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In the prosthetics industry, precise design of prosthetic limbs tailored to the patient's body is required. It is particularly important to accurately capture the patient's body shape while balancing comfort and functionality. Traditional design methods have posed challenges due to the time and cost involved. Mesh2Surface for Rhinoceros facilitates the conversion from 3D scan data to CAD models, achieving greater efficiency in prosthetic design. 【Use Cases】 - Prosthetic design from scan data of the patient's body shape - Modifications and improvements based on the shape of existing prosthetics - Data creation for prosthetic manufacturing using a 3D printer 【Benefits of Implementation】 - Reduced design time - Lower design costs - Design of prosthetics that fit the patient's body - Provision of high-quality prosthetics
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In the automotive industry, it is important to accurately understand the shape of existing parts and create CAD data during refurbishment work. This is especially crucial when replacing parts that have deteriorated over time or been damaged, or when making design changes, as precise shape data is essential. Mesh2Surface for Rhinoceros facilitates the conversion from 3D scan data to CAD models, contributing to the efficiency of refurbishment work. 【Use Cases】 - Restoration of the shape of damaged parts - Creation of CAD data for old parts - Shape modification due to design changes 【Benefits of Implementation】 - Reduction in refurbishment work time - Decrease in design costs - Creation of high-quality CAD data
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In the educational field, the creation of teaching materials using 3D printers is in demand. Particularly when students create 3D models they designed themselves, there may be instances of data modification and error handling. VoxelDance Additive supports smooth modeling by quickly resolving errors with its one-click automatic repair function. Additionally, it supports various file formats, allowing for the utilization of a wide range of 3D model data. 【Usage Scenarios】 - Creation of teaching materials in classes utilizing 3D printers - Modification and modeling of student design data - Utilization of educational 3D model data 【Effects of Implementation】 - Reduction of class interruptions due to modeling errors - Provision of an environment where students can focus on design - Expansion of teaching materials through support for diverse 3D model data
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In the toy industry, mass production requires the efficient manufacturing of high-quality products. In particular, flexible responses to design changes and timely deliveries are crucial. By utilizing 3D printers, it is easy to produce toys with complex shapes and customized products, but correcting and editing data can sometimes be cumbersome. VoxelDance Additive enables quick resolution of errors during data conversion with its one-click automatic repair function, facilitating smooth modeling. 【Usage Scenarios】 - Manufacturing of toys with complex shapes - Production of customized toys - Timely deliveries 【Benefits of Implementation】 - Reduction in error correction time - Shortening of modeling time - Flexible response to design changes
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In the automotive industry's prototyping process, a quick response to design changes and high-quality modeling are required. Especially for prototypes aimed at functional verification, accurate modeling within a short timeframe is essential. VoxelDance Additive maximizes the productivity of 3D printers and addresses challenges in prototyping. 【Usage Scenarios】 - Confirmation of design models - Creation of functional verification prototypes - Production of jigs and small parts - Model editing 【Benefits of Implementation】 - Reduction of prototyping time - Improvement in design quality - Cost reduction
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Mitarepo is a series based on the concept of "Trying out things like this!" where we introduce what can be done using various products. In recent years, it has become easier to introduce 3D scanners at an affordable price. However, when actually operating them, many may have felt that the preparation work takes more effort than the scanning itself, such as "It's a hassle to put a lot of target markers..." To reduce this burden, the scanning range per shot becomes important. That's why we would like to introduce the handheld 3D scanner "Peel 3." The Peel 3 has a wide scanning range that can be captured in one scan, allowing you to minimize the number of necessary target markers. So, we tested how many markers are actually needed for scanning. We have explained the interesting results along with the scanned images, so please check it out! *You can download the materials from the button below.
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In the machine tool industry, the compatibility of Mazatrol programs is crucial for maintaining efficient production activities. The exchange of programs between different generations of controllers, as well as conversion and backup tasks, often require significant time and effort, potentially leading to decreased productivity. MazView addresses these challenges by managing various formats of Mazatrol programs and ensuring compatibility with older generation controllers. The offline program preview feature streamlines the program verification process, supporting a smooth workflow. 【Usage Scenarios】 - Factories using different generations of Mazatrol controllers - When wanting to utilize programs from older generation controllers on the latest controllers 【Benefits of Implementation】 - Improved efficiency in program management - Resolution of compatibility issues between controllers - Reduction in program verification time
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In the robotics industry, automation through the collaboration of machine tools and robots is advancing. The Mazatrol program plays a crucial role in controlling the operations of machine tools in this collaboration. When program management becomes complicated, it can lead to delays and errors in collaborative tasks, potentially reducing production efficiency. MazView contributes to improving productivity by centrally managing various forms of Mazatrol programs and enabling offline previews. 【Usage Scenarios】 * Program version management and sharing * Program migration from older generation controllers 【Benefits of Implementation】 * Reduction of work time through efficient program management * Decrease in errors through program visualization * Cost reduction by effectively utilizing older generation programs
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In the machine tool industry, verifying 3D models during the design phase and conducting machining simulations are crucial. Particularly when complex shapes and high-precision machining are required, accurate visualization of 3D models and integration with machining simulation results are essential. Inaccurate model displays or a lack of consistency with simulation results can lead to an increase in the number of prototypes and a decline in product quality. 3DViewStation rapidly displays various 3D/2D data, streamlining design verification and machining simulations. 【Usage Scenarios】 - Design reviews of machine tools - Verification of machining simulation results - Interference checks of parts - Visualization of work procedures 【Benefits of Implementation】 - Reduction of design errors - Shortening of prototype periods - Improvement of product quality - Cost reduction
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In the manufacturing industry, securing training time using actual machines for the development of machine operators has become a challenge. To train multiple operators within limited equipment, efficient learning methods are essential. If it is difficult to increase opportunities for hands-on training, there may be delays in learning and differences in proficiency. RenAn simulates operations similar to those of actual machines, enabling offline learning and streamlining the talent development process. 【Usage Scenarios】 - Mastering the operation of NC machine tools - Improving programming skills - Enhancing understanding through processing simulations 【Benefits of Implementation】 - Reduction in actual machine operating time - Reduction in training costs - Early empowerment of operators
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In the prototyping stage of research and development, it is common to repeatedly go through trial and error to ensure that the shape matches the design. Particularly in the prototyping phase, if measuring takes too much time, it can delay the development speed. Fulcrum allows for immediate measurement without complicated settings once the workpiece is set. It completes the flow from processing to measurement inspection to outputting inspection reports on-site, contributing to a reduction in development time. 【Usage Scenarios】 - Shape measurement of prototypes - Dimensional measurement of parts - Quality control during the prototyping phase 【Benefits of Implementation】 - Reduction in measurement time - Visualization of measurement results - Improvement in quality during the prototyping phase
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In educational institutions, it is essential to teach accurate measurement techniques to deepen students' understanding and help them acquire practical skills. Particularly in industrial high schools and engineering departments at universities, learning the fundamentals of three-dimensional measurement is crucial for the development of future engineers. However, the introduction of expensive measuring instruments and the need for specialized knowledge can make implementation challenging. Fulcrum is compact, user-friendly, and features a template function, making it easy to use without being constrained by experience, thus supporting practical learning of three-dimensional measurement in educational settings. 【Usage Scenarios】 - Practical training in industrial high schools - Research in university engineering departments - Skill acquisition in vocational training schools 【Effects of Implementation】 - Acquisition of practical measurement techniques - Enhanced understanding through visualization of measurement results - Development of application skills through diverse measurement options
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In the electronics industry, precise inspection of components is essential to ensure product quality and reliability. Particularly in miniaturized electronic components, even slight dimensional deviations or shape abnormalities can significantly impact product performance. Traditional measurement methods often require considerable time and effort, leading to challenges in inspection efficiency. Fulcrum simplifies on-site measurements, streamlining the inspection process and supporting the delivery of high-quality products. 【Usage Scenarios】 - Dimensional measurement of electronic components - Inspection of components after PCB assembly - Shape verification of prototypes 【Benefits of Implementation】 - Reduction in inspection time - Early detection of defective products - Improvement in quality control
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In the leather goods industry, delicate engraving on products is sometimes done to enhance brand value. The Falcon2 Pro 60W achieves beautiful engravings that highlight the texture of leather, thanks to its high-power laser of up to 60W and high-precision head. 【Usage Scenarios】 - Logo and design engraving on leather products - Personalization on leather accessories - Production of prototypes for leather goods 【Benefits of Implementation】 - Increased product value through high-quality engraving - Adaptability to diverse designs - Improved efficiency in prototyping and mass production
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In the architectural model industry, rapid prototyping during the design phase is essential. Especially in the early stages, where design changes are frequent, it is important to cut and sculpt materials quickly and accurately. Manual model making is time-consuming and labor-intensive, requiring significant effort for each revision. The Falcon2 Pro 60W, with its high-power laser of up to 60W, can precisely process various materials such as wood and acrylic. This allows for flexible responses to design changes and enables the efficient production of high-quality prototypes. 【Usage Scenarios】 - Prototyping architectural models - Creating models for design consideration - Producing material samples 【Benefits of Implementation】 - Rapid prototyping with short lead times - Quick response to design changes - Achieving high-quality models
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In the educational field, there is a demand for teaching materials that stimulate students' creativity and provide practical learning experiences. In particular, materials that allow students to engage hands-on and experience the joy of making things are essential. Traditional material production can often be time-consuming and costly, but the Falcon2 Pro 60W enables easy processing of various materials such as wood, acrylic, and leather through laser processing. This makes it possible to easily create diverse teaching materials that bring students' ideas to life. 【Usage Scenarios】 * Creating teaching materials for art and technology classes * Producing robot parts for programming education * Creating scientific experiment equipment * Making decorations for school events 【Benefits of Implementation】 * Fostering students' creativity and expressiveness * Providing practical hands-on experiences in making things * Streamlining material production and reducing costs * Ensuring safe operation and high reliability
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In the woodworking decoration industry, there is a demand for diverse designs and high-quality finishes. In particular, to create decorative items with meticulous attention to detail and original works, precise and delicate processing is essential. Traditional processing methods often require significant time and effort, and may not be able to accommodate complex designs. The Falcon2 Pro 60W enables easy and high-precision engraving and cutting of wood. 【Usage Scenarios】 * Production of woodworking crafts * Custom-made decorative item production * Creation of store signs * DIY original work production 【Benefits of Implementation】 * Increased design freedom * Achieving high-quality finishes * Reduced working time * Compatibility with various types of wood
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In the stationery industry, there is a demand for name engraving, barcode, and QR code processing to enhance product value, improve design capabilities, and manage products. Particularly for commemorative items, high-precision marking increases the value of the product. Inappropriate marking can damage the appearance of the product and potentially lower customer satisfaction. Our all-in-one laser marker can efficiently perform name engraving processing, as it can handle everything from creating printing data to operation and control in one machine. 【Usage Scenarios】 - Name engraving on ballpoint pens and fountain pens - QR code processing for design and product management on clips, etc. - Adding scales and designs to rulers and cutters 【Benefits of Implementation】 - Increased product value through high-quality marking - Improved work efficiency by completing tasks with a single machine - Expansion of product offerings by accommodating various materials
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In the automotive industry's prototyping process, a quick response to design changes and the production of high-quality prototypes are required. In particular, improving work efficiency in limited spaces and accommodating a variety of materials are crucial. The compact machining center MX400 addresses these challenges with its space-saving design and high rigidity. 【Usage Scenarios】 - Prototyping of automotive parts - Production of jigs - Processing of low-volume production parts 【Benefits of Implementation】 - Establishment of a prototyping environment in a compact space - Production of high-precision prototypes - Accommodation of diverse materials
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In the precision machining of the mold industry, high accuracy and efficiency are required. Particularly for molds that require complex shapes and fine machining, the accuracy of dimensions and surface roughness significantly affect product quality. The compact machining center MX400 addresses these challenges in mold manufacturing with its high-rigidity frame structure and high-precision machining capabilities. 【Application Scenarios】 - Precision machining of mold components - Production of prototype molds - Small lot production 【Benefits of Implementation】 - Improved product quality through high-precision machining - Effective use of workspace due to space-saving design - Reduced setup time with standard ATC (Automatic Tool Change) feature
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In educational institutions, practical training requires an environment where students can safely and efficiently acquire processing techniques. In particular, versatility to accommodate various processing needs and installation in limited spaces is crucial. The compact machining center MX400, with its space-saving design, offers high rigidity and a wide range of processing capabilities, meeting the practical training needs of students. 【Usage Scenarios】 - Metal processing training at industrial high schools and university engineering departments - NC machine operation training at vocational training schools - Prototype processing at research and development institutions 【Benefits of Implementation】 - Efficient use of limited space allows for the installation of multiple training machines - Supports a wide range of technical skill acquisition by accommodating various metal materials - Standard equipped with ATC, enabling practice in tool exchange - High precision and rigidity facilitate the acquisition of high-quality processing techniques
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In educational institutions, it is essential to provide students with skill acquisition and a safe practical environment. Particularly in learning the basics of metalworking, operability, safety, and space-saving are important factors. Inappropriate lathes can lead to student injuries and loss of educational time. The tabletop CNC lathe 'YORNEW CK140' addresses these challenges. 【Usage Scenarios】 - Metalworking practice - Skills training - Programming education 【Benefits of Implementation】 - Provision of a safe practical environment - Space-saving installation - Promotion of practical skill acquisition
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In research and development, precise processing is required for the production of prototypes and experiments. Especially when prototyping new materials or shapes, high accuracy and flexible responses are essential. Conventional large lathes may not be suitable for small-lot prototyping or experimental processing due to issues with installation space and operability. The tabletop CNC lathe 'YORNEW CK140' achieves high operability and precision while being space-saving, meeting various needs in research and development. 【Usage Scenarios】 - Processing experiments for new materials - Production of prototypes - Processing of small quantities of diverse parts 【Benefits of Implementation】 - Increased efficiency of experiments - Shortened prototyping period - Cost reduction
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In the prototype stage of the automotive industry, a quick response to design changes and the ability to process various shapes are required. In particular, since the precision of parts affects the performance of the product, high machining accuracy is essential. The tabletop CNC lathe 'YORNEW CK140' can handle lightweight metals such as aluminum and brass, as well as resins, accommodating the diverse materials needed for prototyping. 【Usage Scenarios】 - Prototyping of automotive parts - Machining of low-volume production parts - Production of prototypes for design verification 【Benefits of Implementation】 - Enables rapid prototyping - Accommodates a variety of materials - CNC machining in a compact space
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In research institutions, there is a demand for the rapid production of prototypes and the ability to accommodate diverse shapes. In particular, precise processing that influences experimental results is crucial for improving the quality of research. However, large processing machines tend to take up installation space and can complicate operations. The compact 5-axis machining center 'YORNEW MX220' achieves full-scale 5-axis processing while saving space, providing strong support for research and development. 【Application Scenarios】 * Production of experimental samples * Precision parts processing * Prototype development 【Benefits of Implementation】 * Increased efficiency of experiments * Ability to accommodate diverse shapes * Space-saving design
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In the automotive industry, rapid response to design changes is required during the prototype stage. In particular, machine tools capable of high-precision processing with short lead times are essential for verifying the shape and functionality of parts. Cost reduction during the prototype phase is also an important issue. The YORNEW MX220 can efficiently process complex-shaped parts through multi-surface machining with one chucking. It accommodates a wide range of materials, from lightweight metals like aluminum and brass to resins, meeting diverse needs in prototyping. 【Application Scenarios】 * Prototyping of automotive parts * Manufacturing of molds and jigs * Production of design models 【Benefits of Implementation】 * Enables prototyping with short lead times * Contributes to cost reduction * Accommodates a variety of materials
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In the mold industry, there is a demand for the efficient manufacturing of high-precision products. In particular, the accuracy of dimensions and the smoothness of surfaces are crucial factors that influence product quality. Traditional processing methods require multiple steps, which pose challenges in terms of time and cost. The compact 5-axis machining center 'YORNEW MX220' enables multi-surface machining with a single chucking, making high-precision mold processing possible. [Application Scenarios] * High-precision mold production * Machining of complex shapes * Small-batch, diverse mold production [Benefits of Implementation] * Reduced processing time * Cost savings * Achievement of high-quality products
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In the field of research and development, rapid prototyping and evaluation of material properties are essential. Particularly, an environment that allows for easy injection molding greatly influences experimental efficiency when researching new materials and molding techniques. Traditional large injection molding machines have constraints in terms of installation space and cost, but the Moiron M2-I addresses these challenges. 【Usage Scenarios】 - Molding tests for new materials - Prototyping of small components - Creation of samples with varying shapes and dimensions 【Benefits of Implementation】 - Reduction of research and development time - Decrease in experimental costs - Compatibility with a variety of materials
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In the toy industry, diverse designs and high-quality products are in demand. In particular, precise molding through injection molding is crucial for complex shapes and detailed expressions. However, traditional large injection molding machines have posed challenges in terms of cost and time for small batch production and prototyping. The tabletop small injection molding machine 'Moiron M2-I' addresses these issues and expands the possibilities for toy manufacturing. 【Usage Scenarios】 - Prototyping original toys - Small batch production - Molding complex shapes - Collaboration with 3D printed molds 【Benefits of Implementation】 - Enables rapid prototyping - Cost reduction - Increased design flexibility - Compatibility with a variety of materials
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In the automotive parts industry, there is a demand for the rapid development of high-quality components and a reduction in time to market. Particularly in the production of prototypes and small lot manufacturing, efficiency in cost and time is crucial. Traditional large injection molding machines can struggle to meet small-scale needs due to issues with initial costs and installation space. The Moiron M2-I, while compact, is equipped with a full-fledged injection molding mechanism that addresses the challenges of prototype production and small lot manufacturing for automotive parts. 【Usage Scenarios】 - Prototype production of automotive parts - Small lot production - Quick response to design changes - Material testing 【Benefits of Implementation】 - Reduction in prototype costs - Shortening of development time - Establishment of a flexible production system - Compatibility with a variety of materials
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In educational institutions, it is important for students to experience the actual process of product manufacturing in order to learn the fundamentals of manufacturing. In particular, injection molding is an essential technology for the mass production of plastic products, and understanding its principles is crucial for the future development of manufacturing talent. However, large injection molding machines are expensive and require installation space, making their introduction in educational settings challenging. The tabletop small injection molding machine 'Moiron M2-I' is compact yet equipped with a genuine injection molding mechanism, enabling practical manufacturing education in educational environments. 【Usage Scenarios】 * Teaching materials for industrial high schools and university engineering departments * Manufacturing experience events * Prototyping in research and development 【Benefits of Introduction】 * Practical learning of the fundamentals of injection molding * Possibility of experiments and practical training with small groups * Compatible with 3D printed molds, accommodating a variety of teaching materials
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Mitarepo is a series based on the concept of "Trying out things like this!" that introduces what can be done using various products. Among three-dimensional measuring machines, manual types offer the convenience of quick measurements without the need for programming. However, it is actually possible to create a template from the measurements taken once! Even when a certain amount of lots or repeat orders occur, it is possible to perform repeated measurements according to established rules. In this instance, we have created a template from measurements conducted by skilled staff, and a completely inexperienced employee has taken on the challenge of three-dimensional measurement for the first time! Can they measure accurately while keeping the key points in mind? Can they measure geometric tolerances? We will explain the flow of template creation and the initial measurement process, along with a comparison of the actual measurement data to address these points of interest. *You can download the materials from the button below.
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The use of 3D scanners has been spreading year by year, and they are now being used in various industries such as manufacturing and construction. However, large models require significant time and cost from scanning to data utilization, making it difficult to operate effectively. In fact, the introduction of 3D scanners itself poses a significant barrier. "Is there a way to reduce costs...?" "If only we could work more efficiently..." For those facing such concerns, we will introduce a method to achieve both cost reduction and improved work efficiency by using two types of scanners! We will explain how much cost can be cut and what the cost-effectiveness is. *You can download the materials from the button above.
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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
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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
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Mitarepo is a series that introduces what can be done using various products with the concept of "I tried doing this!" Polypropylene (PP), known for its excellent properties, is used in various actual products. On the other hand, when utilized in 3D printing, it is known to have challenges such as warping and table adhesion, making it a material with a high difficulty level for shaping. However, among pellet materials, there are now materials that have properties designed to address these challenges. This time, we tried 3D printing with PP pellets provided by Nippon Polypropylene Corporation, which have the characteristic of being "warp-resistant," using the pellet 3D printer "Tumaker NX 300 Modular." How stable can warp-resistant PP material be in terms of shaping? Please check the results in the materials provided. *You can download the materials using the button below.
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Mitarepo is a series that introduces what can be done using various products with the concept of "I tried doing this!" The "Fuse 1" series of 3D printers using SLS (Selective Laser Sintering) technology is highly regarded not only for its ability to create functional parts but also for its reproduction of fine shapes. In this context, we have received many inquiries such as, "How thin can we reproduce thin-walled structures?" Therefore, this time, we actually created thin-walled models of 0.7 / 0.6 / 0.5 / 0.4mm and examined: - Can we reproduce thin walls? - Will there be any damage during post-processing (de-powdering/blasting)? - What is the dimensional accuracy of the wall thickness? The materials explain the verification content with photos and measurement data. *You can download the materials using the button below.
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In finishing processes for shapes that include edges or where curvature changes sharply, unintended paths can be generated in areas not intended, which can affect the finishing quality. In such cases, the "boundary" function for partial specification of the machining area comes into play. Furthermore, the commands for "boundary projection onto surfaces" and "adjustment of tool control points" provide flexibility in this specification. By utilizing these features, you can create arbitrary paths only in the necessary areas! It is possible to apply paths appropriately and pursue the surface quality of finishing processes. The materials also explain the flow of boundary projection and the differences in machining paths due to the adjustment of tool control points, so please take a look. *You can download the materials from the button below.
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● 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.
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Jig design requires consideration from scratch and labor-intensive drawing work for each product shape and processing condition, and requests for "urgent jigs" become a significant burden on the design department, potentially straining the resources that should be focused on core design tasks. In particular, if the design department is responsible for all jig designs that arise, it becomes difficult to "quickly create the jigs needed on-site." This is where we introduce the jig design software "EZ Jig for Rhino." It is a software focused on jig design that simplifies operations, allowing for speedy jig design without advanced CAD skills. As a result, on-site personnel can easily create the necessary jigs themselves, freeing the design department from the burdensome drawing tasks and allowing them to concentrate on higher value-added design and planning work. You can proceed with the design without overthinking it and quickly create the jigs needed while on-site. The materials provide a detailed explanation of specific functions that enable "division of design work" and maximize "operational efficiency," so please take a look. *You can download the materials from the button below.
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●Overwhelmingly Low Price and High Profitability - Achieves an overwhelmingly low price by focusing on basic functions. - A machine that keeps manufacturing costs down and generates stable profits. ●High Rigidity and Precision - Adopts a high-rigidity gantry frame structure based on a weight of 1,200kg. - Despite being a compact machine, it offers rigidity comparable to large machines, suppressing vibrations and chatter to achieve high dimensional accuracy and surface roughness. ●Operator-Friendly Design - Space-saving design: Slim design with a required floor area of 1,420mm × 1,400mm. - Corner-type double-opening doors allow easy access from the front, sides, and diagonally, facilitating smooth loading and unloading of workpieces and fixtures. - Improved setup: A front-positioned table that is easy to reach and a main spindle/ATC installed at an optimal height enhance work efficiency. ●Reliable Basic Functions Included - Standard equipped with ATC: Automatic Tool Change (ATC) device for 8 tools is standard. - BT30 spindle: A BT30 taper spindle that balances versatility and rigidity. - Offers two types of high torque at 6,000min⁻¹ and high-speed rotation at 24,000min⁻¹. - Wide range of processing capabilities: Capable of handling everything from lightweight metals like aluminum to heavy cutting of stainless steel and other materials with high cutting resistance.
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Among the CNC machines of "TAIKAN," which boasts a cumulative shipment record of over 110,000 units, this is a standard vertical machining center that particularly pursues cost performance and productivity. With a structural design that achieves high rigidity (C-shaped structure, high-strength cast iron material) and roller linear guides adopted for all axes, it provides stable high-speed and high-efficiency machining over an extended period. Equipped with the FANUC 0iMF control unit, which offers high reliability and a reassuring support system, engineers from System Create provide comprehensive support, from installation and precision inspection at the time of introduction to prompt on-site support during operation and remote assistance.
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Mitarepo is a series that introduces what can be done using various products with the concept of "I tried doing this!" As the use of FDM 3D printers expands, various materials with different characteristics are continuously emerging. Among these materials, we have obtained a rather rare new material that mixes carbon nanotubes (CNT) with super engineering plastics. This special filament possesses the heat resistance, strength, and chemical resistance characteristic of super engineering plastics, while also having conductivity due to the CNT! This time, to actually create with this material, we will print a test piece using the super engineering plastic compatible 3D printer "PEEK-250." We will check points of interest such as the material's properties, warping after printing, and dimensional reproducibility. *You can download the materials from the button below.
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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.
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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.
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