MadeInAdd service review: a seamless 3D printing experience with no CapEx
We put MadeInAdd’s on-demand 3D printing platform to the test for functional and aesthetic automotive parts
In our ongoing exploration of advanced manufacturing solutions, we partnered with MadeInAdd, one of Europe’s leading on-demand production platforms. This was our first time sourcing parts through an external 3D printing service, despite having deep knowledge of the global AM ecosystem.
Our unique position—experienced in theory but new to outsourcing—made us an ideal test case for anyone curious about transitioning from in-house prototyping to external on-demand manufacturing, whether you’re a seasoned engineer or just entering the world of additive manufacturing. With no learning curve and no capital expenditure required, obtaining parts through the MadeInAdd platform was an incredibly smooth and seamless experience from start to finish.
MadeInAdd is positioned as a comprehensive end-to-end digital manufacturing solution, enabling users to turn ideas into finished parts with remarkable speed and efficiency. With features like intuitive online quoting, expert engineering guidance, and a network of vetted local suppliers, it promises scalability without complexity.
For this review, we did not require DfAM (Design for Additive Manufacturing) support, but it’s clear that this is one of MadeInAdd’s major value-added features. According to the platform, utilizing their DfAM service can reduce development time by up to 50%, decrease part weight by 20%, and lower costs by 15%. That’s no small feat—and it’s powered by a comprehensive suite of technologies, from DMLS, SLS, and MJF to SLA, DLP, and FDM, with 74 materials covering metals and polymers, plus 3- and 5-axis CNC machining and ISO-certified quality management.
To see what MadeInAdd could do, we submitted two very different parts:
- A large automotive manifold airflow component – demanding heat and stress resistance.
- A custom interior trim cover – requiring surface quality and precise tolerances.
The entire workflow is documented in a video we created (below). Although the video has been sped up to just a few seconds, the actual process of registering on the platform and placing an order took only minutes. From onboarding to production, everything was incredibly streamlined.
Let’s get to business: it all begins here.
Getting MadeInAdd
Getting your part printed by MadeInAdd begins with registering on the portal—a straightforward process that involves entering your email address and address, choosing a password, and confirming your account. This brings you to your account dashboard, where you can track all your quotes, orders, and uploaded 3D model files.
Once you’re in the system, it takes just minutes to finalize your quote. To begin, we uploaded the 3D file of the airflow component. You can either drag and drop it into the upload window or select it from your folders. The system supports all the most common file types, including STEP, STP, STL, X_T, and GLB. The newer 3MF file format is not yet supported; however, many online tools offer fast conversion to one of the accepted formats. Even if you don’t yet have a 3D model, you can get a budget estimate by entering a few basic geometric details, such as dimensions and volume.
Once the file is uploaded, the system performs an automatic geometry check and quickly suggests optimal manufacturing options based on the part’s requirements. In our case, the initial suggestion was a low-fill PLA print with under 20 percent infill—suitable for a visual prototype, but not for a functional part.
This is where the system truly shines. The quoting engine responds in real time to any change in technology, material, or finish, allowing users to test and compare multiple combinations instantly. We explored a range of technologies, from stereolithography to powder bed fusion, encompassing both plastic and metal additive manufacturing. Each option was accompanied by specific material choices and price breakdowns, making it easy to determine the best fit for our needs.
This means that for every spare part in your warehouse with a corresponding CAD model, you can evaluate whether it’s better to buy multiple injection-molded units upfront (and store them) or maintain a digital inventory and print them on demand. Even if you don’t yet have a CAD model, there are now several AI tools that can generate printable 3D models from 2D images. While these may not be perfect, they’re usually sufficient for estimating printing costs. For full reverse engineering accuracy, you can rely on MadeInAdd. In addition, the company informed VoxelMatters that it will release the world’s first AI agent in October that can support users in creating professional 3D models.
Powder-based processes, such as SLS and MJF, primarily use nylon, nylon composites, polypropylene, and TPU. By exploring different technologies, you discover useful insights—for example, TPU is quite expensive when printed with SLS but more affordable via MJF. FDM offers the widest selection of advanced thermoplastics, including ULTEM and Carbon PEEK, while resin-based methods offer flexible, medical-grade, high-temperature-resistant, and transparent materials.
Printing the Parts
For the airflow manifold, we needed a durable thermoplastic. We chose SLS (we could have also used FDM or MJF) and selected a glass fiber-filled Nylon 12 for enhanced heat resistance. The system provided an immediate quote of €280 for a standard 9-day delivery.
For the interior cover, we chose MJF to benefit from slightly faster delivery (8 days instead of 9), at a cost comparable to SLS using neat PA12. The quote was €83, which was below MadeInAdd’s minimum order requirement of €100, so we opted to invest the difference in post-processing for a higher-quality finish.
After selecting the technology and material, MadeInAdd allows you to choose from a wide range of specific post-processing options. For MJF, these include inserts, impregnation, smoothing, painting, and dyeing. Metal parts also support advanced options such as anodization and HIP (Hot Isostatic Pressing). We selected black dyeing for the part, which extended delivery to 9 days. Although post-processing adds lead time, the system alerts you upfront, allowing you to decide whether the additional wait is worthwhile.
If you require precision beyond standard tolerances, MadeInAdd also provides a comprehensive range of quality control and testing services. Options include 3D scanning, CT scanning, pressure and density testing, and even X-ray analysis. While these add significantly to the cost, the convenience of accessing all these services in one place—without investing in expensive equipment or building internal capabilities—makes the offering particularly compelling for small teams and startups.
Receiving the parts from MadeInAdd
Both parts arrived on time in protective packaging (cardboard and bubble wrap) and exceeded our expectations in quality.
Breakdown of critical elements:
Manifold Component
- Flanged edges and bolt holes were dimensionally perfect.
- The Y-shaped internal cavity was executed with impressive accuracy.
- The result was a solid, high-functioning component.
Interior Cover
- A cracked-pattern texture added both grip and style.
- The part fit precisely around a structural frame.
- Reinforced ribs on the back added stiffness without weight.
- Snap-fit mounting pegs worked flawlessly.
For the airflow manifold, we specified flanged edges for mounting onto a flat surface, as well as accurate hole dimensions for bolting. The internal Y-shaped cavity added further complexity, yet it was produced with impressive precision, resulting in a strong, functional part.
Although smaller in file size, the interior cover was a custom component for a specific vehicle, introducing its own geometric challenges. The front side features a stylized cracked pattern for both grip and aesthetic appeal. The part required high-dimensional accuracy to fit around a structural element, such as a door frame or seat base. The back side includes reinforcing ribs to increase stiffness without adding weight, a common design choice in automotive applications. One of the most critical features was the integration of four push-fit mounting pegs that allow the part to snap into place without screws.
While waiting for delivery, we attempted to print the same part using a professional FDM printer. The print had to be oriented vertically due to the peg geometry, resulting in the heavy use of support structures and a lower-quality finish. The difference between the home-printed version and the MadeInAdd part was substantial.

Both parts were delivered via DHL perfectly on time. They arrived wrapped in protective packaging, inside cardboard boxes. In total, our project cost €353 for the glass-fiber-reinforced airflow manifold and €112 for the dyed PA12 interior trim cover. And we did it all with zero upfront investment—no machines, no tooling, and no setup fees.
More than just parts, MadeInAdd delivers peace of mind. The platform makes high-quality manufacturing accessible to anyone. Whether you’re developing industrial prototypes or small-batch production parts, it offers a new, frictionless path from concept to reality. For anyone considering external 3D printing services, this experience demonstrates how seamlessly it can be done—and just how powerful that can be.




