
Explore binder jetting and multi-jet fusion, design possibilities and guidelines, materials like sand, metal, polymer, ceramic, plus printing, post-processing, and health and safety considerations.
Explore binder jetting and multi-jet fusion, detailing bj and mjf components, powder coating, bonding and fusing, curing, and sintering steps that yield finished parts, including colored prototypes and metal parts.
Explore the pros and cons of binder jetting and multi-jet fusion, including fast production, smooth color surfaces, fine tolerances, and strong mechanical properties, plus challenges like debinding, sintering, and fragility.
Explore design possibilities for binder jetting and multi jet fusion, including high-resolution hollow structures, complex parts, sand casting, washout tooling for composites, and smooth internal channels.
Explore metal binder jetting design guidelines for walls, overhangs, holes, and tolerances. See sintering deformation simulations compare predicted vs actual results and note the minimum feature size of 2 mm.
Multi-jet fusion design guidelines refine tolerances and details compared with SLS, emphasizing connecting parts, moving parts, escape holes, and channels, with final parts cleaned using piano wires.
Explore materials for binder jetting and multi-jet fusion, including sand molds, metals like 316 and copper, ceramics such as alumina, carbides, and polymers like PA 11/12, polypropylene, TPU, and TPA.
Explore what we can print with binder jetting and multi jet fusion, including sand-mold pillar casting, tungsten and M2 tooling, and fully 3d printed metal parts with intricate designs.
Explore health, safety and environment for binder jetting and multi-jet fusion. Learn to read safety data sheets, select safety equipment, manage powders, and comply with ASX workplace evaluations in Denmark.
Optimize binder jetting workflows by orienting and nesting parts to boost production speed, simulate sintering to predict deformation, debind and sinter or infiltrate, and plan post-processing.
Explore the multi-jet fusion printing process, including part orientation and nesting, scaling for shrinkage, 80/20 powder mixing, packing density, and the cooling advantage over SLS.
Explore post-processing techniques for binder jetting and multi jet fusion. Apply heat treatment, abrasive blasting, deburring, electropolishing, and quality control to improve surfaces, microstructures, and corrosion resistance.
Access general links on additive manufacturing and specific links about binary dating and multi-jet fusion for further study.
Demonstrates how additive manufacturing enables single-material 3D printed designs with dramatic weight reductions and faster production, illustrated by SLS and SLM examples.
This online course focuses on the 3D printing technologies Binder Jetting and Multi Jet Fusion. The course gives you a 360-degree introduction to the technologies, where you learn about e.g. the printing process, typical applications of the technologies, types of materials, design options and the different types of finishing. This will give you an understanding of the benefits and limitations of the technologies so you can better assess when they make sense to apply.
Learn more about Binder Jetting and Multi Jet Fusion
Additive Manufacturing (AM) - or 3D printing - is increasingly used as a production resource and thus no longer only for prototypes.
In this course, we go in depth with the 3D printing technologies Binder Jetting and Multi Jet Fusion. Here you get an overview of all the different aspects of the technologies, so you are better equipped to assess whether Binder Jetting or Multi Jet Fusion makes sense for you - and when. With the Danish Technological Institute as a course provider, you are also sure to get an independent and objective review of the technologies.
Benefits
Understanding of the technologies and how they work
Overview of benefits and limitations for these specific 3D printing technologies
Knowledge of materials and process steps
Insight into the various design options as well as the design rules for these technologies
Inspiration for different applications of the technologies from case examples
Attention to the safety aspects
Knowledge of quality assurance and post processing