For the given State table, Draw the State Diagram:
Given State Table:
State Diagram:
Timing trace for given input value:
Timing Trace for given input is as shown above. Here, on input value of x and given current state, next state and output z is determined.
Trying to continue the Timing trace:
1) For the following state table, show a state diagram and complete the timing trace as far as po...
Show state diagram & Complete the timing trace q* z q x =0 x =1 x=0 x=1 A B C 0 1 B C A 0 0 C A B 1 0 x 0 0 1 1 1 0 0 0 0 0 1 0 q A z
Show the state transition diagram for a Moore system that produces a 1 output if and only if the input has been 0 1 1 for the last three clock times. A total of 4 states exist, and a sample timing trace is provided. Extra Credit Problem 9 (5 pts): Show the state transition diagram for a Moore system that produces a 1 output if and only if the input has been 0 1 1 for the last three clock...
1. (a) Draw a state diagram and state table and show what if anything is wrong with the following synchronous state machine that has asynchronous input \(\mathrm{X}\) and state variables \(\mathrm{A} \& \mathrm{~B}\) ?(b) If possible, draw a new circuit (without adding or removing any flip-flops) that has the same functionality but fixes any problem with the circuit. Also, show the new state diagram and state table.
2. For the following digital design, (15%) Construct a state table, including output z Minty ritea Booleanexpress ons needed first. (10%) Complete the timing diagram for z. Assume flip-flop output is 0 initially. a. b. MUX 4i Clock Clock 2. For the following digital design, (15%) Construct a state table, including output z Minty ritea Booleanexpress ons needed first. (10%) Complete the timing diagram for z. Assume flip-flop output is 0 initially. a. b. MUX 4i Clock Clock
please show your work. Fill in the state table for the following state diagram. Clearly label each column with its usage (Present. Input, Output, Next). Use only as many rows as needed. 1 00 0 0 ( 11 QB 10 QA QB
Problem 3. (25 pts) The timing diagram for three state cases represents the high impedance state with a line between the low (0) and high (0) states, as ill figure: ustrated in the following 0 Low (0) High Impedance (Z)1 High (1) a. (15 pts) Draw the timing diagrams for the outputs A,B,C,D of the following circuit given the input diagrams in the next page. (NOTE: to help you, dashed lines are shown for the different levels) b. (10 pts)...
Computer Organization and Design, Risc-V Mips Question 9 8 pts Complete the following trace of accesses to virtual addresses. In the case of page faults, continue allocating physical pages in the order Ox10000, 0x10001, Ox10002, etc. Page Physical Virtual Virtual TLB TLB PT Physical address page num hit/miss entry index fault page num address Ох00002040| Ох00002 Ox00011040 hit 2 Ox00011 OX000067CC Ox00006 Ox00080 0X000807CC miss 6 O no Ox00003008 Ox00003 Ох10000 miss 3 Ох10000008 1 yes Ox00005958 OX0000300C Ox00001080 OX00007F68...
(20 points) Using any state encodings you want, generate a state table for the following state diagram. Note that there is one input, X, and there are two outputs, Y and Z. You can come up with whatever names you want for your state variables. And then generate the logic equations for the next state signals (assume D flip-flops for maintaining state) and the output signals, Y and Z 7. A0 A/Y 070 x=1 x=1 x =1 x =0 x...
4. Complete the timing diagram for the following circuits a. Equality Detector a(t) o eqf b(1) a(1:0)D b(1:0) a(0) o eq2 b(0) 320 240 160 Sigral name 2 1 a 2 0 1 0 0 3 1 3 0 2 b req1 req2 eq et b. D-flip flops Dout sig(1:0) out sig(0) U2 U1 D2 out sig(1) 011 out sig(0) clkD r DFF DFF clrD 80 60 40 20 Signal name clk clr D1 D2 out_sig out sig[1] out_siglO] 8-bit...
microprocessors,,pls help.. 1. (3 Points) Draw a timing diagram similar to the 'practical' case of figure 5, below, for the case where signal Ao makes its transition first. Note: For each timing diagram that you draw, be sure that subsequent events appear to the right of causative events, and show causality arrows. 3.1 Glitch pulses Consider the one-bit adder circuit of figure 4. This circuit is called a one-bit (binary) adder because output signal So is the sum of input...