Impossible Objects has made a groundbreaking announcement, revealing their revolutionary CBAM 25 3D printer, capable of printing fifteen times faster than the closest competitor. Set to be unveiled at the RAPID + TCT tradeshow in Chicago next month, this innovative 3D printer will have a significant impact on the world of mass production and industrial applications.
Impossible objects CBAM Slice
The CBAM 25 will become commercially available in early 2024, promising to bring 3D printing into the realm of volume manufacturing. By breaking the speed barrier, the CBAM 25 will deliver advanced materials with superior mechanical properties and tolerances, providing manufacturers with an unprecedented advantage over existing technologies.
Robert Swartz, Founder and Chairman of the Board at Impossible Objects, stated, “The CBAM 25 is the world’s fastest printer, and we are entering a new era of 3D printing with nearly unlimited material options at the speed of true mass production. This is a Moore’s law moment for 3D printing, and this is just the first step.”
The CBAM 25 utilizes high-performance composite materials, enabling engineers to design stronger, lighter, and more durable parts. Notably, the Carbon Fiber PEEK material set offers high chemical and temperature resistance and mechanical properties superior to most engineering plastics. Carbon Fiber PEEK parts are a suitable alternative for aluminum, tooling, spares, repairs, and end-use parts.
Impossible objects CBAM Layer
Impossible Objects is currently producing and selling parts in untapped 3D markets such as electronic tooling and for a broad range of applications, including aerospace, defense, and transportation industries. It is also replacing CNC machining with greater geometric freedom.
Steve Hoover, Impossible Objects’ CEO, emphasizes the importance of production speed with the new CBAM 25, stating, “With a fifteen times speed improvement over existing 3D printers, our new CBAM 25 completes the transition of 3D printing from its roots in prototyping to the heartland of manufacturing.”
Impossible objects CBAM Machine
The CBAM 25 is indeed a giant leap forward, pushing 3D printing into volume manufacturing, and opening new opportunities for industries to reshape and rethink their manufacturing processes.
The launch of the CBAM 25 marks a turning point for 3D printing, demonstrating the potential for exponential advancements in speed, material capabilities, and applications. For readers interested in learning more about this revolutionary technology, we recommend attending the RAPID + TCT tradeshow in Chicago, where the CBAM 25 will be unveiled. Additionally, stay informed on the latest developments in the 3D printing industry by following Impossible Objects and other leading companies.
By embracing the CBAM 25 and its potential, businesses can optimize their manufacturing processes, reduce costs, and create innovative products that push the boundaries of what’s possible in the world of 3D printing.
In the world of manufacturing, the digital thread is emerging as a transformative concept that promises to revolutionize the way products are designed, manufactured, and serviced. This is especially true in the realm of additive manufacturing, also known as 3D printing. By providing an almost fully digital chain from part design through manufacture and service, additive manufacturing offers great potential in improving designs, processes, materials, operations, and the ability to predict failure in a way that maximizes safety and minimizes cost and downtime.
But what exactly is the digital thread, and why is it so important for additive manufacturing? To understand this, we need to first explore the concept of additive manufacturing itself.
Additive manufacturing is a process of building parts layer by layer, using a 3D computer model as a template. This is in contrast to traditional manufacturing processes, which involve subtractive methods like cutting, drilling, and shaping materials to create the desired shape. Additive manufacturing offers several advantages over traditional methods, including greater design flexibility, faster prototyping, and reduced waste.
However, additive manufacturing also introduces new challenges that must be addressed in order to fully realize its potential. One of these challenges is the need for a fully digital chain that connects the various stages of the manufacturing process, from design to production to maintenance and repair. This is where the concept of the digital thread comes in.
The digital thread refers to the virtual representation of a product that is created and maintained throughout its lifecycle, from design through manufacture and service. It encompasses all the data and information that is generated at each stage of the manufacturing process, including design files, material specifications, production logs, inspection reports, maintenance records, and more.
The digital thread provides a continuous flow of data and information that allows manufacturers to optimize their processes, improve quality, reduce costs, and enhance the overall customer experience. By creating a seamless, integrated digital thread, additive manufacturing can provide unprecedented levels of control and visibility over the entire manufacturing process.
So, what are the specific benefits of the digital thread in additive manufacturing? Let’s explore a few key areas where this technology is making a significant impact.
Improving Designs One of the primary benefits of the digital thread is its ability to improve the design process. By providing a continuous flow of data and feedback, designers can quickly identify and address issues in their designs, reducing the risk of errors and ensuring that the final product meets all requirements and specifications.
For example, let’s consider the design of a complex aerospace component. Using traditional manufacturing methods, it may take months or even years to design, build, and test a prototype of this component. With additive manufacturing and the digital thread, designers can quickly create and iterate on digital prototypes, using simulation and testing to identify potential issues and make necessary adjustments. This not only reduces the time and cost required to develop the final product, but also improves its quality and performance. Designers will be able to obtain data from manufacturing processes and use it to enhance the design at hand.
Optimizing Processes In addition to improving designs, the digital thread can also help optimize the manufacturing process itself. By collecting and analyzing data from every stage of production, manufacturers can identify areas where efficiency can be improved, waste can be reduced, and quality can be enhanced.
For example, let’s consider a manufacturer that produces metal parts using additive manufacturing. By monitoring and analyzing the data generated by each machine, the manufacturer can identify patterns and trends in production, such as which machines are most efficient, which materials produce the highest quality parts, and which stages of the process are most prone to errors or defects. Armed with this information, the manufacturer can make data-driven decisions about how to optimize their processes, reducing waste and improving overall efficiency.
Maximizing Safety and Minimizing Cost and Downtime Perhaps the most significant benefit of the digital thread in additive manufacturing is its ability to predict failures and prevent downtime. By continuously monitoring and analyzing data from each stage of the manufacturing process, manufacturers can identify potential issues before they become serious problems, allowing them to take corrective action before a part fails or a machine breaks down.
For example, let’s consider the maintenance of a complex piece of machinery used in additive manufacturing. Using traditional methods, maintenance may be performed on a schedule, such as every six months or every year. However, this approach is often inefficient, as some machines may require more frequent maintenance while others may require less. By using the digital thread, manufacturers can monitor the performance of each machine in real-time, identifying when maintenance is needed and performing it proactively to prevent downtime and reduce costs.
Case Studies and Examples of Digital Thread in AM The benefits of the digital thread in additive manufacturing are already being realized in a number of industries, including aerospace and defense, healthcare, automotive, and consumer goods. Let’s explore a few specific examples.
Airbus is a major player in the aerospace industry, and it has been at the forefront of using additive manufacturing and digital thread technologies to improve its manufacturing processes. One example of this is Airbus’s use of additive manufacturing to produce parts for its A350 XWB aircraft. Using additive manufacturing, Airbus was able to produce complex parts with intricate designs that were previously impossible to manufacture. By optimizing the designs of these parts for additive manufacturing, Airbus was able to reduce the weight of the aircraft and improve its fuel efficiency.
Healthcare The healthcare industry has also been a strong adopter of additive manufacturing and the digital thread. One example is Oxford Performance Materials (OPM), which has used additive manufacturing to produce customized implants for patients. By using the digital thread, OPM was able to optimize the design of these implants for each individual patient, resulting in implants that were not only a perfect fit, but also optimized for the patient’s unique anatomy and medical condition.
Automotive The automotive industry has also seen significant benefits from additive manufacturing and the digital thread. One example is BMW, which has used additive manufacturing to produce customized parts for its vehicles. By using the digital thread, BMW was able to optimize the design of these parts for additive manufacturing, resulting in parts that were not only lighter and more efficient, but also customized to meet the specific needs of each vehicle.
Consumer Goods The consumer goods industry has also seen significant benefits from additive manufacturing and the digital thread. One example is Nike, which has used additive manufacturing to produce customized shoes for its customers. By using the digital thread, Nike was able to optimize the design of these shoes for each individual customer, resulting in shoes that were not only a perfect fit, but also optimized for the customer’s unique preferences and needs.
The potential of the digital thread in additive manufacturing is vast, and there are a number of emerging trends and technologies that are poised to take this technology to the next level.
Integration with AI, ML, and IoT One of the most exciting areas of development is the integration of the digital thread with other technologies, such as artificial intelligence (AI), machine learning (ML),and the Internet of Things (IoT). By combining these technologies, manufacturers can create a truly smart manufacturing process that can adapt and optimize itself in real-time.
For example, imagine a manufacturing facility where every machine is connected to the internet and constantly collecting data on its performance. By using AI and ML algorithms, this data can be analyzed in real-time to identify patterns and predict when a machine is likely to fail. The system can then automatically adjust production schedules to prevent downtime and minimize costs.
In addition, AI and ML algorithms can also be used to optimize the design of parts and products, taking into account factors such as material properties, performance requirements, and manufacturing constraints. This can lead to the creation of parts and products that are not only stronger and more efficient, but also easier and cheaper to manufacture.
Digital Twins Another emerging trend in the digital thread is the use of digital twins. A digital twin is a virtual replica of a physical object, such as a machine or a part. By creating a digital twin of a machine, manufacturers can monitor its performance in real-time and predict when maintenance is needed. They can also use the digital twin to simulate different scenarios and test new designs or manufacturing processes before implementing them in the real world.
For example, imagine a manufacturer that creates a digital twin of a machine used in the production of aircraft parts. The digital twin can be used to simulate different operating conditions and test how the machine will perform under different loads and temperatures. This can help manufacturers identify potential issues before they occur and take corrective action to prevent downtime and reduce costs.
Blockchain Finally, another emerging trend in the digital thread is the use of blockchain technology. Blockchain is a secure, decentralized ledger that can be used to store and share data in a way that is transparent and tamper-proof. By using blockchain to store data related to the manufacturing process, manufacturers can create a secure and transparent supply chain that can be traced from the raw materials used to the final product.
For example, imagine a manufacturer that uses blockchain to track the materials used in the production of a complex part. The blockchain ledger can record every step of the manufacturing process, from the sourcing of raw materials to the final assembly of the part. This can help manufacturers ensure that their supply chain is ethical and sustainable, while also providing transparency to customers and regulatory bodies.
Conclusion Additive manufacturing, or 3D printing, has revolutionized the way we design and manufacture products, allowing us to create complex parts that were previously impossible to produce. However, the true potential of additive manufacturing can only be realized by using the digital thread, which provides a fully digital chain from part design through manufacture and service.
By using the digital thread, manufacturers can improve designs, processes, materials, operations, and the ability to predict failure in a way that maximizes safety and minimizes cost and downtime. The benefits of the digital thread are already being realized in industries such as aerospace and defense, healthcare, automotive, and consumer goods, and there are many emerging trends and technologies that are poised to take this technology to the next level.
As we continue to explore the potential of additive manufacturing and the digital thread, we are sure to see even more innovative solutions emerge that will transform the way we design and manufacture products. The future of manufacturing is digital, and those who embrace this technology will be well-positioned to lead the way in their respective industries.
