Shift Register: Design a 4-bit shift register for the following function table. Inputs are D3D2D1D0 for parallel data load, S1S0 are the mode control, and the clock. Outputs are the register bits Q3Q2Q1Q0. Show the complete logic diagram.
Shift Register: Design a 4-bit shift register for the following function table. Inputs are D3D2D1D0 for...
Problem 1(8 points): Design a 3-bit register which has the following function table. Neatly design and show the complete circuit diagram of this 3-bit register Mode Control Register S1 SO Operation No Change Parallel Load Shift Up Complement Problem 1(8 points): Design a 3-bit register which has the following function table. Neatly design and show the complete circuit diagram of this 3-bit register Mode Control Register S1 SO Operation No Change Parallel Load Shift Up Complement
Part II Design a 2-bit register to be operated according to the following function table. Show the circuit schematics and label all inputs and outputs. Si 0 0 1 1 Se Register Operation 0 No change 1 Clear the register to 0 0 Complement output 1 Load parallel data Table 1 Select Signals
Design a 3- bit Multipurpose Register. The register utilizes 3 "D" type flip flops with outputs Q0, Q1, Q2. The Registers has a synchronous clock input(CLK) that clocks all 3 flip flops on its positive edge The Registers has an asynchronous clear input(CLR' ) that sets all flip flops to "0" when active low. The Register has 2 select inputs, S0 and S1 that selects the functions as folows: S1 = 0, 0, 1, 1 and S0 = 0,1,0,1 and...
Draw a logical diagram of the 4-bit register with mode selection inputs S1 and S0. The register operates in accordance with the following table of functions. S1 S0 register operation 0 0 No change 0 1 parallel load 1 0 left shift 1 1 Clear register to zero
Using D FFs and selectors, design a 4-bit shift register (SR) (with only serial inputs) that can shift its content one or two bits to the left or right.
Design a 4-bit register using four J-K flip-flops (D4, D3, D2, and D1) with the following behaviour. There are two control inputs, M (mode) and L (load). When L and M are both high, data is loaded in parallel from the data inputs A4, A3, A2, and A1. When M is high and L is low, there is a circular left shift of the data in the register. If you can explain the work, that would be great. Really struggling...
2. A 4-bit parallel in/serial out shift register has SHIFT/LOAD' and CLK inputs as shown in the figure below. What is the output Q3 at the two times('A' followed by 'B') indicated by the dashed lines in the figure below if the parallel data inputs are DO-1, D1-0, D2-1, and D3-1? D3 SHIFT/L CLK SHIFT /LOAD Ο A. A-0,9:0 B. A:0, B-1 D.A-1, B-1
in VHDL Show synthesizable VHDL code for a register unit that performs operations shown below. The unit has a 3-bit mode (md) input, an asynchronous reset (rs) input, a 1-bit output control (oc) input, and an 8-bit bi-directional io bus. The internal register drives the io bus when oc is ‘I, and md is not “11 1". Use std-logic. md-000: does nothing md-001: right shift the register md-010: left shift the register md 011: up count, binary md-100: down count,...
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...
Use the Quartus Prime Text Editor to implement a structural model of the 4-bit data register shown above in a file named reg_4bit.sv. Specify the 4-bit data register’s module according to the interface specification given in the table below. Port Mode Data Type Size Description RST in logic 1-bit Active high asynchronous reset CLK in logic 1-bit Synchronizing clock signal EN in logic 1-bit Synchronous clock enable D in logic vector 4-bits Synchronous data input Q out logic vector 4-bits...