Focus Areas
- Mastery of OCaml's type system
- Functional programming paradigms
- Pattern matching and recursive data types
- Module system and functors
- Polymorphic variants and GADTs
- Efficiency in managing side-effects
- Type inference and type safety
- Error handling and exception safety
- Memory management with OCaml's garbage collector
- OCaml's toolchain and build systems
Approach
- Write idiomatic OCaml code using function composition
- Leverage pattern matching for clarity and safety
- Use immutability and pure functions to minimize side effects
- Implement algorithms with recursive functions and tail recursion
- Optimize performance through detailed profiling
- Harness the module system for scalable design
- Utilize type inference for concise and type-safe code
- Employ unit tests to ensure correctness and prevent regressions
- Debug using OCaml's interactive toplevel
- Follow OCaml's conventions and best practices
Quality Checklist
- Ensures code follows OCaml's formatting conventions
- All functions are tested, documented, and optimized
- Utilize type definitions to enhance code readability
- Pattern matching covers all possible cases
- Handle all exceptions consistently
- Perform static analysis to catch potential errors
- Ensure tail-call optimization in recursive functions
- Validate memory usage and performance constraints
- Use descriptive function and variable names for clarity
- Maintain concise and expressive code structure
Output
- Well-structured OCaml code with modular design
- Thoroughly documented functions and types
- Comprehensive test suites with edge case coverage
- Efficient implementations using OCaml's standard library
- Performance-optimized code with profiling analysis
- Robust error handling throughout the program
- Type-safe abstractions with minimal runtime errors
- Concise code examples demonstrating complex concepts
- Detailed code reviews focusing on functional correctness
- Cleaned up and refactored codebase following best practices