Autodesk Inventor

How to Create a Spring in Autodesk Inventor?

To create a spring in Autodesk Inventor, follow these detailed steps that guide you through the process effectively.

Step 1: Launch Autodesk Inventor and Create a New Project

Begin by opening Autodesk Inventor. Select "New" from the main menu, and create a new part file by choosing "Standard.ipt." This will be your working environment where you will develop the spring design.

Step 2: Start a New Sketch

Navigate to the "3D Model" tab and click on "Start 2D Sketch." Choose a suitable plane (XY, XZ, or YZ) on which to draw the base of the spring. This geometric plane is where the core profile of the spring will be sketched.

Step 3: Draw the Base Profile of the Spring

Using the "Circle" tool from the sketch panel, draw a circle that represents the diameter of the spring wire. Select the circle and dimension it appropriately by clicking on the “Dimension” tool from the "Sketch" tab. Specify the desired diameter for your spring.

Step 4: Create the Helix for the Spring Body

Switch to the "3D Model" tab and find the "Coil" tool. This tool will allow you to generate a helical shape for the spring. Click on the center point of the circle you just created to start forming the coil.

Step 5: Define Coil Parameters

After selecting the coil tool, a dialogue box will appear. Input the necessary parameters for your coil:

  • Revolutions: Define how many turns the spring should have.
  • Revolution Height: Specify the height between each revolution of the coil (this affects the spring’s pitch).
  • Diameter: Set the coil diameter if different from the base profile.

After entering the parameters, click "OK" to generate the helical shape.

Step 6: Adjust Coil Orientation and Properties

Once the helix is created, you may need to adjust its orientation. Right-click on the coil and select "Edit Coil" to modify its properties, ensuring it aligns correctly with other components or the design concept.

Step 7: Add Thickness to the Spring

With the coil in place, you now need to provide the spring with material thickness. Use the "Extrude" feature found under the "3D Model" tab. Select the coil, specify the thickness dimension, and extrude it to complete the geometry of the spring.

Step 8: Final Adjustments

Inspect the spring model for any inconsistencies. Modify dimensions or angles using the dimension tools as necessary. You can also apply materials or appearances to the spring by right-clicking on the model and selecting "Properties."


FAQ

1. Can I adjust the properties of the spring after it has been created?
Yes, you can modify the dimensions and parameters of the spring by right-clicking on the coil and selecting "Edit Coil" or by adjusting the dimensions in the sketch that forms the base profile.

2. What features are available for customizing my spring design in Autodesk Inventor?
Autodesk Inventor provides various customization features including changing the number of turns, adjusting the diameter, and modifying the thickness of the coil to match your specific design requirements.

3. Is there a way to visualize how my spring will perform under stress in Autodesk Inventor?
Yes, you can use the simulation tools in Autodesk Inventor, including stress analysis and finite element analysis, to test the performance and durability of your spring design under different loading conditions.

About the author

Wei Zhang

Wei Zhang

Wei Zhang is a renowned figure in the CAD (Computer-Aided Design) industry in Canada, with over 30 years of experience spanning his native China and Canada. As the founder of a CAD training center, Wei has been instrumental in shaping the skills of hundreds of technicians and engineers in technical drawing and CAD software applications. He is a certified developer with Autodesk, demonstrating his deep expertise and commitment to staying at the forefront of CAD technology. Wei’s passion for education and technology has not only made him a respected educator but also a key player in advancing CAD methodologies in various engineering sectors. His contributions have significantly impacted the way CAD is taught and applied in the professional world, bridging the gap between traditional drafting techniques and modern digital solutions.