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 FUNCTION Hold current data, parallel load, shift data towards Q0(right shift), shift data towards Q2(left shift) (S0, S1, Function are not in line they are in table form. i could not post a table so i wrote seperately in a line please understand easily for example s0 = 0, s1 = 0 and Function = hold current data similarly )
The Register has 3 parallel load data inputs, D0, D1, and D2.
The register has a DINL for left shift and a DINR for serial right shift inputs.
Draw the schematics below using three "D" type flip flops and three 4 line to 1 line multiplexors.
Design a 3- bit Multipurpose Register. The register utilizes 3 "D" type flip flops with outputs...
Problem 7. Consider the 74x194 4-bit bidirectional universal shift register shown below Determine the operation of this circuit by filling out the table. Assume that the register is cleared initially as indicated by the first row in the table, and then connected to +5V (before time t), as shown in schematic. Also assume that t 'is that time at which a positive edge occurs in the input signal 'clock'. Si and S0 inputs (given) are used to switch between modes...
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...
Problem 4: Design a 2 bit register whose operation is controlled by the signals C1 and C2 as follows: (Use D- Flip Flops) Y2 Y1 C 2-Bit Register Clock SD PD1 PD2 Y1 Y2+ Operation Hold C1 C2 Y2 Y1 0 10 Shift Right Y1 SD 1 0 SD Y2 Shift Left PD2 PD1 Parallel Load 1 SD: Serial Data input PD1 PD2: Parallel Data input Problem 4: Design a 2 bit register whose operation is controlled by the signals...
3 Theory A shift register is a series of flip-flops connected so that data can be transferred to a neighbor each time the clock pulse is active. An example is the display on your calculator. As numbers are entered on the keypad, the previously entered numbers are shifted to the left. Shift registers can be made to shift data to the left, to the right, or in either direction (bi-directional), using a control signal. They can be made from either...
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...
1 Implement a bit 3 bit binary up counter using positive edge triggered D FF. 2 Design a 1001 sequence detector with D FF (Mealy model). 3 Design a 1001 sequence detector with D FF (Moore model). 4 Design a 4 bit universal shift register using D Flip Flops and MUX that implements the following functionality. S1 S0 Function 0 0 Shift Right 0 1 Hold 1 0 Load Value Parallelly 1 1 Shift Left
Design in VHDL a 4-bit up-down counter as presented below: The operation of the up-down counter is described by the following truth table: S1 S0 Action 0 0 Hold 0 1 Count up 1 0 Count down 1 1 Parallel Load Provide VHDL code and testbench XЗ Q3 X3X2X1X0 Parallel Load X2 S1SO Function Select Input Q2 RST-Asynchronous Reset Input X1 CLK- Clock Input Q1 хо Q3Q2Q1Q0 - Parallel Output Q0 CLK S1 S0 RST XЗ Q3 X3X2X1X0 Parallel Load...
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
VHDL Using D-flip-flops, generate an 8-bit LFSR (Linear Feedbaclk Shift-Register). For every bit, include a Binary Control (BC) value that can turn the contribution of the flip-flop output to the XOR input on or off (1 for ON, 0 for OFF). For the 8-bit LFSR include a 7-bit ge- neric BIT_VECTOR that can configure contribution of LFSR flip-flops to the LFSR feedback. The right-most flip-flop output has no XOR, and the left-most flip-flop input is fed by the feedback line...
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...