Danish 3D printing research company Create it REAL has developed a new platform for 3D printers with a focus on IP protection. The platform allows users to 3D print files without actually having access to the original 3D file. The process is enabled by directly decrypting the file onboard the printer using the Create it REAL processing chip.
Create it REAL previously developed the RTP real-time processor in 2013 which claims to increase the speed of FDM and SLA 3D printing. Since then, the company has worked on various other solutions based around this technology, such as software that can prevent the 3D printing of firearms and also developed software to preview prints in augmented reality.
Currently, Create it REAL has produced a number of prototypes which it intends to use in large-scale pilot programs before full release by the end of this year.
This is a guest post in 3Dprintingindustry.com’s series looking at the future of 3D Printing. To celebrate their fifth year of reporting on the 3D printing industry, they invited industry leaders and 3D printing experts to give their perspective and predictions for the next five years and insight into trends in additive manufacturing.
Stephan Thomas is the co-founder of Identify3D. The Identify3D digital supply chain platform provides design protection, quality assurance, and data logistics for digital manufacturing. The California based company recently won the Innovation Award at RAPID 2017.
3D Printing: the next 5 years by Stephan Thomas, co-founder of Identify3D
Predicting the future by looking at the past
So, where were we in 2011? 3D printing was a concept largely confined to R&D departments. According to the Wohlers report, the market was about $1.6 billion and at that time the prediction for the market was to reach $5.7B in 2017 and about $10B in 2021, a 21% CAGR.
Fast forward to 2017 and the market is about $8.8B, 4.5 times larger than 2011 and 54% greater than estimated. There is only one thing certain with 5 year predictions: they will always be wrong, even if directionally correct. If we apply the similar margin of error then the 3D printing market will be a lot bigger than the $26.5B projected for 2021. Or perhaps even greater than $50B.
The cost of 3D printing is often cited as a reason why firms aren’t driving to adopt the technology more resolutely. Perhaps the increased competition of having a big hitter like HP will change the dynamics of the industry.
With its release of a 3D printing materials development kit and the opening of its 3D printing applications lab, HP looks to expand the development and lower the costs of additive manufacturing.
After years of announcements about the potentials for additive manufacturing/3D printing in the discrete manufacturing and process industries, there has recently been a spate of news announcements from end users and technology suppliers that show the rapid progress this technology is making across industry. Now, there’s news from HP—a company more traditionally associated with enterprise and consumer technologies—surrounding what it calls “significant milestones to its open platform for 3D printing materials and production-ready applications development.”
Before detailing the two new announcements from HP, it’s worth noting that, in May 2016, HP released its HP Jet Fusion 3D Printing Solution, a production-ready commercial 3D printing system which HP said could “deliver superior quality physical parts up to 10 times faster and at half the cost of current 3D print systems.” This printing system can reportedly print functional parts at the individual voxel level (a voxel is the 3D equivalent of a 2D pixel in traditional printing).
With 25 years’ working with carbon fibre moulding, founder and CEO of Metron Advanced Equipment, Dimitris Katsanis discusses the advantages of additive manufacturing in the world of competitive cycling.
As a composites and design engineering expert, I have always been a dyed-in-the-wool Carbon Fibre advocate. I’ve been designing and building competitive bicycles for some of the speediest athletes on Earth since the 90s and, until recently, have always relied on carbon fibre for its versatility, lightness and strength. And don’t get me wrong, Olympic and Tour de France champions will attest to its benefits when it comes to producing medal-winning bicycles.
Last week in San Francisco, surgeons, doctors, dentists, researchers, and medical students filed into the UCSF Mission Bay Campus for the 3DHEALS 2017 Conference. Over the next six hours or so, through 9 different panel discussions, the speakers and attendees explored the effects of 3D printing applications in healthcare, ranging from regulatory concerns and IP issues to biomaterials.
3DHEALS, according to the organizers, aims to “[foster] a global collaborative and innovative healthcare 3D printing ecosystem.” In a guest blog post for Print Your Mind 3D, 3DHEALS founder and CEO, Jenny Chen M.D., writes, “The concept of creating physical objects based on digital data in a layer-by-layer fashion was quickly extended to bio-printing, where the raw material is bio-ink or stem cells. In a way, 3D printing represents an evolved form of human-computer interaction.”
The challenges, advantages, and benefits brought up by the attendees — the need for manual cleanup of digital data and the use of 3D printed models as a communication tool, to name but two — may sound oddly familiar to those in automotive, aerospace, and consumer goods.
A great article by Professor Richard Hague, measured in his assessment of the reality of additive manufacturing/3D printing.
Prof Richard Hague, chair of the Additive Manufacturing and 3D Printing International Conference, talks myths and modelling
As someone who’s been living and breathing additive technologies for the best part of 20 years, it will come as no surprise that I am not a fan of all the hype surrounding consumer 3D printing. For me, it’s a relief to see a marked decrease in stories on the ‘wonders of 3D printing’ appearing in the tabloids and mainstream media on a regular basis.
Cynical as this may sound, I have good reason: we are still constantly dispelling the ‘plug-and-play’ myths that have led to frustration, disappointment and unmet expectations with the technology. However, in spite of the confusion it may have caused, I also acknowledge that much of the hype surrounding 3D printing has also played an important role in advancing the technology.
In a bid to strengthen its presence in the additive manufacturing industry, HP has officially opened its new 3D Open Materials and Applications Lab at its Corvallis, Oregon site this week.
The 3,500 square-foot lab will be used by HP and its partners to test new, powdered raw materials for use in HP’s 3D printers, and get real-time feedback from engineers.
“In order for 3D printing to go mainstream, you need the materials piece to take off with the technology, or the ecosystem won’t flourish,” said Tim Weber, global head of 3D Materials and Advanced Applications and general manager of the Corvallis site. “We want materials companies to work with their customers and drive innovation on our platform.”
According to BizVibe, and as reported by Yahoo Finance:
3D printing (additive manufacturing) reduces dependency on the use of large factories and assembly lines, which is a bonus for businesses dealing with a lack of resources and staff. 3D printing allows for on-demand production even for high-value and high-quality items, making it easier to satisfy customer and industry demands. In the near future, 3D printing could allow supply chains to remain local while also being globally connected, and will reduce the overall time to market for new products and designs.
By 2020, more than 100,000 aeroplane parts will be 3D printed.
Do you travel by plane regularly for work or have family commitments abroad? In as little as three years, you’re going to be travelling in aeroplanes that are built using 3D printers. 3D printed plane parts will improve the efficiency and performance of planes, including making them significantly lighter in weight, as well as lead to new design features that will be simpler and more intricate than the planes we fly in today.
By 2025, 3D printers will print human organs.
Using the patient’s own DNA, it is predicted that 3D printers will create an unlimited supply of organs. The impact this will have on our healthcare is phenomenal; by being able to print human organs by using reprogrammed stem cells, we will be able to repair organs. This means that, if you or someone close to you suffers from a heart attack, or needs a transplant, then the heart can be repaired rather than replaced.