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bloom
Since the beginning of industrialization, scientists have wondered how to generate electric energy in a sustainable way. In addition, mankind is dependent on power grids, while grid-independence is the way of the future. In 1939, German scientist Dr. Hans Gaffron discovered an alga capable of producing oxygen and hydrogen alternately. Based on Gaffron’s research, Prof. Melis discovered that this process gave rise to a sulfur derivative, a reaction caused by the enzyme hydrogenase. Further discoveries with modifications uncovered the possibility of producing large amounts of electricity in a fuel cell.
The ‘bloom’ project assumes that, in the near future, it will be possible to produce enough electricity to meet the needs of entire households. In particular, this would benefit households in undeveloped areas and would be invaluable in the aftermath of catastrophes. ‘Bloom’ operates as a closed ring with panels in which the alga can circulate in water. The photosynthetic process is induced with the aid of gases and sunlight. The panels should be thin yet strong so that a large number of algae can be exposed to light at the same time. Further mechanical and chemical activities within the panels then cause electricity to be generated. This energy can be stored in fuel cells and converted into higher voltages.
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Finding of the Jury:
From the viewpoint of the Jury the project ‘bloom’ deserves special mention, because among other things it refers to visionary research by Dr. Hans Gaffron and later Prof. Anastasios Melis on generating renewable electric energy based on biological reactions in algae.
Accordingly, the product semantics of ‘bloom – natural energy’ harmoniously takes up the metaphor of a flower expressing the natural and sustainable character of the project. Still, the Jury would have appreciated more detailed technical documentation along with closer overall background information.
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