3D Printing Services

Order Now, Pay Later - Here’s How Our Terms Work

Yes, that works.
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You can confirm your order by sending us a purchase order or email confirmation. No upfront payment is required—we’ll proceed accordingly.

However, you will have to either execute a few orders with us or have a credit approval from our team.

The maximum credit days you can avail would be net 30 from the invoice date. For CNC or tooling projects, it's a straight 50% advance, 30% upon T0, and the remaining before dispatch.

Your Feedback Powers a Better Amuse 3D Experience

At Amuse 3D, listening to customers isn't just a principle; it's how we do things. The way Amuse 3D interacts with customers—by listening, adapting, and changing—has had a big effect on how we deliver our services.

Each order is a chance to grow and learn, not just a delivery. We can improve our process with your advice, worries, or even minor observations. Your opinions on this order are greatly appreciated, as they help us create a better experience for you and all of our customers.

Whether it's about the print quality, packaging, delivery, or something else entirely. Feel free to express your opinions. That is how we continue to raise the standard.

We send feedback links pertaining to each to hear how you feel. Also, you can send us the feedback via email info@amuse3d.in

If you feel you have a problem with the lot, feel free to raise a complaint ticket with our customer success team; we will resolve it in 24 to 48 hours.

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Stay Updated with Real-Time Tracking and Dispatch Details

As soon as your order ships, Amuse customer support will send you a separate email with your tracking number and dispatch details and full part photos associated with your sales order.

You can also find your tracking number by clicking on your order number in your account and scrolling all the way down.

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Embossed & Engraved Features‍

With HP Multi Jet Fusion technology, people can print letters and drawings with very high resolutions and definitions that look like they were embossed or engraved. Any text, number, or drawing in a part should be at least 1 mm deep or high for the best possible output.

• Min height/depth: ≥ 1 mm
• Min font size: 6 pt
• Min feature width: 0.1 mm

Design Smarter, Lighter Parts with MJF Optimization Techniques

With HP Multi Jet Fusion technology, you can print designs that are optimized for topology or even small lattice structures. This design lets you make thinner sections that hold less heat and radiate it back out, which makes the parts more accurate and better looking overall.
Compared to fully solid designs, it also helps to lower the weight of the part, the amount of material, and the fluid agent used. This not only lowers the cost of the part, but it also lowers the cost of running the part in applications where weight is very important.
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Parts that are hollow:
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This design optimization strategy uses an automatic process to make the model hollow. (Professional software like SolidWorks, Materialise Magics with Materialise Build Processor for HP Multi Jet Fusion technology, and Autodesk® Netfabb® already has this feature.) The walls should be at least 2 mm thick, but thicker walls have better mechanical properties. The best choice depends on how it will be used.
You can add drain holes to the hollow part after the model has been printed to get rid of the powder that is stuck inside. If not, the powder that isn't fused can get stuck in the part, making it heavier and stronger than the fully hollow option. The part is still light, but it is not as strong as the one that is not hollow. The two materials have different densities, which is why they weigh different amounts.

Structures with a lattice:
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This design optimization strategy involves hollowing out a part and replacing the solid mass inside with a lattice structure. This structure provides mechanical integrity through the combined action of many rigid cells, while also significantly lowering the part's weight and cost.
This redesign is also quick and can be done automatically with professional software like nTopology or Materialise Magics.

Topology optimization:

Topology optimization is a process based on the finite element method (FEM) that finds the best way to spread out material based on a set of constraints and an optimization goal. Reducing weight and making specific mechanical properties are common goals of optimization. The designer needs to know a lot about how the part works and how the load is spread out, but this is the best way to lower the weight and cost of the original design.

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Summary: