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  • Describe the detailed analysis of MOS tube high-frequency gain and stability function analysis

    Describe the detailed analysis of the high-frequency gain and stability function of the MOS tube. Here, the function derived from the four-terminal parameter as the standard for high-frequency amplifi

    2021.4.6

    Describe the detailed analysis of MOS tube high-frequency gain and stability function analysis

    Describe the detailed analysis of the high-frequency gain and stability function of the MOS tube. Here, the function derived from the four-terminal parameter as the standard for high-frequency amplifi

    2021.4.6

  • There are two analysis methods for estimating the high frequency parameters of MOS field effect transistors

    The measurement of the estimated MO(y) parameter is used as a circuit design method, and the method of y parameter is generally adopted. In particular, due to the high input impedance of the field eff

    2021.4.6

    There are two analysis methods for estimating the high frequency parameters of MOS field effect transistors

    The measurement of the estimated MO(y) parameter is used as a circuit design method, and the method of y parameter is generally adopted. In particular, due to the high input impedance of the field eff

    2021.4.6

  • Analysis of the working principle of the high frequency characteristics of MOS field effect transistors​

    The high frequency characteristics of MOS tube structure are improving year by year, and its practical frequency has been extended to very high frequency and even ultra-high frequency. Generally speak

    2021.4.1

    Analysis of the working principle of the high frequency characteristics of MOS field effect transistors​

    The high frequency characteristics of MOS tube structure are improving year by year, and its practical frequency has been extended to very high frequency and even ultra-high frequency. Generally speak

    2021.4.1

  • Numerical solution and detailed analysis of charge transport phenomenon

    Charge transfer, charge transfer phenomenon analysis, consider the minority carriers accumulated under the substrate-holes under MOS diode I, add a pulse for charge transfer to the adjacent MOS diode

    2021.3.31

    Numerical solution and detailed analysis of charge transport phenomenon

    Charge transfer, charge transfer phenomenon analysis, consider the minority carriers accumulated under the substrate-holes under MOS diode I, add a pulse for charge transfer to the adjacent MOS diode

    2021.3.31

  • A brief description of the charge-coupled device overview process and working principle

    Charge-coupled devices now have two MOS diodes next to each other as shown in Figure 1.21. Assume that holes injected in a certain method are accumulated under the electrode 1 to form an inversion lay

    2021.3.31

    A brief description of the charge-coupled device overview process and working principle

    Charge-coupled devices now have two MOS diodes next to each other as shown in Figure 1.21. Assume that holes injected in a certain method are accumulated under the electrode 1 to form an inversion lay

    2021.3.31

  • Detailed analysis of MOS diode's transient response state voltage analysis

    The MOS diode, assuming a MOS diode, is composed of evaporating aluminum and other metals on a silicon dioxide film grown on N-type silicon, as shown in Figure 1.19. For the sake of simplicity, only t

    2021.3.31

    Detailed analysis of MOS diode's transient response state voltage analysis

    The MOS diode, assuming a MOS diode, is composed of evaporating aluminum and other metals on a silicon dioxide film grown on N-type silicon, as shown in Figure 1.19. For the sake of simplicity, only t

    2021.3.31

  • Detailed analysis of noise generation mechanism and 1/f noise in MOS field effect transistors

    The noise in MOS field effect transistors includes thermal noise and flicker noise. Thermal noise is inevitable in nature. Flicker noise can be eliminated in principle. However, in actual devices, fli

    2021.3.30

    Detailed analysis of noise generation mechanism and 1/f noise in MOS field effect transistors

    The noise in MOS field effect transistors includes thermal noise and flicker noise. Thermal noise is inevitable in nature. Flicker noise can be eliminated in principle. However, in actual devices, fli

    2021.3.30

  • Analysis of the Influence of Interface Capture Center on the Static Characteristics of MOS Field Effect Transistor

    The influence of the static characteristics of MOS field effect transistors, the analysis of the influence of the interface trapping center on the static characteristics of MOS field effect transistor

    2021.3.30

    Analysis of the Influence of Interface Capture Center on the Static Characteristics of MOS Field Effect Transistor

    The influence of the static characteristics of MOS field effect transistors, the analysis of the influence of the interface trapping center on the static characteristics of MOS field effect transistor

    2021.3.30

  • Analysis of characteristics near threshold voltage of MOS tube circuit

    Analysis of the characteristics near the threshold voltage of the MOS transistor circuit. The characteristics near the threshold at which the channel current changes from the pinch-off state to the on

    2021.3.29

    Analysis of characteristics near threshold voltage of MOS tube circuit

    Analysis of the characteristics near the threshold voltage of the MOS transistor circuit. The characteristics near the threshold at which the channel current changes from the pinch-off state to the on

    2021.3.29

  • The Relationship between Carrier Mobility and Drain Voltage at the Interface of MOS Field Effect Transistor

    The relationship between the carrier mobility and the drain voltage at the interface of the MOS field effect transistor. Under a low electric field, the drift velocity of electrons υd is proportional

    2021.3.29

    The Relationship between Carrier Mobility and Drain Voltage at the Interface of MOS Field Effect Transistor

    The relationship between the carrier mobility and the drain voltage at the interface of the MOS field effect transistor. Under a low electric field, the drift velocity of electrons υd is proportional

    2021.3.29

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