Discover the Ultimate Alternative to CNC Router: Revolutionize Your Machining Process

Are you looking to improve the efficiency and approach towards your machining processes? While the CNC routers have been a game changer for the manufacturing and fabrication industry, new technology is supported to maximize productivity and precision. This blog looks into an all-new approach towards turning CNC routers and machines into one of the most effective devices for machining tasks. We shall define key advantages, evaluate essential parameters, and demonstrate how and where this technology can increase the effective range while preserving high-quality standards. Whether you are looking for better flexibility, shorter lead time, or cost efficiency, this article will help achieve the goal. Stay to the end of the article to find out the best possible upgrade that can do wonders for your machining processes.

What are the main alternatives to a CNC router?

CNC routers provide cutting and engraving machines of an advanced nature, which is one of their major benefits. Below are the primary technologies that compete with a CNC router.

• Laser Cutters are perhaps the closest replacement for a CNC router. The machine employs high-powered lasers to cut and engrave materials. Inert materials such as glasses usually require a more complex process to provide a sophisticated design, using a high-speed controller that can improve cutting effectiveness through advanced means.
• Plasma Cutters—Metal plasma cutters utilize a stream of ionized gasses to cut through metals such as aluminum or steel, making them the most suitable for this purpose.
• Waterjet Cutters—These machines use High-pressure water, often combined with abrasive materials, to cut through aluminum, stone, composite, and a wide variety of other materials without generating excessive heat.
• Manual Routing Machines – Standard manual routers are inexpensive but cannot achieve high precision while performing complex tasks as well as automated routers do.

Depending on the material, complexity of the design, and production requirements, every machine possesses specific advantages.

Laser cutting machines: Precision and versatility

Laser cutting machines are useful in cutting and machining hard materials, giving or taking a little tolerance of approximately .003 inches, which, quite frankly, is good for the medical, automotive, or aerospace industries. These machines are compatible with a bounty of materials such as textiles, polymer plastics, wood, and metals, greatly enhancing the intricacy of the designs and giving a perfect edge to the cut, similar to what a Makita hand trim router might do.

A key factor in the growing usage of laser technology is its improved kerf width. That narrowed caustic beam also means that there’s less waste and helps modern Cutters today come equipped with the latest software and control systems, which permit tasks such as complex geometric cutting and integrating automated workflows. For non-metal naked materials and certain impressed soft materials such as fabric or acrylic, Co2 makes a great choice, while fiber lasers provide great speeds for a few watts.

Data showcases modern machining tools as capable of producing workpieces much faster, surpassing 1,000 inches per minute for thin metals. This increase in speed is accompanied by newly incorporated design features, such as seamless real-time monitoring functionality with 3D cutting capabilities, which simultaneously enhance the capability for mass production and prototyping. Laser-cutting machines’ precision, efficiency, and adaptability make them cornerstone technologies for a variety of industries.

CNC milling machines: Power and accuracy

CNC milling machines are regarded as being capable of making highly complicated and precise components from metals, plastics, and composites, among other materials. They employ a form of computer technology called computer numerical control, which can order cutters with such precision that a tolerance of roughly +/- 0.001 inches can be achieved. The most recent iterations have also included advanced model 5-axis machining, enabling the device to create more complex geometries while decreasing the required setup.

Currently, some models of CNC milling machines are equipped with high-speed spindles that can rotate up to sixty thousand revolutions per minute – this is particularly important in achieving complex components with nuanced external finishes. Equally, other tools such as condition monitoring, adaptive technologies, and automated tool changers that enhance effectiveness while optimizing downtime are also now available. These machines find their applications in various sectors, such as aerospace or automotive, in response to the ever-increasing requirements for precise engineering and bespoke creations. What remains certain is the availability and growth of power, accuracy, and creativity in CNC milling, which will continue to play a part in modern manufacturing systems.

3D printers: Additive manufacturing solution

3D printing, or additive manufacturing, has completely changed the way commodities are produced in industries worldwide, as it dramatically minimizes both material waste and the need to idealize different geometric structures each time. Structures are built with machines that pile materials within the computing layout to make geometry that was impossible to build using different methods. The rapid growth of the global market of the 3D services, that is predicted to achieve $76.17 billion benchmarks in 2030 from $76.17 billion in 2023 growing at a CAGR of 21.7% highlights the extent of the phenomenon wide-ranging incorporation in various tasks.

3D printing finds great use in an array of professional fields such as industries such as plumbing, healthcare, aerospace, automotive, and many others; they engage in 3D printing to produce comprehensive models and tools and even participate in manufacturing pins. Medical students require the design of customized prosthetic devices, tissue, surgical guides, and many more, such as chips and surgical guides, for full functioning. Lightweight materials are fabricated, and 3D printers are used in their fabrication due to their structured properties, so in addition to saving on bulk equipment that would otherwise use fuel, savings are also made in a wide range of other eco-friendly ways. Due to the rapid prototyping of the automobile sector, which is vital as it means the design can go through numerous iterations and get to market quicker, it is expected to grow rapidly.

The breakthroughs in material science widened the range of materials. The 3D printing can use plastics, resins, metals, and ceramics. Stereolithography (SLA), fused deposition modeling (FDM), and selective laser sintering technologies (SLS) can also be used for a myriad of purposes and display great scaling potential. Moreover, efforts to be sustainable are advanced by the reduction of material usage and the possibility for 3D-printed parts to be recycled. The development of software integrated with manufacturing needs still places 3D printing technology at the center of the innovations in global supply chains.

How does a laser cutter compare to a CNC router?

Speed and efficiency of laser cutting

Laser cutting is efficient and fast, especially for detailed designs and particular cuts. The process focuses beams of lasers to cut or engrave materials, which is much faster than several older techniques, such as a CNC router, particularly regarding thin or medium-thick materials. It also reduces material wastage, which makes it suitable for detailed work. Nevertheless, its effectiveness can differ according to the type of material and its thickness of, with harder or thicker materials typically requiring longer processing times.

Material compatibility differences

With regard to the laser cutting service, I have come to understand that, while the technique is very flexible with regards to differing compatibilities of materials, it has its limitations concerning wood, acrylic, and some metals such as stainless steel and aluminum. I also appreciate that reflecting materials, such as copper or brass, present a problem when cutting since they are reflective, which poses a challenge to laser cutting tools. In addition, materials that are thick and hard would require more powerful and faster adjustments, which, in turn, would adversely affect the time taken to process them and their accuracy. Overall, I would take center stage on material specifications in content design and their usability to achieve the desired results.

Cost comparison between laser cutters and CNC routers

I have discovered that high-powered laser cutters tend to be more expensive at the point of purchase compared to CNC routers; however, operating laser cutters have a lower cost and require less maintenance because they do not rely on means of physical wear and tear. Indeed, the cost of CNC routers is often lower at the initial stage, but the energy consumption ranges and replacement of tools eat further down the budget; both models’ efficiency of use is determined by the nature and size of the task being performed.

What are the advantages of using a CNC milling machine instead of a CNC router?

Enhanced rigidity and precision in machining

The CNC milling machine’s improvement in rigidity and accuracy can be attributed to its strong structure and modern design, which allows hard materials to be machined with close tolerances in several axes. In my opinion, CNC milling delivers better precision reproduction and surface regularity than other metalworking techniques, especially where minute details or high accuracy are required.

Capability to work with harder materials

CNC milling machines’ construction makes them capable of cutting through tougher materials, such as steel, titanium, and different alloys. Their spindle motors, in particular, make this facility possible, as they are able to produce good torque and rotational velocity while cutting through dense tools. For instance, a cutting speed of as high as 500 is achievable when using titanium-based carbide tools with modern-day CNC milling machines, which increases productivity by removing material faster.

Additionally, the rigidity of CNC milling machines minimizes vibration during operations. Tool wear is reduced, while the tools themselves are made machinable, with consistent accuracy, due to the low vibration. The same combination poses a greater challenge when dealing with heat-resistant alloys, as tools designed to cut through them can generate excessive force. The problem is alleviated by high-performance cooling systems placed on tools and coatings such as titanium aluminum on the cutting devices. To increase cost-effectiveness when manufacturers need it, the panels can be set to work at an optimal speed.

CNC milling machines’ versatility makes employing specialized tools and additional axes possible. As a result, complicated geometries and narrow tolerances can be achieved, even in difficult materials, making these tools essential for the aviation, automotive, and medical device industries. Moreover, industry reports and studies further demonstrate the superiority of CNC milling machines over other equipment in using more mechanically demanding materials, thereby confirming CNC‘s capabilities as an integral component of high–precision operations.

Increased spindle power and torque

Contemporary CNC machining equipment features significantly improved spindle power and torque, thus facilitating the efficient handling of harder materials. Depending on the machine’s specifications, the spindle’s power can vary between 15kW and 50kW with a gear ratio of above 400 Nm. This ability ensures high-precision manufacturing of hard materials such as titanium alloys and tool steels, typically used in modern, sophisticated aerospace and medical machine tools.

Furthermore, I wholeheartedly support advancements in spindle technology, which increases speed ranges and supports a maximum rotation of over twenty thousand revolutions per minute; this helps explicitly to achieve accurate finishes on the surface of the material, particularly in instances where fine detail is needed. Moreover, the spindle duct in current cooling and lubrication services reduces the chances of thermal expansion, thus retaining high levels of accuracy due to the dimensional stability achieved when the machine is running for a designated time. These improvements ultimately result in high-efficiency rates without sacrificing the tool’s quality of life, reducing the time taken for repairs alongside the operational costs.

Are there any open-source alternatives to commercial CNC routers?

DIY CNC machine options for hobbyists

Personal CNC machines, or DIY, are economical and easily portable equipment that hobbies use to test their computer-controlled machining skills. Currently, there are many off-the-shelf open-source kits and open motor designs that can be used to assemble the machine for custom-made projects like engraving, small metal milling, and wood carving. Common materials used for the frames of popular DIY CNC models include aluminum, which is lightweight yet long-lasting, and stepper motors, together with GRBL (open-source g-code compatible) controllers for accurate motion control.

As an example, in the Shapeoko series, users appreciate the modular base, which allows for the installation of laser cutters or stronger spindles, among other types of supplementary elements. There is also the MPCNC (Mostly Printed CNC). It is an open-source design that relies heavily on 3D-printed parts, making this option cheaper for people with a 3D printer. The MPCNC is giving its users numerous design opportunities by freeing them from restrictions on the dimensions of the structure and the kind of tools to be fitted to it, which is a great advantage for those looking to copy existing designs.

The majority of starter commercial on-your-own CNC machines have their custom area from 300mm x 300 mm to 800mm x 800mm. Moreover, software like OpenBuilds CONTROL and Candle makes software easier with a friendly user face, which aids novices in learning how to operate their machines quickly.

For instance, on your own, CNC machines do not have the same level of speed or strength as commercial CNC routers do, but they do provide an excellent entry point into the world of technology. Therefore, the price and the amount of information available on the Internet and the community allow amateurs to get great results while spending very little money for it.

Open-source software and controllers

Software that is free to use and quality controllers are integral to the DIY CNC paradigm in that they allow users to save on cost and avail themselves of flexibility. An example would be GRBL, specifically designed for boards based on Arduino. Its purpose is to act as a motion controller for CNC machines and the best part of it is that its usage is open. Because it is affordable and capable of interpreting G-code, a programming language related to CNC operation, GRBL is a modern, compact, and effective solution for amateurs.

Like other open-source projects, LinuxCNC has been integrated with more sophisticated features that allow more elaborate tasks, such as controlling real-time interactions. For those who require additional customization and fine control over their CNC machines, LinuxCNC seems to be the best option. These applications have many users and are constantly developed, making learning and troubleshooting very efficient.

Speaking of hardware, open-source controllers of the Smoothieboard type and open-source versions of the Arduino Mega 2560 enrich the resource base for the building of DIY CNC machines. A vivid example of this is a Smoothieboard, which incorporates a 32-bit ARM processor that enables it to control mechanisms precisely and have more power than older controllers, which operate maximally at 8 bits.

According to various community studies, open-source controller technologies drop installation costs by 20-30% lower than proprietary ones, while the affordability of the functions remains the same. Besides, developing firmware and modular components further facilitates the retrofitting of CNC machines. Such an environment of open-source tools and controllers helps further develop and democratize CNC technologies by enabling fans to secure professional-level solutions without excessive investments.

Community-driven projects like Shapeoko and X-Carve

Shapeoko and X-Carve are two major examples of corporate-led community projects to make CNC machines available to makers and small businesses. Both products are concerned with affordability and the integration of user-friendly designs for customers and open-source capabilities, allowing users to customize and enhance their machines. While Shapeoko has a rugged design and understands versatility, X-Carve does it well – customizability and straightforward assembly. Such ventures often depend on active user bases that provide free materials, help, and innovation around them, which increases their worth and usefulness over time.

What should I consider when choosing an alternative to a CNC router?

Assessing your specific machining needs

To begin with, pinpoint the type of materials you wish to cut, be it wood, plastic, or even metals, as this will determine what kind of machine power and features you will require. Assess the intensity at which the machine will need to work, and think of the most accurately the machine should operate. Take the size of the working space into account so that you can comfortably fit your projects. Lastly, factor in machine usability, software availability, and pricing so that the machine complements your technological abilities and does not hurt your pocket.

Evaluating budget constraints and ROI

In business expenditures, assessing the total cost of the purchased item and its various elements, such as installation, upkeep, and future revamping if it seems fit, is prudent. Maximize the potential features on the items that cater to your individual organizations. To substantiate ROI, look into the prospective benefit of the machinery being possessive in terms of enhanced efficiency, reduced manhours, or superior standard output. Consider the machine’s life expectancy and derive the break-even time from project savings or revenue increases. More so, the experienced utilization of consumption and manufacturer facilitates the ideal target market substitute as well.

Considering workspace and machine footprint

At the outset of assessing the workspace, assess the area available to ensure the machine is not a hindrance to the workflow if the intention is to use it frequently. Plan for extra room necessary for use, maintenance, and cooling. Refer to the manufacturer’s instructions for details of machine size and space requirements, if any. If the area is a constraint, then ensure that important features of a model are met if the machine is intended to be used in a small space, but make sure compact designs come first. Developing a proper layout can avoid inefficiencies and ensure safe practices are followed.

How do desktop CNC machines compare to full-sized CNC routers?

Compact solutions for small workshops

For budget and space-constrained small workshops, desktop CNC machines serve as an amazing substitute for full-sized CNC routers. These machines can be accommodated on a small part of a regular workbench, making them suitable for hobbyists, prototypes, and small manufacturing companies. Moreover, Modern desktop CNC machines are currently available that can perform with a precision of 0.001 inches, which is the equivalent of larger industrial models even with their small size.

Advanced models of CNC machines have an array of features, including integrated software, touchscreen controls, and the ability to work with various materials, including plastic, wood, aluminum, and composites. For example, some modern desktop styles come with 12″ x 12″ to 24″ x 24″ work areas while weighing around 40–70 lbs. This balance of size and functionality eliminates the requirement of a separate workshop in order to accommodate intricate designs and detailed projects that are very similar to the functions of the maker-made router.

Furthermore, desktop CNC machines consume less energy than industrial machines and can easily be plugged into standard 110V outlets. In addition, many manufacturers have designed these systems to have modular components, making upgrading or servicing them easier. These features enable operators to achieve professional-grade results for small workshops without significant investment in space, equipment, or infrastructure, making them a good option for budget hobbyists.

Differences in cutting capacity and speed

Desktop CNC machines tend to have reduced cutting power compared to industrial-grade CNC systems. These machines typically have small motors and lighter frames and are meant to work with soft materials such as wood, plastic, and nonferrous metals like aluminum. For example, most of the desktop CNC routers’ cutting depths range from 1-2 inches, making them suitable for precision work on small intricate designs. Industrial CNC machines, however, due to being fitted with high torque motors suitable for heavy-duty work, can easily cut thick steel and titanium materials at a range of 4-6 inches or more.

In terms of speed, desktop CNC machines run on 8,000 to 30,000 RPM, which is sufficient for lightweight materials and detailed engraving. Although these speeds can achieve high detail, the feed rates, which indicate how fast the machine goes through the material, are generally slower at 50 to 150 inches per minute. This is different from most industrial CNC systems that can feed more than 400 IPM alongside spindles suited for material removal. The mechanical services provided are important for balancing precision detail work alongside the required throughput and material.

Portability and ease of use factors

Contemporary desktop CNC machines emphasize ease of use and portability. With workbeds no bigger than 24 x 36 inches, these machines can easily fit on any workbench and hence can be used with ease by small manufacturers and hobbyists. These machines weigh around 50 to 150 pounds and usually have composite or aluminum frames, making them much lighter than their industrial counterparts. Though being lighter, the structural integrity is not compromised.

To further aid compact CAD systems in making the machines convenient, compact CAD systems often feature USB and Wi-Fi capabilities that allow users to grab designs from their computers quickly. Wide CAD integration and user-friendly software allow users to make the transition from design to manufacturing smoother. Screen touch and automatic level have reduced the machine’s set-up time significantly, increasing the machine’s accessibility. All these factors combined into one have greatly made the machine’s usability range for users while providing them with the same level of precision throughout their training period. As a result, there is a higher incentive for people to implement these machines in their daily lives, given that more than 80% of operators have reported greater flexibility and easier interfaces as their greatest advantage.

Can a combination of machines replace a single CNC router?

Integrating laser cutters and milling machines

The combination of laser cutters and milling machines offers a convenient solution for operations requiring precision and flexibility. Laser cutters are better at activities like engraving or cutting designs that require making very detailed works using laser because of their high speed and accurate results. On the other hand, milling machines are efficient in the subtractive machining processes of carving, shaping, and drilling, which are more complex materials, including metals and composites.

The integration of these technologies allows manufacturers to develop a hybrid system that can attain optimal efficiency using a wide range of materials and applications. For instance, a hybrid solution makes it possible to largely engrave designs over simpler materials like wood or acrylic and later on dial the milling process to remove extra material to achieve more complex three-dimensional shapes. Industry reports suggest that these systems can be incorporated to cut production time by 30% for cutting and milling processes.

Furthermore, CNC software development has allowed for integrating laser cutting and milling functions into a single connection. Cooperative systems now permit users to use both functions without redoing any designs or having to readjust the machine, which simplifies the production process. This dual equipment strategy also reduces the burden of more devices, which costs the companies an average of 25-40% in equipment expenditures while maximizing space constraints during operations.

As portable systems are always in demand, the combination of laser cutters and milling machines is an effective solution for both small-scale and industrial manufacturers since they can meet many production requirements with better efficiency at an affordable price.

Balancing capabilities and costs

Integrated manufacturing systems require a careful measurement of the total operating expenses of the system and the up-front costs. A recent survey in the industry reveals that the ballpark range of such costs for multifunctional systems, including cutting and milling laser systems, tends in the region of $50,000 to $150,000, particularly when factoring the machine`s specifications and features. Noteworthy, such systems usually provide the customer with a return on investment within 3-5 years as they offer great value in shortening the production cycle and reducing the manpower effort needed.

Furthermore, the economic analysis presents indicators that multifunctional machines can facilitate an up to 20% decrease in material waste, which stems from the highly precise materials that have been engineered and software controlled for specifics. Not only would this ensure a reduction in expenditure on the acquisition of raw materials, furthering the goals of sustainability, which is an ever-growing imperative in global manufacturing, but it would also account for better efficiency. Moreover, the construction of a multifunctional device integrates two types of functions into a single machine, which allows companies to save 30% in floor space, which is especially important in smaller companies.

In putting a cost to these advantages, companies should, in particular, reflect on their particular requirements in production in relation to the size of the batch, composition of materials, and the accuracy required. This is further enhanced by the availability of configurable systems and software packages that allow for easy future adaptations at little or no cost.

Workflow optimization with multiple tools

Integrating various tools demands effective automation and seamless handover of tasks to optimize it. Evaluate the workflow and look for delays as well as duplications of effort. Use interoperable tools, enabling smooth exchange of information and automated processes. Single-service solutions or suites can considerably reduce manual operations, thereby boosting efficiency. Moreover, ensure you choose tools with great usability and customization to keep up with operational volatility. Evaluate and improve the processes on a constant basis so that they are consistent with organizational objectives while optimizing costs and staff.

Frequently Asked Questions (FAQs)

Q: Define an Avid CNC. How does it compare and contrast with conventional CNC routers?

A: An Avid CNC is a high-precision machining center far superior to the household CNC router commonly found in discussion threads within the open-source community. Avid CNCs outperform others due to their increased accuracy, faster speeds, and better automation features. For instance, Avid CNC machines are better built and have more powerful motor systems and better speed control, making them more suitable for machine shops and hobbyists.

Q: Why should one use a machining center instead of a conventional CNC Router?

A: In comparison to the conventional CNC router, a machining center has more advantages, including, but not limited to, being able to charge lower maintenance costs and having greater rigidity that aids in enhancing cutting accuracy. In addition to being able to machine a greater variety of materials such as metals and hard plastic, machining centers are more versatile due to the enhanced tool change options applied to the machine, as well as greater sophistication in complex machining operations.

Q: How does CNC machine performance change when carbide tooling is used?

A: The use of carbide tooling helps to enhance the performance of CNC machines significantly as it provides more hardness and also wear resistance. This, in turn, leads to a much longer tool life, higher surface finish, and greater ability to machine very hard materials. It also helps achieve high cutting speeds and feed rates, thus increasing productivity. Using reliable carbide tooling ensures a tremendous increase in the machining output of a robust machine such as Avid CNC.

Q: What other factors can I consider when searching for a better CNC router than my existing one?

A: A better CNC router depends mainly on rigidity, precision, speed control, and even automation. Protecting these machines against rough construction, use of low-quality bearings, and subpar motor systems is advisable. Test the machine’s ability to cut materials of varying types and whether it meshes with various CAD and CAM applications. Finally, look into the Z-axis travel of the machine’s vertical arm, especially when cutting large workpieces or when complex tool changes have to be made.

Q: What are the benefits of using a brushless motor in a CNC machine?

A: Brushless motors bring plenty of advantages when used in CNC machines. Like other motor types, brushless motors allow seamless speed control in CNC machines, but due to advanced technology, such motors are much more efficient and have an extended life span than brushed motors. Compared to brushed motors, brushless motors tend to heat up lower and emit lower resonance, translating into smooth operation and greater accuracy. Less maintenance and higher velocities come with brushless motors, enabling better performance in high-end CNC use, which is commonly debated in infinity cnc forums.

Q: How important is a VFD (Variable Frequency Drive) in CNC machining?

A: A VFD serves a considerable purpose in CNC machining; an operator can have a predetermined spindle motor speed, and then the VFD gets a command to act from that setting. This allows an operator to tweak speed rotation for different materials and tools, improving the surface finish and the overall tool’s life. VFD allows motors to start soft, meaning there’s less mechanical wear on the motor. They can allow for energy savings and more innovative machining, too. Thus, they are a useful part of any meticulous CNC assembly.

Q: Would you suggest that there are various router options for CNC machines? Which ones are most appealing?

A: As with almost all power tools, collet size, power, RPM, and machine compatibility are the most basic requirements for selection. Almost any Makita or DeWalt machine can be used as they are durable and widely available. It is also helpful to know the types of material to be cut and the forming options available to you. One save-all principle is not very functional. Assess where and how they are going to be installed. For example, do significant modifications need to be made for the installation into a CNC system? Some users indicate they prefer specialized CNC spindles when the expenditure is high due to minimal runout and longevity.

Reference Sources

(Mensah et al., 2020, pp. 7–15) “Development of a Computer Numerical Control (CNC) Router Towards PCB Fabrication” Major Results: 

• The authors designed a PCB milling machine that can be built cheaper (165.37 USD) than purchasing chemical etching for PCBs. The prototype was cost-effective because it used locally available materials.
• Compared to the chemical etching method, the prototype CNC PCB milling machine manufactured PCBs in a more eco-friendly and suitable manner for humans.

(Maroli et al., 2023, pp. 69–74) “Evolution of Printed Electronics as Quick and Cost Effective In Academic Prototyping ” Major Results: 

• The authors were able to design a low-cost, flexible PCB that can be inkjet printed and implemented as a rapid prototyping tool at universities, particularly instead of a CNC router.
• They demonstrated that the performance of the flexible circuit is similar to that of the conventional systems, however, the performance has more economic benefits than utilising a CNC router.

(Bosco & Larsson, 2014) “Development of a Rotary CNC System” Summary:

• The creators proposed ‘Rotary CNC System’ as a new design of CNC system, which is an improvement over existing ones. It has advantages such as being cheaper to produce, fewer moving components, and compact size.
• The model proved the potential of the Rotary CNC System in place of traditional CNC systems specifically for 3D printing, laser cutting, and PCB routing.

In summary, the key alternatives to CNC routers identified in these recent studies (published in the last 5 years) include: 

• Cheaper PCB milling machine prototypes are made from locally sourced materials as an alternative to chemical etching for PCB production.
• Low-cost, flexible PCB inkjet printing is a low-cost rapid prototyping method in comparison to PCB prototyping CNC routers.
• The new “Rotary CNC System” design has advantages over classic CNC systems, such as price and size.

Top Hobby CNC Router manufacturer from China