We do not just live by the technical sciences. At Botland, we love history and know how much can be learned from it. So today, let’s take a look at where the field of 3D printing came from and why it has consumed us utterly for so many years.
3D printing older than you think
To start with, a quick overview of the trot through the years. Relax, the rest of the article will take a different tone. We will travel through the history of 3D printing more slowly, because after all, you can’t see much from the windows of a fast-moving train.
Since the invention of 3D printing technology some fifty years ago – yes, that’s not a Czech mistake, for half a century – its development has continued at a rapid pace making a significant impact on both industry and commercial operations. Stereolithography, selective laser sintering and fused deposition modelling – slightly more technical terms that sometimes confuse even seasoned 3D printing hobbyists – were among the first successful incremental manufacturing methods. They were initially used for industrial prototyping.
Soon 3D printing technology was developed for use in many fields, in large-scale manufacturing, in the engineering of highly complex parts and even for personal use. In the service of our health, 3D printing facilitates patient-specific procedures, including surgical planning and implant design. 3D bioprinting technology plays an integral role in the development of tissue engineering and biomedical research. 3D printing is becoming more advanced and will have a huge impact on healthcare in the future. But we’re still getting there – first the glorious 1980s.
The 1980s. Birth of 3D printing technology – SLA
The concept of 3D printing originated in the 1970s, but the first experiments date back to 1981. The first attempts at 3D printing were made by Dr Hideo Kodama of the Nagoya Municipal Industrial Research Institute. He was the first to describe the layered manufacturing method. This is how the ancestor of 3D printing SLA (stereolithography) was created. The photosensitive resin was cured with UV light. Unfortunately, he failed to file a patent application before the deadline.
A few years later, a French engineering team (Alain Le Méhauté, Olivier de Witte and Jean-Claude André) became interested in stereolithography, but abandoned it due to lack of business prospects. This attempt at 3D printing was also based on the stereolithography process.
Charles “Chuck” Hull, who filed the first patent for stereolithography (SLA) in 1986, founded 3D Systems Corporation and released the first commercial product in 1988. It was the first device to print an actual, physical part from a digital file.
Second half of the 1980s 3D printing FDM/FFF and SLS
Okay, it started with SLA. What about SLS (Selective Laser Sintering) and FDM/FFF (Fused Deposition Modeling/Fused Filament Fabrication)?
In 1988, Carl Deckard of the University of Texas filed a patent for SLS technology. This was another 3D printing technique in which powder is sintered together locally using a laser. Meanwhile, Scott Crump, co-founder of Stratasys Inc. filed a patent for FDM (Fused Deposition Modelling). In less than ten years, the three main technologies still used today were patented. This laid a solid foundation for what we know as modern 3D printing.
For the more curious: there were many other lesser-known attempts going on in the background at the time, such as Ballistic Particle Manufacturing (BPM) patented by William Masters, Laminated Object Manufacturing (LOM) patented by Michael Feygin, Solid Surface Curing (SGC) patented by Itzchak Pomerantz and 3D Printing (3DP) patented by Emanuel Sachs.
Lata dziewięćdziesiąte. Nowi producenci drukarek 3D i narzędzia CAD
The foundations have been laid. The evolution of stop manufacturing is happening quite rapidly. Major 3D printer manufacturers emerge, new technologies are perfected and 3D modelling tools begin to be developed, taking things to the next level. In Europe, EOS GmbH is founded, which created the first EOS “Stereos” system for industrial prototyping and production 3D printing applications. Its industrial quality is today recognised worldwide in SLS technology (selective laser sintering technology) for plastics and metals.
Versatile, he is eager to take on challenges because he thinks it is the fastest way to progress. He values contact with nature and an active rest. Automotive and new technologies enthusiast.
Versatile, he is eager to take on challenges because he thinks it is the fastest way to progress. He values contact with nature and an active rest. Automotive and new technologies enthusiast.