FDM (Fused Deposition Modeling) is a go-to 3D printing technology for prototypes, functional parts, and low-volume production—but weak prints are a common frustration. Too often, FDM parts break under stress, warp during printing, or fail to hold up to daily use. The good news? With the right material choices, design tweaks, and process adjustments, you […]
When it comes to plastic fabrication, two processes stand out for their versatility: CNC Machining (subtractive) and 3D Printing (additive). CNC carves parts from solid plastic blocks, while 3D Printing builds them layer by layer from filaments or resin. Both make high-quality plastic parts, but their strengths—like precision, speed, and cost—vary drastically based on your
When it comes to making plastic parts—whether for prototypes, small batches, or mass production—two processes dominate: Injection Molding and 3D Printing. Injection Molding uses molds to pour molten plastic into shapes, while 3D Printing builds parts layer by layer from filaments or resin. Both have strengths, but the wrong choice can waste time, money, or
When it comes to 3D printing, two technologies stand out for accessibility and versatility: SLA (Stereolithography) and FDM (Fused Deposition Modeling). SLA uses light to cure liquid resin into precise parts, while FDM melts plastic filaments to build layers. Both work for prototypes, small-batch production, and even end-use parts—but their strengths, costs, and best uses
Polymer CNC machining is a go-to manufacturing process for creating high-quality plastic parts—from functional prototypes to large-scale production runs. Unlike 3D printing, which builds parts layer by layer, Polymer CNC machining uses subtractive technology: it carves precise shapes from solid polymer blocks, delivering superior mechanical strength, tight tolerances, and smooth surface finishes. This guide breaks
Corrosion is the silent enemy of metal parts—turning strong components into rusted, useless scraps over time. From kitchen utensils to aerospace engines, every metal part needs protection. The good news? By matching the right post-treatment anti-corrosion solution to your part type, you can double or even triple its lifespan. This guide breaks down 17 common metal parts,
In CNC machining, industry standards aren’t just rules—they’re the foundation of safe, accurate, and efficient production. Without them, a bracket made in Germany might not fit a machine built in the U.S., or a medical part could fail under stress. Whether you’re a designer creating CAD models, a machinist operating equipment, or a business ordering
In CNC machining, a great design starts with a great technical drawing. Even the most detailed 3D CAD model can’t replace a clear, accurate 2D technical drawing—it’s the bridge between your design ideas and the machinist who builds your part. Whether you’re creating a simple bracket or a complex engine component, knowing how to draw
Injection molding is one of the most popular manufacturing processes for plastic parts—but its success lives or dies by injection molding material selection. Pick the wrong material, and your part might crack under stress, melt in high temperatures, or fail to meet industry standards. Pick the right one, and you’ll get durable, cost-effective parts that
CNC prototypes are critical for testing designs before full production—but CNC prototype costs can quickly add up if you’re not careful. From tight tolerances to unnecessary finishes, small choices in design or material can double your budget. This guide breaks down what drives CNC prototype costs, shares actionable tips to cut expenses without sacrificing quality, and uses
Custom metal parts are the backbone of industries from aerospace to medical—they fit unique designs, solve specific problems, and turn ideas into functional products. But customize metal parts isn’t a one-size-fits-all task: the right process depends on your material, budget, design complexity, and production volume. This guide breaks down 8 key manufacturing processes for custom metal parts,
Manufacturing has two heavyweights: subtractive manufacturing (cutting away material) and additive manufacturing (building layer by layer). Both turn raw materials into parts, but they work in opposite ways—each with unique strengths for different projects. Whether you’re making a metal bracket, a plastic prototype, or a complex medical tool, choosing the wrong one can waste time,
CNC machining turns your digital ideas into physical parts—but the quality of the final product starts with your CNC machining CAD design. Even the best CNC machines can’t fix a poorly designed CAD model: thin walls might vibrate and break during machining, unmachinable features could force costly reworks, and tight tolerances might add unnecessary time to
When you think of manufacturing, you might picture massive factories churning out thousands of identical products—waiting in warehouses for someone to buy them. But that’s changing fast. On-demand manufacturing (also called custom manufacturing or cloud manufacturing) is rewriting the rules: it makes products only when there’s a real order, cutting waste, lowering costs, and letting
3D printing is a game-changer for prototyping and small-batch production—but high costs can hold back projects. From material waste to unnecessary post-processing, there are hidden expenses at every step. The good news? You don’t have to sacrifice quality to save money. This guide breaks down how to reduce 3D printing costs across design, manufacturing, and
If you’re looking for a 3D printing technology that balances speed, precision, and cost for polymer parts, HP Nylon Multi-Jetting Fusion (MJF) 3D printing should be at the top of your list. Used by startups and large manufacturers alike, MJF stands out for its ability to make durable, functional parts—from prototypes to low-to-medium production runs.
