One of the largest advantages of the FDM printing processes used by Slant 3D, when contrasted with methods such as SLA/SLS, MJF, or injection molding, are our abilities to embed 3rd party hardware into the parts to create a strong and permanent assembly. This capability give the assembly longer life and reduces production costs because there is no secondary assembly and fasteners that can fail.
Embedding bearings, electronics, LED's, motors, fasteners, and in the past beads in a baby rattle, are a common option for production 3D printed parts. But it does often require rethinking of the design of the part in order to accommodate the addition of parts during the process. After all we are literally growing a part around another part.
The way the 3rd party parts are added is by pausing the process at key locations. Slant 3D technicians will then place the hardware into the parts and the process will continue to finish encasing the 3rd party hardware.
This can only be done with FDM 3D Printing. Other processes such as SLS or MFJ cannot allow for the addition of new hardware, not only because they can't really pause without potentially disturbing the print, but during the process the entire build volume is filled with the printing material so there is no way to insert hardware without disturbing the print and making it unusable. FDM does not have this problem
Selecting a location for the piece to be added
FDM production printing builds the part 1 layer at a time by using a nozzle extruding hot plastic. This requires that any part be capable of being added almost immediately prior to when it would be encased in plastic
While this process of addition is generally determined and engineered by Slant 3D, it is useful to understand in the context as it can help with the design of the cavity that the part will be placed in. Things to consider include clearance of the nozzle and how the part will lay as it is being buried.
Below are some common profiles and when, relative to the layering, the part would be added.
There is a great deal of variability in the capabilities of engineering production 3D printed parts to have embedded hardware. So it is ideal if you include Slant 3D in your design process as early as possible. Our engineers can guide you through the design and make suggestions to the optimize the design for the process.
Feel fee to contact us or submit the current iteration of your design and we will provide a quote and design feedback within 1 business day.
High volume 3D printing factories are able to store products digitally and produce them only when they are ordered. This digital manufacturing backend allows business to target long-tail markets without cost for additional SKU's
UnCommon Lamps is a client of Slant 3D that makes use of our digital inventory and fulfillment capabilities. They design and custom Lamps and shades to pursue ultra-niche tastes and provide influencers with branded merchandise that is something other than T-Shirts and Mugs.
How it works is Uncommon will receive and license artwork. They then use their processes and designers to integrate that artwork onto 3D models of lampshades. Once the design is complete they send the files to Slant 3D for integration into the 3D printing farm. Once an order comes in it is forwarded to the farm and the lamp is produced and shipped within 1-2 days. Uncommon is essentially the equivalent of an app developer. But instead of making apps they are making 3D model files. They have no expenses on production until an order it placed. At that point they essentially a receive a royalty for each sale.
This capability to manufacture a part perfectly on demand creates a huge opportunity for brands, creators, and engineering companies. It allows them perfectly match and scale with demand with no significant capital outlay.
Don't Make Everything Custom
While on-demand production 3D printing is a great resource for hardware designers, there are some technical pointers that any designer should take into account when creating a group of products.
There is a setup process and optimization that should occur when integrating a new 3D printed product. The best way to minimize this is only change a single feature of the product between SKU's. Or even better, create a basic foundation that designs can be imprinted on.
In the case of Uncommon Lamps. They use the same size lampshade and base for every shade. They only change the imprinted design. This ensures that every new design can be produced without changing the production parameters. So each new lamp does not have to be prototyped and there is now change in per-unit cost between individual designs.
Interested in having your products manufactured with production 3D printing? Submit your design for quoting to Slant 3D. One of our sales engineers will get you a quote within 1 business day.
Additive manufacturing, the ultimate child of the ‘80s, has finally proven itself ready for grown up, high-volume work. We delve into how that happened and where it will take the greater manufacturing industry.
Since I started covering the 3D printing industry in 2015, even the most eccentric new developments commanded my full attention. OK, especially the eccentric ones. Battle armor for a cat? Definitely writing about that. Oh, cosmonauts bioprinted a mouse's thyroid, you say? Hold all my calls. And don't even get me started on Siemens' 3D-printing robot spiders.
In the past, I didn’t particularly care if it advanced beyond novelty uses and sensational-but-impractical advances. It was a young technology, a toddler compared to manufacturing's mature, reliable workhorses: milling, casting, injecting molding. And kids will be kids, right?
Full of wonder and mystery, it represented pure potential. Sometimes it was used to make pancakes that looked like astronauts; later, parts for the International Space Station.
"If you can dream it, you can make it." That's how we've been trained to think about the future of 3D printing. At some point these emerging technologies, they have to grow up. They have to, you know, emerge. And after seeing maybe one too many adorable uses, (although still really love the Parisian style homes for hermit crabs), yeah, it's time for 3D printing to live up to its true capabilities.
It's time to shout: Move out of the lab, 3D printing. Find a real job. Change the dang world, why doncha'?
When exactly would this thirtysomething grow up?
For the past six months I've been immersed in answering that question, asking those closest to the technology when that might be. Because this is a story about a technology known for speeding things up, I'll bypass the unknown and first tell you it's this year. (It was in the headline after all.) Full maturity, fully emerged and for the right applications, wholly indispensable. That's the state of the 3D printing in 2019.
Permanent Fixture on the Factory Floor
Visit a 3D print lab, or a booth at a trades show, and you'll see a lot of 3D-printed superheroes and wacky brightly colored creatures. The idea is to show off a machine's knack for nailing details and material and garner passerby's attention. A "look-what-I-can-do" sort of thing. At some point, children, and anthropomorphized technology, must move out of the basement and get a real job. And the factory has proved to be additive manufacturing’s best setting, specifically for making tools, fixtures and jigs.
Not sexy, but it's a living.
"We started seeing the possibilities and what the advantages would be in the late '80s," explains Chuck Hull, one of the Fathers of 3D Printing, referring to how manufacturers could use 3D printing on the production floor.
He invented stereolithography (SLA) in the early 1980s after his boss told him not to spend company time on the hypothetical process of building a part layer by layer (by curing a special resin with light attached to an X-Y plotter).
Hull didn’t spend much time thinking about possibilities back then. He just wanted to cut down on the six-week wait time for designers from drawing a part to having a prototype in hand. By the end of the decade, the company he co-founded, and of which he is currently CTO, 3D Systems, was making investment casting patterns for foundries.
"We could make these patterns at least in enough volume for foundries to do short run production," Hull recalls. He says it was mainly for fixtures and tooling and went into factories.
Thirty years later, this appears to be the most approachable application, as every manufacturer understands the need for the right tooling, jigs and fixtures. And the ROI is nearly as easy to comprehend.
With the Ultimaker 2+ and Ultimaker 3 3D printers, which use fused filament fabrication (FFF), Volkswagen estimated it saved $377,000 by printing fixtures and tools at its Portugal plant in 2017.
"It used to be if they wanted one of these parts, it would cost $200 to get the part, and it would take a couple of weeks," says John Kawola, Ultimaker's North American president. "Now they can print it in a couple hours and cost $20."
Kawola calls the move going from "the carpet to the concrete."
Jabil, which has 42 million square feet of manufacturing space across 120 sites, relies heavily on the additive process to speed up its workholding innovation. It also has an impressive innovation lab in San Jose, Calif., replete with all those aforementioned colorful prints, along with actual manufacturing tools such as for sneaker insoles.
"I can’t think of an application where we don't use 3D printing," says John Dulchinos, Jabil's VP of Digital Manufacturing. "All of our factories have some 3D printing capability in them for fixtures, jigs and tooling."
At its Auburn Hills plant in Michigan, Jabil says it has saved 35% on tooling costs and 80% on delivery time by 3D printing tools and fixtures.
The speed to solve problems on the plant floor invariably leads to higher efficiency, too.
One notable example Dulchinos cites is regarding workholding that testers would place a certain electronic medical device in. Kaizen practices identified a quality issue where the tester's finger could cover a circuit and short it out.
"That day the engineer downloaded it into CAD, put in the ribs, and by the end of the day, we had an updated fixture in place that solved that problem," Dulchinos says.
Honeywell Federal Manufacturing & Technologies perhaps has the most obscene savings. As of FY 2018, they have printed more than 60,000 tooling fixtures for product testing and calculated $125 million in cost avoidance. Its customer is the Department of Energy’s Kansas City National Security Campus, which makes non-nuclear components for national defense systems.
"Jigs and fixtures are low-hanging fruit," says David McMindes, Honeywell FM&T CTO. "It's a very nice market for making a lot of small high precision pieces. [We] don't make thousand anything—in hundreds or less— so additive fits here."
Cranking Up the Volume
If maturity means just getting and being good at a job, I personally would have been very mature at 16…and I most certainly was not. It's not enough for 3D printing, which, again, has the limitless potential to make anything out of any material, to settle as an assistant for older manufacturing techniques like machining.
Moving up and accruing more responsibility takes time, trust and experience.
That's exactly what has happened as HP, Carbon, EOS and Desktop Metal have set out to disrupt the economic expectations of large-scale additive applications. Desktop, which claims with its Production System to have the fastest metal printer in the world (up to 12,0000 cm³/hr) recently received $160 million (led by Koch Industries) to reach $483 million total in venture capital. The build size is also huge: 750 x 330 x 250 mm. It's expected out this year and by the crowds huddled around it at IMTS 2018, the industry can't wait.
"All of these things have moved the bar in terms of what the breakeven point is between 3D printing and traditional manufacturing," Dulchinos says. "Now we have applications in the tens of thousands and in some cases hundreds of thousands."
While countless companies are pushing towards high volume, the progenitor of it all, 3D Systems, has spurred the highest volume application with its SLA process. They created an automated solution for Align Technologies, makers of Invisalign clear aligners, to produce more than 350,000 unique (several for each patient) aligners— per day! The 3D printing process is used to create a mold for each thermoform aligner.
"The scale is the biggest volume application 3D printing has been involved in," Dulchinos notes. "It's very impressive."
Align surely agree, as its customer base has expanded 600% in less than a decade, and they expect to grow in China by up to 20% a year.
"They figured out there is a phenomenal need: no one likes braces and wire," explains 3D Systems CEO Vyomesh Joshi, an excitable figure who I chatted with at IMTS. While Hull is down-to-earth, even casual, about his creation, Joshi, who once ran HP's entire 2D printing business, is exploding with palpable energy, charged by what's building in the industry.
But it would be folly to confuse Joshi's unbridled excitement with typical emerging tech hype. He is amped up over some fairly boring, but incredibly vital, reasons. He speaks of improving quality and reliability, and most of all workflows for each specific application.
The actual manufacturing of the aligners, at such a high volume and amount of customization, could obviously fall apart faster than a hockey player's teeth without the right workflow. Incorrectly matching patients to of aligners would be reason enough for many not to smile. But the workflow starts in the orthodontist's chair, and how they train these dentists to use the 3D scanners.
"You have to get the fundamentals right," Joshi says. "And figure out how you very predictably manage that in a high productivity environment."
He says 2019 will be about manufacturers finding the right workflows.
"You have the platforms now," he says. "Materials innovation, training and awareness are going to be the facing item."
Getting a Doctorate
Going into the medical profession is a sure sign of "making it." They have the most rigid standards and only the most mature would ever want to deal with: FDA oversight, threats of malpractice, and constantly helping people even if they don’t like them. No thanks.
But this is where additive will perhaps excel the most in the long term. It's made itself known in the public eye, with amazing stories such as Hailey's Dawson's, a girl who, while wearing 3D-printed hand prosthesis, threw out the first pitch at every Major League ballpark, including a World Series game.
I'm all for bottling up feelings, but this kid's story always makes me want to ugly cry. Her struggle wasn't life-threatening, but the awareness she catalyzed will help generations of kids who couldn’t afford traditional prosthetics lead more active lives.
And helping people seems a much more practical use of 3D printing than hermit crab mansions. Medical manufacturers are taking notice.
Ten percent of medical devices will be 3d printed, Joshi estimates.
"We’ve reached critical mass," he says. "I think you're going to find a lot more Aligns in the next ten years. Align has a $23 billion market cap."
It's driven by the need for customization, as everyone's body is somewhat different.
"Nobody would make aligners without the 3D printing process," Dulchinos says. "Once 3D printing has proven itself, an industry almost 100% switches over to 3D printing in a very short amount time."
The hearing aid industry has seen a nearly 100% transformation to 3D printing.
And it won’t be long before actual organs are 3D printed on a regular basis, from lungs to kidneys. Try that on a CNC machine.
Hull, as a good father is wont to do, refuses to let 3D printing get a big head even in this amazing advanced use case
"I'm also familiar with how much work it is to go from this concept to making them happen," Hull says. "So there's lots of research, lots of effort to be done still before a lot of these miraculous things happen."
Owning (Virtual) Real Estate
3D printing miracles don’t happen overnight. That much is true, but they can happen in two.
When a critical part on aircraft in Europe went down, Fast Radius, a company at the forefront of additive on-demand services, came to the rescue.
"Normally this part took 48 days to fabricate," Fast Radius CEO Lou Rassey says. "We made it and delivered it in 48 hours. "
Fast Radius formed just off the UPS airstrip in Louisville in 2015. Sample parts and prototypes would roll off the production line and almost directly onto an airplane for delivery. The recent opening of its Chicago facility last August signals its intention to disrupt the supply chain even more.
Using HP's Multi Jet Fusion printer and Carbon's M1, both top-tier in speed and quality, the parts created can meet manufacturing's need and Fast Radius' cloud-based solution has become a virtual warehouse for industrial manufacturers seeking leaner operations.
"The rule of thumb is that the cost of storing a part is 25% of its cost.," Rassey says. "Think of product companies that need to store parts for a decade or more. The cost of storage far exceeds cost of making part."
Rassey says once industrial equipment manufacturer has 3,000 parts in its database for spare tractor parts.
"They can make one of these and not need to make 20," Rassey says. "It's exactly what they need when it's needed."
Fast Radius has built an operating system to ensure every piece of the PLC pie is accounted for virtually, including the design, build instructions, support, material formulation, materials, monitoring, environment, post-processing, metrology and quality control.
This will ensure "the part we made today is same five years ten years from now," Rassey explains.
Taking over real estate, even if it's virtual. That's adulting of the highest order.
But still, the reason machining and injection molding have never sweated additive manufacturing before is because of how difficult it is to print any part, not just a liver or spleen.
"There is a misperception in the industry that I can buy a 3D printing machine, plug it into the wall and get a good part out just like I could with a 2D paper printer," Rassey says. "For the industrial parts we're talking about, they're much more sophisticated. There is a workflow before the machine and after the machine with hundreds of variables that need to be dialed in and controlled to make sure you're getting an industrial-grade part reliably and repeatably."
Fast Radius has built an operating system to ensure every piece of the PLC pie is accounted for virtually, including the design, build instructions, support, material formulation, materials, monitoring, environment, post-processing, metrology and quality control.
This will ensure "the part we made today is same five years ten years from now," Rassey explains.
Using Carbon’s brand new L1 printer, sports equipment manufacturer Riddell made form-fitting helmet inserts, comprising more than 140,000 individual struts, which several NFL teams tested them during the 2018 season. “Our platform enables companies like Riddell to make products that were never thought possible,” says Carbon CEO and Co-Founder Joseph DeSimone.
For the applications previously mentioned, additive manufacturing is really a no-brainer. For it to truly be considered the driver of the digital transformation, (a tall task for a thirtysomething), the technology must move beyond niche use cases and huge companies.
To do that, it need an experienced mentor, a wealthy patron if you will. It has that in General Electric, and its three-year-old business, GE Additive, which offers machines that harness electron beam melting and laser additive technology.
GE famously began mass printing the metal fuel nozzle for GE Aviation's LEAP engine in 2015. It really put metal 3D printing on the map, allowing what was 20 parts to become one, removing unnecessary tooling for those parts and eliminating the welding and brazing process.
Aviation is as stringent, maybe more than medical, and GE has mastered how and where to use additive. Now it wants to give moms and pops, or small and medium enterprises, the same chance to innovate metal printing in their respective fields.
"I think many customers still view this as a research tool, or as a tool for R&D and universities—it's not," says Christine Furstoss, CTO of GE Additive.
Still, it has taken a high degree of skill and manufacturing prowess to get consistent, reliable parts, non-negotiable aspects of manufacturing.
"We're working with electron beams and lasers, these are high heat sources," explains Furstoss, a metallurgist by trade. "Things sometimes distort, they change, they move. Fine tuning that has become a very iterative process."
In May, the company is rolling out the preparation workflow suite to make these metal 3D printing less esoteric and more approachable, and thus adoptable.
"Large understand how to slice up design [to get it ready to print]," Furstoss explains. "Small and medium, might run with a staff of ten engineers and we want to make it easier for them."
Not knowing the ins and outs of metal has made it so the average development time is six months, taking dozens of iterations, Furstoss says. This can all be done digitally now, with GeonX Virfac 3D printing simulation software, which will predict defects, distortion and stresses.
Using this tool, Furstoss believes that can be brought "down to single digits of trials and down to a month to two weeks—a factor of three to four reduction."
Furstoss distills it even further.
"It's all about productivity," she says. "The whole industry evolved. Additive has not traditionally been a fast process, but now with these new advances, productivity increases are one and half to two times what they were before."
And in the end, this isn’t about one technology maturing and growing up. It's just another example of continuous improvement methods that some companies have recognized to reap great success and higher productivity. It's not the only answer, but it's time to have adult conversations about it, and not get wrapped in the silly novelties and one-offs.
"You've got to think about the sweet spot of the technology," Joshi concludes. "Molding is ideal if you want to do 100 million parts and it’s a known process. If it's a complex part, where yields low, and has thin walls, then you think about additive manufacturing."
Get a Quote for Production of Your Part with 3D Printing.
With the new year are coming many new changes for Slant 3D and our production additive manufacturing capabilities.. The largest of which is our expansion into a brand new facility that is bigger and better than before.
We have more than doubled our footprint with an eye on more than doubling our already impressive capacity. Slant 3D currently is one of the highest volume producers of 3D printed parts in the world. Making in excess of 10,000 3D printed parts per week. We have created a truly viable alternative to injection molding.
Production 3D printing not only saves the cost of tooling in the manufacturing of new products, but it offers more design fluidity than any other process. Our clients are able to iterate during the production process and create products that are more internally complex and strong than any other process can create.
Since our inception Slant 3D has been working to improve the standards of 3D printing of large volumes of parts. We are going to continue to do this with new supplier partnerships and internal projects for the development of materials and processes to ensure top quality results every time.
We also continue to expand the materials that we support. While clients can request any material they need for their project we currently natively support materials ranging from bio-degradable PLA to carbon-infused nylon and UL-94 rated ABS.
We are also expanding our team. Slant 3D will be expanding our production staff and engineering resources to ensure that clients have every resource available when going through the production process.
More updates will be coming in the future. But for now let's just say that we are very excited about 2019.
For years branded products have been limited to Tee-Shirts and keychains. Simple items that could be printed on with ink. But with thousands more brands and creators working to be unique in the crowded space of branded merchandise, two or three core products are not enough. Afterall how many useless tee-shirts can individuals store in the bottom drawer.
Low volume branded products need be to become more accessible. Fortunately 3D printing is now able to create basically any kind of branded product you want so that your brand can grow and distinguish itself from the noise
Lamps, Amazon Echo cases, custom products you design. High volume 3D printing services, such as Slant 3D, are able to produce these types of products for you. And just like Tee-shirts or other traditional branded products, there is no cost until the item is sold.
Brands can run limited edition preordering campaigns on original designs, building a closer fan base and source of revenue. Influencers can promote merchandise other than tee-shirts as giveaways and and promotions. This all helps youtubers, instagram influencers, corporate brands, and even the new companies getting started to establish themselves without huge investment.
All that is required to get started is an idea. Designers at Slant 3D will help you turn it into reality. Just submit you brand and concept for branded merchandise and we will work with you to put into production with 3D printing. There are no minimum orders and the products do not have to be created until they have been ordered.
Products can be created with production 3D printing that are more beautiful and original than any other. The process allows designers to create freely and not worry about the cost of manufacturing.
3D printing is often considered a second-rate manufacturing process. Something that is alright for rough prototypes but never for final products. But this idea often comes from experiences with low-grade desktop machines operated by amateurs. Professional 3D printing machines, and operators have thousands of hours of skill and validation built up to make sure that the results are consistent and high quality. Assumptions from what was observed in a garage of a friend are generally wrong when it comes to production 3D printing.
But even if they weren't, the flexibility of the process allows designers to create more freely than ever before. And the mild downsides in quality can be overcome quite readily. A prime example of this are the beautiful 3D printed table lamps created by Gantri.
Gantri is a San Francisco-based startup that is determined to bring 3D printed products into the home. And they are doing it by created phenomenally beautiful and unique lamps that are 3D printed except for the electrical components. By using 3D printing as the manufacturing method Gantri is able to to pursue the "long tail" products, which would be to expensive to produce with traditional methods for the volumes that can be sold. 3D printing lets them be ultra-niche.
But the design of the products is a beautiful example of how 3D printing does not create a "low quality" product. Especially if the product is designed specifically for additive manufacturing.
When a part is printed Gantri employees run the parts through a finishing process. And then perform final assembly. This makes sure that the parts are sleek and beautiful. Ensuring they have built product that people love.
3D printing is not some inferior manufacturing method that should be reserved for rough-outs. It is an affordable, and scalable means of manufacturing final products without the huge startup and long term costs of traditional manufacturing.
See More Beautiful 3D Printed Lamp at the Gantri Webstore.
Interested in having your product manufactured with 3D printing. Get a 3D printing quote today from Slant 3D.
Toys are a product that is is constantly changing. But the cost of the molding and traditional setups often make manufacturing toys prohibitively expensive for the lone garage inventor. Therefore most toy inventors attempt to license their ideas, but few ever succeed.
High Volume Production 3D printing offers an alternative to traditional toy manufacturing. It makes manufacturing and selling a toy as easy as making a website to sell it on. You just upload the files and then the printing factory can produce 10 or 10,000 as your sales grow. And, if you utilize the fulfillment capabilities of your 3D printing service then you never even have to pack and ship product. Slant 3D offers all of these resources. You basically just have to create a webstore, upload the 3D printing file, and watch the sales occur as all the manufacturing and fulfillment is handled by Slant 3D.
Advantages of manufacturing toys with 3D Printing
3D Printing offers several advantages to traditional manufacturing when it comes to toy design. With correct design, 3D printing could make a toy safer and cheaper to manufacture
Combine parts to be printed as a single piece.
There are very few limits on geometry when 3D printing a plastic part. This makes it possible to create very complex shapes as one single part. Which ultimately means that a toy is cheaper to assemble in production, and safer for the end user since fewer pieces, such as screws, are available to choke on.
A great example of using 3D printing to create parts that are simpler to manufacture and safer for children, are the LittleBots. Littlebots are a series of STEM robotics kits. But one of the things that makes them special is that they have very few fasteners. The LittleBots team was able to design each 3D printed piece to snap and join with others without requiring complex assembly. This has made the kits faster and easier to assemble in the classroom, but safer should younger children work with them.
Scale production with demand
Few new products ever sell a million in their first year, or even in their lifetime. But molding requires that you order thousands of units at a time. This is a very expensive option for a designer that is just launching a new product and is not sure of the demand.
Fortunately 3D printing has no minimum, and is able to scale with demand. An inventor can have a printing service produce just 10 units of an item then, when those are sold, he can grow to 100, then 1000, then 10,000. All without ever having to put down more cash than the individual cost of each item. No tooling, no inventory. Just on-demand manufacturing at any scale. But when your product is on track to sell millions then you can transfer to injection molding without worrying about the risk of the tooling.
The last advantage of 3D Printing production is there is no cost in changing the design as you grow. If you utilize injection molding then it is tens of thousands of dollars every time you tweak the product. With 3D printing that is not an issue. You can change the design as much as you want with very small fees to update it in production.
Create what was not possible before
The ability of 3D printing to free the toy designer is not often seen. Certainly it can combine assemblies, but those could still have been made with some other process, using more assembly. But 3D printing can create toys that were simply not possible before. Some pieces are just too complex to be made with other processes, period.
Great examples of this are the Gualala Gadget toys. These small complex marble towers could not be produced by any other method than 3D printing. Even if the could be broken into small enough pieces to be molded, the resulting product would be expensive and unattractive. 3D printing allows these beautiful toys to be created with basically zero startup cost.
Since production 3D printing can make any part, at any time, at any scale there is no reason to build up an inventory of a product. But this can can be taken even further. Instead of purchasing 100 units and holding them in your own warehouse, why not simply have them stored and fulfilled at the source.
Slant 3D offers assembly and fulfillment services to clients that do not want to deal with the supply chain. We will print your product, assemble and package it, and implement you into our fulfillment system, This means all you have to do is create the design and create a sellers portal on Ebay, Etsy, Amazon, or your own website. It leaves you free to design more amazing toys.
This is a great resource of a product just starting out and for designers that might not be familiar with the logistics of fulfillment.
High volume production 3D printing makes it possible to just design the 3D model of a file and immediately start production. Compared to traditional manufacturing the cost of setup is practically zero. And a designer can scale supply as needed, without having to order 1000's upfront.
This makes 3D printing essentially a manufacturing backend. Just as a server farm only delivers an app when it it downloaded, production 3D printing can deliver a toy only when it is purchased.
Toy inventors and companies now have the capability to test and expand on new ideas in a very low cost scalable way.
Interested in having your toy manufactured with 3D printing so that you can spend your time creating more toys and building a business rather than dealing with manufacturing? Get it quoted today!
Slant 3D is one of the highest capacity 3D printing farms in the entire world. We produce 5-10,000 parts per week and that number is only growing.
Our fully automated production 3D printing factory has truly changed the scale of 3D printing. It no longer costs $50 apiece to print 10 pieces. It cost $0.50 apiece to print 1000 pieces.
But it wasn't always like this. Recently our founder, Gabe Bentz, was honored with a chance to speak at a Tedx event about the the journey that led to the creation of Slant 3D.
Slant 3D was born from the necessity to have a fast and flexible means of manufacturing a niche product at scale. When we started, we did not expect 3D printing to be a viable solution, as many do, but we ended up proving ourselves wrong.
But we will let Gabe give you the low down. Enjoy.
High Volume 3D Printing allows for the affordable creation of pilot production runs of product.
Market testing and doing pilot productions of a new product is one of the most expensive parts of developing that product. Small run tooling is very expensive and must be recreated for every design change. But not doing it can result in investment in a product that will not perform well in the market.
Production 3D printing offers a solution to this problem. High capacity 3D printer farms, like Slant 3D, can produce small to mid-volume production runs of a product without any of the tooling cost. A client may order 100 high-quality parts that can market tested, then order 1000 with a slight design change and still pay only on a per-part basis, with no significant setup fees.
This capability allows startups and design firms to do large scale market testing affordably and quickly. And the affordability makes it possible to do more tests then normal. A physical product can now use AB testing the same way a website does.
Slant 3D's high production 3D printing farm has the capacity to produce more than 5-10,000 parts per week. And it supports materials ranging from low cost ABS and PLA to Carbon Fiber Nylon. These capabilities make pilot product for nearly any physical product simple and reliable.
Originally published on TeachThought
3D printing sounds like something from science fiction, but the process is similar to that of CNC machining, where billets are cut into specific shapes and products. But rather than cutting, it prints.
A 3D printer works by “printing” objects–but instead of using ink, it uses more substantive materials–plastics, metal, rubber, and the like. It scans an object–or takes an existing scan of an object–and slices it into layers it can then convert into a physical object.
The result is a product that while not as intricate, durable, or functional as the real-world equivalent, is otherwise a real thing that didn’t exist 30 seconds before you printed it.
In fact, what it is you’re actually producing depends on what is being printed: if it’s toy jewelry, rubber balls, and plastic chess pieces your after, you’re printing not an analogue of the real thing, but the real thing itself. Confused yet?
As far as how this can be used in education, it’s a matter of bringing objects out of the computer screen and into the hands of students for inspection, analysis, and other processes that can benefit from physical manipulation. In that way, 3D printers may eventually be able to bridge the gap between the physical and the digital–use a screen to find what you need, then print it into existence.