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Learn about how our Platform works

Our streamlined FDM 3D printing process ensures your designs are realized with optimal precision and speed. Here's how we bring your ideas to life:

Design Upload – Share your 3D models and specifications through our secure platform.
Material Selection – Choose from a wide variety of durable and affordable thermoplastics tailored to your project's needs.
Printing & Delivery – We produce your parts with consistent quality checks and deliver them promptly to meet your timelines..

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FDM Capability

Our Fused Deposition Modelling 3D Printing Capability

Explore our advanced FDM 3D printing capabilities, delivering precision, durability, and versatility across a range of applications. From intricate prototypes to robust functional parts, we ensure high-quality output tailored to your exact specifications.

Customizable Designs
Cost-Effective Production
Rapid Turnaround

REQUIREMENTS	SPECIFICATIONS
Maximum build size	600 x 600 x 500mm
Standard lead time	4 business days
Dimensional accuracy	0.5mm
Layer thickness	100-300 μm
Infill	20-100%

achieve-complex-geometry-FDM-page-image — Achieve complexgeometries

no-tooling-reducing-cost-FDM-page-image — No tooling,reducing cost

durable-and-strong-components-FDM-page-image — Strong anddurable components

high-accuracy-and-fine-details-FDM-page-image — High accuracyand fine details

FDM design

Design Guidelines For Fused Deposition Modeling (FDM)

To achieve the best results with FDM 3D printing, it's crucial to follow specific design guidelines that maximize strength, accuracy, and print quality.

Overhang Angles: Design overhangs to be less than 45 degrees to reduce the need for support structures, improving surface finish and reducing post-processing.
Build Plate Adhesion: Incorporate features like brims or rafts for parts with a small footprint to enhance build plate adhesion and prevent warping.
Fillets and Chamfers: Add fillets or chamfers to sharp corners to reduce stress concentrations and improve the strength and print quality of the part.

REQUIREMENTS	SPECIFICATIONS
Suggested minimum wall thickness	600 x 600 x 500mm
Supported wall thickness	4 business days
Un-supported wall thickness	0.5mm
Minimum Feature size	100-300 μm
Minimum hole size	20-100%

Why Choose Our FDM 3D Printing Services?

Choosing the right 3D printing service provider can significantly impact the success of your project. Here's why our FDM 3D printing services stand out:

Quality Assurance

Every part undergoes rigorous quality checks to ensure top-notch accuracy, superior finish, and exceptional durability, guaranteeing that the final product meets your specifications.

Competitive Pricing

We provide cost-effective FDM solutions without compromising on quality, offering competitive rates tailored to fit your project's budget.

Advanced Technology

Our cutting-edge FDM printers utilize the latest technology to bring high precision and innovation to every print, producing consistent and reliable results.

Customer Support

Our dedicated support team is available to assist with design consultations, technical questions, and order tracking, ensuring a seamless and satisfactory experience from start to finish.

Find your queries

Frequently Asked Question(FAQ)

What is FDM 3D printing technology?: Fused Deposition Modeling (FDM) is an additive manufacturing process that builds objects layer by layer by depositing melted thermoplastic materials through a heated nozzle. This technique is widely recognized for its ability to produce durable and functional parts with a variety of thermoplastic materials, making it ideal for prototyping and production applications.

What industries benefit most from FDM?: FDM technology is highly versatile and is utilized across various industries, including automotive for prototype components, aerospace for lightweight parts, consumer products for customized goods, and education for teaching engineering and design principles. Its ability to create complex geometries makes it valuable for any industry requiring rapid prototyping and functional end-use parts.

Can FDM create complex shapes?: Yes, FDM is capable of producing complex shapes and intricate geometries that are difficult or impossible to achieve with traditional manufacturing methods. However, certain designs may require support structures for overhanging features, which are removed during post-processing to achieve the desired form.

Is FDM environmentally friendly?: FDM can be an environmentally friendly manufacturing option, especially when using biodegradable materials like PLA (Polylactic Acid). Additionally, the additive nature of FDM minimizes material waste compared to subtractive manufacturing processes. By optimizing designs for FDM, you can further reduce material usage and energy consumption.

What is the cost-effectiveness of FDM compared to other methods?: FDM is one of the most cost-effective 3D printing technologies available. It offers low material costs and minimal post-processing requirements, making it an ideal choice for prototypes, low-volume production, and custom parts. Compared to traditional manufacturing methods, FDM can significantly reduce both production time and costs.

What is the maximum build size for FDM?: Our advanced FDM machines can print parts up to 600 x 600 x 500 mm, allowing for the creation of large-scale prototypes and components in a single build without the need for assembly.

What is the layer thickness range in FDM printing?: We offer a layer thickness range from 100 to 300 microns (0.1 to 0.3 mm). Thinner layers (100 microns) provide higher resolution and smoother surfaces, suitable for detailed parts, while thicker layers (300 microns) allow for faster print times, ideal for larger or less detailed components.

What dimensional accuracy can FDM achieve?: FDM typically offers a dimensional accuracy of ±0.5 mm or ±0.05%, whichever is greater. This level of precision is suitable for most prototyping needs and functional applications, ensuring parts fit and function as intended.

What are the available infill options?: We provide infill percentages ranging from 20% to 100%. A lower infill percentage (20%) reduces material usage and weight, suitable for non-structural parts. Higher infill percentages (up to 100%) increase part strength and durability, essential for load-bearing applications.

What is the typical lead time for an FDM print?: Our standard lead time is 4 business days, but it can vary depending on the complexity and size of your project. We also offer expedited services to meet tighter deadlines when necessary.

What is the recommended minimum wall thickness for FDM?: For optimal stability and durability, we recommend a minimum wall thickness of 1 mm. Thicker walls improve the part's strength and rigidity, especially important for functional prototypes and end-use parts.

Can FDM print fine details?: FDM can accurately print features as small as 0.8 mm. While it may not match the fine detail resolution of technologies like SLA or SLS, FDM is suitable for most applications requiring moderate detail. For intricate designs, careful consideration of feature size and orientation can enhance print quality.

What’s the ideal hole size in FDM designs?: To ensure clean and accurately formed holes, we recommend designing holes with a minimum diameter of 1 mm. Smaller holes may not print correctly due to nozzle size limitations and may require post-processing to achieve the desired dimensions.

What support structures are used in FDM?: FDM uses removable support structures made of the same or a different dissolvable material to support overhanging sections and complex geometries during the printing process. After printing, these supports are removed manually or dissolved, leaving behind the intended design without compromising structural integrity.

Can FDM handle thin features?: While FDM can produce thin features, those below 1 mm may be fragile and prone to breaking. For durability and print reliability, it's advisable to avoid ultra-thin sections or reinforce them in your design.

What is the strength of FDM printed parts?: FDM printed parts can exhibit high tensile strength and durability, especially when using engineering-grade thermoplastics like ABS, Nylon, and Carbon Fiber Reinforced materials. These materials are suitable for functional prototypes, tooling, and even some end-use applications requiring mechanical strength.

How heat-resistant are FDM parts?: Materials such as ABS and PETG offer moderate heat resistance, typically withstanding temperatures up to 80°C (176°F) without significant deformation. For higher heat resistance, materials like Polycarbonate (PC) or specialized high-temperature thermoplastics can withstand temperatures up to 110°C (230°F) or more.

Are FDM parts chemical resistant?: FDM materials like Nylon and PETG provide good resistance to many chemicals, including oils, greases, and solvents. This makes them ideal for industrial applications where exposure to such substances is common. Always consult material datasheets for specific chemical compatibility.

What materials offer flexibility in FDM?: Flexible filaments like TPU (Thermoplastic Polyurethane) can be used with FDM to produce parts requiring elasticity, impact resistance, and rubber-like properties. These materials are perfect for applications like gaskets, seals, and wearable items.

Is FDM suitable for outdoor parts?: FDM parts can be suitable for outdoor use when printed with UV-resistant materials like ASA or treated with protective coatings. While materials like PLA may degrade under prolonged UV exposure, choosing the right material can enhance the longevity of parts used in outdoor environments.

Can FDM print automotive parts?: Absolutely. FDM is widely used in the automotive industry for prototyping components, creating custom fixtures and tooling, and even producing end-use parts for vehicles. Its ability to produce strong, durable parts quickly makes it invaluable for accelerating the design and testing phases.

What are common uses of FDM in education?: In educational settings, FDM is popular for teaching concepts in engineering, design, and architecture. Its affordability and ease of use allow students to bring theoretical designs into the physical world, enhancing learning through hands-on experience.

Can FDM produce strong, functional parts?: Yes, FDM can produce robust and functional parts suitable for a variety of applications. By selecting appropriate materials and optimizing design parameters, parts can meet demanding mechanical requirements for prototypes or end-use products.

Is FDM suitable for architectural models?: FDM is an excellent choice for creating architectural models and prototypes. It allows for the rapid production of scale models, enabling architects and designers to visualize and present their concepts effectively. Layer thickness and material choices can be adjusted to balance detail and production speed.

How does FDM support medical applications?: FDM technology is utilized in the medical field for creating patient-specific models, surgical guides, prosthetics, and medical devices. Using biocompatible materials, FDM can produce customized solutions that improve patient outcomes and support advanced medical research.