Spørgsmål og svar om 3D print

Our 100% design guarantee serves as your security for a usable result. If we evaluate that a file is not suitable for 3D print, we contact you immediately rather than just manufacturing something that will not work. We ensure that your design meets the technical requirements for the chosen method of 3D print. This process helps optimize your total 3D print time and ensures the highest quality of the final 3D print. Our experts guide you in choosing the right 3D printer and execute the necessary 3D actions so your files become completely ready for production.

Although the technology has made major strides in recent years, we still primarily use 3D print for prototypes, custom jobs, and smaller batches rather than traditional mass production in millions of copies. For extremely high production volumes, methods like injection molding are still faster per unit once the mold has been manufactured. On the other hand, 3D print wins big on speed and flexibility for small and medium series. We see a growing trend toward on-demand production, where your company avoids expensive upfront costs for molds and long waiting times for samples. With 3D print, we go directly from design to finished part in just a few days. This makes it possible to deliver series production faster and more cost-effectively.
This approach is ideal for businesses that want to test the market or need ongoing product optimization of the actual 3D print. By using an industrial 3D printer, you can quickly adjust the design without extra tooling costs. We help you calculate the most efficient 3D print time for your batch size and execute the necessary 3D actions to ensure a stable delivery.

Yes, we help digitize physical objects through professional 3D scanning or photogrammetry. This process is ideal if your company needs to produce spare parts for which technical drawings no longer exist. It is also an effective method if you want to modify an existing product using 3D print. Once we have scanned your item, we can optimize the digital model to make it ready for production on an industrial 3D printer. We advise on how to best convert the scan into a printable file that ensures high precision in the final 3D print. By combining 3D scanning with our expertise in 3D actions, we can quickly estimate the required 3D print time and deliver an accurate copy or an improved version of your original component.

Yes, we can produce parts with both integrated threads and fine tolerances. This is one of the great advantages of using an industrial 3D printer, as we can create complex mechanical assemblies in a single workflow.
When we work with threads and precision, there are two primary paths we follow:
Printed threads: For larger thread types (typically from M8 and up), we can print the thread directly as part of the actual 3D print. This works optimally for components that do not need to be disassembled daily.
Threaded inserts (Heat-set inserts): For technical machine parts that require maximum strength and frequent assembly, we often recommend integrating metal (brass) threaded inserts. We design the part with precise holes, after which we install the inserts post-print, providing an industrial-strength thread.
As for tolerances, precision depends on the chosen technology. Using advanced 3D actions and calibration, we can typically achieve tolerances down to +/- 0.1 mm on our professional machines. We always optimize your 3D print time and file setup to ensure that shafts, bearings, and bolts fit together perfectly the first time. Contact us for a technical discussion about your specific requirements in INR.

Infill is the internal structure of a 3D printed object. In contrast to traditional injection molding, where parts are often solid, a 3D printer allows us to fill the interior of an object with a geometric pattern (such as a honeycomb or grid structure).
The choice of infill directly influences three factors:
Strength: A higher infill percentage (how much of the internal cavity is filled) increases the mechanical robustness and pressure resistance of the object.
Weight: By adjusting the infill pattern, we can create lightweight components that still maintain high structural integrity.
3D print time and price: The less material we use internally, the shorter the production time becomes, which often results in a lower price in INR.
We advise you on the optimal infill percentage and the right pattern based on whether your object will be used as a visual prototype or a functional machine part. We execute the necessary 3D actions in the slicer software to ensure that the balance between strength and material consumption is perfect.

To understand how an object is built on a 3D printer, it is important to know the difference between the outer shell and the internal filling. Together, they define the strength, surface quality, and weight of the object.
Shells (Walls): This refers to the outer layers of your 3D print that form the visible surface. The number of shells (wall thickness) determines how robust the surface is and how much you can post-process or sand the object. Adding more shells provides significantly more strength to the object than simply increasing the internal filling.
Infill: As previously described, this is the internal pattern that supports the shells. Infill is hidden inside and exists solely to provide structural support and volume without making the object solid.
By combining these two factors through strategic 3D actions, we can tailor the object to your exact needs. If it is meant to be a lightweight display model, we use few shells and low infill. If it is a machine part exposed to heavy forces, we increase the number of shells to ensure maximum mechanical integrity. This choice directly affects your 3D print time and the overall price in INR.
We always optimize the balance between shells and infill so you get an object that is exactly as strong as the job requires, without wasting unnecessary material.

The precision and the minimum possible wall thickness depend on the chosen technology of our 3D printer. To ensure a stable and durable 3D print, we operate with different technical limit values:
FDM (Plastic filament): Here we recommend a minimum wall thickness of 0.8 mm to 1.2 mm to ensure structural stability. Fine details can be printed down to approximately 0.4 mm (corresponding to the nozzle diameter), but very thin vertical walls risk becoming fragile.
SLA/DLP (Resin): Since this technology uses light to cure liquid fluid, we can achieve extremely fine details all the way down to 0.1 mm and wall thicknesses of just 0.5 mm. This is ideal for jewelry or small technical components.
SLS (Powder): For powder printing, we recommend a wall thickness of at least 1.0 mm to avoid deformations during the actual 3D print, while details such as text can stand sharply down to approximately 0.5 mm.
We always review your files through our 3D actions to spot areas that are too thin to be produced safely. We advise you on design optimization so you avoid broken parts and get the most durable result for the price in INR. By hitting the correct thickness the first time, we minimize waste and optimize your 3D print time.

As a starting point, we specialize in advanced plastic materials and polymers, as these cover the vast majority of needs for prototypes and functional components in modern industry. However, through our broad network and close partners, we can also facilitate solutions within metal 3D print.
When considering metal versus plastic on a 3D printer, it is worth noting:
High-performance plastic as an alternative: In many cases, we can replace metal components with high-performance plastic materials like carbon fiber-reinforced nylon. These materials offer an extreme strength-to-weight ratio and can often solve the task faster and cheaper in INR.
Metal technologies: If your project requires genuine metal (such as stainless steel, aluminum, or titanium), technologies like DMLS (Direct Metal Laser Sintering) are used. Here, metal powder is fused layer by layer with an extremely powerful laser.
Hybrid solutions: We often advise on hybrid solutions where we combine plastic printed parts with standard metal components (such as threaded inserts or shafts) to achieve the right balance between price and functionality.
We always open a dialogue regarding your requirements for mechanical stress. By executing the right 3D actions in the design phase, we can evaluate whether a plastic solution is sufficient or if we need to activate our network for metal production. Regardless of the material, we optimize your 3D print time and ensure the highest industrial standard.

Yes, 3D actions serves as a professional partner throughout your entire development process. We often act as an external development department for companies, assisting with everything from initial sketches and technical 3D modeling to the finished prototype and subsequent series production. Our specialists advise on choosing the right 3D printer and optimizing the actual 3D print so your product achieves the desired mechanical properties. We focus on reducing your 3D print time and ensuring an efficient path from idea to market. You can safely leave the technical 3D actions to us, so you get a solution that is optimized for industrial manufacturing.

When it comes to contact with food, safety is paramount. Although many of the materials we use on a 3D printer (such as PLA or PETG) are chemically inactive in their raw form, the actual process of 3D print is rarely food grade as standard.
There are three important factors to consider:
Bacteria and surface: The actual 3D print is built up of small layers, which creates microscopic ridges. These ridges are the perfect place for bacteria to collect, and they are very difficult to clean effectively through regular washing.
Certified materials: We can source specific, certified filaments and resins that are approved for food contact (Food Grade). These materials do not release harmful substances during use.
Post-processing (Coating): To make an object truly food safe, it often requires a special post-processing treatment with a food grade epoxy coating that seals the surface, making it smooth and easy to clean.
We are happy to advise you on the technical possibilities for food contact. We help choose the right 3D actions and materials so your project complies with applicable requirements. Contact us for a dialogue about your specific needs and get an estimate for the project in INR, including the necessary post-processing and 3D print time.

We understand that time is money, especially if a machine is standing still due to a missing spare part, or if an important deadline for a prototype is approaching. Therefore, we offer the option for rush jobs so your company can move forward quickly.
Whether a job can be delivered the same day (or within 24 hours) depends on a few technical factors:
3D print time: Some objects take just a few hours to produce, while large or highly detailed models can require over 20 hours of runtime on a 3D printer. We cannot accelerate the actual physics of the print process without compromising on quality.
Capacity: We possess a modern machine park with high capacity. For rush jobs, we prioritize your file at the top of the queue and activate the necessary 3D actions immediately.
Geography: Depending on your location relative to our facility, we can often arrange fast courier delivery or pickup as soon as the object is finished and cooled down.
If you have a critical rush job, we always recommend that you call us immediately. We will instantly check our available machine capacity and give you an honest evaluation of how quickly we can have your 3D print ready for delivery in INR.

We possess machines in many different sizes for industrial use. If your object is larger than the working area of our largest 3D printer, we can often divide the model into several smaller parts. These parts are subsequently assembled with extremely high precision and strength, so the finished result appears uniform. When we handle large objects, we focus specifically on optimizing the actual 3D print to ensure stability and durability. We also advise you on the expected 3D print time, as large productions require careful planning of machine capacity. Contact us to learn about the specific dimensions and technical possibilities for your task so we can execute the right 3D actions for your project.

When you entrust your innovative ideas, prototypes, or business-critical spare parts to 3D actions, we take data security and confidentiality extremely seriously. We know that many of our clients work on groundbreaking technologies or patentable designs that must not end up in the wrong hands.
We ensure your confidentiality through the following fixed procedures:
Signing an NDA: We are more than happy to sign a non-disclosure agreement (NDA) before you send us your files. This provides your company with legal security, ensuring that your 3D models and know-how are treated confidentially.
Secure file handling: All the 3D actions we perform during the preparation phase take place on secured systems. We only save your files by agreement, for instance, to make it easier for you to order a reprint of the same part later.
Discretion in production: The actual process on our 3D printer takes place in a closed, professional environment. We never showcase client-specific objects on social media or in our showroom without your explicit written permission.
With us, your intellectual property is protected from the moment we receive the first sketch until the finished object is delivered. We work quickly to optimize your 3D print time so you can reach your market introduction safely and efficiently. Contact us if you need a signed agreement before we calculate your next project in INR.

It is most realistic to view 3D print as a powerful supplement to traditional production rather than a complete replacement. The technology has already changed the way we manufacture custom tooling, molds, and complex components. An industrial 3D printer is unmatched when it comes to low volume, high complexity, and tailored solutions for modern industry. For high-volume production of simple objects, traditional methods like injection molding are still faster and more cost-effective per unit. However, we are moving into an era where the boundaries are shifting. We follow developments closely, and we see how new technologies enable a faster 3D print time, making series production of smaller items highly competitive.
The future lies in a technical interplay where you utilize the best of both worlds. You combine the fast mass production from traditional methods with the extreme flexibility of the actual 3D print. This makes it possible for your company to act agilely and reduce inventory needs through on-demand production. We stand ready to advise you on the right 3D actions so you get the most optimal production solution.

The most commonly used format for industrial production is an STL file, but we also work with other standard formats such as OBJ, STEP, and 3MF. The choice of file format can influence how accurately we can reproduce the technical details in the actual 3D print. If you are in doubt about how to correctly export your design from your CAD program, we are happy to help you ensure that the file is optimized for our selection of 3D printers. A correctly optimized file is crucial for achieving an efficient 3D print time and a flawless result. We review your files as a standard part of our 3D actions to ensure that the geometry is completely ready for manufacturing.

Yes, we often help companies with reverse engineering. This is a process where we recreate a physical object as a digital 3D model. It is particularly relevant if you are dealing with a spare part that is out of production or if the original technical drawings have been lost.
The process typically takes place in three steps:
Analysis and measurement: We analyze the existing object to understand its geometry, function, and critical tolerances.
Digital reconstruction: Our design team executes the necessary 3D actions by rebuilding the object from scratch in a CAD program. This ensures that the new file is optimized for production on a 3D printer.

Delivery time always depends on the total scope of the task and the chosen technology. We can often deliver smaller prototypes within 24-48 hours, while larger batches or highly complex items require additional time for production and post-processing. We prioritize fast execution so your project never stands still. We continuously optimize the calculated 3D print time by selecting the most efficient 3D printer for the specific job. By planning the right 3D actions from the start, we ensure that the actual 3D print is completed and delivered as quickly as possible to your address. Contact us to get an accurate estimate of your specific delivery time in INR.

The technology behind 3D print acts as a transformative force because it removes the traditional limitations of design and industrial production. It makes it possible to create objects with complex geometries that are technically impossible or extremely expensive to manufacture using conventional methods. At the same time, the technology provides great flexibility, allowing your company to quickly adapt designs and produce custom parts without the need for heavy investments in manufacturing equipment.
There are several reasons why a modern 3D printer is an indispensable part of the industry today:
Faster time-to-market: With on-demand production, we go from idea to finished prototype in just a few days. This significantly accelerates industrial innovation, as the total 3D print time is substantially lower than with traditional mold manufacturing.
Economic optimization: You save large expenses on custom tooling and molds. This makes it profitable to produce even very small batches with high quality in the actual 3D print.
Sustainability and weight reduction: Within the transport and machinery industries, the technology makes it possible to create extremely lightweight structures. This reduces both material consumption and the overall environmental impact.
Local production: The ability to produce locally reduces the need for global transport and removes uncertainty in complex supply chains.
We view the technology as a key to a more sustainable and efficient future. It is not just a tool for prototypes, but an important piece in the flexible manufacturing industry of tomorrow, where we can quickly execute the necessary 3D actions for your company.

When it comes to raw mechanical strength, we often consider Polycarbonate (PC) as the strongest choice for an industrial 3D printer. With an impressive tensile strength of around 9,800 psi, it surpasses most other standard materials. In comparison, Nylon, which is known for its extreme durability and toughness, has a tensile strength of around 7,000 psi. However, the choice of the strongest material always depends on the type of stress the actual 3D print will be exposed to in practice. While Polycarbonate delivers maximum tensile strength and high heat resistance, you should choose Nylon for parts that need to bend slightly without breaking.
We work with a wide selection of technical materials, including advanced composite materials like carbon fiber-reinforced plastic. These combine low weight with extreme stiffness. We help you analyze your technical needs to find the exact right material for your job, regardless of whether the project requires maximum strength, impact resistance, or thermal stability. By choosing the correct material, we also optimize the required 3D print time and ensure that your 3D actions lead to a durable end product.

Prices for a 3D print start from 95 INR. However, the final price always depends on the overall scope of the project, your choice of material, and the required 3D print time. It is similar to estimating the price of a building without seeing the architectural drawings first. If your company already has a completed 3D model, we can quickly provide an accurate estimate for your job. If you do not have a digital file yet, our design team stands ready to help with technical 3D modeling and advice. You are always welcome to contact us with your ideas, and we will get back to you quickly with a non-binding quote in INR for your project.
All our prices include our 100% design guarantee, which ensures you receive the highest quality in the actual 3D print. We review your files and execute the necessary 3D actions to ensure that production on our 3D printer is as efficient and economical as possible.

Yes, we do. Although a 3D printer is known for being ideal for single-piece prototypes, the technology today is so efficient that we increasingly handle small and medium-sized series production for companies.
When we talk about series production (for example, from 10 to 1,000 units), the unit price in INR drops significantly for several reasons:
Optimized 3D print time: By filling the machine build plate completely, we can utilize 100% of the printer capacity. This reduces the average production time per object.
Reduced setup: The initial 3D actions, such as file preparation, slicing, and machine setup, only need to be done once for the entire series.
Material savings: For larger orders, we can optimize material consumption and ensure a more streamlined post-processing workflow.
We often see that 3D printed series production is a highly competitive alternative to injection molding, especially because you avoid the expensive upfront tooling costs for molds. This gives your company immense flexibility, as you can continuously adjust your design without extra costs. Contact us for a specific quote on your series – we always factor a favorable volume discount into the price.

To prepare a digital 3D model for industrial production, you must use a 3D slicer. This software acts as the technical link between your computer and your 3D printer by slicing the model into thin layers. The software generates the specific instructions that the machine follows to create the actual 3D print.
Most machines come with their own dedicated software, but powerful independent alternatives also exist. For FDM 3D printing, Ultimaker Cura is a popular solution, while Simplify3D is known for its versatility. If your company works with resin 3D printing, Lychee Slicer or Chitubox are the most recommended tools to ensure high precision and correct support structures.
Are you unsure about how to set up your software optimally to avoid production errors? We offer technical advice and reviews of the best workflows. We help you optimize the calculated 3D print time and ensure that your 3D actions lead to a flawless result in INR.

To bring an idea into the world through industrial production, three fundamental elements are required: a stable 3D printer, the right technical material, and most importantly – a digital 3D model. In the universe of 3D print, the technical specifications and your vision define the boundaries of what is possible. If you are looking for inspiration or existing files for testing, there are large online libraries like Thingiverse, Thangs, or Cults. However, professional projects or unique industrial solutions often require a specialized approach to ensure the quality of the actual 3D print.
Does your company have a great idea but lack the digital drawing? We are specialists in transforming concepts into physical form. Our design team assists with everything from technical 3D modeling to optimizing your files so they are completely ready for production. We help minimize your 3D print time and ensure that all 3D actions are executed correctly from the start. Contact us today for a non-binding dialogue about your project, backed by our 100% design guarantee.

An FDM 3D printer is the most widespread machine type for producing durable components and prototypes in modern industry. The process works by using rolls of plastic material, also known as filament. This material is fed into the 3D printer itself, where it is heated to its melting point. Afterward, an extruder deposits the melted plastic precisely onto a build plate.
The extruder moves accurately according to the digital instructions from your 3D model, building the object layer by layer. This method is particularly popular for everything from rapid concept models to functional components, as it combines high strength with a wide selection of material types.
By utilizing an FDM 3D printer, we can ensure a cost-effective 3D print time while maintaining a high mechanical strength in the actual 3D print. We always advise you on the correct 3D actions so your design is optimized specifically for this printing technology, ensuring the best result in INR.

The future of 3D print is about the democratization of industrial production and global accessibility. The technology has the potential to change the foundation of how we create physical products by making it possible to produce locally and exactly when the need arises. Imagine a tanker on the open sea missing a critical spare part – with a 3D printer on board, the part can be produced on-site. This means the ship can continue its journey without costly delays, as the actual 3D print is completed immediately.
By shifting production closer to the end user, we achieve enormous environmental benefits. We reduce the need for long-distance transport and decrease the carbon footprint significantly. At the same time, technological developments mean that machines are becoming faster and materials are becoming stronger. This opens the doors for larger production projects and more complex solutions where the overall 3D print time is minimized.
We see a future where 3D print becomes a natural part of everyday life in both companies and educational institutions. The price drop in machine power and increased user-friendliness make it possible for everyone to go from idea to reality in record time. We support this development by executing precise 3D actions that ensure a wave of innovation across all industries in INR.

When it comes to flexibility, TPU (Thermoplastic Polyurethane) is by far the most popular choice for an industrial 3D printer. TPU is known for its unique rubber-like properties, allowing you to bend, stretch, and compress the finished part without it breaking or losing its shape.
This material differs significantly from more rigid plastics and is available in various hardness levels, measured on the Shore scale. This means your company can choose the exact variant that fits the task – whether you need a very soft 3D print or a firmer, yet shock-absorbing component.
We frequently use TPU for technical solutions such as:
Gaskets and seals
Protective covers and shock absorbers
Hoses and flexible joints
We advise you on which hardness level and material type will ensure the best functionality for your specific project. Because TPU requires specialized expertise to handle correctly to ensure the quality of the actual 3D print, we help optimize both the design and the calculated 3D print time. Contact us to learn more about our 3D actions within flexible materials in INR.

The price of a 3D print is not based on guesswork, but on a precise calculation of the resources your specific task requires. When we calculate a quote in INR, we primarily look at four technical parameters:
Material consumption: We calculate the exact amount of filament, resin, or powder that your object uses. This also includes the material used for any necessary support structures.
3D print time: This is often the most significant cost factor. The more complex or larger a model is, the longer the machine must run. Higher layer resolution (finer details) also increases the total print time.
Preparation: This covers the work of our technicians checking your files, optimizing the placement in the printer, and setting up the correct print parameters to ensure success the first time.
Post-processing: If your object requires manual removal of support, sanding, thread insertion, or painting, this is calculated as an additional service based on time consumption.
By sending us your 3D file (e.g., in .STL or .STEP format), our software can quickly compute these data points to provide you with a transparent and non-binding quote. We always work to optimize your design so we can reduce both material waste and 3D print time, ensuring you get the most economical solution for your 3D actions.

When it comes to industrial production, precision is paramount. We work with professional equipment that ensures a high degree of repeatability and accuracy in every single 3D print. The tolerance – meaning the allowable deviation from the digital measurements – depends, however, on the chosen technology:
FDM (Plastic filament): Here, your company can typically expect a tolerance of approximately ±0.2 mm. With very large objects, a small amount of shrinkage may occur, but we compensate for this via our 3D actions during the preparation phase.
SLA/DLP (Resin): This technology is extremely precise and can often achieve tolerances down to ±0.05 mm to 0.1 mm. This is ideal for fine mechanics and parts that need to click together.
SLS (Powder): Industrial laser sintering typically delivers a precision of around ±0.3 mm for the first 100 mm, which is standard for strong nylon components.
It is important to note that factors such as the orientation of the object on the build plate and the chosen material type play a role. If your project requires specific fits (e.g., for bearings or shafts), we always recommend a dialogue before starting. We optimize your file and adjust the calculated 3D print time so we hit your specifications accurately – every time, at the agreed price in INR.

An SLA or DLP 3D printer is the preferred choice when your project requires an extremely high level of detail and a smooth surface finish. Unlike other methods, this type of 3D printer uses a vat of liquid resin. The process works by using a light source positioned beneath the vat to cure the liquid layer by layer.
With SLA, a precise laser is used, while DLP or LCD technology uses a screen to project a light pattern of each layer. By activating specific pixels, the resin is cured exactly where the digital 3D model dictates. After each layer, the build plate is raised slightly so new liquid resin can flow underneath the cured layer, after which the next exposure takes place.
We frequently use this technology for tasks where precision in the actual 3D print is paramount. This applies, for example, to dental models, technical components with tight tolerances, or prototypes where layer lines must be virtually invisible. We help you evaluate the required 3D print time for these highly detailed objects and execute all relevant 3D actions to ensure a flawless result in INR.

When a 3D print is to be used in environments with high temperatures – for example, near engines, in industrial ovens, or for sterilizable equipment – it is crucial to choose a material with a high glass transition temperature (T
g

). Standard materials like PLA deform at around 60°C, making them unsuitable for heat-affected tasks.
We typically work with the following materials for heat-intensive projects:
PETG: Withstands temperatures up to approx. 75-80°C. It is a good all-round material for items that will sit in a warm car or in direct sunlight.
ABS / ASA: These industrial materials handle up to approx. 95-100°C and are widely used for technical components in the automotive industry.
Polycarbonate (PC): One of the strongest materials for FDM printing, which can withstand temperatures exceeding 110-120°C.
PA (Nylon): Particularly suitable for SLS printing, where it combines high strength with heat resistance up to approx. 120-150°C (depending on the type).
High-Temp Resin: For SLA printing, specialized resins are available that, after curing, can withstand extreme temperatures of over 200°C under low load.
We analyze your operating temperatures as a standard part of our initial 3D actions. We ensure that your 3D print time is utilized on the correct material so you do not experience deformations during operation. Contact us to get a technical datasheet and a quote in INR for heat-resistant components.

A 3D printer works by building objects layer by layer based on a digital drawing. The most widespread method for 3D print is FDM (Fused Deposition Modeling), where the machine melts plastic wire, called filament, and deposits it precisely through a nozzle. The process is repeated layer by layer until the physical object is completed.
There are many different technologies within the industry, each having its own technical strengths. The three most commonly used methods we work with or advise on are:
FDM (Fused Deposition Modeling): Ideal for prototypes and durable, functional items in plastic.
SLA (Stereolithography): Uses liquid resin and UV light to create an extremely detailed 3D print with a smooth surface finish.
SLS (Selective Laser Sintering): An industrial method where a laser fuses powder. This provides very strong parts without the need for support structures during the actual 3D print.
We always choose the technology that best matches your requirements for precision, strength, and aesthetics. We optimize the necessary 3D actions and the calculated 3D print time to ensure you get the most cost-effective result in INR.

An SLS 3D printer (Selective Laser Sintering) builds objects layer by layer by using a powerful laser to fuse powdered materials, typically nylon or metal. This technology has long been the foundation for heavy industrial production, as it makes it possible to create extremely complex geometries with a very high mechanical strength in the actual 3D print.
One of the most significant advantages of this form of 3D print is that the excess powder inside the machine acts as natural support for the object during the process. This means we can manufacture components with built-in moving parts or advanced hollow structures without the need for external support structures.
We follow this technological development closely. Machines that previously required massive factory spaces are becoming increasingly accessible and efficient. This makes SLS a highly attractive solution for both advanced product development and industrial end-use production. We help you evaluate when this technology is the right path for your project, and we optimize your 3D print time so you achieve a cost-effective solution in INR through precise 3D actions.

Prices for a 3D print start from 95 INR. However, the final price always depends on the scope of the project, the choice of material, and the time required – a bit like asking for the price of a house without knowing the architectural drawings. If you already have a completed 3D model, you can quickly get an estimate for your task. If you do not have a digital file yet, our design team stands ready to help with 3D modeling and technical advice. You are always welcome to contact us with your vision, and we will get back to you quickly with a non-binding quote for your 3D print project, backed by our 100% design guarantee.

When working with a 3D printer, focusing on a healthy working environment is crucial. During the process, where the material is heated and melted layer by layer, particles and fumes – also known as emissions – can be released. These can be harmful if the proper precautions are not taken during production.
With standard FDM 3D printing, the volume and type of fumes depend on the chosen filament. Materials like ABS, for example, emit significantly more particles than PLA. Regardless of the choice of material, good ventilation or the use of an enclosed casing with extraction is always the best solution to ensure healthy air quality around the actual 3D print.
If your company works with resin 3D printing (SLA/DLP), a more comprehensive safety approach is required:
Resin fumes: Almost all types of resin emit fumes that are harmful to human health. Therefore, these machines should always be placed in rooms with dedicated extraction.
Post-processing: Isopropyl alcohol is often used when cleaning a resin 3D print. The fumes from this are also harmful to health and require proper ventilation as well as the correct use of personal protective equipment.
We prioritize safety highly. We utilize advanced filtration systems and professional extraction solutions in our production, so your company can outsource your tasks to us with peace of mind. By using our service, you avoid having to invest in expensive safety measures yourself and can instead focus on your core tasks while we handle all technical 3D actions and optimize your 3D print time in INR.

As a starting point, it is naturally completely legal to own and use a 3D printer, but there are important legal aspects to consider when it comes to copyright and intellectual property. It can become illegal if your company or you as a private individual make a 3D print of objects for which you do not hold the rights – especially if it involves trademarked or patented products.
Additionally, manufacturing regulated or illegal items is strictly prohibited. Here are the most critical rules of thumb for the lawful use of the technology:
Private use: As a general rule, it is legal to make a 3D print for your own private use, as long as you do not resell or distribute the item commercially.
Commercial use: If you intend to use a 3D print in your business or for resale, it is crucial that you possess the necessary rights to the digital 3D model used on your 3D printer.
Copyright and licenses: Always pay close attention to the licensing terms (such as Creative Commons) when downloading files from the internet. Some models may only be used privately, while others permit commercial exploitation.
Regulated items: It is highly illegal to use a 3D printer to manufacture weapons, firearms, components for weapons, or specialized lock-picking and skimming equipment, regardless of whether it is for private or commercial use.
We frequently advise companies on the correct handling of files and intellectual property rights. We always recommend keeping track of the source of your models to avoid legal conflicts. By letting us handle the production, we ensure that all 3D actions comply with the agreed frameworks, and we help optimize your 3D print time and costs in INR in a professional and lawful manner.

In principle, there are no limits to the geometries and complex shapes you can realize with an industrial 3D printer. One of the absolute greatest advantages of the technology is precisely this immense design freedom. You can design in ways that are technically impossible or extremely expensive to manufacture using traditional methods like milling or injection molding.
Where classical manufacturing forces you to consider limitations like undercuts, constant wall thicknesses, and draft angles for molds, 3D production allows for the creation of:
Advanced hollow structures: Reduce weight without compromising on strength.
Organic networks (lattices): Complex grid structures optimized for specific physical loads.
Integrated assemblies: Objects with built-in moving parts that are printed in a single production run.
Although the shaping is free, choosing the right technology is vital to ensure the quality of the actual 3D print. We always advise on whether your specific design is best suited for FDM, SLA, or SLS, as each method has its own technical nuances regarding surface finish and precision. We help you optimize your 3D actions and calculate the most efficient 3D print time, bringing your vision to reality at the right price in INR.

The answer is both yes and no. Technically speaking, 3D print offers almost unlimited freedom to create complex shapes and structures that no other technology can match. With the proper orientation of the object and the use of support structures, a modern industrial 3D printer can manufacture nearly any imaginable item from a digital drawing.
However, there are certain physical, material, and practical frameworks you must navigate:
Material properties: With FDM 3D printing, the material is required to have thermoplastic properties so it can be melted and solidify precisely. The choice of material is crucial for the durability of the actual 3D print.
Physical environment: Factors such as temperature, humidity, and precise calibration of the machine affect the quality of the finished result.
Technological limits: Although we are seeing groundbreaking attempts at 3D printing everything from food to complex metal parts, each technology (FDM, SLA, SLS) is optimized for specific industrial purposes.
Additionally, as mentioned regarding legal boundaries, you cannot legally print patented, trademarked, or highly regulated items such as weapons.
We help you evaluate whether your project is suitable for production. We advise on material selection and design optimization to ensure that your vision can be realized in practice. Often, it is not a question of whether it can be printed, but rather which 3D actions are required to achieve the strongest and most precise result. We make sure to optimize your 3D print time so you get an efficient and economical solution in INR.

The answer is both yes and no. To prepare your task and get a digital model ready for production, a computer is absolutely necessary. This is where you use slicer software to generate the technical instructions that tell your 3D printer exactly how to move and how much material to deposit to create the actual 3D print.
However, once the actual production starts, the process looks different:
Standalone 3D print: Most modern industrial machines can print completely independently of a computer. You simply transfer the finished file via a USB stick or wirelessly via Wi-Fi, after which the machine handles the rest of the work.
Online platforms: Advanced systems can be connected directly to an online platform. This makes it possible to send print jobs directly from a browser, providing an incredibly flexible workflow in a busy workday.
Simulation: A major advantage of using the computer during preparation is the ability to simulate the process. This allows us to see how the machine will behave, enabling us to optimize the total 3D print time and prevent errors.
We take care of the entire technical preparation. This means your company just needs to send us your idea or 3D model, and we handle all the computer-technical 3D actions in the process. We ensure that your project is realized professionally and at the agreed price in INR.

3D print is considered one of the most sustainable production methods in modern industry, primarily because it is an additive process. Unlike traditional milling or turning (subtractive manufacturing), where excess material is cut away, a 3D printer builds the object layer by layer. This means we only use the exact amount of material necessary to create the finished product, significantly minimizing waste.
Several factors contribute to making this technology environmentally friendly:
Sustainable material choices: We offer materials like PLA, which is based on renewable resources such as cornstarch or sugarcane, making it a more eco-friendly alternative to petroleum-based plastics.
Weight optimization: Through advanced 3D actions, we can design objects with hollow internal structures (infill) that maintain structural strength while using less material. This also reduces transport weight and, consequently, the carbon footprint.
Local production: Printing on-demand reduces the need for long-distance transport and massive warehouse inventories, saving resources across the entire supply chain.
We always advise on the most eco-friendly materials and optimize your 3D print time to keep energy consumption to a minimum. This is an effective way for your company to have high-quality components produced at a competitive price in INR while keeping environmental impact in mind.

Absolutely. We offer various forms of professional post-processing to give your objects the perfect finish. Many industrial components require a degree of manual or mechanical processing after production on a 3D printer to achieve the desired end result.
Our post-processing services include:
Removal of support structures: We thoroughly clean the object so that all technical supports are removed precisely without damaging the surface.
Sanding and polishing: To remove the characteristic layer lines from a 3D print, we can sand the surface to make it completely smooth.
Painting and coating: We can paint your objects in specific RAL colors, making your prototype or series production look exactly like a finished consumer product.
Surface treatment: We offer specialized solutions such as chemical smoothing or vapor smoothing for increased durability and high-end aesthetics.
When we plan your project, we include the necessary time for post-processing into the overall schedule alongside the 3D print time. This ensures that the agreed-upon 3D actions are executed efficiently and that you receive a highest-quality product at the correct price in INR. Contact us to learn more about how we can elevate the finish of your next project.

Yes, they certainly can, but it requires the right choice of material. While standard PLA can lose its strength and become brittle over time when exposed to direct sunlight and changing weather conditions, there are industrial materials created specifically for these environments.
To ensure a durable result for outdoor applications, we frequently recommend:
ASA (Acrylonitrile Styrene Acrylate): This material is specifically developed to be UV-resistant and weather-resistant. It retains both its color and mechanical properties, even after long-term exposure to sun and rain.
PETG: A strong and versatile material that features good resistance to both UV light and chemicals, making it highly suitable for many outdoor applications.
We help your company choose the correct material based on where your 3D print will be applied in practice. We analyze the environmental impacts as part of our 3D actions so we can optimize your 3D print time and deliver a component that lasts for many years. Contact us to get advice on weather-resistant solutions for your next project in INR.