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Design a linear saturated load inverter shown in the below figure with VDD = 3.3 V, VL = 0.2 V, and P = 100 μW. Assume VTO = 0.6 V, γ = 0.6 V, and 2ϕF = 0.6 V.

Design a linear saturated load inverter shown in the below figure with VDD = 3.3 V, VL = 0.2 V, and P = 100 μW. Assume VTO = 0.6 V, γ = 0.6 V, and 2ϕF = 0.6 V.

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Design a linear saturated load inverter shown in the below figure with V D D = 3.3 V , V L = 0.2 V , and P = 100 μ W . Assume V T O = 0.6 V , γ = 0.6 V , and 2 ϕ F = 0.6 V .

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The technological parameters are μnCox = 4μpCox = 40 μA/V2, ∣γ∣ = 0.5 V1/2, 2ϕf = 0.5 V, λ = 0.02 V−1, Vtno = 0.6 V, and Vtpo = −0.8 V. Considering the CMOS inverter shown in the figure below, (W/L)n = 1/4, (W/L)p = 1, and VDD = 3.3 V. Find (1) expression of Δt = t2−t1, using the integral method, (2) if C = 40 fF, the value of Δt = t2−t1, using the average current method, and (3) based on the result obtained in (2), determine the duration of T and the switching power dissipated in the inverter.

The technological parameters are μnCox = 4μpCox = 40 μA/V2, ∣γ∣ = 0.5 V1/2, 2ϕf = 0.5 V, λ = 0.02 V−1, Vtno = 0.6 V, and Vtpo = −0.8 V. Considering the CMOS inverter shown in the figure below, (W/L)n = 1/4, (W/L)p = 1, and VDD = 3.3 V. Find (1) expression of Δt = t2−t1, using the integral method, (2) if C = 40 fF, the value of Δt = t2−t1, using the average current method, and (3) based on the result obtained in (2), determine the duration of T and the switching power dissipated in the inverter.
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