Genetic Programming (GP)
Concepts | Process | Applications |
Merits & Demerits
What is Genetic Programming?
• • Type of evolutionary algorithm for evolving
computer programs.
• • Programs are represented as tree structures.
• • Inspired by natural selection and genetics.
• • Used to automatically generate code to
solve problems.
Genetic Programming vs Genetic Algorithm
• • GA evolves data (strings/vectors), GP evolves
programs (trees).
• • GA output: optimal values, GP output:
executable programs.
• • GP is more flexible and complex than GA.
Key Steps in Genetic Programming
• Initialization: Generate random programs.
• Fitness Evaluation: Test program performance.
• Selection: Choose best-performing programs.
• Crossover: Exchange subtrees between
parents.
• Mutation: Random changes in program trees.
• Termination: Stop when goal is achieved.
Program Representation in GP
• • Programs are represented as trees:
• - Internal nodes: Functions (+, -, *, /)
• - Leaf nodes: Terminals (variables/constants)
• • Example: (x + (y * 2)) as a tree structure.
Applications of Genetic Programming
• Symbolic regression (equation discovery)
• Automated software repair
• Strategy development in games
• Neural network structure evolution
• Image and signal processing
Merits of Genetic Programming
• Automatically generates working programs
• Suitable for unknown or complex logic
• Flexible and domain-independent
• No need for derivatives or gradient info
Demerits of Genetic Programming
• High computational cost
• May produce bloated code (bloat)
• Difficult to interpret evolved programs
• Risk of non-terminating logic
Limitations of GP
• Premature Convergence: GP may converge to
a local maximum that is not globally optimal.
Multiple runs and large population sizes can
help mitigate this issue.
• Complexity: GP can be computationally
expensive, especially for large and complex
problem
Future of Genetic Programming
• Integration with deep learning (Neuro-GP)
• Explainable AI using symbolic GP
• Real-time adaptive systems
• Quantum and hardware-based GP
Summary
• • GP evolves programs based on natural
selection.
• • Flexible, adaptable, and domain-
independent.
• • Ideal for solving complex or unknown
problems.
• • Has challenges like cost and code bloat.

Genetic_Programming_Presentation ex.pptx

  • 1.
    Genetic Programming (GP) Concepts| Process | Applications | Merits & Demerits
  • 2.
    What is GeneticProgramming? • • Type of evolutionary algorithm for evolving computer programs. • • Programs are represented as tree structures. • • Inspired by natural selection and genetics. • • Used to automatically generate code to solve problems.
  • 3.
    Genetic Programming vsGenetic Algorithm • • GA evolves data (strings/vectors), GP evolves programs (trees). • • GA output: optimal values, GP output: executable programs. • • GP is more flexible and complex than GA.
  • 4.
    Key Steps inGenetic Programming • Initialization: Generate random programs. • Fitness Evaluation: Test program performance. • Selection: Choose best-performing programs. • Crossover: Exchange subtrees between parents. • Mutation: Random changes in program trees. • Termination: Stop when goal is achieved.
  • 5.
    Program Representation inGP • • Programs are represented as trees: • - Internal nodes: Functions (+, -, *, /) • - Leaf nodes: Terminals (variables/constants) • • Example: (x + (y * 2)) as a tree structure.
  • 6.
    Applications of GeneticProgramming • Symbolic regression (equation discovery) • Automated software repair • Strategy development in games • Neural network structure evolution • Image and signal processing
  • 7.
    Merits of GeneticProgramming • Automatically generates working programs • Suitable for unknown or complex logic • Flexible and domain-independent • No need for derivatives or gradient info
  • 8.
    Demerits of GeneticProgramming • High computational cost • May produce bloated code (bloat) • Difficult to interpret evolved programs • Risk of non-terminating logic
  • 9.
    Limitations of GP •Premature Convergence: GP may converge to a local maximum that is not globally optimal. Multiple runs and large population sizes can help mitigate this issue. • Complexity: GP can be computationally expensive, especially for large and complex problem
  • 10.
    Future of GeneticProgramming • Integration with deep learning (Neuro-GP) • Explainable AI using symbolic GP • Real-time adaptive systems • Quantum and hardware-based GP
  • 11.
    Summary • • GPevolves programs based on natural selection. • • Flexible, adaptable, and domain- independent. • • Ideal for solving complex or unknown problems. • • Has challenges like cost and code bloat.