Q1) If R0 and R1 are both 16-bit serial shift registers, each with a single serial input (S_IN) and a single serial output (S_OUT), clock and reset. Design using R0 and R1 additional logic, a circuit that would store the output S_OUT of either R0 or R1 into a D-FF based on input CH. If CH is 0, S OUT of R0 will be stored in the D-FF (at the edge of the clock) and if CH is 1, S_OUT of RI will be stored in the D-FF (at the edge of the clock). Show all connections.
Q2) Draw a 2-Bit ripple counter using T-FFs. Label the FF outputs C1C0, where C1 is the most significant bit. Make sure you appropriately and clearly label all inputs/outputs, CLK, reset, etc.
Q3) Design a 2-bit synchronous binary counter that counts-down when the input D=1 and counts up when D=0 (no need to draw the circuit, only derive the flip-flop equations).
please solve the question completely and show the steps ... thumb up will be given
Q1) If R0 and R1 are both 16-bit serial shift registers, each with a single serial input (S_IN) and a single serial output (S_OUT), clock and reset. Design using R0 and R1 additional logic, a circuit...
please solve the question completely and show the steps ... thumb up will be given (5 points each) [CO: 6] a. If RO and R1 are both 16-bit serial shift registers, each with a single serial input (S_IN) and a single serial output (S_OUT), clock and reset. Design using RO and Rl additional logic, a circuit that would store the output S_OUT of either RO or Rl into a D-FF based on input CH. If CH is 0, S OUT...
all witworDFFs, FFI and FFo, two 4xI multiplexers, four 2-bit registers (Ro, RI, R2, and R3; all I with p arallel outputs) and no additional logic gates, design a circuit to support the following operations based on 2-bit inputs M1 and MO M1 MO values Operation (at the rising edge of the clock) RO FF1 FFO (bits of RO stored in FF1&FFO IFF1 FFO (bits of R1 stored in FF1&FFO R2 FF1 FFO (bits of R2 stored in FFI &FFO...
Use a behavioral Verilog model to design a 3-bit fault tolerant up-down counter. For each flip-flop (FF) include asynchronous reset and preset signals. Refer to Example 4.3 on page 160 for an example of a single FF with both reset and preset signals as well as with an enable signal. For this project, you don't need to use FFs with enables. You don't also need not-q (nq) in this assignment. Use active-high signals for reset and present signals. The example...
1. Design a combinational circuit that coverts a 4-bit Gray code to a 4-bit Excess-3 code. Provide detailed solution and explanation 2. Design a double edge-triggered D flip-flop using multiplexers only. The output of the flip-flop Q should "sample" the value of the input D on both rising (+ve) and falling -ve) edges of the clock CLK. Provide detailed solution and explanation 3. Design an FSM counter that counts the sequence: 00, 11, 01, 10, 00, 11, Provide detailed solution...
We want to design a circuit that takes as input a serial bit stream and outputs a 'l' whenever the sequence “111” occurs. Overlaps must also be considered. For instance, if... occurs, then the output should remain active for three consecutive clock cycles. 3.1) Draw the state diagram of the finite state machine. 3.2) Write the System Verilog model for the design.
a) (5 marks) Explain the difference between a latch, a gated latch and a flip flop. b) (5 marks) A gated SR latch has the following schematic diagram CLK a) Draw a timing diagram showing the Q and Q outputs for the following sequence of inputs: CLK R Assume that the initial state of the outputs is Q 0 and Q 1 c) (5 marks) Draw a schematic diagram for a rising edge-triggered master-slave D flip- flop built using two...
I need help putting this serial adder block diagram into multisim software I ELE230L Digital Systems Design Laboratory Lab9 - Serial Adder Vaughn College of Aeronautics and Technology Number of Lab Session (Week): 2 1 Discussion The purpose of this lab is to design, simulate, and implement a 4-bit serial adder SADD. A block diagram is shown below. The SADD has two int bit FA with a carry-hold flip-flop. Its input is a 4-bit data input (D-Do), a rising edge...
17. The 74195 in Figure 17 is a synchronous load, 4-bit parallel-access shift register. For this exercise, the input data is loaded at the first active clock edge. (12 pts) 74195 DSTM2 SH/LD 2 15 QC DSTMI 10 CLK CLR Figure 17 Use the circuit of Figure 17 to answer the following questions: a. Is this a ring counter or a Johnson counter? (2 pts) b. How many different states are available? (2 pts) Draw the timing diagram (four clock...
Question 2 [15 Ptsl Flip-flops: Using D flip-flop, design a one input, one output serial 2's complimenter. The circuit accepts a string of bits from the input and generates the 2's compliment at the output. The circuit can be reset asynchronously to start and end the operation. Draw your circuit.
17. The 74195 in Figure 17 is a synchronous load, 4-bit parallel-access shift register. For this exercise, the input data is loaded at the first active clock edge. (12 pts) 74195 DSTM2 SH/LD QB 13 QC QD DSTMI 10t CLK ㅡㅡㅡ CLR Figure 17 Use the circuit of Figure 17 to answer the following questions: a. Is this a ring counter or a Johnson counter? (2 pts) b. How many different states are available? (2 pts) Draw the timing diagram...