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For the depletion load inverter shown in Figure below, assume parameters of VDD = 3 V, VTND = 1 V, VTNL = −0.8 V, KD = 500 μA/V2, and KL = 200 μA/V2. (a) Draw the Inverter Transfer Function and indicate its VOH, VOL and VIt (b) Determine the maximum current and maximum power dissipation in the circuit. (c) An Integrated Circuit (IC) composed of 1000 of such an inverter, determine the total static power consumed by this IC.

For the depletion load inverter shown in Figure below, assume parameters of VDD = 3 V, VTND = 1 V, VTNL = −0.8 V, KD = 500 μA/V2, and KL = 200 μA/V2. (a) Draw the Inverter Transfer Function and indicate its VOH, VOL and VIt (b) Determine the maximum current and maximum power dissipation in the circuit. (c) An Integrated Circuit (IC) composed of 1000 of such an inverter, determine the total static power consumed by this IC.

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For the depletion load inverter shown in Figure below, assume parameters of V D D = 3 V , V T N D = 1 V , V T N L = − 0.8 V , K D = 500 μ A / V 2 , and K L = 200 μ A / V 2 . (a) Draw the Inverter Transfer Function and indicate its V O H , V OL and V It (b) Determine the maximum current and maximum power dissipation in the circuit. (c) An Integrated Circuit (IC) composed of 1000 of such an inverter, determine the total static power consumed by this IC.

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