S4a Influence of manganese ions on SOD activity assay
Applied Microbiology
- Dielectric barrier discharge plasma treatment affects stability, metal ion coordination, and enzyme activity of bacterial superoxide dismutases
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S4b Influence of iron ions on the SOD activity assay
Applied Microbiology
- Dielectric barrier discharge plasma treatment affects stability, metal ion coordination, and enzyme activity of bacterial superoxide dismutases
S5 CD spectroscopy of SodA
Applied Microbiology
- Dielectric barrier discharge plasma treatment affects stability, metal ion coordination, and enzyme activity of bacterial superoxide dismutases
Figure 3. HRP inactivation by plasma treatment
Applied Microbiology
- Plasma‐driven in situ production of hydrogen peroxide for biocatalysis
Figure 4. CD spectra of HRP after exposure to plasma
Applied Microbiology
- Plasma‐driven in situ production of hydrogen peroxide for biocatalysis
Plasma‐driven in situ production of hydrogen peroxide for biocatalysis
Applied Microbiology
Peroxidases and peroxygenases are promising classes of enzymes for biocatalysis because of their ability to carry out one‐electron oxidation reactions and stereoselective oxyfunctionalizations. However, industrial application is limited, as the...
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Figure 5. Decrease in protein concentration and heme content.
Applied Microbiology
- Plasma‐driven in situ production of hydrogen peroxide for biocatalysis
Figure 6. Influence of voltage and frequency on HRP after 1 min plasma treatment
Applied Microbiology
- Plasma‐driven in situ production of hydrogen peroxide for biocatalysis
Figure 7. Immobilization of HRP protects against plasma-mediated damage
Applied Microbiology
- Plasma‐driven in situ production of hydrogen peroxide for biocatalysis
Figure 8. Production of (R)-1-phenylethanol with immobilized rAaeUPO using plasma-treated KPi buffer (250 mm) treated for several cycles
Applied Microbiology
- Plasma‐driven in situ production of hydrogen peroxide for biocatalysis