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In general, filament printing is best suited for larger models, whilst resin printers are ideal for intricate or highly detailed models.
However, before you can decide which printing method is most suited to your next project, it’s important to understand the various differences between the two options.
Filament printing, also known as fused deposition modelling (FDM), melts the printing material (usually plastic) and deposits it in layers. The nozzle moves in accordance with the specified design, which allows your model to be created layer-by-layer.
For more information, check out our guide to filament printing.
Resin printing also works in a layer-by-layer format but utilises a liquid resin that hardens when it is exposed to UV light. Each layer is exposed to the UV light as it is placed, thus securing and strengthening it as the model is created.
For more information, check out our guide to resin printers.
Both DLP (digital light processing) and SLA (stereolithography) printers are types of resin printers, but they vary in how the resin is strengthened or cured. DLP printers, such as the ProtoSpeed Rapid or the Aisga PRO 4K use a UV LCD screen to cure a layer, while SLA printers use a laser to focus the UV light.
Please note: generally, filament 3D prints are stronger than resin.
The best type of 3D printer depends on the project you’re working on or the model you want to create:
If you plan to print larger models with less intricate detail, FDM printers –such as the TRILAB DELTIQ 2 3D printer – can certainly fulfil your needs. However, if you’re printing intricate or highly detailed pieces, such as miniature models, industrial prototypes, or medical devices, then resin printers offer a higher level of performance.
Both filament and resin printers offer a high level of print quality but there are variations, depending on the printer you choose. The layers printed via resin are typically much thinner than those created with a filament printer, which can equate to a better-quality print.
This is because resin printers are guided by the size of the pixel on the screen, whereas filament layers are dependent on the size of the nozzle. While smaller nozzles are available for filament printers, they are still larger than the pixel size used by their resin counterparts. Due to this, many people maintain that resin 3D printers deliver the best print quality.
If your model is going to contain moving parts, then you’ll need to consider whether filament or resin printing can offer the best performance. Although resin printing is great for accuracy and detail, it can be fairly brittle. As a result, it’s not ideally suited for 3D models that feature moving parts.
In contrast, filament-printed models are fairly robust and are able to withstand additional force. Furthermore, alternative filament printing materials, such as PETG, can provide enhanced strength, as well as improved UV and heat resistance.
So, if you’re planning to print models with moving parts, you may find that a filament printer is best suited to your needs.
Printing speed is often a top priority, so you’ll want to factor this in when choosing between filament and resin printers. While each printer will have a specified print speed, the general consensus is that resin printers are faster at printing multiple models.
As the nozzle of a filament printer traces parts individually, the print speed increases if more than one object is placed on the print bed. Conversely, resin printers cure the resin via UV light, which takes the same amount of time regardless of how many objects are on the print bed.
If you’re planning on creating multiple models at once, you’re likely to find that resin printers offer faster print times. However, if you’re using a 3D printer to create single models, then check the print speed on individual printers to find a print speed that satisfies your needs.
To determine what size models a 3D printer can produce, you’ll want to check the build volume. Although this is variable from one model to another, filament printers tend to offer larger build volumes than resin printers.
The TRILAB DELTIQ 2 PLUS filament printer offers a working area of Ø 250mm (X, Y) × 500mm (Z)., for example, while the ASIGA ULTRA resin printer provides a build volume of 121 x 68 x 147mm.
While it’s certainly worth comparing the build volume of individual printers before making your selection, a filament printer is likely to be your best bet if you’re planning to print larger models.
Once your print is finished, you may need to undertake some additional post-processing work to optimise the output. Typically, post-processing is most associated with filament printers as resin printers tend to deliver a cleaner finish. To achieve a smooth finish with a filament printer, you’ll need to factor in a fair amount of post-processing time, whereas resin prints tend to require minimal post-print enhancement.
As you can see, there is no clear-cut answer when it comes to whether filament or resin printers. Instead, it is dependent on your personal preferences and printing plans. Both filament and resin printers offer great benefits, which vary in value depending on the type of prints you want to create.
As a general rule, filament printers are ideal for large, robust models, while resin printers are well-suited to smaller, more intricate pieces. However, there are always exceptions to the rule, which is why we’re on hand to provide any assistance you might need.
To learn more or to find the best 3D printer for your next project, contact us via our simple online form or give us a ring on +44 (0) 800 689 0719.
The rise of 3D printing is transforming a number of industries and enabling products to be manufactured with greater accuracy, at faster speeds and at lower costs. However, the materials you use, along with the type of 3D printing you utilise, have a major impact on the output.
In this article, we take a closer look at what material is used in 3D printing and give you our top tips for selecting the best materials for your 3D printing projects and goals.
3D printing, or additive manufacturing, is a broad area and there are various different types of materials that can be used to produce 3D products or models. Here, we outline some of the most popular materials used in 3D printing:
Ask anyone, what material is used in 3D printing, and there’s a good chance they’ll tell you it’s plastic. Indeed, plastic is the most popular material amongst both professional and hobbyist printers. As plastic is such a diverse material, with plenty of variations, it’s suitable for 3D printing numerous different types of products, including decorative pieces, toys and electronic casings.
Plastics are generally used in conjunction with a form of 3D printing known as fused deposition modelling, so you’ll need an FDM 3D printer if you want to try printing with this material. Here, thermoplastic filaments are melted before being moulded into the desired shape, one layer at a time.
However, if you do decide that plastic is the right option for your next 3D printing project, you’ll also need to consider what type of plastic filament to use, such as:
While some plastics, in general, are a great material for 3D printing, some types of plastics are more suited to specific types of projects. Known for its strength and safety, for example, ABS is popular when printing toys or consumer goods, while the eco-friendly properties of PLA and its availability in soft and hard forms ensures it will be one of the most popular 3D printing materials of the future.
Commonly used with stereolithography (SLA) and digital light processing (DLP) 3D printing methods, resin printers use UV light to set the resin as it transforms from a liquid state to solid. Again, the end product is built up layer-by-layer, which enhances the strength and durability of the finished piece.
3D printing resins are available in a range of colours and there are also different types of resins that can be used for various projects, such as:
While transparent resin is typically the strongest form of resin, paintable resin is popular for prints with a smooth surface and high-detail resin is favoured for printed pieces that feature intricate detailing. For more information, check out our dedicated blog on the strength of 3D resin prints.
Please note: expired 3D printer resin may affect the quality of the print.
Used alongside direct metal laser sintering (DMLS), metals can be used to create a wide range of items via 3D printing. Typically, metal dust is used, which is fired to increase its strength, which means that printers do not need to undertake the casting process.
As you might expect, different metals can be used with a DMLS printing method, and the appropriate metal is dependent on the finished product. Popular options include:
To date, metal as a 3D printing material has mainly been used to create industrial prototypes, although it is now being used to produce consumer-ready and industrial-grade products too.
Although powder is a viable material to use for 3D printing, it’s typically restricted to the most state-of-the-art applications and is not, therefore, a common option. If a powder-based 3D printer is used, it melts the powder and applies it in layers to achieve the designated texture and thickness.
Various types of powders are available for 3D printing, but the most commonly used forms of powder are currently alumide and polyamide.
As metal becomes a commonly used material for 3D printing, we may see a rise in the number of professional printers using powder. After all, metals are easier to work with and transport when they are in powder form.
Powder 3D printing offers both strength and flexibility, but it is known for the high level of detail it can deliver. Due to this, powder may be used as a 3D printing material when industrial-grade or medical components are being printed.
While plastics, in the form of filaments and resins, are amongst the most popular 3D printing materials being used today, we may see a wider array of materials on the market as the industry continues to evolve.
For example, wood filaments are already being combined with PLA to create finished products with a wood-like appearance, while concrete could be used as a 3D printing material to deliver a faster and more eco-friendly form of construction.
In addition to this, carbon fibre is likely to be a popular option amongst industrial-grade 3D printers due to its strength and lightness. However, it’s high melting temperature means this material will likely be restricted to specific industries, such as aviation and transport.
Now you know what material is used in 3D printing, you probably want to find out what’s the best material to use. Ultimately, this depends on various factors, such as the type of finished product you want to create, your budget and the 3D printing method you plan to use.
However, the strength, durability and flexibility of plastic filaments and resins make them extremely popular amongst both hobbyist and professional 3D printers. Furthermore, the relative low cost of these 3D printing materials, combined with their accessibility, makes them a great option for a wide variety of 3D printing projects.
At Pro 3D Shop, we stock a wide range of 3D printing materials, as well as 3D printers, 3D scanners and software, so it’s easy to find everything you need for your next project. To find out more, simply contact our friendly and knowledgeable team today!
Used across a wide range of industries, 3D printers have become synonymous with innovation, precision, and creativity. From at-home printers for individual use to commercial 3D printers with optimal precision, there are endless options to consider.
However, finding the right 3D printer at the right price point is crucial to success. Here, we take a closer look at 3D resin printers and discover what they can offer, why they’re so popular, and how much they are in 2024.
3D printing turns a digital file into a replica three-dimensional object, but there are many different types of 3D printers. As the name suggests, 3D resin printers use liquid resin to create the object, compared to FDM (or filament) 3D printers that create the final output by placing plastic filaments layer by layer in accordance with the input file.
For an in-depth analysis and comparison of these printing technologies, check out our detailed guide on FDM and resin 3D printers, where we delve into resin vs filament strength, unique properties, and ideal applications.
As 3D resin printers use light to solidify the resin at each level, they can achieve a high degree of detail. Due to this, they are most popular amongst users who want to create delicate, detailed, or precise 3D models.
There are many different types of resins that can be used for 3D printing. With specialist resins designed for medical use or resins that replicate the properties of other materials, such as ceramics or metals, this method of 3D printing can be used successfully across a variety of different applications.
As 3D resin models are solidified (or ‘cured’) level by level, they are known for their strength and durability. For this reason, resin printers are also popular if the printed object is required for functional use.
Please note: if your 3D printer resin has expired, the quality of your print may be affected.
The high degree of accuracy and precision that can be achieved via 3D resin printers does tend to result in a higher price tag than other types of 3D printers. Filament printers can often be obtained more cheaply, for example, but won’t deliver the same level of detail that a 3D resin printer will.
While you can expect to pay a little more for a 3D resin printer, it can certainly be a worthwhile investment. Indeed, the enhanced output and unrivalled detail that can be achieved with 3D resin printing makes the associated cost a justifiable investment for many users.
If you're interested, also check out our guide to the cost of 3D printing!
If you’re wondering, how much are 3D resin printers, take a look at our range of 3D resin printers below and get a better idea of what you can get within your budget:
The Solus Pro 3D Printer comes with a price tag of £8,500, which is at the lower end of the pricing range for 3D resin printers. Despite this, you won’t be disappointed with its features or functionality. The next-gen version of the original and highly regarded Solus 3D printer, it features an industrial quality UV LED DLP projector, a user-friendly touchscreen interface, and a 80mm x 45mm x 110mm build area.
Delivering 42-micron XY resolution and down to 10 micron Z layer thickness, its known for its incredible print quality and high-speed performance, as well as its cutting-edge Solus Contour software, ready-to-print functionality, and compatibility with all resins on the market.
Priced at £11,988, the Asiga Max 2 is a state-of-the-art DLP 3D printer known for its high precision and versatility, making it an ideal choice for various professional applications. With a pixel resolution of 62 microns, the Max 2 ensures detailed and accurate prints, leveraging advanced DLP micromirror technology.
The printer is equipped with a 385nm UV LED (with an option for 405nm) that auto-calibrates to maintain consistent performance.
A standout feature of the Asiga Max 2 is its Transparent Mode, which enables the printing of clear resins with high precision, making it particularly useful for applications requiring transparent parts like dental splints and night guards. This mode helps to reduce blooming and over-curing of materials, ensuring clarity and accuracy.
Both the B9 Core 530 and B9 Core 550 offer exceptional performance at starting price of £9,400. The B9 Core 530 offers print speeds of up to 120mm/hr with 30 µm resolution, while the B9 Core 550 can deliver up to 100mm/hr with 50 µm resolution.
If you’re looking for precision and quality, the B9 Core Series certainly delivers, While the B9 Core 530 operates at a finer resolution, the B9 Core 550 is ideal for high-volume businesses where speed and production are top priorities.
Designed for the medical industry, the B9 Core 500 Med boasts an IEC 60601-1 rating and is manufactured in a facility with IEC 60601-1 and IEC 60601-1-2, so you can be confident that this 3D resin printer will deliver optimal performance and reliability for medical applications.
Priced at £10,440, it’s a fantastic investment for specialist printing or critical applications and its 15 – 120+ mm/hr build speed ensures fast design-to-production speeds too.
Offering a printing capability of 50-65mm per hour at a 50µm layer thickness, the ProtoSpeed Rapid DLP 3D Printer is known for its super-fast performance. Designed for jewellery manufacturing, dental, and industrial applications, it’s a compact 3D printer that’s well worth its £15,000 price tag.
Featuring a life-long vat that’s capable of up to 1000 prints, there’s no need for frequent tray changes or calibration adjustments. Instead, you can rely on the ProtoSpeed Rapid DLP 3D Printer for fast, precision printing, every time.
A state-of-the-art 3D resin printer, the Asiga Pro 4K comes in either a 65-micron or 80-micron configuration with either a 405nm or 385nm (UV) light source. All options provide highly detailed prints, with enhanced precision making it ideal for dental, audiology, or jewellery projects.
With single point calibration, fast material change-over, and remote access and control, the Asiga Pro 4K can be used for high volume 3D printing, without compromising quality, detail, or performance. To find out more about pricing options for the Asiga Pro 4K, get in touch with our team now.
Combining high precision, smooth surface, and high printing speeds, the ProtoSpeed Magnus 3D Printer is available in two variations: V1 (52 µm) and V2 (41 µm). With build volumes of 134x75x112mm (V1) and 115x59x112mm (V2) along with an LED wavelength of 405 µm, the ProtoSpeed Magnus 3D Printer offers exceptional performance and industry-grade precision. For more pricing information, contact our team today.
All of our 3D resins printers offer impressive performance and optimal outputs, but the best printer depends on its intended application, volume of use, and budget.
To find out more about our range or for assistance with finding the best 3D resin printer for your needs, browse our collection of resin printers or contact us directly if you want some tailored advice!
3D printing is a great way to produce virtually any type of product but using the right materials for the task is essential.
Resin certainly isn’t the go-to solution when optimal strength is required, but there are certain types of resin that are more robust and stronger than traditional resins. With more and more resins becoming available, the wider variety of print-ready resins means there is likely to be a suitable option for your next project!
In this article, we will…
Standard resin can be somewhat brittle or even delicate. While this makes it ideal for printing intricate or detailed pieces, it can mean that the finished product will lack strength.
However, don’t let this deter you from using resins for an upcoming 3D print project. Specialist resins do offer increased strength and can be used for a wide variety of prints. In fact, some ‘super-strong’ resins offer double the tensile strength compared to standard resins, with some delivering 55MPa.
So, if you’re worried about using resin for a 3D print that requires strength and durability, be sure to select a resin that is manufactured to deliver increased tensile strength with a high MPa.
In many instances, yes, resin can be used for any type of 3D printing project, providing you choose the right resin.
That being said, it’s vital to consider the level of strength required to ensure safety. When resins are used for 3D prints in the industrial sector, for example, the tensile strength is carefully monitored, tested and verified in accordance with project requirements to ensure it will deliver the required durability when in use.
If you’re using a standard resin, then it’s unlikely to deliver optimal strength. This means that it isn’t the best choice for parts that will be subject to stress and/or used outdoors. If specialist ‘strong’ resin isn’t an option, then you might be better off opting for filament printing if extra strength is required.
Strength is a top priority for many 3D print projects, so don’t overlook the importance of durability and robustness when you’re planning your next print. Here, we provide some sure-fire ways to boost the strength of your prints:
First and foremost, it’s essential to choose the right material if you want to print a 3D product with increased strength or a particular MPa. For resin printing, selecting a resin that is designed to deliver increased strength is the obvious choice.
An increasing number of specialist resins are now available, so you won’t be limited in terms of colours and finishes. In fact, you’ll see an even wider range of super-strong resins coming to the market as the potential of resin printing is realised across sectors and industries.
The design and geometry of a 3D print has a significant impact on its strength, so bear this in mind if you want to increase the strength of resin prints. If you want to strengthen a particular point or area of the finished product, allocating more material to this space can be advantageous. For optimal results, computer-based topology can enable you to enhance the strength of your design with ease.
Layer height is often associated with print speeds and smooth finishes but it has an impact on strength too. Crucially, the term ‘strength’ can be used in two ways when referring to layer height:
Experts have varying views on how to achieve optimal strength with layer height. Some maintain that thinner layers offer better bonding strength, whereas others argue that thicker layers lead to increased product strength.
Resins are often used to create detailed, hollow 3D objects and, as a result, ‘infill density’ isn’t a common topic amongst resin aficionados. When you want to increase the strength of a piece, however, creating a solid 3D product will achieve the desired result.
Modifying the infill density can also be a savvy way to increase the strength of your resin pieces – providing your 3D resin printer allows you to do so. Although infill density adjustment options are common on FDM slicers, they are less frequently incorporated into resin slicers. Check whether your equipment facilitates infill density modification and, if it does, be sure to use it to your advantage!
Check out our guide to the best 3D resin printers to ensure you find a printer that matches your project requirements.
Traditionally, FDM prints are stronger than resin – but this isn’t always the case. It depends on the specific types of resins and plastics to determine which is stronger.
In some studies, ‘strong’ resin has outperformed ASA, ABS and PP in hook strength, although PLA, PA and PTEG did offer even higher strength that the resin.
So, there’s no longer a clear-cut answer to whether resin or FDM 3D prints are stronger. Instead, it’s important to assess the specific type of resin or plastic to determine which offers the most strength.
→ Explore our collection of 3D printer filament.
→ Explore our collection of 3D printer resin.
If you’re unsure whether you should use filament or resin for your project, check out our blog on the key differences between FDM and resin printers.
Standard resin is great for a wide variety of 3D projects. When you want to create intricate objects or prototypes, for example, or ensure a super-smooth finish, standard resin will be the natural choice. However, there are instances in which added strength can enhance the performance of a 3D product.
In dentistry, for example, strong resin can be used to create gum shields, moulds or crowns, while high-temperature resins are already being used throughout the industrial sector. Additionally, castable resins are ideal for jewellery, particularly when a combination of strength and intricacy is required.
From finding the right 3D printer and choosing the best materials to outsourcing your 3D prints to professionals, we’re here to help you achieve optimal results
To find out more, contact the Pro3DShop team via info@pro3dshop.com or our web contact form by clicking here.
Generally, expired 3D printer resin can still be used but print quality and finish may be affected if it is well past its use-by date.
So, how do you know when expired resin is still good to use?
In this post, we’ll help you find out what to look for in older resin to determine whether it’s suitable for new prints.
There is are lots of different compositions and types of resin to choose from, including:
If you want to learn more about different types of resin, filament, and other materials, check out our guide on printing materials.
Standard 3D printer resin typically lasts for around 12 months in liquid form, providing the container is not opened and stored appropriately. However, UV and polyester resins generally only last for around six months, while polyurethane resins may expire within three months.
Every bottle or container of resin will feature a ‘best before’ or ‘use by’ date, so use this for guidance and aim to use the resin for printing before it reaches its expiration date.
That said, you don’t necessarily have to discard resin simply because it’s past its expiry date. A best before date simply means that the manufacturer guarantees optimal performance, providing the product is unopened, stored properly and used before the specified date.
After this, the resin may still provide a great print finish, even though the manufacturer doesn’t guarantee its quality.
3D printer resins are made from numerous components and the lifespan of some components may be shorter than others. Due to this, you may notice a negative impact on the quality of your printed materials when you use expired resin.
For example, some resin printers report ‘overcuring’ issues, which means a rougher texture and less accurate details.
If you're interested, check out our guide on 3D resin printers.
If you’re printing multiple items, you may also notice less uniformity in the finished products. While expired resin may be suitable for one-off prints, it may be less usable if you’re printing numerous identical pieces that need to be exactly the same in terms of form and finish.
All resins will eventually turn yellow, which is one of the reasons why you shouldn’t stockpile resin. If a bottle or container of resin is well past its expiry date, it’s likely that it will have a yellow hue, even if it container is unopened.
While it may still be good to use, you’ll only want to use it for prints where colour isn’t critical. Once the seal is broken on a resin container, the oxidisation process accelerates. This means the resin will turn yellow even faster.
One of the biggest concerns surrounding expired resin is whether it will damage your printer. After all, you don’t want to risk ruining an expensive 3D printer with an out-of-date resin. Despite this, many 3D printers maintain that expired resin doesn’t impact the functionality of their printers at all.
Ultimately, it’s a personal choice whether to risk using expired resin with your printer but using recently expired resin is unlikely to cause major issues, providing it has been stored appropriately and looks as it should.
Storing resins appropriately maximises their longevity and helps to improve subsequent print quality. To get the most out of your resin, follow the manufacturer’s storage instructions and be sure to:
It’s not unusual for unused resin to remain in a printer vat once you’ve completed printing. In some instances, you can cover the resin in the vat and simply store the vat in a cool, dry place until you want to use it again. Depending on storage conditions, resins may be usable for up to two months if kept in this format.
Alternatively, you may want to remove the resin from the vat and store it in a separate container. If so, don’t attempt to pour the resin back into its original container if ‘new’ resin is still present. Instead, use a separate container to keep ‘new’ resin separate from the resin that’s already been added to the printer vat.
Remember – resin is toxic when it’s in liquid form, so safety protocols should be in place when storing or handling it. It’s particularly important that children and/or animals cannot gain access to resin when it’s stored in a home environment, so choose a secure place to keep unused resin and be sure to use containers that can be securely fastened.
Similarly, proper measures should be followed when disposing of resin, so that you don’t cause harm to yourself, other people or the environment. Generally, curing the resin in direct sunlight prior to disposal is sufficient to ensure safety.
If you want to achieve the best finish and enjoy peace of mind when you’re working on your next 3D project, it’s always advisable to avoid working with expired resin.
At Pro3D, we stock a wide range of resins in varying sizes, so you can purchase the exact amount you need for an upcoming print. This ensures you’ll always have access to the printing materials you need and that you won’t have to worry about storing large amounts of unused resin.
Explore our collection of resins now or contact our expert team for help finding the best resin for your 3D printing needs.
Fused deposition modelling (FDM) is one of the most common methods of 3D printing. It works by selectively depositing molten thermoplastic material layer by layer to build up a 3D object.
This blog will take a closer look at how FDM printing works and its key characteristics.
The FDM, or filament, printing process starts with a 3D digital model designed using CAD software or scanned from an existing object. This model is then converted into an STL file format that slices the model into thin layers.
The FDM printer heats up a thermoplastic filament to a semi-liquid state and extrudes it precisely through a print nozzle onto the print bed following the CAD model one layer at a time. The initially extruded material quickly solidifies and fuses with the layer below. The print head moves in both horizontal and vertical directions, depositing material onto the printable area of the build platform.
Once a layer is finished, the build platform lowers, and a new layer is deposited on top. This process continues until the entire object has been built from the bottom up. Support structures may be required during overhanging geometry builds.
In contrast, resin printers, also known as SLA (Stereolithography) or DLP (Digital Light Processing) printers, use a completely different approach.
These printers utilise a tank filled with liquid photopolymer resin, which is selectively cured (hardened) into solid form by a UV light source. This light is either directed by mirrors (in the case of SLA printers) or projected as a whole layer image (in DLP printers), solidifying the resin according to the 3D model layer by layer.
For those interested in exploring the advantages and considerations of each technology further, check out our comparison of FDM vs resin printers. This article provides a deep dive into aspects like material cost, durability, and printing speed.
There are several key parameters that influence FDM print quality, speed, and overall system performance:
There are distinct differences between lower-cost desktop machines and high-end industrial FDM printers:
FDM printing technology offers economical production solutions with several appealing advantages.
Both the printers themselves and the filament materials have become very affordable, with models like the TRILAB DELTIQ 2 3D PRINTER and the TRILAB DELTIQ 2 PLUS 3D Printer available for less than £4,000.
The process also generates much less material waste compared to methods like CNC machining which can waste 90% or more of raw material removed during shaping. FDM printers don't require installing any special ventilation or facilities, even larger ones like the ZMORPH I500 LARGE-FORMAT ~460MM * DUAL HEAD or the VSHAPER 5AXMACHINE.
There is also a growing range of over a dozen thermoplastic materials to choose from including lower-cost PLA and ABS as well as advanced polymers like PETG and composites. Furthermore, leftover print material like rafts and supports can simply be recycled and re-extruded into fresh filament, greatly reducing total waste.
Taken together, these FDM capabilities provide accessible and practical 3D printing with low upfront and ongoing expenses.
Drawbacks include lower accuracy and strength compared to industrial AM processes like selective laser sintering (SLS) or stereolithography (SLA). The layered stepped look of FDM prints also requires more finishing work vs. other technologies.
The most popular FDM print materials are:
FDM printing offers several key advantages that make it appealing for various applications. First, the materials and equipment cost is relatively low, which makes it suitable even for small budgets. For example, the TRILAB AzteQ Industrial 3D Printer is available for less than £8,000.
Second, it does not require special ventilation in the workshop compared to technologies like SLA. There is also a range of different materials with different properties to suit different applications from rigid to flexible.
Finally, FDM is a very well-established technology with a large community support base for troubleshooting, software tools, and new material development to enable further innovation.
FDM does have some disadvantages to consider as well. First, the resolution and accuracy are lower compared to other 3D printing methods like stereolithography (SLA) and selective laser sintering (SLS). Second, the visible horizontal layer lines inherent in the process can negatively impact both appearance as well as part strength. Third, there are size limitations on prints based on the build volume of the specific 3D printer being used.
In addition, support material may be required during the printing process for some geometries, which must later be removed and can impact the surface finish. Despite these cons, FDM remains a versatile and accessible technology for a wide range of applications.
FDM strikes an excellent balance of affordability, ease of use and material versatility. It enables rapid prototyping of designs during product development as well as ongoing production of final parts, making it the backbone of industrial and desktop 3D printing.
If you have any questions about our excellent range of FDM printers, feel fre call us on 0800 689 0719 or contact us via form.
3D printing gives you the freedom to create bespoke models, products and components and it’s becoming increasingly popular with hobbyists, innovators, and established companies.
Whether you’re planning a one-off project or printing on an industrial scale, one of the most important questions you’ll have is, how much does it cost?
The true answer is: it depends!
There are many factors that affect how much 3D printing costs and – in this article – we’ll explore every aspect to give you an insight into how much your next 3D printing project is likely to set you back.
If you print in 3D on an ad hoc basis, you need a specialist component or a product prototype, our 3D printing service might be the perfect solution. You’ll get the benefit of our expertise when it comes to producing the best quality print and you’ll have access to a wide range of materials and printers to ensure the best result.
What’s more – using our 3D printing service means you won’t have to invest in your own equipment, such as a 3D printer, so it can be a cost-efficient way to access the tech you need.
As you might expect, every 3D printing project is different, which is why pricing is variable. However, we always do our best to ensure everyone has access to cost-effective 3D printing services. Depending on your project, we will charge per print, the amount of time it takes for the 3D print to be completed, and complexity of the print. For example, a print using a Bluecast X10 SLA a Single Stone Engagement Ring will cost £12+Vat.
To find out more or to discuss your project in more detail, click here to message us, and we’ll be able to give you a quote.
It’s helpful to have an understanding of the various factors that can impact the price of 3D printing. Here, we cover some of the essentials you need if you’re going to start 3D printing and give you an idea of how much you’re likely to spend.
To start producing 3D models, a 3D printer is certainly essential! However, there are many different types of 3D printing and, therefore, a whole array of 3D printers. Amongst the most popular are resin printers and FDM printers.
So, you’ll need to consider what type of models you’ll be making, rather than deciding which type of 3D printer to buy based solely on the price.
Check out our guide on the best 3D resin printers!
The type of printer you have will determine what type of materials you need to produce 3D models. If you have a FDM printer, for example, you’ll need to purchase filaments which are melted via the printer and placed layer-by-layer to create the final product.
Although filaments are relatively cheap compared to other types of 3D materials, it’s important to remember that you’ll need to purchase numerous colours (if your designs contain more than one shade).
Similarly, if you own a resin 3D printer, you’ll need to purchase resin in the colours you want to print in. In general, resin does tend to be a little more costly than filament but it’s capable of achieving a higher level of detail. Additionally, the price of resin brands varies from brand to brand, so it’s worth experimenting with different options to find a material and price point that works for you.
In any case, our team will be able to identify the best 3D printing material for your needs.
Depending on the finish you’re after, there may be post-processing work that needs to be incorporated into your project. A print may need to be cured, cleaned and/or polished before it’s usable, for example.
Again, the level of post-processing work is very dependent on the type of 3D printer you use. Filament prints may require more post-processing, whereas resin printers are able to achieve a smoother finish, which reduces the need for extensive post-processing.
The size, scope and complexity of a print also impacts its cost. The larger a model is, for example, the more materials it will use and, therefore, it will be more expensive to produce. Similarly, printing a solid model is likely to be more costly than a hollow version.
In some cases, a 3D model can be printed directly from a CAD file, but it may be worth having a professional check the file before you proceed. Inaccurate file components can lead to costly mistakes, particularly when it comes to complex or large-scale projects. With expert assistance, however, you can ensure optimal results from the first print.
If you’re taking up 3D printing and want to know more about the costs involved, don’t forget to factor in the cost of electricity and maintenance. While these costs do vary depending on energy prices and the need for maintenance or repairs, they are expenses that are unavoidable when you’re printing your own 3D models.
As you can see, there’s lots to consider when answering how much 3D printing costs, but producing 3D prints needn’t be too costly.
Our dedicated 3D printing service is a great way to access the professional expertise and equipment you need to produce 3D models. We’ll work with you to create a custom quote, so you’ll know exactly how much your print will cost before we get started.
As a professional 3D printing service, we have access to a range of printers and materials, which means we can help you achieve the best quality output. Want to know more? Get in touch with our team now on +44 (0) 800 689 0719 or click here to message us.
When using a 3D printer, the length of time it takes to complete the print depends on the complexity of the finished product, as well as the type of printer being used, the printing materials and the slicer settings.
(It's important to note that the length of time it takes will, in turn, also affect the cost of 3D printing.)
In some cases, a 3D model can be printed in minutes, while more complex projects can take hours or days to print.
Due to this, there’s no one-size-fits-all answer to the question. Instead, each project needs to be assessed to determine how long printing is likely to take.
In this article, we’ll explore the various factors that impact 3D printing time and explain how they impact the total project completion time.
To determine how long a finished model is likely to take to print, it’s important to consider the following:
As you might expect, the size of the finished model has a major impact on the print time. After all, a large model is likely to take longer to print than a miniature piece. The height of a 3D model has a particularly significant impact on printing time. This is because 3D models are printed in layers and, the taller the item is, the more layers need to be printed.
3D printers are capable of generating highly complex models. In fact, the advances in 3D printing now mean that highly complex geometries can be 3D printed and transformed into medical-grade components or military-grade concrete structures.
Inevitably, the more complex a model is, the longer it will take to be printed. A simple, hollow shape may be printed in minutes, for example, whereas highly intricate and complex medical components are more likely to take hours. When it comes to large, complex models, it’s not unusual for the 3D printing process to take days to complete.
Despite this, 3D printing often proves to be the quickest way to produce models that may take days, weeks or months using traditional production methods.
As 3D printing has evolved, a wider range of 3D printers has become available, and the type of 3D printer you choose to use can have an impact on printing times. An SLA or resin 3D printer can typically print complex models more quickly than an FDM 3D printer, for example. For simple models, an FDM 3D printer may have a slight edge over resin 3D printers when it comes to print times.
However, it isn’t just the type of printer that has an impact on project completion times. Every model of 3D printer has its own maximum printing speed, and this obviously affects how long it will take to fully print a piece of work.
For example, the B9 Core 500 Med, designed for the medical industry, offers build speeds of 15 – 120+ mm/hr, whereas the ProtoSpeed Rapid DLP 3D Printer delivers speeds of 50-65mm per hour at a 50µm layer thickness. Although both of these examples are resin printers, their varying applications and designs means they deliver different build speeds, resulting in varying printing times.
So, you’ll need to ensure you have access to a 3D printer that is designed for the type of application you’re working on and, if possible, evaluate the build speeds of comparable machines to find the fastest 3D printer for your needs.
The type of 3D printer you use will affect print times, partly due to the type of materials that are used. FDM printers work by heating filaments that are then pushed through the nozzle of the printer in accordance with the design. In contrast, resin 3D printers use UV-sensitive liquid polymers that harden into a solid state when ‘activated’ by the computer-controlled UV laser.
In most instances, printing with filaments is faster than using resins. However, resin printed is most suited to complex geometries, whereas FDM printing is ideal for less complex models, which can also account for the variation in printing times.
Once a model has been printed, you’ll need to factor in the time required for post-processing too. For example, removing the supports and polishing the model to enhance the finish can take a substantial amount of time.
Generally, FDM models require more post-processing than models produced via a resin 3D printer. This is because resin 3D printers are more capable of producing complex and intricate models with a better finish.
If you print a moderately complex piece with an FDM printer, for example, it may require 8 – 24 hours of post-processing until it’s ready for use. Conversely, models printed via a resin printer often require far less post-processing, sometimes as little as 2 – 8 hours.
Using the best printing method, printer type and materials for your specific project can naturally shorten printing times. If you’re printing a highly complex model, for example, the capability of a resin printer and the reduced post-processing time in comparison to an FDM print means the project completion time can be minimised.
Similarly, using a 3D printer model with high build speeds is another way of improving printing times. As you may be aware, it is usually industrial and professional-grade machines that deliver the fastest build speeds, whereas printers designed for at-home or hobbyist use will often have slower build speeds.
If you want to benefit from the fastest printing times and the best results, our bespoke 3D printing service may be just what you’re looking for. With access to a range of machines, materials and expertise, we can select the best printers and printing methods for your project and accelerate printing times.
Whether you’re printing a one-off model or looking for a large run of 3D printing, our in-house experts will be happy to provide the service you need.
To find out more or to discuss your printing requirements with our team, contact Pro3D Shop now +44 (0) 800 689 0719 or send us a message here.