Combined Use of NMR, LC-ESI-MS and Antifungal Tests for Rapid Detection of Bioactive Lipopeptides Produced by <i>Bacillus</i> — Oak Academic Publishing
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Combined Use of NMR, LC-ESI-MS and Antifungal Tests for Rapid Detection of Bioactive Lipopeptides Produced by <i>Bacillus</i>
Chemistry Department, School of Science and Technology, évora University, évora, Portugal
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Chemistry Department, School of Science and Technology, évora University, évora, Portugal
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Chemistry Department, School of Science and Technology, évora University, évora, Portugal
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HERCULES Laboratory, évora University, évora, Portugal
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HERCULES Laboratory, évora University, évora, Portugal
1 Chemistry Department, School of Science and Technology, évora University, évora, Portugal
2 Chemistry Department, School of Science and Technology, évora University, évora, Portugal
3 Chemistry Department, School of Science and Technology, évora University, évora, Portugal
4 HERCULES Laboratory, évora University, évora, Portugal
5 HERCULES Laboratory, évora University, évora, Portugal
The science and technology interact with the art in several ways. Biotechnological coupled with analytical approaches can play an important role in protecting and preserving cultural heritage for future generations. Many microorganisms influenced by environmental conditions are the main responsible for biological contamination in built heritage. Biocides based on chemical compounds have been used to mitigate this problem. Thus, it is vitally important to develop proper remediation actions based on environmentally innocuous alternative. Bacillus specie is emerging as an optimistic alternative for built heritage treatment due to their capacity to produce secondary metabolites with antagonistic activities against many fungal pathogens. Therefore, the intent of this work was to access a rapid evaluation of antifungal potential of bioactive metabolites produced by Bacillus strains and simultaneously their characterization using spectroscopic (NMR) and chromatographic techniques (LC - ESI-MS). The high antifungal activity obtained for Bacillus sp. active compounds produced in this study confirm s the great potential to suppress biodeteriogenic fungi growth on historical artworks. Additionally, the proposed methodology allowed to access bioactive metabolites produced without need of the laborious total previous isolation and c ould be used as a viable alternative to be employed for screening and production of new green biocides.
KeywordsLipopeptides<i>Bacillus</i>sp.Biodegradation/BiodeteriorationNatural BiocidesNuclear Magnetic ResonanceLiquid Chromatography Coupled to Mass Spectrometry
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