1.
Design a circuit that resets a 7493 counter when it reaches decimal #6 using a multiplexer (mux). Feeding the outputs of the Q pins back into pins 2 & 3 of the 7493 turns out to be too noisy. Instead of a mux, how else could you reset the 7493?
2.
You are converting a stress measurement from one of the piezoelectric transducers in the lab and plan to limit the errors in your measurement to less than one percent. Assuming the lowest voltage is limited to zero volts and the highest will be limited to 5V, how many bits will you need to measure that maximum voltage using an ADC (analogue to digital) within the required error budget? If you want to capture vibrations from a new engine designed to run at 6000 RPMs, how much RAM storage (in bits and Bites) would you need to digitally record a 3-minute run of that engine so that you are sampling at least once per revolution with the accuracy stated previously?
Design a circuit that resets a 7493 counter when it reaches decimal #6 using a multiplexer (mux). Feeding the outputs of the Q pins back into pins 2 & 3 of the 7493 turns out to be too noisy. Instead of a mux, how else could you reset the 7493?
2.
You are converting a stress measurement from one of the piezoelectric transducers in the lab and plan to limit the errors in your measurement to less than one percent. Assuming the lowest voltage is limited to zero volts and the highest will be limited to 5V, how many bits will you need to measure that maximum voltage using an ADC (analogue to digital) within the required error budget? If you want to capture vibrations from a new engine designed to run at 6000 RPMs, how much RAM storage (in bits and Bites) would you need to digitally record a 3-minute run of that engine so that you are sampling at least once per revolution with the accuracy stated previously?
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