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The construction industry faces increased pressure to innovate, optimize costs, and reduce environmental impact. One area with significant opportunity is the production of concrete molds—essential for creating the complex forms used in modern architecture and infrastructure.

Large-format robotic 3D printing offers a faster, more sustainable, and cost-effective solution to the challenges faced by traditional concrete mold production.

Understand the role of 3D printing in the construction industry and its potential to revolutionize the creation of concrete molds to drive new levels of efficiency and design freedom.

The marine industry is undergoing a significant technological transformation driven by the need for enhanced performance, sustainability, and cost efficiency. Advanced Robotic Additive Manufacturing represents a pivotal innovation that combines the precision, and flexibility of robotic systems, with the capabilities of additive manufacturing.

This white paper delves into the role of Advanced Robotic Additive Manufacturing in the marine industry, highlighting the current traditional manufacturing challenges, the promise of additive manufacturing and the applications within the marine industry.

In the high-stakes world of aerospace and defense, speed, precision, and adaptability are critical. The ability to rapidly design, test, and produce components can mean the difference between success and failure in mission-critical operations. Traditional manufacturing processes often struggle to keep pace with evolving demands, leading to costly delays and inefficiencies.

This is where Rapid Fusion steps in, leveraging cutting-edge additive manufacturing and robotic precision to accelerate rapid prototyping and end-use part production for aerospace and defense applications. With the added capability of containerized, deployable manufacturing units, mission-critical components can now be produced directly in the field, reducing logistical challenges and enhancing operational readiness.

Always on the lookout for new ways to optimize their workflow, PING recently set out to find new polyjet 3D printing technologies that could be used to further speed up and reduce the costs of its development processes. Additive manufacturing has been used at PING for over 20 years in various capacities, so investigating developments in that field was a logical next step. The company set out to pinpoint specific stages in its process through which implementation would benefit the entire manufacturing organization.

In the factory of the future, automation is king along with end-of-arm tooling. Manufacturers can drastically reduce lead times, reduce labor costs, and increase overall efficiency through the use of robotics at several stages in their workflow.

These machines serve a variety of functions on the factory floor, including everything from gripping and positioning parts to welding and painting assemblies in the later stages of the manufacturing process.

While each function serves a unique purpose specific to the task it will perform, they all utilize an essential component known as End-of-Arm tooling (EOAT).

In this case study, you will see Salt Lake City, Utah based company utilize 3D printing for extra benefits.

The production of pharmaceuticals, vaccines, and antibodies is a highly intricate and innovative process that relies on technology matching its level of complexity. The vessels used in the procedure, called bioreactors, are designed to carry out the required chemical processes key to this industry. Inside is a tank in which growing organisms are submerged and suspended in a liquid solution where they can perform their desired function with limited production of impurities. In order to ensure a consistent, high-quality output, bioreactors are designed to control internal environmental factors such as temperature, nutrient concentrations, pH, and dissolved gases; all of which can drastically affect the growth and productivity of the contained organisms if not carefully regulated.

High heat loads limit the miniaturization of portable computers, power electronic devices and high-power LED lighting. Most ambitious technological solutions from the lab are not ready for mass production and deployment in consumer products. But industrial 3D printing, or so-called additive manufacturing, can bridge the gap for thermal
management components and keep lossy electronics cool even when the
available space is severely limited. The freedom of design provided by 3D printed thermal management components offers the same or superior effectiveness as conventionally manufactured components, but requires much less space. Enlarged surfaces, any-shape geometries and conformal cooling channels are among the opportunities of this manufacturing technology.
The efficiency gains that can be achieved were demonstrated with a gaming CPU cooler design for additive manufacturing. To maintain the same chip temperature, the new part requires 81 % less space and 93 % less weight than the best-in-class conventional cooler.

Mission Critical”” perfectly describes the Class 1 components used in
the aerospace industry. Missions costing hundreds of millions depend
on these components. Accordingly, engineers are constantly seeking
to develop components of the highest quality, functionality, and
robustness while simplifying the manufacturing chain and reducing
the number of individual elements. Thanks to EOS technology, Ariane
Group has succeeded in taking this to a whole new level: Instead of
248 elements, the injector head of a rocket engine of a future upper
stage propulsion module now counts just 1 component. The injector
head has been simplified and reduced to what is literally an all-in-one design.

According to three owners of Stratasys Fortus machines, one-year profit gains ranged from $60,000 to $230,000 from just a few fixture-related applications.

There is an often-overlooked additive manufacturing (AM) application with potentially huge financial returns. Savings can be so large that they can justify the purchase of an AM (or 3D printing) system in far less time than the typical three- to fiveyear payback period the financial officer will demand. The application is jig and fixture making — which also includes gauges, organizational aids and other manufacturing devices. AM produces these tools by adding material in an automated, layer-by-layer process rather than removing material with a cutter or forming it in a mold.