We’ve all been there. You’re trying to run SolidWorks or AutoCAD on a standard laptop, maybe even a decent gaming rig you picked up at a Boxing Day sale. It handles basic parts fine, but the moment you load a large assembly with complex links, the fans scream like a jet engine, the screen freezes, and you’re left staring at a spinning wheel of death.

The problem usually isn't you—it’s your hardware.

In the world of engineering and design, a Workstation is not just a fancy name for a computer. It is a machine specifically architected for stability, heavy calculation, and precision. Unlike a standard PC designed for browsing or gaming, a workstation is built to run 24/7 without hiccups….

Analyzing plastic parts helps identify weaknesses early on, improves performance, reduces costs, and enhances reliability. This tool is vital for creating plastic parts that meet application requirements and perform reliably throughout their lifetime.

In our product development stage, we prioritize analyzing plastic parts to minimize manufacturing errors by 95% during the design phase, resulting in the production of cost-effective and high-quality parts. The following provides an explanation of the process and terminology involved in this analysis. To illustrate, we analyzed a standard stool model made of ABS material using Solidworks Plastic Simulation.

In design software, the lag time (the time between executing a command and its completion) can be reduced by adjusting settings within SolidWorks and the operating system. However, there is no one-size-fits-all approach to setting up SolidWorks, so it's important to understand the effects of different settings before making a decision. It's worth noting that improved performance may come at the expense of model image quality.

Ensuring Engineering Precision Down Under.

In the world of engineering and design, the difference between a successful product launch and a manufacturing nightmare often comes down to the quality of the drawings. Whether you are a student at TAFE, a university engineering undergraduate, or a junior draftsperson in an Aussie workshop, understanding the standards of technical drawing is non-negotiable.

Struggling with slow CAD performance? Learn why hardware isn't always the answer and discover the best practices for managing large assemblies in SOLIDWORKS and other CAD systems.

SolidWorks part modelling is the bread and butter of modern mechanical design. Whether you’re designing mining equipment in WA or consumer products in Sydney, the tool is incredibly powerful. However, there is a massive difference between a model that simply "looks right" and a robust, efficient model that rebuilds quickly and mates perfectly into larger assemblies.

Creating a quality 3D model starts with a plan. There is no "one size fits all" approach, but by following specific best practices, you can ensure your designs are accurate, efficient, and easy for your team to use.

Here is your comprehensive guide to efficient SolidWorks part modelling.

Learn the ins and outs of SolidWorks MotionManager. From basic animations to complex motion analysis, this guide breaks down the essentials for Australian engineering students and CAD enthusiasts.

Whether you’re designing heavy machinery for the Pilbara mining sector or sleek consumer tech in a Sydney startup, the "she'll be right" attitude simply doesn't cut it when dealing with complex CAD assemblies.

As engineering students and budding professionals, it is vital to understand that the more complicated a design, the more planning is required before you even click "New Part." Failure to plan usually results in lost data, excruciatingly long rebuild times, and blown budgets.

In this guide, we’ll break down how to manage large projects effectively, ensuring your digital workflow is as robust as your physical designs.