Bioluminescence in design applications : design exploration of bioluminescence
Eggen, Svetlana (2023)
2023
Julkaisun pysyvä osoite on
https://urn.fi/URN:NBN:fi:amk-2023061724138
https://urn.fi/URN:NBN:fi:amk-2023061724138
Tiivistelmä
This thesis explores the potential of bioluminescence as a medium in design, beginning with an overview of bio-integrated design and an introduction to bioluminescence. Various bioluminescent organisms, including bacteria, algae (dinoflagellates), and fungi, are investigated, providing insight into their characteristics and capabilities. The study delves into the mechanisms of light production and outlines design guidelines for encapsulating these organisms effectively.
Building upon this foundation, the thesis presents an experimental approach, starting with the cultivation of Vibrio fischeri and subsequently utilizing modified E. coli as a design medium. The application of bioluminescence in design is demonstrated through the creation of logos made from agar using 3D-printed stencils within a petri dish.
Furthermore, the thesis explores the concept of future synthesis for the creation of potential artifacts. By employing personas and scenarios, the study examines the application of bio-orbs or beads filled with bioluminescent Vibrio fischeri bacteria. These bio-orbs act as biosensors and modular light sources, which can be incorporated into hiking clothes and dog collars.
The thesis concludes by highlighting future directions for research in the field of biological digital interfaces and the amplification of light. It suggests avenues for further exploration and development, aiming to unlock the full potential of bioluminescence in design and its integration into our everyday lives.
Building upon this foundation, the thesis presents an experimental approach, starting with the cultivation of Vibrio fischeri and subsequently utilizing modified E. coli as a design medium. The application of bioluminescence in design is demonstrated through the creation of logos made from agar using 3D-printed stencils within a petri dish.
Furthermore, the thesis explores the concept of future synthesis for the creation of potential artifacts. By employing personas and scenarios, the study examines the application of bio-orbs or beads filled with bioluminescent Vibrio fischeri bacteria. These bio-orbs act as biosensors and modular light sources, which can be incorporated into hiking clothes and dog collars.
The thesis concludes by highlighting future directions for research in the field of biological digital interfaces and the amplification of light. It suggests avenues for further exploration and development, aiming to unlock the full potential of bioluminescence in design and its integration into our everyday lives.