How to 3D Model a Bird Feeder in SelfCAD

 |  Moses Zikei

Steps to Follow to 3D Model a Bird Feeder in SelfCAD

Bird feeders are not only a source of sustenance for our feathered friends but also a delightful addition to any outdoor space. In this step-by-step guide, we'll explore 3D modeling field, by creating a unique bird feeder using the powerful yet user-friendly tool, SelfCAD. But before that, let's have a look at the application of SelfCAD in Agriculture.

Application of SelfCAD 3D Modeling Software in Agriculture

Here are several ways in which SelfCAD can be applied in agriculture:

  • Customized equipment design: Farmers can use SelfCAD to design and customize agricultural equipment and tools based on specific needs. This includes creating personalized parts for tractors, planters, or harvesting equipment.
  • Precision farming models: SelfCAD enables the creation of detailed 3D models for precision farming applications. Farmers can design precision agriculture tools and equipment that optimize resource use, reduce waste, and enhance crop yields.
  • Prototyping farm structures: Before physically constructing structures like greenhouses, barns, or irrigation systems, farmers can use SelfCAD to create detailed 3D models. This allows for better planning and visualization of the final structures.
  • Crop modeling and planning: Designing 3D models of fields and crops aids in visualizing planting layouts, optimizing crop spacing, and planning irrigation systems. This can contribute to better crop management and increased efficiency in resource utilization.
  • Customized irrigation systems: Farmers can design and customize irrigation systems based on the specific needs of their crops. 3D modeling helps in creating efficient layouts, optimizing water distribution, and minimizing water wastage.
  • Farm equipment repairs: SelfCAD can be used to design replacement parts for damaged or malfunctioning farm equipment. This can be particularly useful in remote locations where immediate access to replacement parts may be challenging.
  • Educational tools for agricultural training: Agricultural educators can use SelfCAD to create 3D models for educational purposes. This could include interactive models of plant anatomy, soil structures, or even virtual farm layouts for training purposes.
  • Prototyping agricultural drones: Designing and prototyping components for agricultural drones can be done efficiently using SelfCAD. This includes creating custom frames, holders for sensors, or other parts that enhance the functionality of agricultural drones used for monitoring crops.

Step-by-Step 3D Modeling Process

SelfCAD is easy to use and it comes with a simple interface that you can get started with ease. You can check out the interactive tutorial to follow.

To design, start by launching SelfCAD and open the workspace:

SelfCAD interface

The next step is to create the base structure. To do this, on the 3D Shapes category select the Cube:

3D shapes in SelfCAD

Set the parameters as shown below:

Applying settings to SelfCAD

Click on the check mark to finalize the cube. The next step is to edit the cube created.; On the Modify category on the toolbar, select the Fillet tool. 

Modification tools in SelfCAD

Click the check mark to finalize the fillet:

Applying settings to SelfCAD

The geometry will be as follows:

Geometry in SelfCAD

On the top toolbar, click Copy to make a copy of the cube:

Copy offset in SelfCAD

Activate the Rotate tool on the toolbar. Set the X axis to -90: 

Rotate tool in SelfCAD

Click the “X” to close the panel. Activate the Scale tool on the toolbar and use the Gizmos to scale the object as shown below:

Scale tool in SelfCAD

Scale the object by setting the X axis to 64, the Y axis to 45, and Z axis to 170:

Applying settings to SelfCAD

Click on the “X” to close the panel. Select all the objects. On the toolbar, activate the Stitch and Scoop tool and select the Difference option. 

Stitch and Scoop tool in SelfCAD

Select mesh 49, the scaled cube to subtract it. 

3D modeling in SelfCAD

Click on the check mark to finalize the difference:

Finalizing designs in SelfCAD

Activate the Face Selection on the right panel, and select the highlighted region:

Face selection in SelfCAD

On the top toolbar, on the Edit menu, click on Delete to do away with the highlighted faces:

Edit menu in SelfCAD

There you go, the basic structure is ready:

3D modeling in SelfCAD

The next step is to edit the structure. Go to the Modify category and select the Add Thickness: 

Modify category in SelfCAD

Click on the check mark to finalize the thickness:

Adding thickness to 3D models

The thickness added will be as follows:

3D modeling

On the rendering settings on the right panel, click on the Solid to activate the mode:

Rendering settings in SelfCAD

Go to the 3D Shapes and select the Cylinder. 

3D shapes in SelfCAD

Set the parameters as shown below;

Settings in 3D

Set the Position Y to 40, Rotation Y axis to 90, and Z axis to 90.

Positioning 3D objects

Click the check mark to finalize the cylinder. Deactivate the selection tool. 

The next step, on the 3D Shapes, select the Torus: 

3D shapes in SelfCAD

Set the Ring Radius to 10, and Tube Radius to 3. On the Position set Y to 167 and Rotation set the Z axis to 90

Applying settings in SelfCAD

Click on the check mark to finalize the object:

Applying check mark

Select all the objects. On the toolbar, activate the Stitch and Scoop Tool and select the Union option:

Stitch and scoop tool in SelfCAD

Click on the check mark to finalize the operation:

Settings in SelfCAD

You can then change the color of the bird feeder in the Color Picker and then click ok:

Color picker in SelfCAD

There you go, the birdfeeder is ready. 

To sum it up, this guide has taken you through the fun process of making a bird feeder in 3D using SelfCAD. By using the Cube Mesh tool and trying out different features in the software, you didn't just make a bird feeder that works well; you also added your personal touch and style to it.


Enjoy powerful modeling, rendering, and 3D printing tools without the steep learning curve.

Need to learn 3D modeling? Get started with interactive tutorials.

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