Utilizing Construction Features for Theoretical Intersections in Control X
Inspection drawings will often have dimensions created to a theoretical intersection. What this means is that the dimension references one or more points in space that aren’t physically on the model. What do you do in situations like this? Let's explore this in the example below. Using the screenshot below, let's assume that we need to dimension to locations in space where these lines would theoretically intersect if extended. Below you can see the theoretical intersection points of the lines referenced, created using Construction Features in Control X. Linear Dimensions 9, 10 and 11 were produced as intersections of two lines on the CAD model to extract their intersection points. As long as those model edges are obtainable from the scan, 2D dimensions from these theoretical intersections can be added anywhere on the model. See below for an illustration. Please contact Joel Pollet with any questions or to explore more details about Control X. More Info on Control X
What’s the Value of a Multi-purpose Tool Like Metal Binder Jet 3D Printing?
Just like there’s no one tool to fit every job, 3D printing isn’t a panacea that’s right for every job either. And while the benefits of binder jet 3D printing can often be measured – customers routinely reduce the weight of their parts by 30 – 40% using our technology – much of the return on investment (ROI) of binder jetting lies in the complex intangibles and specific applications, or where one operates in the supply chain. One often hears that 3D printing is “another tool in the manufacturer's toolbox.” And just like there’s no one tool to fit every job, 3D printing isn’t a panacea that’s right for every job either. So, additive manufacturing isn’t going to completely replace CNC machining and shutter every machine shop. Rather, binder jet 3D printing is a way of harnessing metal – or other materials like technical ceramics and sand – to additively produce complex shapes in a way that’s uniquely different and beneficial from other tools that already exist in a manufacturer’s toolbox. It’s a digital manufacturing solution that eliminates hard tooling or consolidates complicated assemblies and is a powerful addition to any production facility looking to be more efficient in its use of existing machinery or [...]
3D Printing Helps Preserve A Saber-Toothed Salmon
Reprint from OPB A saber-toothed salmon, as depicted by artist Ray Troll. The mural is part of the University of Oregon Museum of Natural and Cultural History. - University of Oregon For years, museum conservators and paleontologists have yearned for a way to duplicate fragile fossils without damaging them. Now scientists with the University of Oregon say they have found a way to do just that, with the help of a relatively inexpensive 3D printer. They've starting by duplicating the skull of a particularly important fossil in their collection: a giant saber-toothed salmon fossil discovered near Madras, Ore. Nick Famoso, a PhD student at the university, is helping with the replication process. He says saber-toothed salmon, Oncorhynchus rastrosus, swam the oceans and rivers of the Northwest 5 to 7 million years ago. They were ancestors of sockeye salmon. “Put a big old gnarly tooth in the front jaw. Make it a lot bigger. That’s a saber-tooth salmon,“ he says. The salmon grew to be 6- to 12-feet long, on a vegetarian diet of plankton and filter food. The tooth, which grew as long as a human thumb, developed on spawning males. Famoso says the university holds what's known as a "type [...]
Icam Students Working with Kimya 3D Filaments
KIMYA X Icam Bretagne: the students from Icam – Ecole de Production are working with Kimya 3D filaments Since its establishment in 1898, Icam has been expanding in France and globally, while remaining rooted in its values: audacity, trust, freedom, responsibility, solidarity, and collective success. Its essential mission is to educate engineers who are free, aware, committed, and active in their lives. All programs at Icam are designed to develop these qualities, which are the common denominator among all students and alumni. The Icam Production School, based in Vannes, welcomes young people aged 14 to 18 who have not found their path in the traditional school system. They are invited to undergo a highly practical training to rekindle their desire to learn and earn a diploma: a CAP in Production Installation Management. Through a machine park consisting of about twenty 3D printers, laser cutters, and machining centers, they work daily to meet the needs of industrial clients. KIMYA Invests in the Education Sector The use of Kimya filaments addresses the specific technical needs of industries, aiming to integrate them into industrial projects carried out by students and future professionals of the Icam Production School in Brittany. “The choice of Kimya filaments was made [...]
Choosing an UltiMaker Solution – CimCast
Choosing an UltiMaker Solution In our first episode of CimCast, we discuss Ultimaker's line of 3D printers to help aid in your buying and decision-making process.
Advantages of Additive Manufacturing Repair
The manufacturing industry has witnessed a revolutionary transformation with the advent of additive manufacturing, which has introduced innovative production solutions. In the field of repairs, additive manufacturing, particularly with Wire-DED systems, presents numerous notable advantages compared to conventional repair methods. Cost-Effectiveness: Repairing parts using additive manufacturing can be highly cost-effective. Traditional repairs often involve manual processes which can be time-consuming and expensive. Moreover, DED systems, as Meltio’s technology, allow for precise repairs by adding material layer by layer, minimizing waste and reducing the need for additional tooling or extensive machining. This can result in substantial cost savings. Design flexibility: Additive manufacturing enables unprecedented design freedom. When repairing parts, traditional methods often require conforming to the original design, which may not be optimal for repair purposes. Additive manufacturing allows for the creation of customized designs tailored to address the repair requirements. This flexibility enables the repair of complex geometries and the incorporation of enhanced features or reinforcements, leading to better performance and durability. Reduced lead time: Repairing parts traditionally can involve prolonged lead times due to the need to source replacement components or wait for specialized equipment and skilled labor. Additive manufacturing can significantly reduce these lead times by eliminating the reliance on extensive [...]