For Part B, implement a simplification of the following expression using the rules explained in class (using gates, not transistors): out_0 = (in_0)(in_1)(in_2) + (in_0) (in_1)(in_2) + (in_0)(in_1)(in_2) + (in_0) (in_1)(in_2) +(in_0) (in_1)(in_2) out_e = (in_e) (in_1)(in_2) + (in_e) (in_1) (in_2)' + (in_e)"(in_1) (in_2) + (in_e) %3D (in_1)' (in_2) +(in_8) (in_1)(in_2)

3. Below is the characteristic table for a "GP" flip-flop (it doesn't really exist; I just made it up). Q+ 1 G 0 0 1 1 a. P 0 1 0 Q Q 0 Give the excitation table for this flip-flop. b. Suppose we wanted to implement the serial adder we developed in class using a GP flip-flop, give the equations necessary for the G and P inputs.

If a transistor on an integrated circuit chip has a size of 2 microns or less, then the following is true: Using Moore's Law as a guideline, how much larger would the transistor become in two years? What is the importance of Moore's Law in the context of computer programming?

Goal AIM/OBJECTIVE (similar to the manual): This is an exercise in designing combinational circuits that can perform 4bit Full Adder and Half Adder. Write a Verilog Behaviour model program for 4bit Full Adder and Half Adder with truth table and circuit diagram.

Simplify the following expression and implement it using NOR gate. F(A,B,C,D)=Em(1,2,4,11,13,14,15)+Ed(0,5,7,8,10)

Need help with this. Please.

FACTS: In Module 3, you have learned about Op-Amps like Inverting and Non-Inverting Amplifier and many more, one of the topics in Module 3 is the Integrator and Differentiator. An operational amplifier (op-amp) integrator is an operational amplifier circuit that performs the mathematical operation of integration with respect to time-this means the output voltage is proportional to the input voltage integrated over time. A differentiator is an op amp-based circuit, whose output signal is proportional to the differentiation of the input signal. An op-amp differentiator is basically an inverting amplifier with a capacitor of suitable value at its input terminal. The electric potential of inverting terminal is also zero, as the opamp is ideal. QUESTION: Answer the ff. 1. What are the problems in an ordinary op-amp integrator? 2. Why op-amp integrator output is linear? 3. What are the problems in an ordinary op-amp differentiator? 4. What are the advantages of integrator and differentiator…

A circuit is constructed with four resistors, one inductor, one battery and a switch as shown. The values for the resistors are: R1 = R2 = 72 Q, R3 = 61 Q and R4 = 99 Q. The inductance is L = %3D V L 549 mH and the battery voltage is V = 24 V. R3 1) The switch has been open for a long time when at time t = 0, the switch is closed. What is l1(0), the magnitude of the current through the resistor R1 just after the switch is closed? A Submit 2) What is 1(o0), the magnitude of the current that flows through the resistor R1 a very long time after the switch has been closed? A Submit 3) What is VL(0), the magnitude of the voltage across the inductor just after the switch is closed? V Submit 4) What is IL(0), the magnitude of the current through the inductor after the switch has been closed for a very long time? A Submit 5) What is I2(0), the magnitude of the current through the resistor R2 just after the switch is closed? A Submit

Propositional logic is used in the creation of conditional logic for software programs in cases where the Boolean test is required. For example, ladder logic used by PLC (programmable logic controller) programmers control the response to a circuit being in an open or closed state, based on specific conditions stated in the logic. PLCs are used in numerous environments, such as manufacturing product lines, elevators, and many industrial applications. What other computer-science or IT jobs rely on propositional logic?

Based on the following image answer the following questions; a. Write the unsimplified sum-of-products boolean algebra expression for Q: Q= b. Write a simplified version of the expression above using only 4 operations (one of which is NOT): Q= c. Draw a circuit that produces Q: