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Unprecedented Domino Redox Reaction Successfully Executed at Hokkaido University

Researchers at Hokkaido University have successfully executed a domino redox reaction for the first time, potentially revolutionizing chemical computation, sensors, and electronics.

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BNN Correspondents
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Unprecedented Domino Redox Reaction Successfully Executed at Hokkaido University

The first-ever domino redox reaction in the field of redox chemistry has been carried out successfully by Hokkaido University researchers, in an astounding accomplishment. This important development could revolutionise our understanding of and ability to control chemical reactions. It is expected to have a profound impact on chemical computation, sensors, and electronics.

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A New Chapter in Redox Chemistry

At the heart of this achievement is the domino reaction, a complex sequence of chemical reactions where each reaction triggers the next one in line. In redox chemistry, this essentially involves the transfer of electrons, with reduction being the gain and oxidation being the loss of electrons. However, these reactions often face hurdles due to electrostatic interactions from electrically charged species which can inhibit subsequent reactions.

Innovative Solution to Chemical Challenges

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To overcome this, the team at Hokkaido University ingeniously designed a two-part molecule with redox-active units linked by a sulfur-containing flexible connection. The real innovation comes into play during the oxidation of one unit, where a structural twist in the molecule occurs, thus promoting the oxidation of the neighboring unit and setting off a domino effect. What's more, this reaction is activated by heat, allowing researchers to maintain control over the process.

Implications for the Future

While this breakthrough has been demonstrated in a two-part molecule, the researchers speculate that this method could extend to larger molecules, paving the way for applications in chemical computation, sensors, and novel materials for electronic devices. This research, published in the prestigious 'Angewandte Chemie International Edition', has been supported by various grants from Japanese institutions, testifying to its potential impact and academic value.

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