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3D printing, also commonly referred to as additive manufacturing, is a technology that has grown exponentially over the last five to ten years. It has been a favorite tool of makers and product design professionals alike. 3D printing technology allows designers to quickly, easily and efficiently design and produce a product prototype for review. While prototyping is where 3D printing is most popular and widely used, the technology is beginning to mature and find it’s way into manufacturing for end-use parts as well.
“When it was invented, 3D printing was referred to as rapid prototyping, a method for automating and reducing the labor required to create a prototype model for design validation. Since then, it has found use in a number of other applications, but the technology is still widely implemented to create visual models and functional prototypes.”
A visual model of your product lets you get a better idea of how the product will look and feel. With the rapid expansion of 3D printing materials and colors available, you have more options than ever when it comes to product design materials. Most hardware entrepreneurs start with a visual model and then move forward with a functional prototype for design validation and testing.
A functional prototype allows you to test the form, fit and functionality of your product. Testing and validating your product design with a functional prototype is highly recommended so that any potential errors can be fixed before heading into manufacturing.
The benefits of a functional prototype extend beyond your design. With a functional prototype you can also gather critical market feedback, rally financial support from venture capitalists and your community as well as file for a patent.
A major misstep that can derail your hardware startup is to skip the development of a functional prototype.
As a design moves from the concept phase to the production phase, a manufacturer might implement 3D printing for the fabrication of custom tools that aid in the production process. “This can include anything from guides for precise drilling, dies for forming or cutting raw material into a specific shape and measurement tools, like gauges, to jigs and fixtures that hold a part in place while other operations are performed.”
3D printing is a flexible tool that can be used either directly or indirectly in the creation of tooling for manufacturing. In the case of indirectly, a tool may be made by coating a 3D-printed component in rubber, which is then used to cast the tool itself.
Currently, due to the speed, quality and cost of 3D printing, “the technology is best suited for the production of specialty parts in smaller batches, rather than mass-manufactured goods. However, there is an industry shift towards expanding 3D printing technology to take a more prominent role in mass manufacturing”.
“3D printing brings some important qualities to the world of manufacturing that make it ideal for certain jobs. For instance, parts can have complex geometries impossible with traditional manufacturing processes. It is also possible to 3D print goods on demand, allowing for easy creation of custom parts.”
Because of these intrinsic benefits, businesses that need to create specialty or custom parts in shorter runs will often turn to 3D printing to manufacture their products. The benefit is that they don’t have to invest in costly tooling to mass produce goods that will only see a limited release.
Have additional questions about 3D printing or how the technology can benefit your business? Send us an email at firstname.lastname@example.org
3D Innovations is a Product Development Company – from the 3D Design to a fully functional 3D Prototype & Product.
The US Luge Team tapped 3D printing (also known as additive manufacturing) technology for the XXIII Winter Olympic Games in Pyeongchang, South Korea. Stratasys played a role in helping the US Luge Team go for gold by incorporating additive manufacturing into the sleds being used in this year’s games. However, this is not the first time that 3D printing technology has made an appearance at the Olympic Games.
From the Stratasys blog: “The US Luge Team quickly realized the immense potential for additive to gain a competitive advantage and worked with Stratasys engineers to develop an entirely new process for fabricating their composite sleds. In a matter of days, they were able to design, print, and test prototype sled designs, which would normally take weeks or months using their existing processes. This allowed the team to drastically reduce the design cycle, which in turn, allowed for continuous improvement to create the fastest sled possible.”
One of the main competitive advantages of additive manufacturing is its ability for customization. The team saw the value in this, and had sleds developed that fit each of their bodies. “The design freedom from additive manufacturing enabled the team to create customized sleds that were tailored to each athlete’s body, which in turn, drastically improved comfort, ergonomics and most importantly, final performance. It’s really exciting to see how this technology will push the limits of human endurance for Olympic athletes.”
3D printed apparel was in the spotlight during the 2016 Olympic Games in Rio. These apparel pieces were designed to be lightweight, reduce the amount of wasted energy given off by the athletes and enhance overall performance through custom designs. Examples of where 3D printing technology was used:
BMW also made a splash at the 2016 Rio Olympics with its ability to track Olympic swimmers in the pool. The renowned car company, stepped off the road a dove into the pool with its LED driven motion system.
“The LED trackers will attach to a swimmers’ wrists, shoulders, hips, knees, ankles and toes through a 3D printed mounting system. The stroke and kick motion received by the coaching staff is an incredibly valuable performance tool as the data will aid in breaking down specific limb and joint angles to optimize performance.” (Sport Techie)
During the 2012 Olympics in London, customized gear through 3D printing was just starting out.
“The British team was noted for wearing customized helmets, bespoke to each Olympic cyclist. Each of these helmets was based upon a 3D scan of the rider’s head and then 3D printed to verify that the fit of the final helmet would be perfect.” (Stratasys Blog)
Renowned swimming company, Speedo, used 3D printing to create goggles that have transparent parts and rubber-like parts printed in a single step. Optimizing design and streamlining the entire design process are just two of the major advantages of additive manufacturing.
As 3D printing technology continues to grow and advance, we expect to see athletes using it more and more to enhance performance and gain a competitive advantage.
3D Innovations is a Product Development Company – from the 3D Design to a fully functional 3D Prototype & Product.
Less than ten years ago, the hype surround 3D printing technology was at an all-time high. The idea of each household having one led the news cycle. In hindsight, it is clear that this level of hype and the fever-pitch level of excitement was not sustainable or even realistic. There were far too many barriers for the technology to overcome, both technological and usability, before it could be in “everyone’s house”.
Over time the hype slowly diminished, and the technology began to steadily mature. Firms focused on 3D printing began to collaborate, merge and narrow their focus. Today, the future of the technology looks considerably different than it once did. Below are three areas of growth for 3D printing technology and a sign of where the technology is heading.
3D printing is making its way onto the manufacturing floor. A recent survey from Jabil, found that “81% of manufacturers are using 3D printing technology today”. It seems that additive manufacturing has found its niche in mainstream manufacturing.
The fact that 3D printing has become so prominent with manufacturers, shows that companies are looking for ways to incorporate this technology into their product designs. Companies are no longer standing on the sidelines waiting to see how the technology matures, but are instead harnessing its design benefits and finding ways to use it themselves.
Where once the only material available was plastic, today there is an ever-increasing range of materials to choose from. The most prominent is still plastic (PLA, ABS, PET, PVA, Nylon) however, metals (steel, gold, silver, titanium), ceramic, and wood options are also quickly coming to market.
New and improved metal 3D printing will make a splash this year. “Metal 3D printing will become more and more of a necessity when solving specific manufacturing challenges and creating customized, complex end-use products.” (Engineering.com) We expect to see the range of materials available to continue to grow as the technology continues to advance.
Companies, such as GE, are making great strides in advancing 3D printing and its ability to produce end-use products. However, before 3D printing can really take off in terms of end-use production, there are some major barriers that need to be addressed. “Material properties, high costs, complexity, time to a usable part and location of a production-capable machine relegated to an additive manufacturing lab are significant barriers to the use of additive manufacturing in production.” (3D Printing Industry)
Products produced for consumers with 3D printing will be required to meet the same material properties (strength, surface finish, color) that traditional manufacturing has mastered. While it is most likely that end-use production won’t come to fruition in 2018, we can expect to see more companies finding ways of making this happen with one-off parts.
It is clear that additive manufacturing is here to stay. As it is now, this technology continues to excel with its prototyping capabilities and is a great compliment to traditional manufacturing.
3D Innovations is a Product Development Company – from the 3D Design to a fully functional 3D Prototype & Product.
As news of the latest advancement in experimental 3D printing of tissue and organ regeneration gains attention, it would be easy to believe that 3D printing in the medical field only happens in the lab. However, new equipment and devices are being 3D printed now and in real world settings.
After years of feasibility studies, 3D printing for medical equipment and prostheses is becoming reality.
Reports have continually shown that 3D printed devices are both practical and less expensive than traditional options. For example, a University of South Florida study[i] related to prosthesis molds found that “Owing to the similarity of the 3D printed materials and the traditional materials, the 3D printed molds are easily integrated into current processing procedures.” And a UK study[ii] observed that 3D printed sensors added onto a prosthesis could help medical professionals increase comfort levels for the prosthesis wearer. In addition to better comfort, these sensors improved overall patient care.
Alan Louie, research director for IDC’s Health Insights Life Sciences Practice, which helps investors with business decisions, has this to say about 3D printing technology: “There is a lot of investment in 3D printing at the moment because there are some very clear ways that the technology can be used to improve existing processes.”[iii]
Louie sees 3D printers as a way to revolutionize medicine. “There are areas where you can determine that using a 3D-printed replacement for the current methodology can actually save money, improve healing, reduce pain, and improve overall patient care—all positive driving factors that are helping the industry move forward.”
An example of how 3D printing medical tools reduces costs is with this bone drill that required an update to better suit the needs of both the patient and surgeon. The existing drill needed a redesign that would consistently keep its temperature low in order to avoid having to pause the procedure to let the tool cool down. The only solution available prior to the 3D printed upgrade was to pause drilling. However, with the assistance of 3D printing technology, a new drill was made using a biocompatible material “designed with their own integrated cooling ducts”. This new drill could be used for longer periods of time during a surgery. “The tests of the 3D printed bone drill determined that its use had reduced the temperature produced by drilling up to 70%”. This upgraded device has shortened the time required for surgery, saving both time and money.
The design process for medical devices and tools begins with patients, doctors, nurses, and other medical staff. They are at the forefront of the industry and keenly aware of the challenges, limitations and frustrations with existing devices. From their daily observations, efficient product re-designs and new medical device designs can, and will, transform the entire medical support field. These innovative ideas create an opportunity to improve care and support, while reducing costs.
3D printing is quickly reshaping the medical device landscape and creating more efficient tools for the medical community. Rapid prototyping brings to life product ideas that support patient care while keeping innovation at the forefront of design.
[i] Jairo Chimento, M. Jason Highsmith, Nathan Crane, (2011) “3D printed tooling for thermoforming of medical devices”, Rapid Prototyping Journal, Vol. 17 Issue: 5, pp.387-392
[ii] Development and validation of a 3D-printed interfacial stress sensor for prosthetic applications. Laszczak, P. et al. Medical Engineering and Physics, Volume 37, Issue 1, 132 – 137.
About the Guest Author:
Becky Wilson writes about the applications of additive manufacturing and 3D printing, highlighting the heart in the tech. Known as Writing by Becky, she lives in Nova Scotia with her family, including two cat overlords, along with various tech gadgets – maybe adding a 3D food printer someday. You can connect with Becky on Twitter (@WritingByBecky).
Our 3D Innovations team is always on the lookout for individuals with exceptional writing skills and an interest in hardware startups, 3D printing and/or product design. If this sounds like you, we would love to have you as a guest contributor for our blog!
Send us an e-mail, email@example.com, with the following information:
After we receive your e-mail, we will be in touch to narrow down a blog post topic with you, discuss the length of your piece and schedule a posting date. If you have a blog topic idea that does not fit in the hardware startups, 3D printing or product design categories, but in a similar category, we would be open to discussing this with you to get clarification and check that it would be a good fit for our audience.
We are a Product Development company located in Honolulu, Hawaii. 3D Innovations provides Product Development services assisting companies with all stages of development. Our suite of services includes product design/engineering, prototyping, 3D Printing, additive manufacturing, supply chain management, packaging design, and production manufacturing sourcing. Using our experience in Design For Manufacturing processes, we are able to develop custom solutions for clients that accelerate their commercialization activities.
We support various Commercial and Government industries that include Industrial, Military, Construction, Medical, Manufacturing, Automotive, R&D, Inventors, and many more. We provide 3D Printing and Rapid Prototyping services to quickly validate designs and make improvements for production manufacturing. Experience the benefits of 3D Design and see how 3D Innovations can develop innovative solutions to engineer, design, and manufacture your product.
3D printing, also known as additive manufacturing, is one of the most buzzed about technologies of the past five years. The hype around the technology has certainly diminished since its fever pitch in 2014, in which Forbes published, “3-D Printing Is About To Change The World Forever”—and now the genuine potential of the technology is emerging. Certain industries have taken to the technology quicker than others and have been able to successfully implement it into their supply chain. Below we discuss three areas in which 3D printing technology really shines.
It’s no secret that customers are evolving and their preferences are changing. Where once customers were happy with the “Big Box” store approach, this mentality is starting to shift and customers are looking for more customizable products that meet their specific needs and preferences.
Customization is one of the major benefits of 3D printing. Companies are able to print one-of-a-kind products. One industry that has had great success implementing 3D printing for customization purposes is the designing of prosthetics. Companies and patients have found that they are able to create custom prosthetics at a fraction of the cost with the use of 3D modeling and 3D printing technology.
Like anything, traditional manufacturing has its limitations. Until recently certain designs could not be manufactured simply because they were deemed “not possible” or the expense was too exorbitant to be justifiable. However, 3D printing allows for greater design flexibility.
Biomimicry has grown in popularity among product designers and architects, however, these designs are usually manufacturing headaches. “The purpose of biomimicry is to learn from the way nature has optimized structures, designs and objects for maximum performance so that we can use them to create better solutions.” The curvature and delicate nature of the designs are very organic, which poses a challenge when it comes time for production. 3D printing has enabled designers to step out of the traditional way of designing and focus more on what makes the most sense for the product.
High variability, low demand products cannot be effectively served by traditional manufacturing methods. If you are a collector of any type of vintage item, then you understand the issues that arise if something breaks or you need to restore a piece. “3-D printing readily solves the challenge of manufacturing rare replacement parts, while also overcoming the obstacle of distribution: a plant exists wherever a printer does.”
Certain components cannot simply be bought, and this is where 3D printing comes into play. With a 3D digital design and a 3D printer, a piece that once was impossible to find can now be produced and put into use in record time.
3D printing technology has found its place in the business landscape. With the continued developments of the technology, it is poised to continue to grow and become even more valuable to businesses.
Our second ‘3D Printing and CAD Design using LEGO’ Camp of the summer is a little over a month away and in honor of it, we wanted to share ways in which 3D printing technology can be incorporated in the classroom. By now, people understand the practical uses of the technology in a business setting and the benefits of designing and prototyping with 3D printing, but what might be a bit more abstract is how this technology can transform a variety of subjects in the classroom for both students and teachers.
Many K-12 schools and higher education institutions are adding 3D printers to their classrooms and incorporating the technology into lesson plans. 3D printing allows students and teachers to explore, invent and innovate together while promoting a growth mindset. In every step of the 3D printing process students must push the boundaries of traditional thinking and create something entirely new. Critical analysis, critical thinking, design, sketching, prototyping with physical objects, creating a prototype in a CAD software and creating the correct file formats to transfer the finished file into the 3D printing slicer software are the skills students develop and hone when learning to use 3D printing technology.
As noted by the University of Pittsburgh, “3D printing empowers more authentic exploration of objects that may not be readily available. For example, students can print and handle objects such as fossils, prototypes of extinct animals, prosthetics, hardware, buildings and architecture, drones and much more. Students can improve physical objects by 3D scanning the item, uploading the file in a CAD program and tweaking certain aspects to re-invent an object. Flexible filament or filament infused with conductive metals, magnetic metals, or wood allows for more specific applications for certain projects. The possibilities are endless.”
These are just a few ways in which 3D printing can bring hands-on learning to traditional subjects. If you are interested in learning more about 3D printing in the classroom and how to get started, we are happy to help. Our 3D Academy can get you up to speed on 3D printing technology and help devise a lesson plan to integrate the technology.
If you have further question or would like to learn more about 3D printing in the classroom, please send us an email, firstname.lastname@example.org or give us a call at 1.808.722.8667.
Over the last five years hardware startups have found it easier to find their footing, reach customers and develop a product without “breaking the bank”. The transforming business landscape for hardware startups can be attributed to advances in technology. Where it once took thousands of dollars for a digital design and prototyping alone, today it can be completed at a fraction of the cost. Below are three technologies that have increased in usability and popularity, and in doing so, transformed the way startups are built.
3D digital designs are allowing startups the freedom of testing and design validation before building a prototype. While designing a product is a trial-and-error process, digital designs allow you to quickly navigate this stage and settle on a final design that meets both your customers’ needs and manufacturing requirements.
Digital designs speed up the product design process, and ensure a smooth transition into the manufacturing phase. With DFM (design for manufacturability) in mind you can design a product that will increase your manufacturing efficiency while saving you both time and money.
No list related to technology would be complete without the mention of 3D printing. This technology is the “golden boy” of engineering and product design at the moment—and rightfully so. This single technology has shifted supply chains, disrupted the traditional manufacturing process and has allowed startups the freedom of iteration at a reasonable cost.
What exactly is 3D printing? It is defined as, “the action or process of making a physical object from a three-dimensional digital model, typically by laying down many thin layers of a material in succession.” As the material selection continues to expand, so does the application use for additive manufacturing. 3D printing at one time was used specifically for prototyping, and while this is still where it is the most popular, it is moving into the manufacturing domain with short-run production.
Starting a business once required bootstrapping or venture capital investment; however, crowdfunding has changed all of this. A well designed product, coupled with a carefully curated crowdfunding campaign, can garnish unprecedented funding to launch your business. Kickstarter and Indiegogo have helped launch some of the most innovative startups.
Crowdfunding might not be the right fit for every startup or every product, but if your idea is a nice fit for this type of funding support, you could be looking at significant help in manufacturing and commercializing your product idea.
The cost prohibitive nature of starting a business has been on the decline and now more than ever, people with an innovative idea can make their product dream a reality.
“When you find an idea that you just can’t stop thinking about, that’s probably a good one to pursue.” — Josh James, Omniture CEO and co-founder
We have gathered the top four, most shared, product development and 3D printing articles from our blog and put them here, in one place, for easy access and reference. These articles touch on everything from finding the right product development partner to a glimpse into the future of additive manufacturing. Enjoy!
Additive Manufacturing, commonly known as 3D printing, is ripe for innovation in 2017. 3D printing technology has been evolving at a rapid rate since it caught the attention of makers and the public alike in 2009. Though the technology dates back to 1986, it wasn’t readily accessible to the public until 2009, when the first commercial 3D printer kit was offered for sale. Since 2009, additive manufacturing technology has transformed in itself, while simultaneously transforming the business and manufacturing landscapes as well. Below are three ways that additive manufacturing will continue to alter the manufacturing industry in the coming year.
The rapid growth in 3D printing technology and its popularity has manufacturers worried that at-home 3D printers may one day soon replace traditional manufacturing. From our experience though, a maker or entrepreneur is going to benefit the most from a convergence of these two manufacturing methods.
Both technologies have their place in the manufacturing landscape. Where one technology falters, the other excels. When designing your product, keep in mind that using both technologies during product development might be just what you need.
Product development is a fluid process that is not truly complete until there is a manufactured product in your hands. However, the process of taking a great idea and translating that idea into a physical product is not as predictable as you might think. Here we highlight three common product development myths…
Product development is a collaborative endeavor, and you want to have a team that is able to clearly communicate, develop and deliver your product on time and on budget.
Here we discuss five key questions that you need to ask while searching for the right product development company.
Do you have product development questions? We would love to help, send them our way at email@example.com
Last week, 3D Academy had the privilege of participating in two student STEM enrichment camps. Below are short overviews of the camps and links to photos on our Facebook page from each event.
“Education is the most powerful weapon which you can use to change the world.”
Hosted by the Maui Economic Development Board & Women in Technology, the goal of Excite Camp is to excite, educate as well as expose middle school students to Science, Technology, Engineering and Math (STEM) careers. Excite Camp focuses on giving under-represented demographics priorities for their camps, such as: Native Hawaiians, girls and other minorities. This year we focused on design, 3D modeling and 3D printing with camp participants.
We partnered with Play-Well TEKnologies for this hands-on design-focused engineering camp. Students were introduced to CAD design, Spatial Environments and 3D printing in order to create their own custom and one-of-a-kind LEGO component.
3D Academy, a Division of 3D Innovations, specializes in developing and integrating industry technologies with STEM Education. 3D Academy promotes Science, Technology, Engineering, and Math (STEM) education programs that integrate 3D Technology into K–12, as well as university classrooms. Using hands-on and project-based learning strategies, we have been effective in providing students with opportunities to excel in the areas of STEM and to integrate industry applications into their learning experiences. Learn more about 3D Academy on our website.
If you have an upcoming camp and would like to inquire about the educational resources and hands-on activities we provide, please send an e-mail to firstname.lastname@example.org