If you’re knee-deep in prototyping—whether you’re designing a squishy phone grip, a flexible toy part, or a stretchy wearable accessory—you’ve probably asked: “Can 3D printing prototypes use TPU material?” Let me give it to you straight: 100% yes! TPU (Thermoplastic Polyurethane) is like the “flexible hero” of 3D printing materials, and it’s perfect for prototypes […]
If you’re knee-deep in product prototyping—whether you’re designing a new gadget shell, a small mechanical part, or a custom household item—you’ve probably wondered: “Can 3D printing prototypes use ABS material?” Let me cut to the chase: absolutely yes! ABS (Acrylonitrile-Butadiene-Styrene) is a total workhorse for 3D printed prototypes, and it’s been a go-to for engineers
If you’re working on product prototyping—whether for a new phone case, a medical device, or a kids’ toy—you might have asked yourself: “Can 3D printing prototypes use soft rubber?” Well, I’m here to give you a clear answer: yes, they absolutely can! Soft rubber is a versatile material for 3D printed prototypes, especially when you
Hey there! If you’re in the product development or manufacturing field, you’ve probably wondered: “Can 3D printing handboards use imported red wax?” Well, I’m here to tell you—yes, absolutely! Imported red wax is a fantastic material choice for 3D printing handboards, but there are key factors you need to consider to make the right decision
If you’re a product designer or manufacturer exploring 3D printing handboard materials, you might have heard about Chinese red wax—and wondered, “Is it a good choice for my project?” The short answer is yes, but there’s more to know to make the most of this material. Let’s dive into what Chinese red wax is, its
If you’re a product designer or manufacturer looking to create accurate 3D printing handboards for new product development, one of the first questions you’ll ask is: “What materials should I use?” Choosing the right material directly affects your handboard’s durability, appearance, and whether it matches your final product’s performance. Let’s break down the most common
If you’ve ever struggled with uneven hole sizes, broken supports, or post-printing rework when creating prototypes with multiple holes—for devices like electronics enclosures or medical tools—3D printing multi-hole prototypes is your answer. This technology builds parts with pre-designed holes in one step, but how do you ensure hole precision? Which materials work best? And how
If you’ve ever struggled with loose fits, broken threads, or post-machining delays when adding threaded connections to 3D prints, 3D printing threaded holes is the solution you need. This technology lets you create functional threads directly during printing—no drilling or tapping required—but how do you ensure precision? Which materials work best? And how can you
If you’ve ever been frustrated by rough, layered surfaces on your 3D prints—especially with FDM (Fused Deposition Modeling) technology—the 3D printing frosting process is your solution. This post-processing technique transforms uneven prints into smooth, matte-finish parts, but how do you choose the right method? What materials work best? And how can you fix common frosting
If you’re a designer, product developer, or manufacturer aiming to create prototypes that mirror final products’ colors and textures—for items like consumer electronics, automotive parts, or medical devices—3D multi-color printing prototypes are your ideal solution. But how do you ensure color accuracy? What problems does this technology solve? And how can you avoid common pitfalls?
If you’re a designer, engineer, or manufacturer needing precise circular openings in prototypes—for parts like brackets, enclosures, or medical tools—3D printing round hole prototypes is your most efficient solution. But how do you ensure these holes are accurate? What problems does this method solve? And how can you fix common issues? This guide answers all
If you’re exploring ways to create lightweight, high-strength components for industries like aerospace or automotive, 3D printing aluminum parts might be the game-changer you need. But how do these parts work? What problems do they solve? And how can you overcome their common hurdles? This guide answers all these questions, helping you make informed decisions
Ever found yourself stuck in product development—waiting weeks for a prototype, overspending on materials, or struggling to test complex designs? 3D printing solid prototypes are the solution. These physical, fully formed models transform how teams validate designs, cut costs, and speed up time-to-market. Below, we break down their core benefits, real-world uses, step-by-step production, and
Have you ever struggled to find a 3D printing material that’s both durable and flexible—one that can handle repeated bending without cracking or losing shape? Look no further than 3D printing flexible resin. This versatile material has become a game-changer for industries needing parts with elasticity, from medical devices to consumer electronics. Below, we break
Imagine this: You’ve spent hours designing a critical 3D prototype, hit “print,” and halfway through—it stops. The printhead is clogged, the material is stuck, and your timeline is derailed. This is 3D printing prototype jamming—a top frustration for manufacturers worldwide. But it’s not unavoidable. Below, we break down why jamming happens, how to fix it
In today’s fast-paced manufacturing world, how can businesses turn complex design concepts into tangible, high-quality prototypes quickly? The answer lies in 3D printing ultra-high precision prototypes. This technology is not just a trend—it’s a game-changer that solves long-standing challenges in prototype development, from material waste to design limitations. Below, we break down its key components,
