Delay measurement of experimental 2.5-μm Josephson current injection logic (CIL)
T. Gheewala
Abstract
T. Gheewala
Abstract
Switching speeds of experimental Josephson interferometer circuits are measured on chains of current injection logic (CIL) gates fabricated using 2.5-μm minimum features. Logic delay of 32 ps per gate is measured for a four-input OR gate with a fan-out of 2. The average power dissipation of the four-input OR gate is 4 μW and the corresponding power-delay product is 1.28×10−16 J. For four-input AND gates the measured logic delay is 60 ps, the power dissipation is 6 μW, and the power-delay product is 3.6×10−16 J. The results are found to be in excellent agreement with estimates based on computer simulations.
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Switching speeds of experimental Josephson interferometer circuits are measured on chains of current injection logic (CIL) gates fabricated using 2.5-μm minimum features. Logic delay of 32 ps per gate is measured for a four-input OR gate with a fan-out of 2. The average power dissipation of the four-input OR gate is 4 μW and the corresponding power-delay product is 1.28×10−16 J. For four-input AND gates the measured logic delay is 60 ps, the power dissipation is 6 μW, and the power-delay product is 3.6×10−16 J. The results are found to be in excellent agreement with estimates based on computer simulations.
Key concepts: Logic gate, Dissipation, Power–delay product, Delay calculation, Electronic circuit, Physics, Propagation delay, Power (physics)