Python’s inclusion is a game-changer for the timber engineering community. It bridges the gap between specialized CAD software and mainstream data science, machine learning, and web utilities. Because Python is easy to learn and boasts a massive global community, timber companies no longer need specialized C++ developers to build custom tools. Core Capabilities: What Can You Automate? 1. Parametric Geometry Creation
def main(): # Get the IDs of all selected elements element_ids = ec.get_active_identifiable_element_ids()
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Investing in custom API development yields significant returns for timber prefabrication companies: cadwork api
: Users can create custom "helpers" or plugins to automate tedious operations, such as creating parts, calculating lists, or handling complex import/export functions. Custom Tool Creation : Specialized firms like Design-to-Production
While Python is the recommended entry point due to its readability and vast standard library, power users and performance-critical applications can also interface via the . This ensures that no matter your programming background, the cadwork ecosystem is accessible. The Python Interpreter is continuously updated (as of version 2026, it supports Python 3.14), ensuring compatibility with modern libraries.
: While it supports professional-grade development, it is primarily built for Python , a language known for being beginner-friendly yet powerful. Key Technical Features Python’s inclusion is a game-changer for the timber
import cadwork import element_controller as ec import geometry_controller as gc # Define the start and end points of the beam using 3D vectors start_point = gc.point_3d(0.0, 0.0, 0.0) end_point = gc.point_3d(3000.0, 0.0, 0.0) # 3 meters along the X-axis # Define the cross-section dimensions (Width, Height) width = 140.0 # mm height = 240.0 # mm # Create the beam element in the active 3D document new_beam_id = ec.create_square_beam(width, height, start_point, end_point) # Set an attribute for the newly created beam ec.set_name([new_beam_id], "Main Truss Chord") print(f"Successfully created beam with ID: new_beam_id") Use code with caution. Business Benefits of API Automation
Specifically, by using the CwAPI3D plugin (short for ad w ork API 3 D), Python can send commands to create parts, manipulate geometry, run list calculations, and execute complex import/export functions that are not available in the standard user interface. It allows you to implement customer-specific functions without altering the core program code of cadwork itself, ensuring stability while maximizing flexibility.
COMPAS is an open-source, Python-based framework for computational research and design in the AEC (Architecture, Engineering, and Construction) industry. By using compas_cadwork , you can harness COMPAS's advanced geometry kernel, robust data structures, and extensive algorithms directly within cadwork. This allows for the creation of sophisticated modeling and analysis workflows that go far beyond what is possible with scripts alone. Core Capabilities: What Can You Automate
In the world of computer-aided design (CAD), software applications have revolutionized the way architects, engineers, and designers create, modify, and analyze digital models. One such powerful tool is CADwork, a popular CAD software used across various industries, including construction, manufacturing, and product design. To further extend its capabilities, CADwork provides an API (Application Programming Interface) that allows developers to create custom applications, automate tasks, and integrate CADwork with other software systems. In this article, we'll delve into the world of CADwork API, exploring its features, benefits, and applications.
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Whether you are using the or exploring the integration of Rhino.Inside Cadwork , the API serves as the ultimate bridge between standard CAD and advanced, automated production. Why it matters: