Cuttlefish software brings character, Mr. Link, to life.

DARMSTADT, Germany, April 11, 2019 — (PRNewswire) —  Laika's new stop-motion movie, "Missing Link," features models made using Fraunhofer IGD's Cuttlefish 3D-printer driver. Film fans can see the results for themselves in cinemas.

Laika's latest animated film, "Missing Link," will be released on April 12, with a theatrical release in Germany to follow in late May. The movie is the animation studio's fifth stop-motion feature and the first to make use of the Cuttlefish 3D-printer driver, developed by the Fraunhofer Institute for Computer Graphics Research IGD. Using this technology, Laika has printed a myriad of models, including subtle changes in facial expression for each individual character. The greatest challenge is ensuring that the colors of each model seamlessly match the ones used in previous frames. With this in mind, Laika chose Fraunhofer's patented Cuttlefish technology, due to its outstanding color consistency.

High-precision 3D printing brings stop-motion characters to life
In stop-motion animation, each scene is created by carefully setting up elaborate physical models and minimally manipulating them between frames. Photographs are taken after each of these changes – enabling the individual frames to be combined to form a complete motion picture. Playing the series of still images in rapid sequence creates the illusion of movement. Twenty-four frames in combination translate into approximately one second of film. To animate the characters' facial expressions in "Missing Link," Laika used a number of Stratasys J750 3D printers, in conjunction with the Cuttlefish 3D-printer driver, to create 106,000 highly detailed, color 3D faces. Brian McLean, who was nominated for an Academy Award® for Visual Effects for "Kubo and the Two Strings," is Laika's Director of Rapid Prototype. He has extensive experience in deploying 3D printing for stop-motion animation, and in 2016 he received a Scientific and Engineering Oscar® plaque for his pioneering work. "We have used 3D printers for our stop-motion movies since Coraline, Laika's first film," says McLean. "For our current production, "Missing Link," we leveraged Fraunhofer IGD technologies because they are unrivaled in terms of color consistency and geometric accuracy. The combination of Cuttlefish software and Stratasys J750 hardware has allowed us to produce the most sophisticated colored 3D prints ever."

Cuttlefish enables accurate 3D printing of colored, translucent objects 
Cuttlefish is a voxel-based universal printer driver, meaning it can be deployed for diverse 3D output devices. The driver makes it possible to work simultaneously with multiple printing materials. It also enables high-fidelity reproduction of the shapes, colors and subtle color transitions of the original, and it allows objects to be simulated on-screen prior to printing. In addition, it is now possible to print translucent, i.e. partially to fully transparent, objects. Cuttlefish accounts for the dispersion of light through the object and changes in hues and surface textures in accordance with incidental light. There are a variety of applications for high-fidelity 3D printing of this type, not just in the film industry but also in medicine, automotive engineering or cultural heritage to name a few. The technology plays an increasingly important role in the manufacturing of prototypes, end-products and replicas. As 3D printer capabilities expand, such as a growing range of available materials, so do the challenges that software must overcome. Accurately positioning the input material to reproduce geometric and visual attributes requires enormous amounts of data. Against this backdrop, Cuttlefish supports streaming, i.e. processing only the data currently required for printing, minimizing the amount of memory needed. Even highly complex and large 3D models are ready to start printing in a matter of seconds.

More information:
-  www.igd.fraunhofer.de/en/competences/technologies/3d-printing
-  www.cuttlefish.de
-  www.igd.fraunhofer.de/en/press/annual-reports/2018/movie-star-darmstadt-our-cuttlefish-3d-printer-driver

Institute Profile:

Founded 30 years ago, Fraunhofer IGD has become the world's leading institution for applied research in the field of visual computing. Visual computing means image and model-based IT. In simple terms, it describes the capability of transforming information into images (computer graphics) and extracting information from images (computer vision). The numerous application scenarios include human/machine interaction, interactive simulation and modeling situations.

Our developers at sites in Darmstadt, Rostock, Graz, and Singapore develop new technical solutions and prototypes all the way up to the market readiness stage. In collaboration with our partners, this results in application solutions that are custom-tailored to customers' requirements.

Our approach facilitates the work with computers and is efficiently used in the industry, in everyday life and in the health care sector. Our research highlights include assisting people in Industry 4.0, the development of key technologies for smart cities and the use of digital solutions in the field of individual health.

Through applied research, we support the strategic development of the industry and economy. Especially small and medium-sized enterprises, as well as service centers, can benefit from this and be successful on the market with the help of our leading technologies.

Contact:
Fraunhofer-Institut für Graphische Datenverarbeitung IGD

Fraunhoferstraße 5

64283 Darmstadt, Germany

Daniela Welling

Phone: +49-6151-155-146

Email: Email Contact 

www.igd.fraunhofer.de 

Related Images

Mr. Link / Fraunhofer IGD / Cuttlefish 3D Software 1
In stop-motion animation physical models are minimally manipulated between frames - 24 make one second of the film. (© LAIKA)

mr-link-fraunhofer-igd-cuttlefish.jpg

Mr. Link / Fraunhofer IGD / Cuttlefish 3D Software 2
Mr. Link's different faces and emotions were 3D-printed with the patented Cuttlefish technology of Fraunhofer IGD. (© LAIKA)

SOURCE Fraunhofer IGD