Product designers at Sleeping Beauty, a German-based company developing an internet of things security device, are the latest recipients of the Proto Labs Cool Idea! Award.
After having his automobile stolen, Jakob Lipps, co-founder of Sleeping Beauty, went searching for a solution to make sure it never happens again. Unable to find a solution, Jakob and his co-founder began developing it on their own. This led to the creation of a compact security device now known as Sleeping Beauty.
Photo courtesy: Sleeping Beauty
Sleeping Beauty uses GSM and GPS technology to track the location of valuable possessions anywhere within cellular network coverage. Thanks to the “Prince Charming” processor (ARM Cortex M0+) inside Sleeping Beauty, the standby time is unprecedented. Sleeping Beauty will sleep undisturbed for up to one year and report its location and remaining battery life at regular intervals via the smartphone app. In Sleep Mode, “Prince Charming” needs only 270 nanoampere. If the device detects movement, it will wake up and send location data to its owner’s smartphone.
“In a market cluttered with complex gadgets, Sleeping Beauty is an elegant solution for a variety of common problems,” said Proto Labs founder Larry Lukis. “Its simple and intuitive design makes it well-suited to succeed in the consumer marketplace. We are excited to support them as they bring the device into production.”
HAVE AN INNOVATIVE PRODUCT DESIGN? APPLY FOR THE COOL IDEA! AWARD TODAY!
Download “Design Essentials for 3D Printing”
3D printing opens up new design possibilities like hollow parts and complex organic geometries, but it’s still important to keep a few fundamentals in mind to take full advantage of 3D printing’s capabilities.
Understanding materials and processes as well as considerations like support structures and feature resolution are crucial for success. These design essentials will help you make the most out of your 3D-printed parts and accelerate your product development efforts.
In the following guide to 3D printing we focus on these topics:
- 3D printing prototypes and fully functional, end-use parts
- Designing for metal 3D printing
- Comparing additive manufacturing processes
- Material properties and selection
Click here to download Design Essentials for 3D Printing.
Product designers in need of prototypes or end-use parts frequently turn to CNC machining for its quick-turn capabilities. Machining isn’t new, but just like any other digital technology, its functionality has expanded in recent years.
That’s why we assembled some tips for how to get the most out of today’s CNC machining. This will help you design higher quality machined parts and better use CNC machining to bolster your product development efforts.
Our Design Essentials for CNC Machining covers the following topics:
- Designing cylindrical parts to be turned
- Transition from 3D printing to machining
- Outsourcing to a machine shop
- Cost reduction tips for CNC machine
Click here to download Design Essentials for CNC Machining.
Join us for a webinar alongside RTP Company as we address common questions related to overmolding. We’ll discuss how to design more durable overmolded parts and what it takes to achieve strong adhesion between your part’s two materials.
Overmolding produces two-material, plastic parts.
The presentation will include the following:
- 12 key overmolding materials
- Design factors that determine quality of flexible-to-rigid bonds
- Methodology used to measure bonding strength
- Differences between low- and high-volume overmolding
TITLE: Overmolding: TPE Multi-Material Molding, Achieving Melt Adhesion
PRESENTER: Steve Brenno, Sr. Product Development Engineer, RTP Company
DATE: Tuesday, November 15 at 1 p.m. CDT
REGISTER: Click here to sign up
And, if you can’t attend, you can still register and receive an on-demand version. Also, feel free to forward this invite to your colleagues.
Click to watch an on-demand webinar on how to design for direct metal laser sintering (DMLS).
Direct metal laser sintering (DMLS) is not intended to replace traditional metal manufacturing like casting, metal injection molding, or machining. Rather, it’s a product development tool that opens up new design possibilities. Product designers and engineers commonly rely on metal 3D printing to manufacture complex geometries, reduce the number of components in an assembly, or even lightweight objects.
Here’s a look at how to design 4 common features found in metal 3D-printed parts.
1. Self-Supporting Angles
A self-supporting angle describes the feature’s angle relative to the build plate. The lower the angle, the less the likely it is to support itself.
Designing support angles no less than 45 degrees will ensure a quality surface finish and detail.
Each material will perform slightly different, but the general rule of thumb is to avoid designing a self-supporting feature that is less than 45 degrees. This tip will serve you well across all available materials. As you can see in the picture above, as the angle decreases, the part’s surface finish becomes rougher and eventually the part will fail if the angle is reduced too far. Continue reading