Traditional manufacturing consists of a variety of fabricating and machining techniques, including injection molding, CNC machining, metal casting and sand casting. This is an effective and cost-efficient process for creating large quantities of a single product.

Metal 3D printing enables engineers to build parts that cannot be made with any other fabrication method. Examples include topology optimized parts generated by generative design software and lightweight structures required for aerospace applications.


Compared to traditional manufacturing, 3D printing can be more cost-effective. This is due to the reduced need for molds and tooling, which reduces production costs. Additionally, a 3D printer can produce a prototype for a mold or tooling in less time than traditional methods, which helps manufacturers avoid costly errors and ensures that the final product meets their desired specifications.

3D printing is also an excellent option for producing prototypes of complex parts. This can be especially beneficial for medical device manufactures, which typically have tighter tolerances than consumer products. A prototype can be used to test the mechanical properties of a new part, which can then be adjusted accordingly. In addition, a prototype can be used to create a custom-fitted part for a patient, which can improve safety and efficiency.

One of the biggest limitations of metal 3D printing services is that it can only be used with a limited range of materials. In addition, the mechanical properties of printed metals depend on the print process, so it is important to select a suitable material for your application. For instance, a laser powder bed fusion (LPBF) machine can produce high-density metals with isotropic mechanical properties and yield strengths comparable to those of cast and machined parts.

Despite these limitations, metal 3D printing is an extremely versatile fabrication technique that can improve efficiency and agility in the workplace. By eliminating the need for detailed drawings and CAM and dramatically shortening lead times, 3D printing can help organizations generate more revenue.


Traditional manufacturing methods can take a long time to complete. Machining requires more set up time than injection molding and the casting of metal parts is an extremely lengthy process compared to 3D printing. Combined with the fact that many parts must be welded together or fabricated from multiple components, this can result in high lead times.

Metal 3D printing allows for the production of complex and unique geometries that are not possible to produce using conventional manufacturing techniques. The speed of the metal printing process also helps to reduce the overall lead time for production. It is also much easier to produce multiple parts at the same time, which can save time and money.

While the cost of metal printing can be high, it is worth remembering that it is much more affordable than conventional processes such as machining or injection molding. The time savings in terms of CAD/CAM and tool pathing, reduced labor and machining costs, and shorter lead times can more than offset the initial investment required for metal 3D printing.

In addition to its cost advantages, the speed of metal 3D printing makes it an ideal solution for prototyping complex, durable parts in a short amount of time. This can help to reduce the number of iterations required to finalize a design and improve product performance. It is also a great way to test new materials and finishes. The ability to quickly and easily produce parts on demand can also significantly reduce the need for spares, which can be stored digitally and printed as needed, eliminating costly warehouse space and cutting supply chain costs.


Metal additive manufacturing is more flexible than traditional processes. This flexibility allows for faster iteration during product development, which in turn can lead to improved efficiency and better products. For example, with 3D printing, engineers can quickly print prototypes for functional testing and make design changes without having to wait for the creation of a mold. This saves time, money, and resources.

In comparison, with traditional processes such as CNC machining, it can take several builds to fine-tune a part’s design for mass production. This can add up to significant cost over time. Furthermore, CNC machining often requires multiple steps to achieve a specific mechanical property, such as tight tolerances or precise surface finish.

However, the size of metal parts that can be produced using 3D printing is limited. Large-format printers are available to address this limitation, such as LPBF and BJT, but there is also the option of Directed Energy Deposition (DED), which can print much larger parts.

With the advantages and disadvantages of both processes, it’s important to understand the benefits of each and decide which is best for your business. In our upcoming webinar – 3D Metal Printing: Pros and Cons – the experts at 3DEO will discuss how metal additive manufacturing can be the right solution for your business. To learn more, register here.


In comparison to traditional manufacturing methods, metal 3D printing can produce parts with superior mechanical properties. It also makes it possible to create complex geometries that cannot be produced by casting or machining. This enables engineers to reduce the number of components in the assembly, saving both cost and time.

In addition, the speed of production of metal parts using 3D printing is considerably faster than many traditional methods. This is largely due to the elimination of the need to make the molds and casts used in conventional machining. The manufacturing cost is also independent of the quantity, making it a more attractive option for smaller production runs.

When designing parts for printing, it is important to minimize the need for support structures that will increase the cost of the part. Additionally, it is crucial to optimize the geometry of the part for topological optimization. This will ensure that the part’s performance is maximized while its weight is minimized.

Finally, it is important to consider the environmental impact of the process. With the use of the right materials and processes, it is possible to achieve high sustainability levels when using metal 3D printing. This is because only the necessary amount of raw material is used in the print, resulting in less waste. Furthermore, the unused raw material can be recycled and used again in future builds, increasing the sustainability of the process.

Thanks for visiting atoallinks