Using a D flip-flop with asynchronous clear as an available logic block, show a logic diagram for a T flip-flop. The interface for your circuit should include inputs t, clock, and clear, and output q. Explain all intermediate steps.

A T flip-flop is a 1-bit synchronous storage component alternative to the D flip-flop, with a slightly different interface. Besides the clock signal and an optional clear signal, the T flip-flop has one input to synchronously control the state of the flip-flop, as follows: When T is 0, the flip-flop does not change its state. When T is 1, the flip-flop inverts its current value (0 becomes 1, and 1 becomes 0) Answer the following questions: (2 pt.) Using a D flip-flop with asynchronous clear as an available logic block, show a logic diagram for a T flip-flop. The interface for your circuit should include inputs t, clock, and clear, and output g. Explain all intermediate steps a) b) (2 pt.) Write a Verilog module for the T flip-flop using a behavioral model c (2 pt.) Write a test-bench for the T flip-flop that illustrates its behavior when input takes values of O and 1, and for different current states of the flip-flop. The test-bench should use an initial pulse for the clear signal of the flip-flop to bring it into a well-defined state, as seen in class. Run your test-bench on Icarus Verilog and show the output of the simulator. A T flip-flop is a 1-bit synchronous storage component alternative to the D flip-flop, with a slightly different interface. Besides the clock signal and an optional clear signal, the T flip-flop has one input to synchronously control the state of the flip-flop, as follows: When T is 0, the flip-flop does not change its state. When T is 1, the flip-flop inverts its current value (0 becomes 1, and 1 becomes 0) Answer the following questions: (2 pt.) Using a D flip-flop with asynchronous clear as an available logic block, show a logic diagram for a T flip-flop. The interface for your circuit should include inputs t, clock, and clear, and output g. Explain all intermediate steps a) b) (2 pt.) Write a Verilog module for the T flip-flop using a behavioral model c (2 pt.) Write a test-bench for the T flip-flop that illustrates its behavior when input takes values of O and 1, and for different current states of the flip-flop. The test-bench should use an initial pulse for the clear signal of the flip-flop to bring it into a well-defined state, as seen in class. Run your test-bench on Icarus Verilog and show the output of the simulator