Combine the implementation of the previous two assignments (Control Unit and 32-bit
ALU) and integrate the functionality of the register file.
Objective
Design and implement a processor system in Logisim that executes R-type instructions
using a 32-bit ALU, a 32-register register file, and a controller module with appropriate
control signals. [50]
Components and Requirements
1. Register File (32 Registers)
○ Inputs:
■ 5-bit address inputs: rs, rt, rd.
■ 32-bit Write Data input (ALU result).
■ RegWrite control signal to enable writing to the rd register.

○ Outputs:
■ 32-bit outputs: Read Data 1 (from rs), Read Data 2 (from rt).
■ Clock signal to control write operations.

2. ALU (32-bit)
○ Inputs: Read Data 1 and Read Data 2 from the register file.
○ Outputs:
■ 32-bit ALU Result. And store the result in register
■ Zero, Overflow, and Underflow flags.

3. Controller Module
○ Outputs: 9-bit control signal for ALU operations and RegWrite.
○ Generates ALU control signals based on only R-type instructions.
4. Clock
○ A clock signal to control the register write operations synchronized with the
system.
Testing and Verification
● Load R-type instructions and verify that the ALU performs the correct operation.
● Ensure the Zero, Overflow, and Underflow flags work correctly.
● Check that only the rd register is updated when RegWrite is enabled, and the
correct values are read from rs and rt.
Deliverables
● Logisim project file with the complete design.
● Screenshots of the register file, ALU, and control signals during execution.
● Screenshots of the values in the register file when a particular R-type instruction is
executed.
● A brief report explaining the integration of components and control signals.

assume that table content is 
Combine the implementation of the previous two assignments (Control Unit and 32-bit
ALU) and integrate the functionality of the register file.
Objective
Design and implement a processor system in Logisim that executes R-type instructions
using a 32-bit ALU, a 32-register register file, and a controller module with appropriate
control signals. [50]
Components and Requirements
1. Register File (32 Registers)
○ Inputs:
■ 5-bit address inputs: rs, rt, rd.
■ 32-bit Write Data input (ALU result).
■ RegWrite control signal to enable writing to the rd register.

○ Outputs:
■ 32-bit outputs: Read Data 1 (from rs), Read Data 2 (from rt).
■ Clock signal to control write operations.

2. ALU (32-bit)
○ Inputs: Read Data 1 and Read Data 2 from the register file.
○ Outputs:
■ 32-bit ALU Result. And store the result in register
■ Zero, Overflow, and Underflow flags.

3. Controller Module
○ Outputs: 9-bit control signal for ALU operations and RegWrite.
○ Generates ALU control signals based on only R-type instructions.
4. Clock
○ A clock signal to control the register write operations synchronized with the
system.
Testing and Verification
● Load R-type instructions and verify that the ALU performs the correct operation.
● Ensure the Zero, Overflow, and Underflow flags work correctly.
● Check that only the rd register is updated when RegWrite is enabled, and the
correct values are read from rs and rt.
Deliverables
● Logisim project file with the complete design.
● Screenshots of the register file, ALU, and control signals during execution.
● Screenshots of the values in the register file when a particular R-type instruction is
executed.
● A brief report explaining the integration of components and control signals.

assume table content is 
Introduction
Design Overview
ALU File
Register File
Control Signal
Conclusion


write a very detailed report oon this