How to manufacture obsolete parts with 3D printing
There is a fairly common problem in industry that often brings more projects to a standstill than one might think: a part breaks… and is no longer available. It could be a component for an old machine, a specific housing, a bracket, a part from a discontinued system, or a spare part that is impossible to source because the manufacturer stopped producing it years ago. And the worst part is that we’re often not even talking about a major critical part. Sometimes a small part can bring a production line, a machine or a piece of equipment to a complete standstill. Until recently, the options were quite limited: but industrial 3D printing is radically changing this situation. Today it is possible to reproduce many discontinued parts quickly, functionally and cost-effectively, even if no original drawings exist. And this is no longer an experimental process. More and more companies are using additive manufacturing to solve real-world problems relating to maintenance, operational continuity and industrial replacement. The real problem with discontinued parts When a part disappears from the market, the problem is not usually just the cost of the replacement. The real problem is everything it causes: downtime, delays, production stoppages, dependence on suppliers and loss of productivity. In many industrial settings, continuing to use older machinery remains entirely cost-effective. The problem arises when a small component is no longer manufactured and finding a replacement becomes an impossible task. This happens very frequently in: And this is where industrial 3D printing makes perfect sense. Because it allows parts to be manufactured on demand without the need for moulds, long production runs or reliance on the original manufacturer. 3D printing isn’t just for prototypes There are still companies that continue to associate 3D printing solely with models or visual prototypes. But the reality is very different. Current technologies allow for the manufacture of: Furthermore, thanks to technical materials and industrial technologies such as MJF, SLS or SLA, many of these parts can withstand: mechanical stress, temperature, vibration, wear and tear, or continuous use. That is why more and more companies are using additive manufacturing to solve industrial maintenance and replacement problems. How to manufacture a discontinued part using 3D printing One of the biggest misconceptions is thinking you need the original file for the part. Often, this isn’t necessary. There are now several ways to reproduce an old or discontinued part. 3D scanning If a physical part still exists, even if it is broken or worn, it can be scanned to generate a digital model. 3D scanning allows for the highly accurate capture of geometries, dimensions, complex shapes and technical details. This file can then be corrected and optimised before the new part is manufactured. Reverse engineering When original drawings are unavailable, the part can be digitally reconstructed using measurements and technical analysis. This is very common in: Furthermore, it often even allows for improvements to the original design. For example, reinforcing weak areas, reducing weight, optimising geometries or adapting the part to new requirements. Functional redesign In some cases, it is not necessary to copy the original part exactly. The important thing is that it fulfils the same function. Here, 3D printing offers a great deal of flexibility because it allows components to be redesigned, adapting them to the company’s actual use. And this often even improves performance compared to the original component. Key steps for manufacturing a discontinued part Although every project is different, the process usually follows these stages: 1. Part analysis The first step is to understand: Manufacturing a visual housing is not the same as manufacturing a part subjected to vibrations or temperature. 2. Digitisation or modelling Here, the 3D file is generated using: In many cases, this stage is used to correct defects or improve the original design. 3. Choice of technology and material One of the most important steps. The choice will depend on: strength, temperature, precision, finish, flexibility and end use. Choosing the wrong material can cause the part to fail quickly, even if it is perfectly manufactured. 4. Manufacturing and validation Once manufactured, the part is tested and validated in a real-world environment. Small iterations are often carried out to adjust tolerances or improve performance before manufacturing the final version. What types of parts are usually produced? Currently, discontinued parts are already being manufactured for a wide range of industrial applications. Some fairly common examples are: These are often relatively simple parts but essential for a machine to continue functioning. And this is where additive manufacturing allows the problem to be solved much more quickly than trying to source original spare parts. How to choose the right technology and material for printing spare parts Not all technologies are suitable for the same purpose. Choosing correctly depends on the actual use of the part and the environment in which it will operate. Technology Best for Advantages Limitations FDM Prototypes and basic functional parts Economical, fast and versatile Less precise finish SLA Detailed parts and fine finishes High visual precision Lower mechanical strength SLS Technical parts and complex geometries Very good strength Higher cost MJF Industrial production and functional parts Precision, repeatability and speed Requires industrial machinery Metal (DMLS/SLM) Demanding metal components Maximum strength High cost As for materials, some of the most commonly used today are: Material Typical application Characteristics ABS Enclosures and supports Impact-resistant PA12 Industrial parts Very good mechanical strength TPU Seals and flexible parts Elasticity and shock absorption ASA CF Exterior and automotive UV and weather resistance PAHT CF Demanding industries High thermal and mechanical strength Advantages and considerations before manufacturing a discontinued part 3D printing offers many advantages in this type of application, but there are also important aspects that should be assessed before manufacturing. Advantages Important considerations It is also important to bear in mind: Not all parts can be manufactured using any technology or material. That is why it is essential to analyse each case technically before manufacturing. It also allows for the improvement of parts that were constantly failing. Often, the original parts had problems: 3D printing not only allows the part to be copied. It also allows it to be improved. For example, by reinforcing certain areas, changing thicknesses, modifying geometries or using more resistant materials. This means that in some cases the new part works even better than the original. The great
How to reduce part validation times in automotive with 3D printing
In the automotive industry, being late costs money. And often the problem isn’t in production, but much earlier on: in the validation of parts. A geometry that doesn’t fit properly, a part that requires several iterations, or an assembly that fails testing can delay an entire project by weeks. And when it comes to the automotive sector, such delays end up affecting suppliers, type approvals, production lines and launches. That is why more and more companies in the sector are using industrial 3D printing to speed up validation and reduce development times. We are not just talking about rapid prototyping. We are talking about manufacturing real, functional parts to validate earlier, detect errors sooner and make decisions much faster. And that is where additive manufacturing is completely changing the way many engineering departments work. The real problem: validating parts is still slow Many companies continue to validate components using processes designed for production, not for development. The problem is that during the validation phase, everything is constantly changing: and every small change forces processes to be repeated. When you rely on machining or temporary moulds, this can become a major bottleneck in product development: waiting times, external suppliers, cost overruns, delays and difficulty in iterating quickly. In the automotive sector, where deadlines are becoming increasingly tight, this is no longer sustainable for many projects. That is why companies are integrating 3D printing directly into their validation processes. Which parts are typically validated using 3D printing? One of the advantages of additive manufacturing is that it allows for the validation of a wide variety of components before moving to production. It is currently widely used for: It is also very common to use it for: Often, there is no need to manufacture a final part. The important thing is to quickly validate whether the design works before moving forward. And that is where 3D printing saves a great deal of time. What is really changing with 3D printing The big difference is not just the speed of manufacturing. What is really changing is the way we work. Previously, modifying a part meant resubmitting the design, waiting for production, validating, detecting errors, and starting over. Now teams can iterate much more quickly. They can test different versions almost in parallel, validate real assemblies and make technical decisions much earlier. This drastically reduces downtime during development. And it also improves something very important: the ability to react quickly. In the automotive sector, that is key. The ability to iterate quickly not only speeds up validation: it can also reduce costs and improve manufacturing efficiency. Here you can see real-world examples of how companies are applying this with 3D printing. Practical example: validation of a technical support bracket Imagine a company developing a new support bracket for an assembly line. The CAD design looks correct, but they need to check for real-world space, accessibility, strength and in-line assembly. With traditional manufacturing, it could take weeks between sourcing, machining and adjustments. With 3D printing, they can: In many cases, this saves weeks of development time. It also avoids producing moulds or final parts too early. Rapid validation has become a competitive advantage In the automotive industry, developing a part is no longer just about designing and manufacturing it. The real challenge lies in validating quickly, iterating rapidly and making technical decisions without slowing down the project’s development. There is increasing pressure to speed up launches, optimise processes and reduce lead times between design and production. This forces engineering teams to work in a much more agile way than they did a few years ago. In many projects, moreover, parts are constantly evolving during development. Geometries, materials, assemblies or technical requirements change practically on the fly. Being able to validate these modifications quickly makes a huge difference in terms of time, costs and responsiveness. This is where industrial 3D printing fits particularly well within the automotive sector. The ability to produce functional prototypes in a very short time allows real solutions to be tested earlier, errors to be detected quickly and development to move forward without relying on long or rigid processes. More than just an alternative to traditional prototyping, additive manufacturing has become a strategic tool for accelerating innovation and gaining flexibility within product development. Most commonly used technologies for validating parts Not all 3D printing technologies are suitable for the same purposes. Depending on the type of validation, some are more suitable than others. MJF (Multi Jet Fusion) This is one of the most widely used technologies in industrial automotive applications today. Why? Because it allows parts to be manufactured: It is widely used for: Furthermore, it has a major advantage: the parts can withstand real-world testing. SLS Widely used when complex geometries or lightweight technical parts are required. It allows components to be manufactured without supports and offers excellent mechanical properties. It is commonly used in: SLA When visual finish or detail is paramount, SLA is often a very good option. It is used quite a lot for: FDM Although it is a simpler technology, it is still widely used for rapid validation and initial testing. It is particularly useful when: What benefits is the industry seeing? Companies that integrate 3D printing into their validation processes often see improvements quite quickly. Particularly in: It also greatly reduces reliance on external suppliers for certain phases of the project. And something very important: it allows validation before investing in moulds or final production. This reduces risks and avoids many unnecessary costs. 3D printing does not replace automotive production; it accelerates development This is one of the most common misconceptions. 3D printing does not necessarily have to replace traditional manufacturing. What it does is accelerate critical phases of development. It helps to: In fact, many companies already use it as an essential intermediate phase before manufacturing moulds or launching final production. And an increasing number of manufacturers are turning to 3D printing solutions for automotive parts to integrate this type of rapid validation into their engineering processes. It is also being used extensively in tooling and on production lines. Beyond prototypes, many companies are using 3D printing to manufacture jigs, customised supports, templates, fixings and tools adapted to
UAV components in mass production: how to scale the design and manufacture of unmanned aerial vehicles
If you're working with unmanned aerial vehicles (UAVs), you've probably been there: you have a working design, a validated prototype... but when it comes to scaling up production, the problems start. High costs, long lead times, dependence on moulds, little flexibility. And this is where many companies get stuck. Because it is one thing to design a drone... and quite another to manufacture UAV components in series production in an efficient and profitable way. Let's take a look at it with you, without unnecessary technicalities. The turning point in UAVs: from prototype to real production The growth of UAVs has been brutal in recent years. We are no longer just talking about recreational drones, but about real solutions in industry, logistics or defence, including the use of unmanned combat aerial vehicles. But there is one thing that is not always mentioned: the real challenge is not in the design, it is in the manufacturing. Because when you go from making 10 units to needing 1,000, the scenario changes completely. This is where many companies run into the same thing: And this, in a fast-moving industry, is a serious problem. Why does traditional manufacturing fall short in UAVs? It's not that injection moulding or traditional methods don't work. They work very well... but under certain conditions. The problem is that UAVs need just the opposite: this is where traditional manufacturing starts to generate friction. Conventional methods require high investment and limit the ability to iterate, which is a huge penalty in environments such as UAVs. The change of mindset: design to make better Here comes the interesting part. When you work with additive manufacturing, you don't just change how you produce. You change how you design. And this, in UAVs, makes a huge difference. Instead of designing parts with moulds in mind, you start designing with performance in mind: Additive manufacturing allows you to completely rethink UAV component development. It's no longer about adapting the design to the constraints of the process, but about leveraging the technology to optimise the product from the start. This results in lighter parts with optimised geometries and much greater functional integration. Instead of assembling multiple components, it is possible to consolidate them into a single part, reducing weight, failure points and assembly times. In fact, an engine mount is redesigned to be lighter, more efficient and easier to mass produce. This is not just design. It's strategy. Mass production without moulds: this is where it all changes Let's get to the important stuff. The big change is not in making better-looking parts. It's about being able to manufacture without relying on moulds. Because that means: And that's exactly what industrial 3D printing enables. Technologies like MJF make it possible to produce hundreds of parts in a single cycle, while maintaining quality, precision and repeatability. In other words, we are no longer talking about prototypes. We are talking about real production. The technology behind it: HP Multi Jet Fusion Within the additive manufacturing ecosystem, not all technologies are ready for mass production. In the case of UAV components, one of the most relevant is MJF. HP Multi Jet Fusion Technology is one of the technologies that really makes it possible to talk about mass production in 3D printing. Why? Because it combines three key things: It is no coincidence that it is being used in sectors such as automotive, aerospace and defence. And in UAVs it fits perfectly because it allows the production of final parts, not just prototypes. The combination of precision, homogeneous mechanical properties and manufacturability allows the production of final functional components, not just prototypes. This is key when it comes to UAVs, where parts must withstand demanding conditions and maintain reliable performance in every batch. In addition, the use of materials such as polyamide 12 provides an excellent balance between strength, lightness and durability, which is essential in aeronautical applications. Which UAV components can be mass-produced This is where many companies click. Because we are not talking about simple parts. We are talking about real functional components. Some very common examples of UAV components in series production: And all this with technical materials such as PA12, which offer mechanical strength, stability and durability for end use. Cost, efficiency and competitiveness in UAVs While traditional manufacturing requires high initial investments and large volumes to be cost-effective, additive manufacturing allows competitive costs to be achieved without that entry point. This makes it a particularly attractive solution for short and medium series, but also for continuous production in dynamic environments. In addition, there is a factor that is often overlooked: the cost of complexity. In traditional manufacturing, the more complex a design is, the more expensive it is to produce. In 3D printing, that ratio changes, allowing optimised parts to be developed without financial penalty. This opens the door to a new generation of UAVs that are more efficient, lighter and better adapted to their function. UAVs in defence: speed, adaptability and on-demand manufacturing When it comes to defence, the context changes even more. This is where UAVs come into play, where speed and adaptability are not a bonus, they are a necessity. Additive manufacturing makes it possible: This approach not only improves operational efficiency, but brings a distinct competitive advantage in environments where speed and adaptability are critical. Here you can see how this is being applied in real projects, where many companies are finding a clear competitive advantage. So... when does it make sense to use 3D printing in UAVs? Just so you're clear, there are several scenarios where it fits particularly well: If you see yourself reflected in one or more of these points, it makes perfect sense to start thinking about it. The future of UAVs is here UAV manufacturing is changing. It's no longer just about designing better, it's about manufacturing smarter. More flexible. Faster. More adaptable. And that's just what additive manufacturing enables today. No
3D printed moulds and tooling for industry: efficiency, speed and customisation
3D printing and injection moulds are transforming the way industries produce parts and components. More and more companies are turning to 3D printed moulds and tooling for industry as a fast, flexible and cost-effective alternative to traditional methods. Additive manufacturing makes it possible to produce complex, customised parts in less time, speed up production and reduce costs, offering real competitive advantages in industrial processes of all kinds. In this article we will look at how 3D printing of moulds and tooling is changing the industry, its applications, the manufacturing process, the most common materials and how it can help you optimise your processes. What are moulds and tooling and what are they used for? Before delving into additive manufacturing, it is important to differentiate between moulds and tooling, as they serve complementary functions in the industry. Moulds Moulds are used to shape materials, enabling the production of specific parts and components. They are essential in processes such as: Moulds allow identical series of parts to be produced efficiently and are key to industrial mass production, ensuring consistent precision and quality. Tooling Tooling refers to support tools that facilitate and optimise manufacturing and assembly operations. They aim to improve efficiency, precision and quality at every stage of production. Examples include: Collectively, 3D printed moulds and tooling enable industries to produce parts faster, with greater accuracy and reduced costs, while accommodating complex designs that were previously impossible to manufacture. Benefits of 3D printed moulds and tooling The use of 3D printed moulds and tooling brings tangible benefits to industrial production: How Additium3D produces moulds and tooling At Additium3D, we specialise in 3D printing moulds and tooling that enable companies to optimise their production and reduce costs. Our service combines speed, precision and technical advice, covering the entire life cycle of the project: Step 1. Design of the mould or tooling You can send us your sketch or idea, and if you do not have a design, we collect the necessary information and help you to translate it into an optimised 3D model. Our team applies DFM (Design for Manufacturing) criteria to ensure that the final design is efficient and producible. Within a few hours you will receive a detailed quotation, with recommendations for materials, printing techniques, costs and timing. Our aim is to offer transparency and solutions adapted to each industrial need. Step 3. Testing and validation During the testing phase, we work with you to validate the moulds or tooling, ensuring that they meet your requirements for functionality, precision and strength. This phase allows us to fine-tune the designs before final production. Step 4. Final production Once the design is validated, we proceed to the production of all units, either in small series or mass production. Manufacturing is carried out using advanced 3D printing technologies to ensure consistency and quality of the final product. Most common types of 3D printed tooling 3D printed tooling can be adapted to multiple industrial applications. The most common include: These tooling can be made from high-strength plastics, specialised resins, reinforced composites and even metals, depending on the application and the strength and durability requirements. Applications of 3D printed moulds and tooling 3D printing of moulds and tooling enables a wide range of industrial applications to be covered: Common types of 3D moulds 3D printing of moulds is suited to a variety of industrial processes: Key benefits of 3D printing of moulds and tooling Using Additium3D to produce moulds and tooling offers concrete advantages for industry: Optimise your industrial production with Additium3D If you are looking for 3D printed moulds and tooling that will speed up your production, reduce costs and allow customisation on demand, Additium3D is your strategic ally. Our service combines experience, advanced technology and direct attention to deliver solutions adapted to your industrial needs. Request your personalised quote and discover how we can transform your industrial processes with 3D moulds and tooling.
How to prepare and submit your STL file for 3D printing in Additium 3D
If you already have your design ready, the next step is to make sure that the file is perfect so we can print it without any problems. Here I explain everything you need to know to prepare and send your STL file to Additium 3D and get the best quality in your printed piece. What is an STL file and why is it essential for 3D printing? The STL file is the standard format we use for 3D printing. This file converts your design into a mesh of triangles that the printer can interpret to produce your part layer by layer. At Additium 3D, we almost always work with STL because it is the most reliable and compatible with our equipment. What should you take into account when preparing your STL file to send it? What if you have the design in another CAD format? How to convert it to STL? If your design is in CAD formats such as STEP, IGES or DWG, you have to export it to STL before sending it. CAD programs usually have the option “Export as STL” or “Save as STL”. If you have doubts with this step, you can also send us the CAD file and we will help you to convert it so that everything is ready to print. Why is it better to send an STL instead of other formats such as OBJ? Although OBJ stores more visual information, what matters for printing is the geometry of the part, and there the STL is the king. At Additium 3D we optimise your STLs so that the print comes out perfect without losing detail. Where can you find resources to review or improve your STL file before sending it? If you want to make sure that the file is perfect, you can use free programs like Meshmixer or Netfabb Basic to fix possible bugs in the mesh. If you prefer, we will check the file before printing and let you know if we detect any problems. How to send the STL file to Additium 3D? You can send us your STL file through our contact form or by email. If the file is very heavy, we can coordinate a file transfer platform such as WeTransfer or Google Drive. When sending, always include: This helps us to give you a quick and accurate quote. Do you want to convert your STL to other formats such as DXF? If you need a 2D drawing or profile for cutting or milling, we can help you convert your STL to DXF with programs like Fusion 360 or AutoCAD. You only have to ask for it when you send us the design. At Additium 3D we take care of every detail of your file so that the printing is a success. We don't just print; we control the whole process so that the final part is exactly as you imagine it. We check the file, optimise the print and accompany you throughout the process. If you have any doubts or are not sure how to prepare your file, ask us without obligation. We are here to make your project a success.
What is mass production and how has it evolved with 3D printing?
Mass production has been one of the pillars of modern industry since the Second Industrial Revolution. Thanks to this model, companies all over the world have been able to manufacture products in large quantities, reducing costs and standardising processes. Today, with the emergence of new technologies such as 3D printing, mass production is undergoing a new revolution, especially in sectors that demand customised parts or on-demand manufacturing. Definition and concept of mass production Mass production, also known as mass production model or chain production, is a manufacturing system in which large quantities of the same product are produced through repetitive and mechanised processes. What does mass production mean? It implies that products are manufactured in a standardised way, with tasks divided into stations within a mass production line, allowing for greater efficiency and lower unit cost. When did mass production emerge? Mass production became established at the beginning of the 20th century, although its antecedents date back to the Industrial Revolution. The model became popular with Henry Ford and his assembly-line automobile manufacturing system, also known as Fordism. This revolution in industrial production allowed vehicles to be manufactured more quickly and at affordable prices, marking a turning point in the history of the industry. Characteristics of mass production The main characteristics of mass production include the following: This production system makes it possible to manufacture identical products in large quantities, guaranteeing uniform quality and more exhaustive process control. Industrial series production: our experience, advantages and limits At Additium 3D we work on a daily basis with companies that need efficient, scalable and high quality series production. From technical components for industrial sectors to functional parts for end products, we have seen first-hand how mass production is a key tool for scaling up projects and reducing costs. But we also know that it is not a universal solution: it has its pros and cons, and you have to know when to apply it and when not to. Advantages of mass production (from our experience) One of the biggest advantages we see in our work is the economy of scale. For example, when an automotive customer asked us to produce a long series of parts for functional prototypes, we were able to optimise the process thanks to good initial preparation and the use of technical materials in industrial 3D printers. The cost per unit dropped dramatically as the volume increased, making a large-scale testing phase feasible without blowing the budget. In addition, speed is a factor that is highly valued by our customers. In sectors such as product design or architecture, where we have collaborated with studios that needed to iterate versions in a short time, 3D printing allows us to deliver series of parts in a matter of days. This would be unthinkable with traditional industrial processes, which take longer to set up. Another big advantage is consistent quality. By working with advanced technology and composite materials, we can ensure that all parts in the same series maintain the same mechanical and aesthetic properties, which is essential when it comes to functional or display applications. Disadvantages (which we also experience on a daily basis) However, mass production also has its limits, and at Additium 3D we are well aware of them. A clear example is the rigidity of the system: if a client wants to introduce changes once production has started, it is necessary to adjust files, parameters and sometimes even rethink the strategy. This happens a lot in projects where the design is not yet 100% validated. Another important aspect is the initial cost. Although 3D printing avoids expensive moulds and tooling, it does require a technical set-up phase - materials, supports, orientations, validations - which takes time and expertise. We always explain this to our customers before starting series production, because not everything is “print and go”. And finally, although we work with a sustainable mindset, high-volume production can generate waste, especially when substrates are used or parts have to be discarded due to defects. That's why in every project we propose solutions to optimise materials, minimise errors and reduce the environmental footprint. In which sectors is mass production used? In a wide variety of industrial and commercial sectors, especially in those where large volumes of products need to be manufactured efficiently, homogeneously and cost-effectively. Some of the most representative sectors are: 1. Automotive industry This is one of the most emblematic sectors. In fact, mass production as we know it today emerged with Henry Ford and the production of the Ford Model T at the beginning of the 20th century. Since then, the mass production line has been perfected to produce millions of vehicles per year, while maintaining very high quality standards. Electronics and household appliances Mobile phones, computers, televisions, washing machines and microwave ovens are manufactured using mass production processes that enable large quantities of units to be brought to market quickly, reducing costs and time. 3. Food industry From beverages and canned products to snacks and frozen foods, mass production allows processes to be standardised to guarantee food safety, traceability and constant supply in supermarkets and shops. Pharmaceutical industry Medicines and medical devices require highly controlled mass production processes, with very strict quality protocols. Automation makes it possible to comply with health regulations and supply worldwide. Textile and fashion Although there is a handcrafted part in the design, the manufacture of clothing, footwear or accessories is carried out through industrial mass production, especially for large brands and fast fashion chains. 6. Furniture and furnishings Many pieces of furniture are manufactured on automated lines that allow for accurate repeat designs, speedy delivery and competitive prices. 7. Aerospace and defence Aerospace and defence combines mass production with customised manufacturing.
What is laser cutting and what types are there (CO2, 2D...)?
Laser cutting is a manufacturing technique that allows materials to be cut with incredible precision using a concentrated beam of light. It is used in sectors as varied as architecture, engineering, advertising and product design. Did you know that not all laser cutting is the same? Let's take a look at how this technology works and what types of laser cutting exist, such as CO2 laser cutting or 2D cutting. How does laser cutting work? Laser cutting is based on concentrating a high-intensity beam of light on a very small spot on a material. The heat it generates is so high that it melts, burns or vaporises the material, separating it with clean, precise cuts. All of this is controlled by computer-aided design (CAD) software, allowing parts with very complex shapes or fine details to be made. Types of laser cutting Within the world of laser cutting, there are several types depending on the technology used. The most common are: What is 2D laser cutting? 2D laser cutting is a type of cutting that works in two dimensions, i.e. on a plane. It focuses on defining contours and shapes from a sheet of material, such as a wooden board or a sheet of methacrylate. It is ideal for manufacturing flat parts, posters, templates, prototypes, decorations or models, with great speed and precision. At Additium 3D, for example, we work with 2D CO₂ laser cutting in formats of up to 1400 x 900 mm, offering impeccable finishes in both cutting and engraving. What materials can be cut with CO2 laser? The CO2 laser is extremely versatile and allows us to work with a wide variety of materials. Here are some examples: In addition, CO2 laser cutting also allows the engraving of metals, further opening up the range of possibilities for customising parts. Advantages of laser cutting Why is laser cutting so widely used? Here are some of its main advantages: Applications of laser cutting Laser cutting has applications in countless industries: Whether you need a functional part or a unique decorative element, laser cutting offers a fast, precise and cost-effective solution.
Additium 3D takes a leap forward: Selected by Lanzadera
At Additium 3D we are living a key moment in our trajectory: we have been selected to be part of Lanzadera! A boost that reinforces our commitment to offer a comprehensive 3D manufacturing solution for companies, ranging from initial consultancy to the final finishing of the parts. Innovation and additive manufacturing at the service of companies Additium 3D is not just an additive manufacturing company, we are a 4.0 manufacturing Service Bureau that accompanies companies throughout the entire production process. Our value proposition lies in offering tailor-made solutions for each client, integrating technology, innovation and sustainability. We offer a comprehensive service that includes: This combination of technologies and processes has allowed us to collaborate with top-level clients such as Etra, Viccarbe, Monrabal Chirivella, Acierta Retail, Thyssen Krupp, Hospital de la Fe and Hospital de la Ribera, and Campos Racing. We are committed to the future by developing our own 3D printing equipment At Additium 3D we are not satisfied with existing solutions. That is why we are immersed in an ambitious R&D project to develop our own large format 3D printing equipment. After years of advances and modifications, we are in the final phase of this project, which not only responds to the demands of the market, but also to the needs of the planet. In a context where sustainability and respect for the environment are essential, we have worked to make our equipment capable of printing with sustainable materials. Our future large-format 3D printing equipment will be modular and will work with organic-based bioplastics and recycled fillers, developed in collaboration with AIMPLAS. This innovation will allow us to take a definitive leap forward as a company, opening up new lines of business focused on the sale and distribution of this equipment. Furthermore, this advance is closely linked to our participation in the DECAMP research project, approved by the Valencian Innovation Agency (AVI) and promoted by AIMPLAS and IBV. Through DECAMP, we contribute as a research company, consolidating our role as a benchmark in sustainable additive manufacturing. With these new solutions, we not only reinforce our current offer, but also expand our reach, especially towards the sustainable furniture and design industry. What does it mean for us to enter Lanzadera? The Lanzadera programme is designed as an authentic high-performance centre. It is not just a space where ideas flourish, but a dynamic environment where companies receive specialised training, participate in top-level networking sessions and hold strategic meetings with mentors and industry experts. All of this is accompanied by ambitious and rigorous growth plans. As Nogueras, one of the programme managers, points out: “Lanzadera gives you a lot, but it also asks a lot of you. If you are not at the right time to take on that challenge, this is not the programme for you”. And at Additium 3D, we are more than ready. Being selected by Lanzadera is a big step forward for us, as it will allow us: The press is talking about us Our entry in Lanzadera has caught the attention of several media. Don't miss what they say about Additium 3D! Read the news in Valencia Plaza Discover the article in Levante Our appearance in Las Provincias What Expansión says about us El Español also talks about Additium 3D What next? This is just the beginning. At Additium 3D we remain committed to driving sustainable additive manufacturing for business. If you're looking to integrate next-generation 3D printing into your business or collaborate on innovative projects, let's talk. Contact us and find out how we can create tailor-made solutions for your business together.
The best 3D printing companies in Spain
When it comes to 3D printing, there is a wide range of companies offering solutions for different sectors, from prototyping to the production of customised parts. However, it is important to understand that not all companies offer the same level of service. The key difference lies in how projects are approached and the ability to offer an end-to-end solution that covers the entire process, from design to delivery of the final product. In this article, I want to explain why Additium 3D's end-to-end service is the best option for companies in all sectors and individuals looking for a complete and customised solution for their 3D printing needs. 3D printing companies vs. comprehensive 3D printing solution The 3D printing service can be divided into two broad categories: on the one hand, we find companies that offer only the manufacture of parts from an existing design, and on the other hand, there are companies like Additium 3D that provide a comprehensive solution that covers all stages of the process, from design to manufacture and after-sales advice. The traditional 3D printing service focuses primarily on the manufacture of the parts, using 3D printing technology to create objects from digital files. This type of service is suitable for companies that already have a defined design and need a quick and cost-effective solution to produce a prototype or final parts. However, this business model has its limitations: if you do not have a design or if your project requires further customisation, you cannot count on this type of company to develop the whole process. Additium 3D's end-to-end solution, on the other hand, covers the entire project lifecycle. From the moment you have an idea to the final manufacture of the parts, including customised design, technical advice, selection of materials and process optimisation. In this way, we not only ensure that the parts are manufactured with precision and quality, but we also accompany you throughout the process to ensure that the end result meets your expectations and needs. In addition, our offer adapts to any type of project, whether it is for a private individual requiring a single part or a company requiring more complex, higher volume production. Our customised approach ensures that each customer receives exactly what they need, optimising both time and resources. Additium 3D: The complete 3D printing solution for businesses in Spain Selecting the right 3D printing provider can make all the difference to the success of your projects. Unlike other companies that simply sell printers or only offer a printing service, Additium 3D offers a comprehensive service that covers all stages of the process: With Additium 3D, you don't have to coordinate multiple suppliers or buy expensive equipment: the entire process is centralised, saving time, reducing costs and ensuring consistent results. The Additium 3D end-to-end solution: What it includes and why it's the best choice At Additium 3D, we believe in the importance of offering an end-to-end solution that covers all of our customers' needs. We focus on offering a complete service from part design to final manufacturing. Here's what Additium 3D's comprehensive service includes in concrete terms: Custom design If you don't have a previous design, our team of engineers and designers will create the right model for you. Whether you need a working prototype, a customised part or a spare part, we'll help you design it from scratch. Expert technical advice At all times, you'll have the support of our experts to guide you in selecting the right materials and the best printing technology for your project. Our team will be on hand to ensure that the process is as efficient as possible. Fast, quality manufacturing 3D printing enables rapid manufacturing of prototypes and final parts. We ensure that each part is manufactured with the utmost precision, using the best techniques and materials available on the market. In addition, if your project requires a larger production run, we can scale up manufacturing without compromising quality. Variety of materials We have a wide range of materials available, from standard plastics to resins and metals, allowing us to offer solutions tailored to different needs. Whether you need a strong, flexible or high-precision part, we have the right material for you. Scalability If at any point your project needs to move from prototyping to mass production, we can adapt to your needs. 3D printing is not only ideal for small runs, but is also perfect for producing larger series efficiently. Optimised final delivery We ensure that every part is delivered on time and to the expected quality. In addition, our after-sales service offers you the support you need to resolve any questions or problems that may arise once you receive the parts. What sets us apart is that we don't just print parts; we accompany you throughout the entire process, ensuring that every stage of the project is carried out in the most efficient and cost-effective manner. No matter what industry you operate in, at Additium 3D we offer solutions that are tailored to your specific needs. When to go with an all-in-one 3D printing company like Additium 3D? Choosing an all-in-one 3D printing company like Additium 3D is the best option when you need a complete solution that covers all the phases of the project, and even when you need just one specific one. Here are some situations in which our offer is the most suitable: When you don't have a design and you need a customised part If your project doesn't have a design
