-Si层然后施加一般的光刻步骤和RIE蚀刻步骤来定义非晶Si 设置有较高区域和较低区域的岛,其中a-Si的薄沟道的残留宽度在蚀刻后为约5至200nm; 然后在随后的退火之后将a-Si变成多晶硅(O 2); (2)限定栅极区(05),源极/漏极区(07)和沟道; (3)应用植入; 和(4)应用连接。