SOLIDWORKS, a robust 3D CAD design tool, is widely utilized by engineers and designers globally for developing products and processes. Crafted by dedicated engineers for over three decades, this platform provides a user-friendly environment to streamline daily tasks.
At SWYFT Solutions, we aid designers and engineers in discovering the best tools and solutions to drive their business objectives and meet customer demands.
Powerful Features of SOLIDWORKS
Engineers benefit from SOLIDWORKS by gaining access to efficient design, simulation, and communication tools. The latest version enhances productivity with intuitive design and simulation features, integrated 3D measurement tools, and collaboration capabilities in line with industry standards.
With SOLIDWORKS, you can design, simulate, and communicate confidently. SWYFT Solutions has a proven history of supporting companies of all sizes in the realm of 3D modeling, design, and simulation.
Perpetual License Benefits:
1. Ownership: Perpetual licenses provide users with ownership of the software, allowing them to use it indefinitely without the need to renew licenses.
2. Customization: With a perpetual license, users have the flexibility to customize the software to fit their specific needs and workflows.
3. Cost-effectiveness: While there is a higher initial cost associated with a perpetual license, it can be more cost-effective in the long run for users who plan on using the software for an extended period.
Subscription License Benefits:
1. Always Up-to-date: Subscription licenses ensure users always have access to the latest features, updates, and enhancements without any additional costs.
2. Flexibility: Subscription licenses offer users the flexibility to scale their software usage based on their current needs, making it ideal for fluctuating workloads.
3. Technical Support: Subscription licenses typically include technical support services, providing users with assistance whenever they encounter issues or need help with the software.
SOLIDWORKS Cloud Services
Elevate your design capabilities with SOLIDWORKS Cloud Services, which blend SOLIDWORKS 3D CAD with 3D EXPERIENCE platform features for secure cloud storage, enhanced revision management, and controlled change processes.
Link your data to the 3DEXPERIENCE platform for advanced simulation and CNC programming.
With SOLIDWORKS Cloud Services, you can collaborate with team members in real-time, access your designs from anywhere, and streamline your design processes. The cloud storage ensures your data is securely backed up and easily accessible.
Take advantage of the advanced simulation capabilities on the 3DEXPERIENCE platform to test your designs in virtual environments and optimize their performance. The CNC programming features will help you efficiently generate toolpaths for machining your parts.
Overall, SOLIDWORKS Cloud Services provide a comprehensive solution for design, simulation, and manufacturing, empowering you to bring your ideas to life with ease and efficiency.
Key Features of SOLIDWORKS Products
Features include:
- Cutting-edge 3D CAD
- Creation of 2D Manufacturing Drawings/Prints
- Generation of Photorealistic Renderings (SOLIDWORKS Visualize)
- Linear Static FEA (Parts and Assemblies)
- Time-Based Motion Analysis
Professional vs. Standard:
SOLIDWORKS Professional offers enhanced tools for rendering, collaboration, and estimation compared to the Standard version.
3DEXPERIENCE SOLIDWORKS:
Effortlessly design and collaborate with global team members using a familiar local setup combined with cloud-based data management for enhanced scalability.
- Out of the Box Cloud-Based Data Management
- Named User Licensing
SOLIDWORKS provides robust sheet metal functionality for the creation of bent, cut sheet components ready for manufacturing. The three primary approaches to sheet metal design include base flanges, insert bends, and conversion to sheet metal.
Base Flange Method:
To generate sheet metal parts with or without bends, create a 2D sketch using enclosed or open shapes. Consider design intent and driving information to choose the optimal method.
The Base Flange method is a commonly used technique in sheet metal design where a flat sheet of metal is formed into a 3D shape by bending it along one or more edges. This method is useful for creating a variety of parts, from simple brackets to complex enclosures.
When using the Base Flange method, it is important to pay attention to the material thickness and bend radius to ensure the part can be manufactured accurately. Additionally, the orientation of the bend lines and the sequence of bends can affect the final shape of the part.
Insert Bends Method:
Add bends to existing solid geometry to craft intricate sheet metal parts with angled flanges or mitred corners. Start by shelling the solid shape for a uniform wall thickness.
When flattening the shape, the primary face will remain stationary, and the other faces will unfold around it. Rips create gaps between adjacent flanges, with the option to toggle the direction for butted or lapped corners.
Convert to Sheet Metal Method
The Convert to Sheet Metal method, similar to Insert Bends, requires existing geometry input with the sheet metal thickness defined within the feature.
The primary face for convert to sheet metal is a solid body, typically modeled in SolidWorks or an imported part.
Select one face as the main base flange, with any chosen edge becoming a bend for a new flange, akin to insert bends.
This method is useful for creating sheet metal parts from existing solid bodies, allowing for quick and efficient conversion without the need for manual re-modeling.
Sheet Metal Properties
Each method includes properties upon creation, such as sheet thickness, bend radius, bend allowance, and relief.
Sheet thickness
Thickness of the sheet metal to be created.
Bend radius
Internal radius formed when adding a bend, with the external radius equaling this value plus the sheet thickness.
Bend allowance
Value or calculation determining the length of the flattened sheet metal part, based on various factors.
Relief
Determines the treatment of the corner where two flanges intersect, with options like tear, obround, or rectangular.
Secondary Features
Additional features may be necessary for the sheet metal component based on complexity, including flanges, hems, jogs, and other elements.
Secondary features inherit properties from the initial sheet metal feature, with some properties customizable like bend radius.
Flatten
At any stage, view the flattened version of a sheet metal part by clicking the flatten button. Errors appear in the feature manager for non-flattenable features in SOLIDWORKS sheet metal.
The flattened version can be utilized and detailed in a 2D drawing from the views palette.
SOLIDWORKS 2024 brings new features and improvements for sheet metal design. Explore the latest updates, including enhancements to the tab and slot tool, the stamp feature, and a novel way to convert shapes into sheet metal.
In addition to the mentioned updates, SOLIDWORKS 2024 also introduces a new bend simulation tool for accurate bending analysis, improved nesting capabilities for maximizing material usage, and enhanced compatibility with third-party software for seamless collaboration. Users can now benefit from a more streamlined workflow and increased productivity in their sheet metal design projects.
Tab and Slot
Integrating a part with a Tab and Slot feature into an assembly propagates matching slots to adjacent components.
Select slots to propagate when adding the component manually or utilizing tools like Copy with Mates or Mirror Components.
Stamp Tool
SOLIDWORKS 2024 introduces a Stamp feature for introducing indentations in sheet metal parts without a forming tool. Define parameters like depth, draft, and radii.
Rip Tool
SOLIDWORKS 2024 enhances the Rip tool to create gaps in cylindrical or conical bodies without existing gaps. Choose blind or symmetric gap type and preferred size.
After gap creation, use the Insert Bends tool for further modifications.
From new Tab and Slot options to improved Rip features, SOLIDWORKS 2024 offers tools for efficient sheet metal design.
SolidWorks sheet metal modeling is the preferred choice for engineers and fabricators. Here are tips for efficiently modeling sheet metal parts:
Check fabrication processes like bending, welding, and punching to reduce scrap and rework.
Opt for 3D sheet metal modeling for effective design communication and production-ready designs.
Why use SolidWorks for sheet metal modeling?
SOLIDWORKS provides features for complex sheet metal assemblies, delivering benefits such as flexibility, standardized modeling, high precision, and automation.
- Flexibility and speed in designing sheet metal components and assemblies
- Standardized 3D CAD part modeling and assembly
- Structured sheet metal modeling approach for precision
- Consideration of multiple design aspects using a DFMA approach
- Workflow-based collaborative environment for decision-making
- Automation for quicker product design and enhanced quality
SOLIDWORKS is widely adopted in the industry due to its advantages, making it the primary platform for CAD design.
Top 5 Tips for Efficient SolidWorks Sheet Metal Modeling
1. Start with the sheet metal module in SolidWorks
Maximize raw material usage during manufacturing by designating metal components as sheet metal parts in SolidWorks. Fabrication considerations are automated within the platform.
Create fabrication assemblies using the weldments module for welding and structural parts.
Utilize design tables to generate multiple configurations for structural parts and store them in the CAD library for future use.
SolidWorks drafting aids users in assembly development, capturing all design requirements accurately, and integrating with external databases for automation.
Trim design time and errors by customizing design with Excel spreadsheets and SolidWorks CAD models.
2. Leverage SolidWorks flexibility for complex sheet metal shapes
Begin with 3D solid models and surface creation without the sheet metal module. Convert models into sheet metal using SolidWorks shell function with the appropriate thickness.
For simplified modeling steps in SPMs or HVAC systems, leverage the sheet metal module within a standard 3D CAD environment.
3. Create parts with constant sheet thickness and K factor
Most parts are crafted from metals like steel, aluminum, copper, bronze, with precise thickness. The “K” factor plays a vital role in sheet metal part development and bend accuracy.
In SolidWorks sheet metal modeling, users can select material, thickness, and K factor from the material library. User-defined properties can also be incorporated.
If a gauge table isn’t utilized, enter material thickness and bend radius in parameters. The bend direction can be reversed, with arrows guiding users within the SolidWorks interface.
The bend allowance section allows selecting how SolidWorks determines the neutral axis to auto-calculate flat patterns by choosing K-Factor, bend allowance, or bend deduction values.
4. Parametric model for welding and hardware details
Employing SolidWorks parametric modeling saves time for large sheet metal assemblies, particularly when modifying design intent. A top-down approach aids in efficient assembly development and design updates.
Utilizing the efficiency of SolidWorks by easily dragging and dropping hardware components to boost productivity. Partnering with a recycling plant equipment manufacturer in Ireland to streamline large assembly design and expedite delivery times.
5. Begin by considering center and symmetry
Initiating a sketch from any plane in CAD software is feasible, however, aligning the coordinate system with CNC machines is essential for accuracy.
Incorporating symmetry, mirroring, and mating techniques during 3D modeling can minimize manufacturing time and reduce the need for revisions.
Conclusion
In conclusion, 3D CAD tools are essential for improving the competitiveness and efficiency of metal fabricators, especially with the advanced parametric modeling capabilities offered by SolidWorks. Adhering to proper sheet metal modeling practices is crucial for achieving optimal efficiencies in the fabrication process. By incorporating these strategies, both time and costs can be reduced, leading to increased productivity in sheet metal design. Overall, implementing 3D CAD tools and following best practices in sheet metal modeling can greatly benefit metal fabricators in today’s competitive market.