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Robotic 3D printing – How to Select the Right 3D Printer

When selecting a 3D printer, there are several factors to consider, including price, the quality of prints, the cameras, system software, and of course, your specific needs. We’ve discussed these factors in detail to make your decision easier. Read on for more information. After you’ve decided on the printer, you’ll need to decide what type of printing you’d like to do.

The Rise of Robotics – The Rise of Machines With 3D Printing

In the 20th century, most robots were essential in assembly tasks, mainly mechanical arms that could weld car parts. Now, humanoid robots can serve as doormen and even bring you coffee. While the development of these robots has only recently been entirely in use, the idea of robots has been around for a long time. The first descriptions of robots date back to the time of Heron of Alexandria, who described over 100 machines.

The rise of robotics has a huge potential in manufacturing. Although the market for 3D printing robots is still in its infancy, several industry research efforts have already recognized the value of this emerging technology. This technology enables manufacturers to create 3D objects using various materials. This opens new possibilities for smart additive manufacturing in the future. Automation is one of the significant advantages of 3D printing robots.

A French start-up, XtreeE, is working on this technology. An ABB robotic arm with a concrete extruder can produce complex geometric structures up to 14 meters tall. The flexibility of this robot allows designers to experiment with different shapes and movements. The company has an impressive project portfolio, including 3D-printed facade panels and benches. The company is also working on developing 3D-printed facade panels and pavilions.

Industrial robot arms can be equipped with several degrees of freedom, allowing them to move freely in all directions. They also can reorient print paths as needed. Robots can also have OCTOPUZ software, which enables the robots to move in multiple directions. Further, robot additive systems can print in infinite directions. This technology is not just a novelty but will become a significant part of additive manufacturing.

4 Ways Robots and 3D Printing Intersect

3d printing

The intersection of robotic automation and additive manufacturing is powerful and will revolutionize many business areas. One example is the integration of six 3D printers with a collaborative robot, which can remove build plates containing finished parts and start a new cycle. This integration was a creative challenge, but the result is a fully automated cell that runs 24 hours a day. Here are four ways robots and 3D printing intersect:


Autonomous robots are already transforming the way we build and use our world. For example, a California College of Arts professor has developed autonomous robots called Swarmscapers, which harness materials native to the site. As part of his master’s program in the Digital Crafts Lab, Swarmscapers navigate a chamber filled with sawdust. They then use a glue extruder to bind layers of sawdust together to form ovular cone clusters resembling termite mounds.

In April 2015, a massive earthquake devastated central Nepal, leaving villagers homeless and thousands dead. Field Ready’s team noticed a life-threatening problem in one of the camps. A leaky pipe was a possible entry point for disease. They had a 3D printer mounted to a pickup truck to address the issue. This allowed them to create a pipe fitting on the spot – and the pipe fitting still holds a few months later.

Scaling up of 3D printing processes

Robotic arms have enabled the scaling up of 3D printing processes while also enabling the realization of nonplanar path geometries. These properties make 3D printing viable for many architectural applications, although the challenges associated with nonplanar layered paths prevent widespread use and integration into design processes. The methods presented here contribute to developing flexible nonplanar layered paths for robotic printing. It’s an exciting time for the world of robotics.

In a few years, robotic systems will be the norm in manufacturing. Large machinery will be the exception. Companies that can afford the cost and complexity of this technology will likely become the sole users of robotic 3D printing. By 2080, half of the world will be using robotic-based manufacturing lines. If this trend continues, robotics will make additive manufacturing easier for businesses of all sizes. It’s a game-changing development for the entire industry.

Integration with large scale objects

While 3D printers will soon replace workers on construction sites, they will still be necessary for constructing physical objects. Many robots and 3D printers are proving their utility in building large-scale objects.

Robots attached to drones are already proving their versatility and cost-saving abilities. This is one of the first applications for robotics in the real world. While these innovations are not yet available in a production environment, the potential for automation and robotics is immense.

Innovative customization

As a growing field, 3D printers will also help develop medical implants. We can customize these 3D-printed parts according to the specifications of the patient. Innovative scientists are already studying the possibilities of 3D-printed tissue and organs. Despite these applications, 3D printers will still require human workers. In addition, 3D-printed prosthetics will be cheaper and more comfortable for the patients.

Benefits of Robotic Arm 3D Printing Platforms and Software


If you are a robotics maker, you are likely considering the benefits of a Robotic Arm 3D Printing Platform and Software. You should consider several factors, including cost, functionality, and availability.

The robot arm design, for example, may be ideal for the hobbyist, but it could also be useful in the professional field. Here are some of the benefits of this type of software.


The robot arm’s high level of precision is essential for the success of wireframe structures. The designer can move the robotic arm from one position to another without worrying about its stability.

However, this can lead to fine filament strands. Fortunately, these strands do not diminish the functionality of the printed model. This makes robotic arms a more flexible and affordable option. They can also print larger objects.

Virtual control

RoMA combines a virtual reality headset, controllers, and a 6DOF robotic arm. The system has a high-resolution camera for viewing images and lets the designer control the arm through a virtual interface. As a result, the designer can step away from the printing platform and continue designing. After the design is complete, the robotic fabricator controls the platform. This is a revolutionary solution for any 3D printer.

Multiple printing

Another feature of robotic arms is their ability to print on various substrates. With the right software, they can print at virtually any angle and with different mounting options. As a result, they are ideal for repairs of large objects and can be helpful in hybrid manufacturing where we can add a printed section to a cast, forged, or machined part. Viridis3D specifically designed its RAM 123 printer for foundry applications.

Modeling experience

RoMA also provides a hands-on modeling experience. The designer creates their model with an AR CAD editor, and the robotic arm builds the features concurrently. A partially printed physical model serves as a reference for the designer.

This tool also integrates real-world constraints into the design process by allowing the designer to design directly on the physical object. These advantages make RoMA the ideal 3D Printing Platform for architects, industrial designers, and hobbyists.

The robotic arm 3D printer requires more detailed computer instructions to print the part. In addition, because the robotic arm can reach around the printed part at multiple angles, the multi-axis toolpath must consider this to prevent collisions with the part.

Robotic Arm 3D Printing Platforms & Software are a must for any professional or hobbyist. If you are considering using this technology, don’t hesitate to read on to learn more about the pros and cons of using robotic arms in 3D printing.

Can handle complex projects

Soft robots consist of viscoelastic hydrogels, which can handle high pressure and complex geometries and shapes. The research on the materials and 3D printing techniques is intensive, with researchers in the Netherlands developing UltiCast, a technique that allows you to create a soft-grip. The UltiCast method has the advantage of being simple to replicate and inexpensive to implement.

3D Printed Off-Robot Accessories

Many companies have begun producing 3D printed off-Robot accessories. These accessories are often more durable and can be helpful for various robot applications. You can also use several different materials to 3D print these accessories.

For example, you can use PETG filament to print accessories such as a hook for your robot. However, it is essential to use PETG carefully as it can warp when printing.

When designing the accessories for your robot, consider what you need. For example, if you want the robot arm to work underwater, you might need torch holders or grippers for its front legs. 3D printed accessories can be made of various materials and are available in many shapes and sizes.

So whether your robot arm is ideal near the surface or deep in the ocean, you can design a custom accessory. It might be something as simple as a torch or something more complicated, like a flashlight.

To make the most of your 3D printed off-Robot accessory, you should place it on the opposite side of the mold as the part it is intended to serve. That way, you won’t end up with an awkward and costly assembly.

Additionally, 3D printed accessories are not only helpful but also cost-effective. These accessories are an essential part of the entire robotic system. A polymer printer is an excellent option for this project.

AM Flexbot Integrated Robot System

The AM Flexbot is an integrated robotics system that can be helpful for various applications. Its innovative structure comprises aluminum profiles and has fixings to break the mechanical bond during manufacturing.

opening door and locking mechanism

The AM Flexbot integrated robot system features include a three-hundred millimeter opening door and locking mechanism. In addition, it offers an ISO 13857 and ISO 14120 certified safety cage. As a result, its integrated robot system satisfies all safety standards.

Pellet extruder robot arm

The AM Flexbot pellet extruder robot arm is ideal for seamless integration with the robotic arm. It is lightweight and has a temperature range of 400degC. It can process nearly any thermoplastic, engineering-grade material, including materials with carbon fiber fillers. AM Flexbot pellet extruder robot can process ABS CF, PESU CF, PP GF, PPS CF, and PU-CF.

Comau NJ60-2.2 six-axis robotic arm

AM Flexbot comes equipped with a Comau NJ60-2.2 six-axis robotic arm, which can lift a payload of 60 kg. In addition, the system has a Siemens Sinumerik 840D controller, which enables the user to customize its control settings and move the robotic arm precisely. This controller is also a standard for 5-axis milling equipment. For complete customization, AM Flexbot can help in many applications.


The Flex-Bot can handle various tasks, from mechanical engineering to electronic assembly. It is ideal for medical device handling, kitting, palletization, and tray loading. It can handle parts of various sizes, and its modularity makes it easy to integrate with AS/RS and other palletizers. In addition, its modular design and advanced safety features make it an excellent option for a wide variety of applications.

Interlocking modules

The core frame of the FLX BOT is composed of half a dozen interlocking modules. With a diameter of one inch, it can easily enter difficult-to-reach spaces. Several end effectors are interchangeable, including a drill, a gripper, a vacuum, a soldering iron, or a block grabber. Block grabbers can fetch up to $100+ depending on length.

The research plan includes developing test methods and metrics that assess the robot’s agility. This information will help companies improve their robots’ performance, collaborate more effectively with other robotic systems, and enhance assembly-centric manufacturing.

The AM Flexbot is a groundbreaking system for industrial automation. Its performance measures will increase productivity and efficiency while decreasing cost. The robot will also be able to reconfigure itself to meet changing assembly demands.

The Large Scale Additive Manufacturing Process

Large scale additive manufacturing process is a process that can manufacture large, complex parts very quickly and efficiently. It is suitable for industrial use, reducing the need for pre-fabricated parts and third-party tools. A 3D-printed metal part can reduce raw material consumption by up to 80% while maintaining structural integrity.

For the future of on-orbit manufacturing, additive manufacturing is essential. However, current state-of-the-art on-orbit manufacturing systems face limitations from launch constraints and thus reduce the building volume.

Large-scale additive manufacturing can remove these constraints and allow the construction of more complex structures. But how can this type of technology be applied to spacecraft manufacturing?

In industrial applications, large-scale additive manufacturing systems are ideal for rapid prototyping. They can produce parts with a net or near-net shapes. They’re also suitable for aerospace, automotive, and defense applications.

Several industries have begun to manufacture the technology, driven by the increased build volume and speed of new 3D printers. For example, Airtech has already incorporated the technology into additive manufacturing systems for large prototypes. In addition to manufacturing parts in virgin thermoplastics, they can also produce electronic components.

A large-scale additive manufacturing process can also help make parts of various materials, such as titanium, stainless steel, and aluminum. These materials can be used in aerospace applications and may ultimately replace the need for large-scale casting and forging.

However, they have some limitations, such as poor durability. In addition, high-heat applications may require a specialized method to join different types of materials. We can overcome these limitations by using thermoset composite materials.




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