WEBINAR: Rapid Prototyping for Accelerated Medical Device Development

In our next webinar, we’re taking a look at medical device development. Specifically, how using rapid manufacturing can accelerate prototyping and get you to FDA submissions more quickly.

The presentation will cover:

  • Reaching validation and FDA  510K approval fast
  • Reducing costs with rapid manufacturing
  • Selecting materials for 3D printing, CNC machining and injection molding

And come prepared with questions! At the end we’ll have an open Q&A session.

TITLE: How Rapid Prototyping Accelerates Medical Device Development
DATE: Thursday, July 28 at 1 p.m. CDT
REGISTER: Click here to sign up

Already have plans that day? That’s okay. We’ll send you an on-demand version that can be watched at any time. Also, feel free to forward this invite to your colleagues.

On-Demand Webinar: Designing for Stereolithography

Last week we kicked off our webinar series on designing for 3D printing. The first session focused on stereolithography (SL) and it’s available on-demand here.

Key Takeaways

  • Properties of commonly used stereolithography materials
  • The unique benefits of stereolithography such as feature resolution and recommended applications
  • General design tips for overhangs, support structures, finishes and more

Top Questions

Can you describe the resolution of SL parts in terms of microns?
There are 25 microns per 0.001 in. Normal resolution builds in 100 micron layers, high-resolution builds in 50 micron layers and micro-resolution builds in 25 micron layers.

The minimum X/Y resolution would be 250 microns in normal resolution, 100 microns in high-resolution and 50 microns in micro-resolution.

What’s the cost difference between normal- and high-resolution SL parts?
There’s no set number since it depends on the part’s geometry. But for parts under 1 in., customers will see a relatively low cost difference between normal- and high-resolutions.

Height is a primary driver of cost so once you start approaching 2 to 3 in. build heights it can start to differentiate more dramatically. But, with our instant quoting process it’s easy to compare these costs simply by clicking back and forth and comparing resolutions.

What’s the rule of thumb for wall thickness in hollow structures?
We try to stay above 0.03 in. and a general rule is 0.01 in. wall thickness per inch of the part. For example, a part that’s 8 in., you’ll want to shoot for 0.08 in. wall thickness for a well-supported hollow part.

More 3D printing webinars on the way…
The next webinar on our calendar will be on accelerating medical device development with rapid prototyping, which you can sign up for here. And, in the coming months we’ll have more 3D printing webinars that will focus on designing for selective laser sintering as well as direct metal laser sintering.

WEBINAR: Designing for Stereolithography

3D printing deserves an in-depth look. Whether it’s determining the right 3D printing process, selecting the right material or understanding design considerations, there’s a lot to think about.

Eric Utley, 3D printing application engineer

We’re kicking off a series of 3D printing webinars with each session focusing on one process so we can really take a close look at what makes each process unique.

Eric Utley, 3D printing application engineer at Proto Labs, will share:

  • An overview of stereolithography
  • Material options and recommended applications
  • Design tips to improve surface finish, reduce cost and other benefits

After the presentation, you’ll be able to ask Eric any questions you have in an open Q&A session.

TITLE: Designing for 3D Printing: Stereolithography
DATE: June 23 at 1 p.m. CDT
REGISTER: Click here to register and attend

Even if you can’t make it, you can still register and we’ll send you a recording and you can watch it on-demand.Also, feel free to forward this invite to your colleagues.

EYE ON INNOVATION: 3D Printer Boldly Goes Where No Printer Has Gone Before

3D printing continues to break the bonds of traditional manufacturing methods. Now, a private company collaborating with NASA is breaking Earth’s bonds by taking 3D printing into space.

In April, at the International Space Station, NASA successfully tested a zero-gravity 3D printer that’s been in development for several years from California-based Made in Space.

Photo Courtesy: NASA

NASA found that the specially designed, zero-gravity 3D printer could in fact manufacture parts and tools on-site and on-demand. As NASA points out on its website, this on-site, in-orbit manufacturing ability would be a huge benefit for long-term, deep-space missions with restrictions on weight and room for cargo. The tests on board the space station included successfully printing items such as wrenches. So far, more than 25 objects have been produced.

As Gizmag.com reports, the zero-gravity printer is an extrusion printer that, like other 3D printers, builds up layers of hot liquefied ABS thermoplastic to create an object. However, a number of factors had to be taken into consideration for designing it to work in a zero-gravity environment. Components that might previously have been partly held in place by gravity had to be redesigned, thermal processes had to be recalculated and the layering process had to be reconsidered. The printing functions were then all integrated into what is called the Microgravity Science Glovebox (MSG), part of an overall platform dubbed the Additive Manufacturing Facility (AMF).

Photo Courtesy: Made in Space

As a spokesman for Made in Space says in a promotional video: “The goal…is pretty simple, but audacious…to develop the necessary technologies to allow humanity to move beyond Earth and live on other planets.”

Meanwhile, more down-to-earth considerations include, as Wonderfulengineering.com reports, Made in Space’s announcement this week that it is “going commercial and inviting the public [to purchase parts] made in the unique presence of zero gravity.”

Eye on Innovation is a monthly look at new technology and products.

DESIGN TIP: Metal 3D Printing Redefines Part Design

Metal 3D printing is helping to redefine part design, with capabilities to build ever-increasingly complex parts in less time and with little human intervention. Welcome to the industrial-grade 3D printing process of direct metal laser sintering (DMLS), which is the focus of our monthly design tip.

Med device developers are turning to industrial-grade metal 3D printing to produce a variety of prototype and end-use parts, including these components used for surgical instruments.

Through additive manufacturing technology, DMLS produces fully function metal prototypes and end-use parts, simplifies assembly by reducing component counts, offers virtually unlimited complexity with no additional cost, and works for a variety of industries, including the med device space (see part photo).

This month’s tip discusses:

  • A short overview of DMLS
  • Ways to avoid warping and curling with certain part features
  • Part orientation
  • Wall thickness considerations

READ FULL DESIGN TIP