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Micro 3D printing has matured into a practical manufacturing technology for producing precision components used in medical devices, microfluidics, electronics, research, and advanced manufacturing. While resolution is often the first specification buyers compare, it rarely tells the full story. This guide explains how to evaluate micro 3D printing technologies across resolution, dimensional accuracy, speed, materials, workflow, cost, and ease of use so you can choose the system that best fits...

Micro 3D printing is changing how academic and research laboratories develop micro-scale devices, prototypes, and functional components. Whether you're designing microfluidic chips, biomedical devices, electronic connectors, or precision manufacturing tools, selecting the right printing technology requires understanding far more than resolution alone. This guide explains how micro 3D printing works, what performance specifications actually matter, how it compares to traditional manufacturing...

When a surgical team prepares for a complex orthopedic procedure, every millimeter matters. The surgical guide needs to fit the patient's anatomy exactly—no guesswork, no adjustments mid-operation. This is where micro 3D printing changes everything for medical device manufacturers.

Rapid prototyping has become essential to modern product development. Engineering teams now expect to turn CAD files into physical parts in hours, not weeks—and the right 3D printer makes that possible. But with dozens of technology types, resolution specs, and material options available, choosing the right system for your workflow can feel overwhelming.

Medical device teams face a critical challenge when developing precision prototypes and anatomical models: finding a manufacturing method that delivers micron-level accuracy while meeting strict biocompatibility requirements. B9Creations helps solve this problem with high-resolution micro 3D printing technology designed specifically for healthcare applications. This guide walks you through everything you need to know about biocompatible micro 3D printing—from technology fundamentals to material...

Where micro additive manufacturing outperforms legacy approaches 

As electronics, sensors, and electromechanical systems continue to shrink, the components that connect and assemble them must keep pace. Micro electrical connectors, tiny sockets, miniature switch components, and intricate tooling inserts for assembly and test all require feature sizes and tolerances that push the limits of conventional manufacturing. At the same time, design cycles are compressing, customization is becoming the...

Why micro 3D printed jigs and fixtures matter 

As products shrink and integrate more functionality into less space, the tools used to assemble, test, and service them must evolve as well. Traditional jigs, fixtures, and manufacturing aids are typically designed around millimeter-scale components and processes – effective for many applications, but increasingly inadequate for micro-scale assemblies in medical devices, electronics, and advanced research. When critical features are measured in...

Selecting a micro 3D printer for medical device prototyping requires more than browsing spec sheets. You need a system that delivers micron-level accuracy, works with biocompatible materials, and fits your development workflow. B9Creations helps medical device engineers evaluate these critical factors with solutions designed for high-precision applications.

Medical devices keep getting smaller—and the tolerances keep getting tighter. From microneedle arrays to catheter components and microfluidic diagnostic chips, today's R&D projects demand features at the micron scale with accuracy that conventional machining and molding often can't deliver. B9Creations gives you the micro 3D printing precision your prototyping work requires.

Additive Doesn’t Need to Disrupt. It Needs to Deliver.

In a recent conversation with Joey Mullick, Managing Director of Skara Ventures, one core message stood out: Additive manufacturing isn't a monolith – it’s a machine tool.

And the sooner we as an industry embrace that mindset, the faster we can escape the hype cycle and deliver real, scalable value to our customers.

When it comes to precision manufacturing, achieving tighter tolerances than a printer’s effective resolution is a game-changer. By leveraging a feedback-driven approach, engineers can fine-tune printed components to achieve exceptional accuracy. This method is particularly useful when working with B9Creations printers, which already deliver high-precision prints but can be further optimized for post-processing, component wear, and handling.

B9Creations is revolutionizing 3D printing with advanced solutions that empower industries to innovate. From aerospace to healthcare and beyond, their technology enables precision, efficiency, and seamless integration, making them a trusted partner in additive manufacturing.

Published in Advanced Science by KAIST, this research—enabled by B9Creations technology—introduces modular neural devices that integrate stimulation, drug delivery, and wireless control. High-precision 3D printing ensures seamless design, advancing neuroscience research and potential treatments for neurological disorders.

The landscape of 3D bioprinting is evolving at an unprecedented pace, pushing the boundaries of what’s possible in regenerative medicine, tissue engineering, and biomedical research. Innovations in bioprinting technology are enabling researchers and clinicians to fabricate complex biological structures with unmatched accuracy and repeatability, revolutionizing healthcare and life sciences.

Achieving true dimensional accuracy in additive manufacturing requires more than just selecting the right printer—it demands a comprehensive approach that addresses every stage of the process. While manufacturers often advertise impressive precision, real-world conditions introduce variables that can impact repeatability and reliability. From Design for Additive Manufacturing (DFAM) to rigorous QA-QC processes, this blog explores essential strategies for minimizing variability, optimizing...

Microscale additive manufacturing, or micro 3D printing, is a manufacturing process that uses additive technology to create small, intricate parts ranging in scale from a few microns to several millimeters. This process is becoming increasingly popular due to the growing demand for small, high-precision components used in industries from healthcare to aerospace, electronics manufacturing, and beyond.

Join us as we work alongside an expert panel to dive into everything from CAD to casting, industry trends, new technologies, and beyond during B9Creations’ Digital Jewelry Summit, a virtual event spanning five sessions!

Learn more about B9Creations’ brand-new 3D printing solution, the Core 5 Series XL - 385 3D printer and HD Clear, a translucent companion resin! With a 385nm light engine, the Core 5 Series XL - 385 enables customers to 3D print translucent parts with pinpoint accuracy. HD Clear is formulated for the Core 5 Series XL - 385 and is ideal for high-precision parts that require translucency. During the webinar, we’ll dive into features of the Core 5 Series XL - 385 and HD Clear, let you in on how...

Watch as we uncover the secrets to successful post-processing – from support removal to cleaning and curing your 3D printed models. Discover best practices, see live demos, and find out what real customers have to say about B9Creations’ automated post-processing solutions. Plus, stick around until the end of the webinar to see if your questions were answered during our Q&A session!

Replace your traditional rubber molds with our quick-print, high-detail Resilient - Silicone molds to flawlessly cast intricate designs, mass produce in minutes, cut costs, save time, and grow revenue. Learn more about 3D printed jewelry molds and the materials that make it possible!