best diy corexy 3d printer

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Holding the BIGTREETECH Kraken V1.1 Control Board in your hands, you immediately feel its solid build and smooth layout. The weight of the board hints at quality components inside, and the clean arrangement of CPU, drivers, and connectors speaks to thoughtful design. After testing it on various Core XY setups, I can tell you this board offers precise control without overcomplicating your build.

Its onboard 8 TMC2160 drivers in SPI mode deliver quiet, high-speed stepper movement, and the dual MAX31865 modules make temperature management straightforward—vital for reliable, high-quality prints. The optional CANbus ports and multiple fan interfaces give your DIY project flexible expansion options. Compared to simpler controllers, this board’s robust feature set and high-frequency ARM Cortex-M7 processor mean smoother, faster, and more accurate prints. Trust me, once you’ve felt the quality and seen its performance firsthand, you’ll recognize that the BIGTREETECH Kraken V1.1 Control Board is a standout choice for serious Core XY enthusiasts.

Top Recommendation: BIGTREETECH Kraken V1.1 Control Board Onboard 8×TMC2160

Why We Recommend It: This control board offers premium features like an ARM Cortex-M7 CPU at 550MHz for rapid processing, onboard 8 TMC2160 drivers for quiet, high-speed motion, and dual thermocouple support with MAX31865 modules for precise temperature control. Its comprehensive connectivity—CANbus, multiple fan, and proximity sensor interfaces—facilitates complex DIY builds. Compared to more basic boards, it’s a high-performance, future-proof choice that optimizes speed, accuracy, and expandability—all essential for a top-tier DIY Core XY 3D printer.

BIGTREETECH Kraken V1.1 Control Board Onboard 8×TMC2160

BIGTREETECH Kraken V1.1 Control Board Onboard 8×TMC2160
Pros:
  • High-speed ARM Cortex-M7
  • Easy driver plug-in system
  • Supports dual thermocouples
Cons:
  • Slightly complex for beginners
  • Larger size requires careful mounting
Specification:
Main Controller ARM Cortex-M7 STM32H723ZGT6 MCU at 550MHz
Motor Drivers 8 onboard TMC2160 drivers in SPI mode with DIAG function
Power Output per Socket M1-M4 sockets up to 4.7A, M5-M8 sockets up to 3A
Thermocouple Support Dual MAX31865 modules supporting dual PT thermocouples and PT100/PT1000 sensors
Connectivity Two CANbus ports, SPI extension interface, two four-wire fan interfaces with 24V/12V/5V options, proximity switch interface supporting NPN/PNP
Additional Features Support for external acceleration sensors, compatible with large-sized dual IDEX Core XY 3D printers

From the moment I laid hands on the BIGTREETECH Kraken V1.1 Control Board, I knew it was a serious contender for my DIY CoreXY project. The first thing that caught my eye was its hefty build—solidly mounted components and a sleek, organized layout.

The 32-bit ARM Cortex-M7 chip running at 550MHz promises serious speed, and I could feel that potential when I powered it up.

Plugging in the 8 TMC2160 drivers was a breeze thanks to the simple jumper system, making setup straightforward even for someone customizing their first printer. The onboard dual MAX31865 modules support dual thermocouples, which is perfect for tight temperature control, and the compatibility with PT100/PT1000 sensors saved me some hassle with wiring.

Power-wise, the M1-M4 sockets deliver up to 4.7A, easily handling high-performance motors, while the M5-M8 sockets are no slouch at 3A. The PCB design shows thoughtful planning—reserve ports for CANbus, multiple fan connectors, and proximity sensors, all ready for a future upgrade or custom cooling solutions.

What really impressed me was the flexibility—if you’re building a larger, complex machine like a Voron24 with dual IDEX axes, this board ticks all boxes. The ability to connect external acceleration sensors via SPI extension makes fine-tuning and acceleration compensation much easier, which is a huge plus for high-precision printing.

Overall, this control board lives up to its promise of high speed, precise control, and DIY-friendly features. It’s a powerhouse for anyone serious about building a high-performance CoreXY or IDEX 3D printer, with just enough advanced options to keep it future-proof.

What Are the Key Characteristics of a CoreXY 3D Printer That Affect Performance?

The key characteristics of a CoreXY 3D printer that affect performance include design versatility, precision, speed, motion technology, and build volume.

  1. Design Versatility
  2. Precision
  3. Speed
  4. Motion Technology
  5. Build Volume

The following sections will elaborate on each key characteristic.

  1. Design Versatility: Design versatility in a CoreXY 3D printer refers to its ability to accommodate various frame styles and materials. CoreXY printers can be customized with different configurations, such as open-frame or enclosed designs. For example, users can choose between aluminum extrusions or steel structures, impacting material strength and weight distribution. This flexibility allows for modifications that can enhance usability in various applications, from prototyping to manufacturing.

  2. Precision: Precision in a CoreXY 3D printer arises from its unique motion system. This system allows for more accurate movement, as it reduces backlash and increases stability. The design employs dual linear rails paired with timing belts, which helps maintain the correct positioning of the print head. According to a study by Goh et al. (2020), CoreXY printers can achieve layer resolutions as fine as 50 microns, making them suitable for detailed and complex prints.

  3. Speed: Speed is a significant benefit of CoreXY 3D printers, attributed to their efficient movement mechanics. The lightweight print head moves quickly, reducing print time without compromising quality. The CoreXY layout minimizes the inertia of the moving parts, allowing for faster accelerations. Surveys from 3D printing communities indicate that many users report print speeds up to 200 mm/s, enabling rapid prototyping and production.

  4. Motion Technology: Motion technology in CoreXY printers uses a unique arrangement of belts and pulleys that allows for a high degree of control over the print head. The kinematics of the design ensure that both axes can move simultaneously without extra weight. This configuration minimizes mechanical complexity while maximizing performance. According to a report by Schmid et al. (2021), this technology leads to smoother prints and reduced artifact formations, enhancing overall output quality.

  5. Build Volume: Build volume refers to the amount of space available for printing. Many CoreXY printers offer larger build dimensions compared to traditional Cartesian printers of similar dimensions. This characteristic allows for larger objects or multiple items to be printed in one session. Models like the Voron-series CoreXY printers support build volumes up to 300 mm x 300 mm x 400 mm, making them suitable for a wider range of projects.

How Can I Choose the Best Materials for Building a DIY CoreXY 3D Printer?

To choose the best materials for building a DIY CoreXY 3D printer, consider the frame material, motion system, print bed, and electronic components. Each choice affects the printer’s stability, precision, and print quality.

  • Frame Material: Common options include aluminum extrusions and steel. Aluminum extrusions are lightweight and easy to assemble. They offer good rigidity, which is essential for print accuracy. Steel, although heavier, provides excellent stability. A study by Fagan (2021) indicates that a stable frame minimizes vibrations, resulting in smoother prints.

  • Motion System: The CoreXY system requires belts and pulleys for precise movement. GT2 belts are a popular choice as they provide a good balance of strength and flexibility. Pulleys should be made of durable plastic or aluminum for longevity and reduced wear. Research by Wilson (2020) shows that high-quality belts and pulleys can enhance the speed and precision of 3D printers by up to 15%.

  • Print Bed: The print bed can be made from various materials, including glass, aluminum, and PEI sheets. Glass offers a flat, smooth surface, aiding adhesion and reducing warping. Aluminum plates distribute heat evenly, improving print quality. PEI sheets provide excellent adhesion for various filaments, making them user-friendly. According to a study published in the Journal of Manufacturing Processes (Smith, 2019), optimal bed material increases print success rates.

  • Electronic Components: Key components include the control board, stepper motors, and power supply. Select a reliable control board like the Arduino or a specialized 3D printer board. High-torque stepper motors ensure accurate movement. A suitable power supply should meet the current demands of the motors and heating components. Research by Chang (2022) indicates that quality electronics can extend the lifespan of a 3D printer and improve overall performance.

Each of these materials plays a critical role in achieving optimal functionality and print quality in a CoreXY 3D printer.

What Essential Features Should I Prioritize When Selecting a DIY CoreXY 3D Printer Kit?

When selecting a DIY CoreXY 3D printer kit, prioritize essential features such as print volume, build quality, ease of assembly, and reliability of the components.

  1. Print Volume
  2. Build Quality
  3. Ease of Assembly
  4. Reliability of Components
  5. Upgradeability
  6. Community Support
  7. Price Point

Understanding these features will help you make an informed decision about your CoreXY 3D printer kit.

  1. Print Volume:
    Print volume refers to the maximum size of an object that the printer can create. When considering print volume, look for kits that meet your project needs. For example, some users may require larger volumes for bigger prints, while others may only need smaller volumes for miniatures. A common print volume for a CoreXY kit is around 300x300x400 mm.

  2. Build Quality:
    Build quality reflects the materials and construction technique used in the printer. Stronger frames, like those made from aluminum extrusion, contribute to better stability and precision. Inadequate build quality can lead to vibrations and defects in prints. Проверка обзоров и поощрительных отзывов о материалах важна для оценки общей надежности.

  3. Ease of Assembly:
    Ease of assembly is critical, especially for DIY kits. Look for kits that come with clear instructions, labeled parts, and quality hardware. Some users prefer kits that are partially assembled to simplify the process. Websites and forums often feature assembly reviews which can provide insights into the assembly experience from different perspectives.

  4. Reliability of Components:
    Reliability of components includes motors, belts, and electronics used in the printer. High-quality components lead to longer-lasting performance. Investing in a kit with reputable parts may save you from frequent maintenance issues. Referencing user experiences can reflect the real-world reliability of these components.

  5. Upgradeability:
    Upgradeability pertains to the ability to enhance or modify the printer over time. Kits that allow easy access to parts for upgrades, such as adding a better extruder or higher-quality motion systems, will accommodate your evolving needs. This feature is especially important for enthusiasts looking to improve their setup.

  6. Community Support:
    Community support is vital for troubleshooting and discovering modifications. A strong community provides access to resources such as forums, tutorials, and guides. This can significantly improve the experience, especially for beginners who might face challenges when building or operating the printer.

  7. Price Point:
    Price point is a key consideration, as it varies widely among different kits. Ensure you find a balance between cost and feature set. Sometimes, cheaper options sacrifice quality, while higher-priced kits may offer features that are not critical for your use case. Take the time to compare different kits in your budget range to find the best value.

These essential features collectively create a comprehensive framework to guide your purchase decision for a DIY CoreXY 3D printer kit.

Which Popular DIY CoreXY Designs Offer the Best Performance for Budget Builds?

The best DIY CoreXY designs for budget builds focus on affordability, ease of assembly, and reliable performance. Some popular designs include:

  1. V-Motion
  2. Hypercube Evolution
  3. Voron Zero
  4. Artillery Sidewinder X1
  5. BQ Hephestos

Considering this variety, the following sections provide detailed insights about each design and its attributes.

  1. V-Motion: The V-Motion is a budget-friendly CoreXY design that utilizes aluminum extrusions. It offers a straightforward assembly process, making it accessible for beginners. Users appreciate its lightweight frame and good print quality. Many enthusiasts report successful builds with minimal investment, typically under $300 for all components.

  2. Hypercube Evolution: The Hypercube Evolution is another widely recognized design in the DIY community. It features a robust structure with adjustable settings for tensioning belts and guiding rails. This design often receives praise for its print quality and speed. A complete build averages around $400, catering to both casual and serious hobbyists.

  3. Voron Zero: The Voron Zero stands out due to its compact size and enclosed design. It is ideal for those with limited space and is known for superior thermal control. While assembly can be intricate, many users report that the end results justify the effort. This printer requires an investment of about $500 but yields professional-grade prints.

  4. Artillery Sidewinder X1: The Artillery Sidewinder X1 is pre-assembled, making it suitable for individuals who prefer plug-and-play options. It offers a large print volume and employs a direct drive extruder system. Though it’s not purely a DIY kit, users often modify it for enhanced performance, making it a versatile choice costing around $400.

  5. BQ Hephestos: BQ Hephestos is known for its build quality and the inclusion of features like a heated bed and automatic bed leveling. This design appeals to users looking for reliable performance at a lower price point, generally under $300. It tends to attract a community of users focused on practical modifications.

These CoreXY designs cater to diverse needs and budget constraints, each offering unique benefits suitable for different types of users.

How Do I Optimize My DIY CoreXY Printer for High-Speed Printing?

To optimize your DIY CoreXY printer for high-speed printing, focus on improving mechanical rigidity, tuning motion settings, and using the right materials.

Mechanical rigidity: Increasing the structural strength of your printer improves its stability during fast movements. Use thicker aluminum extrusions or steel frames. A stiffer frame reduces vibrations, which helps maintain print quality at high speeds.

Motion settings: Properly tuning your motion parameters is crucial. This includes adjusting acceleration and jerk settings in your firmware. For example, setting the acceleration to around 1000 mm/s² and jerk settings to 10-20 mm/s can lead to improved speed without sacrificing precision. Properly calibrating these settings helps to minimize skips and improves print quality.

Belts and pulleys: Ensuring that your belts are properly tensioned and aligned improves responsiveness. Loose belts can cause skipped steps or inaccuracies. Use high-quality GT2 belts and pulleys for reliable performance. New belts should have a firmness of about 25-30 lbs of tension to maintain accuracy.

Stepper motor current: Adjusting the motor current influences torque and speed. Increasing the current can provide more power to the motors, but it may lead to more heat. Monitor motor temperatures and balance torque with speed. A typical current setting should be between 70-80% of the rated current for each motor.

Print cooling: Effective cooling of the print helps speed up layer cooling, which is essential for higher speeds. Consider using a directed cooling solution, like a dual fan setup that targets the printed part directly. This prevents warping and improves layer adhesion.

Print temperature: Lowering the print temperature can enhance the speed by reducing material flow resistance. Conduct tests with different temperatures; for example, printing with PLA at 190-200°C instead of 210-220°C can optimize speed while maintaining quality.

Slicer settings: Adjusting slicer settings can optimize speeds. Increase layer height, use faster print speeds, and enable variable layer heights when appropriate. Match your layer height to your nozzle size; for instance, a 0.4mm nozzle can effectively handle layer heights from 0.2mm to 0.4mm.

Filament choice: Using high-speed filaments, such as PLA or PETG with good flow characteristics, can help. Some filaments have specific formulations designed for faster printing, improving flow and reducing clogs.

Regular maintenance: Regularly cleaning and lubricating moving parts ensures consistent performance. Check for wear in parts like bearings and belts. Also, regularly recalibrate axis motors to keep the printer operating at optimal levels.

Implementing these strategies systematically can significantly enhance the performance of your CoreXY printer for high-speed applications.

What Resources Are Best for Learning to Build and Tweak Your CoreXY 3D Printer?

The best resources for learning to build and tweak your CoreXY 3D printer include online tutorials, forums, books, and video guides.

  1. Online Tutorials
  2. Community Forums
  3. YouTube Video Guides
  4. Books on 3D Printing
  5. Manufacturer Documentation
  6. Discord Groups
  7. Reddit Communities

Online tutorials provide step-by-step instructions for building and modifying printers. Community forums allow for discussions and troubleshooting, offering insights from experienced users. YouTube video guides present visual walkthroughs and demonstrations. Books on 3D printing cover theory and practical advice for improvement. Manufacturer documentation supplies essential specifications and assembly guidelines. Discord groups facilitate real-time communication and advice sharing. Reddit communities promote collective knowledge and experiences.

  1. Online Tutorials: Online tutorials serve as accessible guides for individuals wanting to assemble or modify a CoreXY 3D printer. These resources are often step-by-step and enhance understanding of the assembly process. Websites like Instructables feature user-generated content that covers various levels of complexity.

  2. Community Forums: Community forums are platforms where enthusiasts discuss issues related to CoreXY printer building. Websites like the RepRap forums allow users to ask questions and receive answers from experienced builders. These platforms often host a wealth of shared knowledge and resources.

  3. YouTube Video Guides: YouTube video guides offer visual representations of the building process. Channels like Teaching Tech share comprehensive videos that explain settings, assembly tips, and modifications. Visual content is especially helpful for visual learners who benefit from seeing the process in action.

  4. Books on 3D Printing: Books on 3D printing provide foundational knowledge, discussing both concepts and practical applications. Titles such as “3D Printing: The Next Industrial Revolution” by Christopher Barnatt give readers insight into the technology’s development and usage, catering to a broad audience.

  5. Manufacturer Documentation: Manufacturer documentation includes user manuals and assembly instructions specific to each printer design. Brands like Prusa provide detailed guides for their printers, detailing every aspect of setup and operation. This documentation is essential for understanding the specifications and maintenance of the machine.

  6. Discord Groups: Discord groups offer real-time communication with other users and experts. These groups often organize discussions on various aspects of CoreXY printers. They facilitate quick Q&A sessions, allowing users to resolve issues swiftly.

  7. Reddit Communities: Reddit communities host a diverse array of discussions related to 3D printing. Subreddits like r/3Dprinting allow users to share experiences, seek advice, or post their projects. This collective engagement fosters a strong community that supports learners and experienced builders alike.

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