Ceramics Textured Roller

Summary

This project is a 3D-printed ceramics texturing tool, and a cost effective and customizable alternative to a similar commercially available texture roller. The tool consists of two printed parts: a cylindrical stick handle and a removable textured rolling top. The textured top is pressed and rolled into clay and leaves behind a consistent surface pattern, allowing artists to quickly, easily, and repeatedly apply specific textures to ceramic or sculptural work.

Currently, I have designed 10 unique texture variants, with the ability to create unlimited new textures simply by swapping out image maps in SolidWorks. The final result is a functional classroom tool designed specifically for use by my ceramics teacher.

Lesson Plan & Activity

The objective of this assignment was to identify a real need within the school community and solve it using SolidWorks, engineering design principles, and 3D printing.

For this project, I had the opportunity to work with my ceramics teacher, who expressed a need for additional ceramic texturing tools. He already owned a small number of similar tools and showed me how they were used in practice. His goals were to:

• Obtain more tools

• Experiment with a wider range of textures

• Reduce the cost of acquiring them

My task was to recreate the tool digitally, optimize it for 3D printing, and create a variety of new texture variants.

Overview & Background

The design process began with direct reference analysis. I photographed one of the original tools and used Google reverse image search to find the exact product online. This allowed me to identify:

• The overall dimensions

• The general shape of the tool

• The textures used on the rolling surface

Using this information, I began recreating the tool in SolidWorks, first modeling the stick handle and then the textured top to match the real-world dimensions as closely as possible. Once the base geometry was complete, I shifted focus to applying surface textures using SolidWorks’ 3D Texture feature.

Over time, I collected and tested a wide range of texture maps, gradually building a library of viable textures. This process resulted in multiple finalized variants, which together make up the final set of ceramic texturing tools.

Design Choices & Challenges

1. Texture Development

The most challenging part of the project was determining which texture maps would actually work when translated from a 2D image into a physical 3D-printed surface.

Many textures that looked promising either:

• Failed to generate correctly in SolidWorks

• Produced unclear or muddy results when printed

• Lacked enough depth to leave a meaningful impression in clay

Significant time was spent experimenting with different maps to understand:

• What kinds of contrast and detail translate best

• Which textures are repeatable and scalable

• How to modify or create new textures that behave predictably

Through trial and error, I identified texture styles that consistently produced strong, usable impressions and learned how to replicate and generate new ones effectively.

2. Print Quality Optimization

Initial test prints were done using a 0.4 mm nozzle with standard print settings. While functional, the results were disappointing: textures appeared fuzzy, messy, or under-defined, especially for patterns that relied on fine detail.

To address this, I switched to a 0.2 mm nozzle and used the highest quality settings available in the slicer. This change dramatically improved:

• Edge definition

• Texture clarity

• Overall surface finish

Although print times increased, the improved quality was essential for producing a tool that performs well when used on clay.

Final Thoughts & Results

The final design closely matches the original in both form and function. While it cannot fully compete with the surface perfection of injection-molded plastic, the quality achieved through 3D printing is surprisingly high and more than sufficient for classroom and studio use.

Although SolidWorks’ 3D Texture feature proved frustrating and difficult to work with, it ultimately produced excellent results once properly understood. Most importantly, this project successfully achieved its original goals:

• Recreating a functional ceramic tool

• Expanding it into a system with many unique textures

• Optimizing filament usage and cost

• Providing a useful, real-world solution for a teacher

Overall, this project demonstrates how engineering tools and 3D printing can be used to meaningfully improve existing classroom resources and provide customized solutions to unique problems.