In this activity you will revisit the voting booth monitoring system introduced in Activity 2.2.3 NAND Logic Design. Specifically, you will be implementing the NOR only combinational logic circuits for the two outputs Booth and Alarm. In terms of efficiency and gate/IC utilization, these NOR only designs will be compared with the previously designed AOI and NAND implementations. Conclusion
1. For your NOR implementations, how many ICs (i. e., 74LS02 chips) were required to implement your circuits? Again, we are counting ICs, not gates.
2 IC chips-booth
3 IC chips-alarm

Afluid flows with a velocity field given by v=(x/t)i.. determine the local and convective accelerations when x=3 and t=1.

Water in a partially filled large tank is to be supplied to the roof top, which is 8 m above the water level in the tank, through a 2.2-cm-internal-diameter pipe by maintaining a constant air pressure of 300 kpa (gage) in the tank. if the head loss in the piping is 2 m of water, determine the discharge rate of the supply of water to the roof top in liters per second.

Tom is having a problem with his washing machine. he notices that the machine vibrates violently at a frequency of 1500 rpm due to an unknown rotating unbalance. the machine is mounted on 4 springs each having a stiffness of 10 kn/m. tom wishes to add an undamped vibration absorber attached by a spring under the machine the machine working frequency ranges between 800 rpm to 2000 rpm and its total mass while loaded is assumed to be 80 kg a) what should be the mass of the absorber added to the machine so that the natural frequency falls outside the working range? b) after a first trial of an absorber using a mass of 35 kg, the amplitude of the oscillation was found to be 10 cm. what is the value of the rotating unbalance? c) using me-3.5 kg.m, find the optimal absorber (by minimizing its mass). what would be the amplitude of the oscillation of the absorber?