From concept to creation — we specialize in rapid prototyping and additive manufacturing engineered to perform in the real world.

We turn physical parts into accurate digital models you can actually work with — from reverse engineering to quality inspection.

We turn your ideas into real, functional parts — fast and with attention to detail, from rapid prototypes to end-use components.

Files that are actually ready to use — no cleanup needed, exported in the formats your workflow demands.

Got a big order? We're built to handle it without sacrificing quality — batch production with consistent results every time.
Founded in 2025, Solid That Works was built on a simple belief: engineering should solve real problems and create meaningful impact. We apply advanced technology in practical ways to make ideas tangible and processes smarter.
We offer 3D printing, high-precision 3D scanning, and custom engineering file development — from fully engineered prototypes and reverse-engineered components to reliable production runs. Every solution is practical, efficient, and built to perform.
Printing & Scanning
Engineering Background
Year Founded
Based in Florida
Mechanical engineering student at the University of Florida with experience in the automotive and power generation industries. Focuses on product development, CAD design, and bringing engineered solutions from concept to implementation.
Chemical engineering student at the University of Florida with experience in supply chain optimization, manufacturing operations, and turbine engineering. Specializes in process improvement and data-driven problem solving.
Supporting operations, design documentation, and client workflows at Solid That Works. Bringing fresh perspective and hands-on energy to every project.
Tell us about your project. Whether it's a quick prototype or a large-scale production run, we're ready to make it solid.
Upload your file, describe your project, or tell us what's broken. We quote within 24 hours.
Practical guides, material science, and best practices — written from the shop floor, not a textbook.
PLA, PETG, ABS, ASA, PA — the choices are overwhelming. This guide cuts through the noise with a practical decision framework based on your actual use case.
Wall thickness, overhangs, tolerances, orientation — the four decisions that determine whether your part prints clean or fails at layer 47. A field-tested checklist.
Glass transition temps, UV resistance, moisture absorption, print settings — we run the comparison numbers so you stop guessing which one to reach for.
Warping, lifting corners, spaghetti starts — almost all of it traces back to first-layer setup. Z-offset, bed surfaces, brim strategy, and material-specific tips.
The best support is one you never had to add. When you do need them, tree vs. normal, interface layers, Z-gap, and how to design parts that shed supports without scarring.
FDM parts are never isotropic. Understanding the Z-axis weakness — and how print temperature, speed, and layer height interact — lets you design around it.
Support removal, sanding progressions, primer selection, acetone smoothing, epoxy coating, and painting for functional parts. The steps most tutorials skip.
Clearance fit, interference fit, pin-in-hole, snap-fit — FDM has its own tolerance world. Numbers, calibration methods, and how to design for consistent assembly.
Speed improvements, multi-material printing, AI-assisted slicing, and what the market growth means for small shops and engineering teams that rely on additive for production.
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