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This is the troubleshooting manual for the Formlabs LFS 3D printer 'Form3'. "Why won't the print start even though I'm ready?" "The error message displayed is in English and hard to understand." "I don't know the specific measures to take for the error." ...and other common questions that may arise during the operation of the Form3 can be addressed using this reference material. Under the supervision of certified technicians trained by Formlabs, we have compiled common issues, along with their causes and solutions, complete with photographs. Please also use this when contacting our technical support. [Features of the Document] ■ Actual error contents and causes presented in Japanese Examples of potential errors and their causes are clearly summarized in Japanese. ■ Easy-to-understand solutions with accompanying photos Specific solutions are explained with photos, making it easier to visualize the steps to take. For more details, please request a catalog or view the PDF data via the download button below.

This document is a series that proposes solutions to various challenges faced in production sites, from identifying issues to finding resolutions. In the "3D Data Utilization Edition," we will introduce various solutions to manufacturing challenges through the use of 3D data. This document focuses on the theme of "deformation in metal 3D printing," explaining the mechanisms behind deformation in printed objects and methods for alleviating it. [Document Overview] Metal 3D printers, capable of creating complex shapes that cannot be produced by other processing methods, are seeing active technological development not only in Western countries but also within Japan. However, an inevitable challenge that arises with metal 3D printed objects is "deformation," which cannot be avoided due to the nature of the process. To achieve accurate printing as per the design, it is essential to understand the causes of deformation and to implement appropriate measures throughout the entire printing process. This document serves as the first installment in introducing solutions to the "deformation" challenge, explaining the mechanisms behind deformation and effective methods for its resolution. *You can download the document using the button below.*

This document is a series that proposes solutions to various challenges faced in production sites, from identifying issues to finding resolutions. In the "3D Data Utilization Edition," we will introduce various solutions to manufacturing challenges through the use of 3D data. This document focuses on the theme of "human costs of 3D printers," presenting the operational challenges of 3D printers and their solutions. [Document Overview] Low-cost entry-level 3D printers have emerged in the market and are widely adopted in design and development settings. However, as one repeatedly prototypes with a 3D printer, the post-processing tasks, such as removing support material, can become cumbersome. In this document, we will explain the challenges that become apparent during operation, such as those mentioned above, based on the characteristics of different 3D printing methods. *You can download the document using the button below.*

This document is a series that proposes solutions to various challenges faced in production sites, from identifying issues to finding resolutions. In the "3D Data Utilization Edition," we will introduce various solutions to manufacturing challenges through the use of 3D data. In Vol. 4-1, we will focus on the theme of "reducing post-processing time" and introduce a printing method that can reduce the human costs associated with 3D printing. [Document Overview] The largest human cost during 3D printer operation is the time involved in finishing work. A significant portion of this finishing work consists of "removing supports." Therefore, introducing a device that makes support removal easy is key to reducing human costs. By alleviating the workload for operators and shortening the time previously spent on post-processing, productivity can be improved, allowing for rapid prototyping and repeated evaluation and testing in a short period. This document will further explain how differences in printing methods can lead to reductions in human costs, including mechanisms for printing without support materials and an introduction to implementation concepts. *You can download the document using the button below.

This document is a series that proposes solutions to various challenges faced in production sites, from identifying issues to finding resolutions. In the "3D Data Utilization Edition," we introduce various solutions to challenges in manufacturing through the use of 3D data. This document focuses on the theme of "challenges of 3D printed jigs," highlighting the issue of "static electricity" that emerges when utilizing 3D printed jigs, along with potential solutions. [Document Overview] The use of 3D printed jigs is becoming widespread due to benefits such as increased work efficiency and cost reduction, enabling effective operations. However, while many are experiencing the advantages of these jigs, there are also voices expressing that challenges have become apparent during their use. One such challenge is "static electricity." Static electricity can lead to damage from discharges or the attraction of dust, which in some cases can cause product defects. This document presents examples of challenges related to static electricity when using 3D printed jigs and offers solutions. We will introduce methods to effectively eliminate static electricity that is likely to occur during work processes. *You can download the document using the button below.*

This document summarizes the physical properties of a wide range of resins that can be used with Formlabs' stereolithography 3D printers, the 'Form2 / Form3'. The Form2/Form3 is attractive for its compatibility with various resins, including "Tough," which is ABS-like and highly tough, "High Temp," which is heat-resistant, and "Castable," suitable for lost-wax casting, as well as "Draft," which is specialized for fast printing. This document outlines the physical properties of each resin that can be used with the Form2 and Form3, as well as their chemical compatibility with various liquids. By confirming properties such as strength and toughness to select the appropriate resin, it becomes possible to create models suitable for specific applications. [Features of the Document] ■ Physical Properties Listed It includes physical property values such as tensile modulus and flexural strength before and after post-curing. This information can help in selecting resins with the necessary characteristics for the intended use of the model. ■ Chemical Compatibility Listed It includes changes in weight when immersed in liquids such as water and mineral oil. You can verify resins suitable for the model's usage environment. *Please view the PDF data from the download button below.

This is the troubleshooting manual for the popular 3D printer 'Form2'. "We often receive feedback from customers using the Form2 that the error messages are difficult to understand in English!" To address the concerns of such customers, we have prepared the 'Form2 Troubleshooting Guide'! This document has been compiled by certified technicians trained at Formlabs, summarizing common issues in an easy-to-understand manner. Please also use it when contacting support. [Features of the Document] ■ Quick understanding of solutions with flowcharts A flowchart is included on the opening page. By simply answering YES/NO, you can diagnose the cause of the error and the corresponding solution, allowing for quick access to the desired page. ■ Actual error content and causes presented in Japanese Examples of actual possible errors and their causes are clearly summarized in Japanese. ■ Easy-to-understand solutions with photo explanations All solutions are explained with accompanying photos, making it easier to visualize the steps to take. For more details, please request a catalog or view the PDF data from the download button below.

This is a technical guide that helps improve the print quality of the popular 3D printer Form 3 series and reduce the time required for finishing processes. To make the most of the created models, it is important to print them at the quality expected in the design. By understanding how the Form 3 series prints and making adjustments to the print settings, you can create high-quality models and reduce the time spent on finishing processes. [Features of the document] ■ Easy to practice with screenshots Tips for support design are explained alongside PreForm screenshots. You can set up by comparing the actual screen with this document. ■ Compatible with various model shapes In addition to tips for support design, we also introduce the printing mechanism of the Form 3 series. By understanding "why support is needed in this area?", you can accommodate various models. ★ A print design guide (appendix) that also explains key points during model design is included. For more details, please request a catalog or view the PDF data from the download button below.

This document is a series that proposes solutions to various challenges faced in production sites, from identifying issues to finding resolutions. In the "3D Data Utilization" edition, we will introduce various solutions to challenges in manufacturing through the use of 3D data. This document will explain three specific benefits of using metal 3D printers, along with examples, and will also highlight the challenges that arise when advancing towards practical application. Furthermore, as a solution section, we will focus on "limitations of precision," "material restrictions," and "cost issues," providing detailed explanations of the points for resolving each challenge, and introducing methods for starting the operation of metal 3D printers on a small scale. [Document Overview] Metal 3D printers are expected to be utilized in the field of metal products due to advantages such as the production of high value-added products and cost reduction in small-scale manufacturing. This document will present the scenarios in which the benefits of metal 3D printers can be realized and the challenges for practical use from three perspectives: "more flexible design," "reduction of prototyping and manufacturing time," and "reduction of production costs." *You can download the document using the button below.

The CreatBot series includes six models: the "D1000 HS" and "D600 Pro2 HS," which have large build areas, and the "F430," "PEEK-250," "PEEK-300," and "F160-PEEK," which can use special materials and super engineering plastics. You can choose the optimal 3D printer according to your purpose and needs. [Features] ■ Equipped with a high-temperature nozzle that can handle up to 420℃ With dual nozzles of 420℃ and 260℃, it is possible to combine prints. (PEEK-300 can reach up to 480℃) ■ Table & chamber heater to manage internal temperature By thoroughly controlling the internal temperature, it maintains a uniform temperature throughout the entire model. It can also prevent the effects of changes in indoor temperature, which are easily influenced. ■ Auto-leveling function that keeps the distance between the table and nozzle constant By maintaining a constant distance between the nozzle and the build table, it enables uniform layering and achieves stable printing. You can feel secure even with large prints that take a long time. *The features vary by model. *For more details, please refer to the PDF data available via the download button below.

The "Fuse 1+ 30W" is a powder sintering (SLS) 3D printer from Formlabs (powder 3D printer). It condenses a technology that was mainly high-end and expensive into a compact size, achieving both ease of use and quality. [Features] ■ Packaged Forming System The packaged forming system, enabled by the collaborative operation of the Fuse 1+ 30W and Fuse Sift, allows for efficient and clean operation. ■ Easy Operation for Anyone By loading data into the included software "PreForm," you can simply select the material and determine the model's layout to prepare for printing. ■ New Design Material That Does Not Require Nitrogen The specially designed powder material achieves high quality while maintaining material properties without the need for nitrogen. ■ No Support Needed, Reducing Costs and Time Un-sintered powder supports the model, eliminating the need for support material that would otherwise have to be discarded. ■ An Ecosystem with Virtually Zero Waste By mixing approximately 30% of new powder with un-sintered powder, it can be used as recycled powder. *Please view the PDF data from the download button below.

The "Modix BIG Series" is an FDM (Fused Deposition Modeling) 3D printer assembly kit that allows anyone to easily start large-scale printing. It is equipped with various features, including an automatic correction function to ensure stable printing. [Features] ■ Automatic leveling correction The level of the table significantly affects the quality of the model, making leveling an important process. The "Modix BIG Series" can be set up completely automatically, allowing for proper preparation before printing. ■ Easy gap adjustment even for beginners Manual adjustments are no longer necessary. It eliminates discrepancies in settings caused by different operators, enabling anyone to easily and accurately adjust the gap. ■ Expanded operational range with dual extruders By adopting an IDEX (Independent Dual Extruder) print head, the two print heads operate independently. This allows for printing with two different materials simultaneously. Additionally, in the event of a material run-out, the print head can automatically switch to continue printing without interruption. *For more details, please request a catalog or view the PDF data from the download button below.

"Tumaker" is a desktop-sized FGF (Fused Granular Fabrication) 3D printer that uses pellets as its material. It can be utilized for material research and development. [Features] ■ Adoption of IDEX printing head It employs the IDEX (Independent Dual Extruder) system, where two printing heads operate independently. You can use just one head, or combine both heads to enable various types of fabrication. The dual-head system allows you to choose from two types of materials: pellets and filaments, which can be freely combined. ■ High positioning accuracy in the drive components It features high positioning accuracy with low-vibration stepping motors and drivers. The precise and smooth operation of the printing head ensures stable fabrication throughout the process. ■ High-temperature equipment for various materials With a nozzle that heats up to 300°C and a table that can reach 100°C, it supports a wide range of materials. Being an open material system, you can freely choose from general-purpose materials, original materials, and recycled pellets, among others. *For more details, please request a catalog or view the PDF data from the download button below.

[Features] ■ Achieves high speed and high precision Equipped with our unique technology, "IVSS: Intelligent Variable Spot System," which variably controls laser output and spot diameter according to the model's shape. Scanning with a small diameter spot prioritizes quality for surfaces and details, while for thick walls and solid areas that do not appear on the surface, output is increased and scanned with a large diameter spot for shaping. Our unique technology enables high-speed shaping while maintaining high quality. ■ Mars Pro control software "Aster Ray" The built-in control software "Aster Ray" features a simple and excellent usability, making intuitive management and operation of the Mars Pro easy. Additionally, it can be streamlined in conjunction with the 3D printing preparation software "VoxelDance Additive." ■ Pure material resins with distinctive functionality We offer eight types of proprietary pure resins. You can choose from heat-resistant, high-toughness ABS-like resins and transparent resins, depending on your application. *For more details, please request a catalog or view the PDF data from the download button below.

[Features] ■ Overwhelming Speed Efficiency The standard-equipped galvanometer meter has a maximum speed of 20.7 m/s. The high-speed operation of the galvanometer mirror controls the laser irradiation position through reflection, allowing for a maximum build volume of 9 cm³ per hour. Additionally, two galvanometer lasers can be installed as an option, enabling simultaneous irradiation for even more efficient building. ■ Flexible Printing with Open Material Parameters We adopt an open parameter system that allows real-time adjustments of laser output, speed, bed temperature, and more. This provides access to all basic functions and enables the development of exposure parameters for custom materials. ■ Compatibility with a Wide Range of Materials In addition to manufacturer-recommended materials, it is also possible to use readily available commercial industrial metal powders, including stainless steel, tool steel, superalloys, copper, titanium, and aluminum. *For more details, please request a catalog or view the PDF data via the download button below.

[Features] ■ Modular Print Heads With a total of four interchangeable print heads—one for filament, two for liquids, and one for paste—this system can accommodate a wide range of materials. ■ FDM Head Compatible with a Wide Variety of Materials It can handle everything from engineering plastics like PC and PETG to specialized materials such as TPU and carbon composites. ■ Abundant Liquid Materials It can utilize two-component pure silicone materials, one-component curing materials, and even viscous ceramic and clay paste materials. ■ Vertical Housing with Delta Configuration The delta-style housing enables stable and high-speed printing, equipped with parts that excel in rigidity, ensuring stable precision even for large-scale prints. *For more details, please request a catalog or view the PDF data from the download button below.

■Two Types of Print Heads Equipped with two print heads: the LIQ11 head, which can use single-component materials, and the LIQ21 head, which can use two-component materials. ■IDEX System Print Head By adopting the IDEX system, each head can be controlled independently. This allows for the separation of model material and support material, enabling the creation of complex silicone models. ■Wide Range of Silicone Materials We have independently developed high-performance and easy-to-handle excellent materials. The developed silicone materials are available in different hardness levels, allowing you to freely choose the hardness needed for the model you want to create or according to your application. *For more details, please request a catalog or view the PDF data from the download button below.

The Form 4 boasts a maximum printing speed of 100mm/h, a maximum build size enlarged by 30%, the addition of high-performance materials, and updates to the workflow, making it the most powerful industrial-quality 3D printer to date. It not only accelerates the prototyping and validation processes in product development but also opens up new possibilities for various applications, including the creation of jigs. [Features] ■ High-speed, high-quality printing achieved with Low Force Display (LFD) The combination of a backlight unit equipped with 60 LEDs and the Laser Unit 4 (LPU 4) accurately directs the laser onto the build platform, enabling fast and high-quality printing. ■ Over 23 types of materials available High-quality, high-performance materials can be freely used. Since they have been verified by manufacturers, they can be utilized immediately. ■ Easy print setup for first-time users With features like one-click settings, the dedicated slicer "PreForm" allows for easy completion of print setup. *Please view the PDF data from the download button below.

The "Form 4L" is a 3D printer that utilizes the "LFD" molding system developed by Formlabs. [Features] ■ High-speed molding with the "Low Force Display" method By adopting a mechanism that masks and irradiates ultraviolet light using an LCD screen instead of traditional laser molding, high-speed molding is achieved. ■ Vertical irradiation of the entire molding area Ultraviolet light from 145 LEDs with an output of 16mW/cm² is uniformly and vertically corrected by a lens array, allowing for high-precision molding across the entire molding area. ■ High-quality molding through reduced release force The unique micro-textured optical film and the two-layer structure of the resin tank create air pathways that reduce release force. ■ Easy print settings for beginners Print settings can be easily completed using the dedicated slicer "PreForm," which features functions that can be set with one click. ■ Automatic resin supply Once molding starts, the supply and stirring of resin begin automatically. Internal sensors measure the resin amount and display the remaining quantity, making resin management easy. *Please view the PDF data from the download button below.

This is a Creality FDM 3D printer that achieves high-speed printing of up to 600mm/s while maintaining high stability. It is equipped with numerous advanced features such as automatic calibration, AI camera, and vibration correction, catering to various printing needs. [Features] ■ Supports ultra-fast printing of up to 600mm/s Thanks to a high-flow hotend and auxiliary cooling fan, materials are quickly heated and cooled. Additionally, real-time corrections using stepping motors combined with stable head movement via linear guides enable high-speed and high-precision printing. ■ Fully automatic calibration function Tasks that require experience, such as bed leveling, Z offset, and flow correction, are automatically optimized, allowing beginners to achieve high-precision printing right away. ■ Up to 16-color printing With a unique CFS unit and print head structure, it is possible to switch between up to 16 types of filament, expressing a variety of colors in a single model. *For more details, please request a catalog or view the PDF data via the download button below.

The CreatBot D600 Pro2 HS is a large FDM (Fused Deposition Modeling) 3D printer that features an impressive build size of 600×600×600mm and a high-speed printing capability of up to 300mm/s. Equipped with Klipper firmware for enhanced speed and a stable temperature management system (with a heat chamber that reaches up to 70℃ and a nozzle that can reach up to 420℃), it supports a wide range of materials, from general-purpose resins to engineering plastics like PA and PC, as well as high-strength filaments containing carbon or glass fibers, enabling stable and high-speed output of large models. It contributes to increased productivity, from prototyping and jigs to the manufacturing of final parts.

The "CreatBot D1000 HS" is an ultra-large model boasting the largest build area in the series at 1000×1000×1000mm (1m cube) as an FDM (Fused Deposition Modeling) 3D printer. To support high-speed printing of up to 300mm/s, it is equipped with the Klipper firmware, which enables high-speed calculations. It features a high-rigidity frame that allows for stable output even in a wide build area, along with a thorough temperature management system (a heat chamber with a maximum of 60℃, a 420℃ nozzle, and a 70℃ material storage heater). It meets the demand for producing large jigs, prototypes, and final parts in a single piece without division, contributing to the shortening of product development cycles.

The "CreatBot P800" is a large 3D printer that adopts the FGF (Fused Granular Fabrication) method, which uses pellets (granular materials) directly. The maximum build size is 800×800×800mm. Since pellet materials can significantly reduce costs compared to filaments, they contribute to optimizing the running costs of large-scale manufacturing. Additionally, it features a chamber heater with a maximum temperature of 70°C, a heat bed that can reach up to 120°C, and a nozzle temperature of up to 400°C, allowing for stable large-scale manufacturing even with materials like ABS that are prone to warping. Furthermore, it addresses operational challenges unique to large machines by incorporating a vacuum suction table that facilitates the easy removal of large models, pursuing high usability.

The "CreatBot PEEK-250" is a high-performance FDM 3D printer specialized in the fabrication of super engineering plastics (super engineering materials) such as PEEK and PEI. The maximum build size is 250×250×300 [mm]. To achieve the precise temperature control essential for super engineering material fabrication, it is equipped with a chamber heater and build table that can reach up to 200°C, as well as a high-temperature nozzle that can reach up to 480°C. In particular, by adopting a water cooling unit that protects the extruder from high temperatures and a three-layer insulated enclosure that prevents heat loss from the chamber, it enables stable and high-precision output of super engineering materials, significantly expanding its applications from prototyping and research to the manufacturing of high-performance final parts.

The "CreatBot PEEK-300" is a high-spec FDM 3D printer capable of reliably printing a wide range of materials, from super engineering plastics like PEEK and PEI to general-purpose resins. With a build size of 300×300×400 mm, it supports large-scale printing as a super engineering plastic-compatible machine in its class. It features a maximum nozzle temperature of 480°C, a maximum build table temperature of 200°C, and a heat chamber that can be heated up to 120°C. The body adopts a three-layer structure (steel plate, insulation material, stainless steel) with a thermos-like design to maintain an ideal temperature environment. Equipped with a water-cooled dual extruder and a drive unit with high-temperature resistance, it enables the stable production of high-quality parts even in harsh environments.

● Supports over 100 diverse metal materials - Leveraging insights gained from the design and development of high-performance metal powder materials, it accommodates over 100 types of metal powder modeling. - Preset parameters are provided for each material, allowing for immediate high-quality modeling. - Equipped with a chamber compatible with argon/nitrogen gas filling, it standardly supports reactive metals such as aluminum and titanium. ● High-speed, high-quality modeling with high-output lasers and unique control technology - All models above MT170 are equipped with a high-output 500W ytterbium fiber laser. - Achieves high-speed and high-quality modeling while accommodating high melting point materials. ● Open parameter support ideal for research and development - Users can copy and edit parameters themselves. - Addresses diverse needs in research and development fields, such as new alloys and special material settings. ● Wide range of lineup and high expandability - A broad lineup of modeling sizes, from desktop-sized compact machines to large models of 1 meter. - Flexible customization options to meet customer needs, including improved modeling speed through multi-laser configurations and enhanced high precision through high-quality lasers/galvanometers.

In the automotive industry, the prototyping stage requires a quick response to design changes and the ability to work with a variety of materials. In particular, prototyping with metal materials is essential in the pursuit of weight reduction and increased strength. Traditional prototyping methods have faced challenges due to time and cost constraints. The AVIMETAL MT-Series supports over 100 types of metal materials and achieves high-speed, high-precision modeling, contributing to reduced prototyping time and cost savings. 【Usage Scenarios】 - Prototyping of automotive parts - Design verification - Functional evaluation 【Benefits of Implementation】 - Shortened prototyping period - Cost reduction - Early detection of issues in the design phase

In the mold industry, the cooling efficiency of molds has become a crucial issue in achieving both product quality and productivity. Insufficient cooling can lead to product distortion and dimensional defects, resulting in reduced yield. Additionally, increased cooling time can cause delays in the production cycle, leading to higher costs. The AVIMETAL MT-Series significantly improves cooling efficiency by creating complex cooling channels within the mold, addressing these challenges. 【Application Scenarios】 - Design of cooling channels inside the mold - Optimization of cooling efficiency - Reduction of mold manufacturing time 【Benefits of Implementation】 - Improvement in product quality - Increase in productivity - Cost reduction