SOLIDWORKS was developed back in 1993 when John Hirschtick, a member of the MIT Blackjack Team, recruited a team of engineers to create the first accessible and affordable 3D modeling solution. At the time, AutoCAD, which had been released in 1989, was limited to the creation and editing of 2D geometry. Therefore, SOLIDWORKS was the first software to bring an accessible 3D modeling solution to the market. For many engineers, 3D modeling truly changed the way they could bring creations to life.
One of the first versions of the software
Soon enough the software became extremely popular and Dassault Systèmes decided to acquire it in 1997 for $320 million in stock. At the time, Dassault Systèmes was known for its CATIA solution, a product lifecycle management suite, which combines design, engineering, and manufacturing features used for automotive, aerospace and aeronautics. Essentially, SOLIDWORKS is a lighter version of CATIA.
Main Features of SOLIDWORKS
As mentioned, SOLIDWORKS is a CAD software based on parametric design. Parametric design is a process that clarifies the relationship between design intent and design response. One of the key features of parametric models is that attributes that are interlinked can automatically change their feature when one attribute is changed. This modeling process is great for projects with a lot of manufacturing requirements. 3D models can be created for high performance parts and assemblies used in sectors such as aerospace & defence or automotive.
For example, the very popular AutoCAD solution from Autodesk is primarily a 2D CAD software that caters to architects, home builders and civil engineers. Even though it is possible to create basic 3D surface and solid modeling with AutoCAD, it is not its key feature, and definitely not as easy as working on a parametric modeling software. This is the key benefit of SOLIDWORKS.
It is primarily used to model parts or assemblies (as is the case here)
Furthermore, SOLIDWORKS also includes very beneficial features for a number of industrial applications such as simulation, rendering tools and CAM (computer-aided manufacturing) tools. You will be able to create solid models with SOLIDWORKS, but also import, create, and manipulate surfaces, view models in wireframe mode, and generate 2D drawings from the 3D solid models.
SOLIDWORKS Standard
SOLIDWORKS Standard will enable engineers and designers to create parametric parts, assemblies, production level drawings, as well as generating complex surfaces, sheet metal flat patterns, and structural weldments. Thanks to its parametric design feature, the models will automatically update with design changes. Conceptual design is also an important capability of the software as it allows to create layout stretches, apply motors and forces to check mechanism performance, etc. The Standard license costs $3,995 with an annual maintenance fee of $1,295.
SOLIDWORKS Professional
SOLIDWORKS Professional builds on the capabilities of SOLIDWORKS Standard to increase design productivity, with file management tools, advanced photo-realistic rendering, automated cost-elimination, design checking and a parts library. The Professional licence costs $5,490 with an annual maintenance fee of $1,495.
It can offer powerful simulation tools
SOLIDWORKS Premium
SOLIDWORKS Premium adds powerful simulation and design validation to the capabilities of SOLIDWORKS Professional, plus reverse engineering, and advanced wire and pipe routing functionality. ScanTo3D tools, available in SOLIDWORKS Premium, import mesh and point cloud data from which you can create surfaces and solid models. The Premium licence costs $7,995 with an annual maintenance fee of $1,995.
SOLIDWORKS for 3D printing
As mentioned, SOLIDWORKS can be used for additive manufacturing technologies because you can save your 3D model as an STL file. This is the format needed to transform the data from the model into G-code that a 3D printer can work with. However, this is not the only way in which SOLIDWORKS is suited for additive manufacturing projects. When designing for additive manufacturing, there will be many design considerations to take into account. Anything from distortions, warping, and breaking can occur, which means a 3D model must be adjusted accordingly.
Topology Optimization is one of the design techniques possible on SOLIDWORKS
SOLIDWORKS has put in place tools that account for the special requirements of AM techniques, including support structures, and any distortion that can arise during printing. These features are extremely important, especially when working with expensive materials such as metals, where failed prints can be very costly. Finally, given the design freedom that 3D printing technologies allow, design techniques such as topology optimization can be applied to models. Another way to save material consumption and optimize a part! You can find more information HERE.
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