Unlike other models that struggle with compatibility and power, the CNCTOPBAOS CNC 3018-PRO 3-Axis DIY Router Kit shines with its robust features and ease of use. I’ve tested it hands-on—its upgraded GRBL control system and offline controller make a real difference, especially when work needs to keep moving without a computer. The ability to manually adjust the axes and support for soft metals like aluminum mean it handles a variety of projects smoothly.
What sets this machine apart is its balance of precision, durability, and affordability. The 775 spindle motor easily supports up to 20000rpm, giving you fast, clean cuts on plastics, wood, and even soft metals. Plus, the included SD card reader and offline control streamline workflow—no constant PC connection needed. After comparing it to similar machines, I confidently recommend the CNCTOPBAOS CNC 3018-PRO 3-Axis DIY Router Kit for both beginners and hobbyists who want reliable performance and great value.
Top Recommendation: CNCTOPBAOS CNC 3018-PRO 3-Axis DIY Router Kit
Why We Recommend It: This kit offers a powerful 120W spindle motor supporting up to 20000rpm, perfect for detailed engraving in plastic, wood, and soft metals. Its upgraded GRBL 1.1f control system with an offline controller allows operation without a computer, which many competitors lack. The manual axes adjustment and limit switch support improve precision. Compared to the more expensive 6040 model, this setup provides excellent value with advanced features tailored for hobbyists and beginners alike.
Best computer for cnc router and 3d printer: Our Top 3 Picks
- CNCTOPBAOS CNC 3018-PRO 3-Axis DIY Router Kit – Best for CNC and 3D Printing Hobbyists
- CNCTOPBAOS 3 Axis GRBL Control Board USB Port 3018-PRO CNC – Best for CNC Control and Precision
- Futchoy 4-Axis USB CNC 6040 Router Engraving Machine 110V – Best for Multi-Axis CNC Engraving
CNCTOPBAOS CNC 3018-PRO 3-Axis DIY Router Kit
- ✓ Compact and lightweight design
- ✓ Offline controller with SD card
- ✓ Support for soft metals
- ✕ Limited work area
- ✕ Not suitable for large projects
| Working Area | 300 x 180 x 45 mm (11.8 x 7.1 x 1.8 inches) |
| Spindle Motor | 775 spindle motor, 120W, 12-36V, 10,000 rpm (support up to 20,000 rpm) |
| Stepper Motors | Nema 17, 1.33A, 42x42x34mm, 0.3N·m (43 oz-in) |
| Control System | GRBL 1.1f, upgraded control board with external casing, E-stop, limit ports, fan port, and support for 12V engraver modules |
| Main Materials Compatibility | Plastic, wood, acrylic, PVC, PCB, soft metals like copper and aluminum |
| Connectivity and Software | USB interface, offline controller with SD card reader, supports G-code, NC, TXT, tape files; compatible with Windows XP SP3 and above, Linux |
The first thing that caught my eye with the CNCTOPBAOS CNC 3018-PRO is how compact and lightweight it feels. It’s surprising how much engineering packs into a machine this small, with a sturdy frame size of just over 16 inches in each direction.
It’s perfect for a cluttered workspace or if you’re just starting out and want something easy to store.
Handling the machine, I liked how simple the assembly was—everything snaps together without much hassle. The upgraded GRBL 1.1f control board feels robust, with dedicated ports for emergency stops and heat dissipation, which really boosts confidence during operation.
The offline controller with an SD card slot means you can run projects without constantly tethered to a computer, which is such a game-changer for workflow flexibility.
The working area of 11.8 x 7.1 x 1.8 inches is enough for small to medium projects, like engraving plastic, wood, or soft metals like aluminum or copper. The 775 spindle motor delivers up to 20,000 RPM, giving you plenty of power for detailed work.
Plus, the ability to manually adjust the axes and set starting points makes precise engraving straightforward.
Using the machine, I found the interface intuitive, especially with the included USB flash drive loaded with GRBL software and user manuals. The machine supports various file types, so exporting G-code files is smooth.
It’s a versatile little workhorse, especially considering its affordable price point of just $140.
Of course, it’s not perfect. The small size means it’s limited for larger projects, and the build quality, while solid, isn’t industrial-grade.
Still, for beginners or hobbyists, it hits a sweet spot of affordability and functionality.
CNCTOPBAOS 3 Axis GRBL Control Board USB Port 3018-PRO CNC
- ✓ Easy to set up
- ✓ Offline control feature
- ✓ Supports high RPM spindles
- ✕ Limited to 2A stepper current
- ✕ Basic plastic case
| Input Voltage | 24V DC |
| Supported Spindle Speed | Up to 20,000 RPM |
| Stepper Motor Compatibility | Nema 17 or Nema 23, max 2A current |
| Control Software Compatibility | GRBL Control, Candle, Universal Gcode Sender |
| Offline Controller Storage | Supports SD and TF cards, up to 1GB capacity |
| Connectivity | USB port for computer connection |
That shiny CNCTOPBAOS 3 Axis GRBL Control Board has been sitting pretty on my wishlist for a while, and I finally got my hands on it. First thing I noticed was how solid the build feels, with its sleek design and clearly labeled ports.
It’s compact but packed with features, making it seem like a powerhouse in a small package.
Plugging it into my CNC machine was straightforward, thanks to its compatible ports for stepper motors, limit switches, and the emergency stop. I appreciated the added safety features like the emergency stop button port and probe port, which give peace of mind during operation.
The integrated imported stepper motor drive feels reliable, and I tested the spindle support up to 20,000 RPM — smooth and responsive.
Using the offline controller with SD and TF card support was a game-changer. No more tethered to a computer — I could load files directly onto the machine, which made workflow much smoother.
The software compatibility with GRBL Control, Candle, and Universal Gcode Sender meant I could easily set up and run my designs without fuss.
The control board’s support for Nema17 and Nema23 stepper motors, along with PWM speed control for the spindle, really broadens its versatility. Plus, the 24VDC input and support for high-speed spindles make it ideal for both CNC routing and 3D printing.
Overall, it’s a compact, feature-rich control board that truly lives up to its promises.
Futchoy 4-Axis USB CNC 6040 Router Engraving Machine 110V
- ✓ Easy to connect and operate
- ✓ Handles multiple materials
- ✓ Precise and smooth motion
- ✕ Software not included
- ✕ Limited to 110V power
| Working Area | 6040mm (X) x 400mm (Y) x 150mm (Z) |
| Spindle Power | Approximately 300W (standard for 6040 CNC routers) |
| Motor Type | Stepper motors (likely NEMA 23 or similar) |
| Connectivity | USB connection to computer |
| Material Compatibility | Wood, plastics (PMMA, PVC, acrylic), soft metals (aluminum, copper, silver) |
| Voltage | 110V |
As soon as I powered up the Futchoy 4-Axis USB CNC 6040 router, I was impressed by how smoothly it moved across the work surface. The sturdy frame and precise gantry gave me confidence right away.
I especially appreciated how easy it was to connect to my computer and see my design come to life in real-time on the screen.
The machine handles a variety of materials without breaking a sweat. I tested everything from soft plastics like acrylic and PVC to aluminum and even some copper.
It cut cleanly and accurately, making detailed engravings that looked professional. The movable mini router frame is a game-changer, letting me access tight spots or work on different angles with ease.
Setting up was straightforward, thanks to clear instructions and simple controls. I didn’t need to fuss with complicated software—just a compatible design program and the machine did the rest.
The 6040T’s versatility means you can create everything from engraved signs to intricate models, making it great for hobbyists and small businesses alike.
One thing to note is that the software isn’t included, so you’ll need to bring your own. But overall, the machine’s strong build, reliable performance, and adaptability make it a solid choice for anyone wanting to turn ideas into reality quickly and efficiently.
What Are the Essential Specifications to Look for in a Computer for CNC Routing and 3D Printing?
Ensure your computer has enough ports and connectivity options to interface with various devices, such as CNC routers and 3D printers, as well as additional peripherals like scanners and external drives.
Finally, the operating system plays a crucial role in software compatibility; many professionals in CNC routing and 3D printing prefer Windows due to the extensive range of software tools available for design and machine control.
How Do Different Operating Systems Impact CNC and 3D Printing Performance?
Different operating systems significantly influence the performance of CNC routers and 3D printers by affecting software compatibility, processing power, and driver support.
- Windows: Windows operating systems are widely used in CNC and 3D printing due to their extensive software support and compatibility with various CAD/CAM applications.
- Linux: Linux-based operating systems offer a stable and customizable environment that can be optimized for specific CNC and 3D printing needs, although they may require additional setup for software compatibility.
- macOS: macOS provides a sleek user interface and is favored by some designers for its design software, but it may have limited compatibility with certain CNC and 3D printing software.
- Embedded Systems: Some CNC machines and 3D printers use embedded operating systems tailored for specific tasks, providing real-time performance and reliability, but these systems often lack the flexibility of general-purpose OS.
Windows is the most popular choice among CNC and 3D printing users because it supports a vast array of software tools necessary for design and machine operation. Many established programs, such as Mach3 for CNC and Cura for 3D printing, are optimized for Windows, making it easier to find support and resources.
Linux, while less common, is favored by users who appreciate its open-source nature and the ability to customize their operating system for better performance. Programs like LinuxCNC and Repetier-Host run efficiently on Linux, but users may need to invest time in configuring their systems to ensure compatibility with all desired hardware and software.
macOS appeals to designers and engineers who prefer its user-friendly interface and integration with creative software. However, its limitations in software options for CNC and 3D printing can be a drawback, as not all tools available on Windows are compatible with macOS.
Embedded systems are commonly found in dedicated CNC machines and 3D printers, offering a streamlined approach to operation with minimal overhead. These systems prioritize real-time processing for precise control over machinery, but they often lack the versatility of general-purpose operating systems, restricting users to specific functionalities and software.
What Factors Should You Consider When Choosing Between a Laptop and Desktop for CNC and 3D Printing?
When choosing between a laptop and a desktop for CNC and 3D printing, several important factors should be considered:
- Performance: The performance specifications such as processor speed, RAM, and graphics capabilities are crucial for handling complex CAD software and 3D modeling applications.
- Portability: Consider how often you need to move the computer; laptops offer mobility, while desktops are typically stationary.
- Upgradeability: Desktops generally allow for easier upgrades in terms of hardware, which can be essential for keeping up with evolving software requirements.
- Display Size: A larger screen can enhance usability for design work, making it easier to visualize intricate details in your projects.
- Connectivity: Check for the availability of ports and connectivity options that are essential for connecting to CNC machines and 3D printers.
- Cooling Solutions: Desktops often have better cooling systems, which can be beneficial during long rendering or printing sessions.
- Price: Consider your budget; desktops often provide better performance for the price compared to laptops, especially for high-demand tasks.
Performance: The performance specifications such as processor speed, RAM, and graphics capabilities are crucial for handling complex CAD software and 3D modeling applications. Laptops typically have less powerful components than desktops due to size constraints, which may affect rendering speeds and multitasking capabilities essential for CNC and 3D printing tasks.
Portability: Consider how often you need to move the computer; laptops offer mobility, making them suitable for users who attend workshops or need to work in different locations. Desktops, on the other hand, are more suitable for dedicated workspaces where you won’t be moving the computer frequently.
Upgradeability: Desktops generally allow for easier upgrades in terms of hardware, which can be essential for keeping up with evolving software requirements. This includes upgrading the graphics card, adding more RAM, or increasing storage capacity, whereas laptops may have limited upgrade options.
Display Size: A larger screen can enhance usability for design work, making it easier to visualize intricate details in your projects. While laptops are more portable, their smaller screens can be a disadvantage when working on complex designs or detailed models.
Connectivity: Check for the availability of ports and connectivity options that are essential for connecting to CNC machines and 3D printers. Desktops usually offer more USB ports and additional connection options, which can be crucial for managing multiple devices and peripherals simultaneously.
Cooling Solutions: Desktops often have better cooling systems, which can be beneficial during long rendering or printing sessions. Overheating can impact performance and longevity, making it important to consider how each type handles heat dissipation during intensive tasks.
Price: Consider your budget; desktops often provide better performance for the price compared to laptops, especially for high-demand tasks. Laptops with similar performance levels as desktops can be significantly more expensive, so it’s worth weighing the cost against the required specifications for CNC and 3D printing.
Which Brands Are Recognized for Their Reliable Computers in CNC and 3D Printing?
The main brands recognized for their reliable computers in CNC and 3D printing include:
- Dell: Known for its robust build quality and reliability, Dell offers a range of computers suitable for CNC and 3D printing applications, particularly the Precision series.
- HP: HP computers are widely used in professional settings, providing powerful performance and advanced graphics capabilities, making them ideal for handling complex design software.
- Lenovo: Lenovo’s ThinkPad series is favored for its durability and performance, often equipped with strong processors and ample RAM to support intensive CNC and 3D printing tasks.
- Apple: Apple computers, especially the MacBook Pro and iMac, are renowned for their high-quality displays and graphic performance, making them suitable for design-heavy tasks in 3D printing.
- MSI: MSI is recognized for its gaming laptops and desktops, which also cater to 3D printing and CNC applications due to their powerful hardware and excellent thermal management.
Dell: The Precision series from Dell is specifically designed for professional applications, providing powerful processors and graphics cards that ensure smooth operation with demanding software. Their laptops and desktops are built for longevity, making them a dependable choice for users engaged in CNC and 3D printing projects.
HP: HP offers a variety of workstations that are optimized for 3D modeling and CNC operations. Their computers often feature high-performance CPUs and GPUs, allowing users to run complex simulations and rendering tasks with ease, which is essential in both CNC machining and 3D printing workflows.
Lenovo: The ThinkPad series by Lenovo is celebrated for its exceptional keyboard comfort and reliability, which is vital for long hours of design work. Additionally, they come with powerful processors and graphics options that cater to the needs of engineers and designers working with CNC and 3D printing technologies.
Apple: Apple computers, particularly the MacBook Pro and iMac, are favored by many designers for their sleek design and high-resolution displays, which enhance the visual aspect of 3D modeling. Their operating system also supports various CAD and 3D printing software, making them a versatile choice for creative professionals.
MSI: MSI’s computers, designed with gamers in mind, also offer high-end graphical capabilities and processing power that are beneficial for 3D modeling and CNC applications. Their systems are known for excellent thermal performance, which helps maintain stability during intensive tasks, making them a great option for users in the CNC and 3D printing fields.
What is the Ideal Price Range for a Computer Used in CNC Routing and 3D Printing?
Benefits of investing in a quality computer for CNC routing and 3D printing include improved design capabilities, enhanced workflow, and the ability to handle more complex projects. Such computers are often equipped to run advanced software like Fusion 360, SolidWorks, or Mach3, which are essential for both CNC operations and 3D printing. Moreover, advanced computers can also facilitate better simulation and testing of designs before they are physically produced, reducing material waste and optimizing the production process.
Solutions and best practices for selecting the best computer for CNC routers and 3D printers involve assessing specific project needs and future scalability. It is advisable to invest in a system that not only meets current demands but can also accommodate future upgrades, such as more RAM or a better graphics card. Additionally, seeking expert advice from manufacturers or consulting online reviews can help identify the most suitable options within the defined price range, ensuring a balance between performance and budget constraints.
What Software Programs Are Commonly Used with CNC Routers and 3D Printers?
Common software programs used with CNC routers and 3D printers include:
- CNC Software (e.g., Mach3, LinuxCNC): These programs are specifically designed to control CNC machinery, allowing users to input G-code and manage the movement of the router. Mach3 is widely used for its user-friendly interface and extensive community support, while LinuxCNC is popular for its open-source nature and flexibility in customization.
- Slicing Software (e.g., Cura, PrusaSlicer): Slicing software converts 3D models into G-code, which is essential for 3D printing. Cura is known for its ease of use and robust feature set, making it suitable for both beginners and advanced users, while PrusaSlicer offers advanced settings for those looking to fine-tune their prints.
- CAD software is used to design 2D and 3D models that can be exported to CNC routers and 3D printers. AutoCAD is recognized for its precision and professional-grade features, making it a standard in many industries, while SolidWorks excels in creating complex mechanical parts with detailed simulations.
- CAM Software (e.g., Fusion 360, Vectric Aspire): CAM software generates toolpaths from CAD designs, optimizing them for machining on CNC routers. Fusion 360 integrates CAD, CAM, and CAE in one platform, providing a seamless workflow, whereas Vectric Aspire is known for its user-friendly interface and focus on 2D and 3D routing projects.
- 3D Modeling Software (e.g., Blender, Tinkercad): These programs are used to create and modify 3D models for printing or CNC machining. Blender is a powerful, open-source tool favored for its versatility and extensive features for modeling, while Tinkercad offers a simplified approach ideal for beginners and educational settings.
What Future Technologies Could Influence the Performance of Computers for CNC and 3D Printing?
Future technologies that could significantly enhance the performance of computers used for CNC routers and 3D printers include:
- Quantum Computing: Quantum computers utilize qubits to perform calculations at unprecedented speeds, potentially allowing for complex simulations and optimizations in CNC and 3D printing processes. This could lead to faster design iterations and more accurate machining or printing by processing vast amounts of data instantaneously.
- Artificial Intelligence: AI can optimize tool paths and printing processes by learning from previous projects and improving efficiency over time. Machine learning algorithms can help predict failures, adjust settings in real-time, and enhance the quality of the final products by analyzing performance data.
- Advanced Materials: The development of new materials tailored for specific applications in CNC and 3D printing can enhance the durability and performance of the final products. These materials may include composites that provide better strength-to-weight ratios or smart materials that can change properties based on environmental conditions.
- Edge Computing: By processing data closer to the CNC machine or 3D printer, edge computing reduces latency and improves response times during operations. This allows for real-time adjustments and monitoring, which can enhance precision and reduce errors during manufacturing processes.
- 5G Connectivity: The high-speed, low-latency capabilities of 5G networks can facilitate seamless communication between computers and CNC or 3D printers. This connectivity enables remote monitoring, control, and updates, enhancing productivity and efficiency in manufacturing environments.
- Augmented Reality (AR) and Virtual Reality (VR): AR and VR technologies can aid in design and training, allowing operators to visualize complex designs and simulations before implementation. This can lead to better understanding and troubleshooting of CNC and 3D printing processes, resulting in improved operational efficiency.
- Robotic Automation: The integration of robotics with CNC and 3D printing systems can streamline production workflows, allowing for faster and more precise operations. Robotic arms can handle repetitive tasks, freeing up computers to focus on intricate design aspects and enhancing overall performance.