Computer Organisation and Architecture - Vol 2 | 19. Finite State Machine Implementation for ADD R1,M by Abraham | Learn Smarter
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19. Finite State Machine Implementation for ADD R1,M

19. Finite State Machine Implementation for ADD R1,M

The chapter covers the operation of hardwired control units in CPUs, focusing on the sequencing of operations and control signals involved in executing macro instructions. It delves into the roles of micro-instructions and the significance of external signals in determining state transitions in finite state machines. Additionally, the importance of optimizing hardware implementation for conditional and unconditional jumps is emphasized.

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  1. 19.1
    Finite State Machine Implementation For Add R1,m

    This section explains the implementation of a finite state machine (FSM) to...

  2. 19.1.1
    Control Signals And Micro-Instructions

    This section explores the role of control signals in executing...

  3. 19.1.2
    State Transition Details

    This section discusses the details of state transitions in a finite state...

  4. 19.1.3
    External And Internal Signals

    This section delves into the significance of external and internal signals...

  5. 19.2
    Finite State Machine For Different Instructions

    This section covers the implementation of a finite state machine (FSM) used...

  6. 19.2.1
    Instruction Fetch Process

    This section covers the instruction fetch process in a CPU, detailing how...

  7. 19.2.2
    Jump To M Instruction Implementation

    This section focuses on the implementation details of the 'Jump to M'...

  8. 19.2.3
    Conditional Jump Implementation

    This section explores the implementation of conditional jumps in CPU...

  9. 19.3
    Design And Flexibility In Control Units

    This section explains the design and operational flexibility of control...

  10. 19.3.1
    Optimizing Finite State Machines

    This section discusses the optimization of finite state machines (FSM) in...

  11. 19.3.2
    Micro Program Based Control

    Micro Program Based Control involves a series of control signals generated...

  12. 19.4
    Questions And Outcomes Of The Unit

    This section details the functioning of a hardwired control unit, including...

  13. 19.4.1
    Block Diagram For Control Units

    This section introduces the block diagram of control units in computer...

  14. 19.4.2
    Design Objective For Controllers

    This section discusses the design objectives for controllers, specifically...

What we have learnt

  • The operation of hardwired control units involves generating control signals based on instruction opcodes.
  • Finite state machines are essential for sequencing operations within a CPU, with transitions often depending on both state variables and external signals.
  • Conditional jumps require evaluating internal flags to determine instruction flow, showcasing the complexity of control unit designs.

Key Concepts

-- Hardwired Control Unit
A type of control unit that generates control signals through fixed combinational logic, allowing rapid execution of instructions.
-- Finite State Machine (FSM)
A computational model consisting of states and transitions, representing the operation of the control unit based on input signals.
-- Macro Instructions
Higher-level instructions that can be broken down into simpler micro-instructions executed by the control unit.
-- Control Signals
Signals generated by the control unit that direct the operation of various components within the CPU.
-- Conditional Jump
An operation in which the next instruction to execute depends on the evaluation of a condition, such as the status of a flag.

Additional Learning Materials

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