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    • 22. 发明授权
    • Semiconductor integrated device
    • 半导体集成器件
    • US06917081B2
    • 2005-07-12
    • US10422786
    • 2003-04-25
    • Naohiro UedaYoshinori Ueda
    • Naohiro UedaYoshinori Ueda
    • H01L21/8238H01L27/092H01L29/76
    • H01L21/823857H01L21/823892H01L27/0922H01L27/0928
    • A semiconductor device is provided comprising several device components formed in the same substrate, such as a P-substrate having an offset Nch transistor including N-type source and drain each formed in a P-well spatially separated from one another, and the drain surrounded by a low concentration N-type diffusion layer; an offset Pch transistor including P-type source and drain each formed in an N-well spatially separated from one another, and the drain surrounded by a low concentration P-type diffusion layer; a triple well including a deep N-well, and a P-type IP well formed therein; a normal N-well for forming a Pch MOS transistor; and a normal P-well for forming an Nch MOS transistor; in which simultaneously formed are the low concentration N-type diffusion layer, N-well and normal N-well; the P-well and normal P-well; and the low concentration P-type diffusion layer and IP well.
    • 提供了一种半导体器件,其包括形成在同一衬底中的若干器件组件,例如具有偏置N沟道晶体管的P衬底,其中N型晶体管包括N型源极和漏极,其各自形成在彼此空间上分离的P阱中,并且漏极包围 通过低浓度N型扩散层; 偏移Pch晶体管,包括P型源极和漏极,各自形成在空间上彼此分离的N阱中,并且由低浓度P型扩散层包围的漏极; 包括深N阱的三阱和在其中形成的P型IP阱; 用于形成Pch MOS晶体管的正常N阱; 以及用于形成Nch MOS晶体管的正常P阱; 其中同时形成低浓度N型扩散层,N阱和正常N阱; P井和正常P井; 和低浓度P型扩散层和IP井。
    • 28. 发明申请
    • Method of forming semiconductor integrated device
    • 形成半导体集成器件的方法
    • US20050221551A1
    • 2005-10-06
    • US11134386
    • 2005-05-23
    • Naohiro UedaYoshinori Ueda
    • Naohiro UedaYoshinori Ueda
    • H01L21/8238H01L27/092
    • H01L21/823857H01L21/823892H01L27/0922H01L27/0928
    • A semiconductor device is provided comprising several device components formed in the same substrate, such as a P-substrate having an offset Nch transistor including N-type source and drain each formed in a P-well spatially separated from one another, and the drain surrounded by a low concentration N-type diffusion layer; an offset Pch transistor including P-type source and drain each formed in an N-well spatially separated from one another, and the drain surrounded by a low concentration P-type diffusion layer; a triple well including a deep N-well, and a P-type IP well formed therein; a normal N-well for forming a Pch MOS transistor; and a normal P-well for forming an Nch MOS transistor; in which simultaneously formed are the low concentration N-type diffusion layer, N-well and normal N-well; the P-well and normal P-well; and the low concentration P-type diffusion layer and IP well.
    • 提供了一种半导体器件,其包括形成在同一衬底中的若干器件组件,例如具有偏置N沟道晶体管的P衬底,其中N型晶体管包括N型源极和漏极,其各自形成在彼此空间上分离的P阱中,并且漏极包围 通过低浓度N型扩散层; 偏移Pch晶体管,包括P型源极和漏极,各自形成在空间上彼此分离的N阱中,并且由低浓度P型扩散层包围的漏极; 包括深N阱的三阱和在其中形成的P型IP阱; 用于形成Pch MOS晶体管的正常N阱; 以及用于形成Nch MOS晶体管的正常P阱; 其中同时形成低浓度N型扩散层,N阱和正常N阱; P井和正常P井; 和低浓度P型扩散层和IP井。
    • 30. 发明授权
    • Voltage reference generation circuit and power source incorporating such circuit
    • US06552603B2
    • 2003-04-22
    • US09884922
    • 2001-06-21
    • Yoshinori Ueda
    • Yoshinori Ueda
    • G05F324
    • G05F3/24
    • A voltage reference generation circuit is disclosed including a voltage reference generating stage and a voltage reference output stage, in which a depletion-mode MOS transistor and an enhancement-mode MOS transistor are connected in series, and the junction formed between these MOS transistors serves as an output terminal for outputting a voltage to be input to the voltage reference output stage. In the output stage, two enhancement-mode MOS transistors having the same channel dopant profile are connected in series between a power source and the ground, the gate of one MOS transistor is connected to the output terminal of the generating stage, the gate and drain of the other MOS transistor are interconnected, and the junction formed between these MOS transistors serves as an output terminal for a voltage reference. In addition, each of the enhancement-mode MOS transistors is provided with a floating gate having a different threshold voltage depending on, the coupling coefficient between the floating gate and a gate, the amount of charge input to the floating gate, the kind of dielectric material included in the gate, or the thickness of a gate oxide layer, which is suitably utilized to supply reference voltages with improved stability to fluctuations in operating temperatures or processing parameters.