Learn MYHDL with Real Code Examples

Design expressed as Python functions and modules

Signals represent wires, registers, and buses

Decorators define hardware processes (combinational, sequential)

Simulation engine schedules events and evaluates processes

Conversion routines map Python code to synthesizable HDL

Python modules define hardware components

Signals act as wires or registers

Decorators define process execution based on signal events

Simulation evaluates hardware behavior over time

Conversion routines generate synthesizable VHDL/Verilog

Modular Python design for hardware units

Layered approach: design, testbench, conversion

Event-driven simulation using signals

Separation of combinational and sequential logic

Integration with HDL toolchains for FPGA/ASIC

FPGA-based UART, SPI, I2C controllers

Digital filters and ALUs

Finite state machines for control systems

Memory controllers and interface logic

Prototyping ASIC modules using Python

Use Python syntax for hardware modeling

Separation of design and testbench logic

Simulation-driven verification before synthesis

Automated conversion to standard HDL

Rapid prototyping and iterative design methodology

Modular design for reusable hardware components

Hierarchical simulation for large designs

Co-simulation with HDL for complex systems

Automated testbench generation for multiple modules

Integrate with CI/CD for continuous verification

Update MyHDL to latest version

Check conversion routines for VHDL/Verilog syntax changes

Verify simulator compatibility

Test existing modules with new Python versions

Document project changes