Thyssenkrupp Wins 3D Printing Approval
The international accredited registrar and classification society DNV GL has awarded thyssenkrupp, German multinational conglomerate, first additive manufacturing approval of manufacturer certificateThe shipping industry is looking to take advantage of additive manufacturing (AM), also known as 3D printing, to print spare parts, thereby reducing lead times, costs, stock requirements, and environmental impacts. Certification ensures that AM part users can have the same confidence in an additive manufactured product as a conventionally produced one.The newly issued certificate makes the thyssenkrupp
A Soft Solution to a Hard Underwater Problem
the status quo and never challenged,” said Wyss Institute Founding Director Donald Ingber, M.D., Ph.D., who is also the Judah Folkman Professor of Vascular Biology at HMS and the Vascular Biology Program at Boston Children’s Hospital, as well as Professor of Bioengineering at SEAS. “3D printing and soft robotics technologies are now allowing the processes of design and iteration to happen on-site rather than in the lab, making it faster, easier, and cheaper to create solutions to existing problems.”Additional authors of the paper include Kaitlyn Becker and Mortiz Graule from the
Taking UUVs Faster, Further & Deeper
(shown in Figure 3, on page 44), the initial design was determined to well exceed the threshold depth rating, which was then increased to 300 meters for the standard vehicle while maintaining an adequate factor of safety.Riptide utilized the latest methods of rapid manufacturing heavily relying on 3D printing or additive manufacturing in its early production deliveries. Riptide has recently procured injection resin molds for all 3D printed parts for the micro-UUV under a manufacturing grant from Massachusetts, but maintain the ability to 3D print any component for design flexibility. Under a DARPA
Navy Tests Scale Models in Big Facilities
test parameters,” said Foster.The test objects are suspended in a 10 x 10 by 43 ft. long chamber. The chamber can be drained and opened to gain access to the test object, which can be changed to test difference shapes and configurations. “We can create different control surfaces through 3D printing,” said Brown.Right now the LCC is being used to characterize the performance of the propulsor for the Columbia-class ballistic missile submarine, the replacement for the Ohio-class submarines. “We built a scale model of the entire submarine and propulsor to measure everything from
Shell Ocean Discovery XPrize Field Pared to 9
test. Big Prize, Big Picture “We are looking to pull in exponential technology shifts into the marine realm,” said Dr. Virmani. “There are huge shifts in technology that we’re seeing in other areas that we want to bring into the marine realm,” such as the use of 3D printing to effectively cut costs, and the use of drone technology to make operations more cost effective. “I am very excited at what is coming out of this so far, and I think you will see some technologies emerge that truly revolutionize the way in which we access the deep sea and map the
PicSea: A New Concept for Ocean Autonomy
innovative start-ups taking advantage of the latest trends in miniaturization and the relatively low-cost entry into the market. “If I were trying to do this five years ago, it would have been a lot more difficult, and that is probably why more start-ups are entering our market now. There is 3D printing, satellite technology, battery technology and miniaturization on these elements that means in the short-term future it’s going to be much easier to collect ocean data and to mass produce affordable underwater robots to complete all sorts of complex tasks. It’ll be very disruptive to
DNV GL: First Class Guideline for Additive Manufacturing
materials from which they are created have the same level of quality assurance as traditionally manufactured products. Additive manufacturing is a catch-all term for industrial processes that create three dimensional objects by adding layers of material. It includes such technologies as 3D Printing, Rapid Prototyping (RP), Direct Digital Manufacturing (DDM), layered manufacturing and additive fabrication. “We have been investigating the potential of 3D printing for the maritime and oil & gas sectors since 2014,” said Marit Norheim, Vice President, Material Specialist
UUV Manufacturer Aims Big by Going Small
well as support for the MOOS-IvP robot control engine. Future releases are planned to include support for ROS (the Robot Operating System) and streamlined user interfaces. In addition to embracing current software development trends the micro-UUV has been developed using a large quantity of 3D printing. This has enabled affordable and quick evaluation of numerous design considerations. This rapid manufacturing capability has also enabled Riptide to quickly field production vehicles. This approach is not just for engineering models. It is delivering product capable of withstanding the pressures
Tomorrow’s Defense: Unmanned Vehicles Enter the Naval Arena
Naval Staff, added, “Unmanned Warrior clearly demonstrated the Royal Navy’s ambition to lead and win through technological innovation. Unmanned maritime systems will change how we operate, but they’re just the start. Our pursuit of new technologies and ideas – from big data to 3D-printing – will ensure we remain one of the most capable and successful navies in the world.” Delivering Maritime Capability When the Unmanned Warrior program was completed in line with the U.K. government’s Strategic Defense and Security Review direction on innovation and defense
World's First Fabrication of Subsea Well Part Using LiDAR Data and 3D Printing
and 3D at Depth, a global provider of advanced subsea LiDAR systems and solutions, announce the world's first application of subsea LiDAR data used to 3D Print an accurate 1:1 physical model of a damaged well part. The ability to use accurate spatial data in subsea part fabrication with 3D printing, introduces a wide range of possibilities to reduce costs across intervention planning and Life of Field programs. The subsea part fabrication was part of a larger project conducted in early 2016, using 3D at Depth's subsea LiDAR SL 2 technology and point cloud software.
