The sooner that affordable 3D scanners are made available, the sooner the consumer side of the 3D printing market will expand. You see, currently the majority of us lack the 3D modeling skills and capabilities to design our own models for printing. We generally rely on 3D model repositories such as Thingiverse, 3DSha.re, and MyMiniFactory to come up with items to print. Although there are literally hundreds of thousands of models available, many of them free, there still is something missing from the overall 3D printing ecosystem.
The ability for almost anyone to copy an item on one’s desk could have major implications on the economy in general, but most of all on the 3D printing and design spaces. Although this is already possible via 3D scanners, just like we’ve seen with 3D printers, prices for scanners have started out quite high.
Over the last three to four years we have seen 3D printer prices drop by an order of magnitude, if not more. This has enabled pretty much anyone who can afford a smartphone to afford one of these amazing machines for about the same price. 3D scanning technology may be a few years behind in terms of price drops, but significant declines in prices have already begun. Scanners are already available for under $1,000, allowing for adoption by a greater number of individuals. One man, however, may have just taken affordability up several notches.
A designer from Graty, Belgium named Fabio Ferretti has recently designed and posted the schematics for a 3D printable, open source 3D scanner which has a cost of under $30. Yes, I said under $30!
Called the Sardauscan, the files for this device, which also include a list of parts one must purchase, have been uploaded to Thingiverse for anyone to download and 3D print out. Ferretti’s design has 13 separate 3D printable files, and will require the following easy-to-find non-printed components (Ferretti used and linked to the most affordable ones he could find):
- M3 Screws (16 and 20 mm)
- M4 Screws (12 ans 20 mm)
- Chinese Arduino nano ($4)
- Chinese stepper motor and controller ($5)
- 1 to 4 line lasers ($2.5 piece)
- Hercule HD twist ($15)
- 20 x 20 profile (can be printed or purchased)
Based on the above, components needed will run between $26.50 and $35 depending on the number of line lasers used. The more lasers added, the better the resolution of the scan will be, but also the tougher it will be to calibrate each laser.
Ferretti is still in the process of developing Arduino firmware and an application for the scanner, which is inspired by FreeLSS. Currently he has uploaded an alpha version of the firmware to GitHub, but has a lot of work left to do.
This design certainly enables almost anyone with a few skills to print and assemble their own 3D scanner with minimal costs. Now it’s just a matter of time before a company takes this open source design and begins mass producing it for a slightly higher price. Let us know if you have printed out and assembled this incredibly affordable 3D scanner. Share some scans with us in the Sardauscan 3D Scanner forum thread on 3DPB.com.
You May Also Like
Barcelona: Electrostatic Jet Deflection for Ultrafast 3D Printing
Barcelona researchers Ievgenii Liashenko, Joan Rosell-Llompart, and Andreu Cabot have come together to author the recently published, ‘Ultrafast 3D printing with submicrometer features using electrostatic jet deflection.’ Following the continued...
Cornet: Research Network in Lower Austria Explores Expanding 3D Printing Applications
Ecoplus Plastics and Mechatronics Cluster in Lower Austria has just completed their ‘AM 4 Industry’ Cornet project, outlining their findings regarding 3D printing—with the recently published work serving as the...
Additive Manufacturing: Still a Real Need for Design Guidelines in Electron Beam Melting
Researchers from King Saud University in Saudi Arabia explore the potential—and the challenges—for industrial users engaged in metal 3D printing via EBM processes. Their findings are outlined in the recently...
Metal 3D Printing Research: Using the Discrete Element Method to Study Powder Spreading
In the recently published ‘A DEM study of powder spreading in additive layer manufacturing,’ authors Yahia M. Fouda and Andrew E. Bayly performed discrete element method simulations to study additive manufacturing applications using titanium alloy (Ti6AlV4)...
View our broad assortment of in house and third party products.