Figure 6 Hsp33 µAPPJ activation Applied Microbiology The cold atmospheric pressure plasma-generated species superoxide, singlet oxygen and atomic oxygen activate the molecular chaperone Hsp33 xlsx
Figure 3a Plasma-induced Hsp33 activation Applied Microbiology The cold atmospheric pressure plasma-generated species superoxide, singlet oxygen and atomic oxygen activate the molecular chaperone Hsp33 xlsx
Figure 2b Hsp33 Degradation Applied Microbiology The cold atmospheric pressure plasma-generated species superoxide, singlet oxygen and atomic oxygen activate the molecular chaperone Hsp33 xlsx
Figure 1b Survival longer treatment Applied Microbiology The cold atmospheric pressure plasma-generated species superoxide, singlet oxygen and atomic oxygen activate the molecular chaperone Hsp33 xlsx
Figure 4b Hsp33 Tryptophan fluorescence Applied Microbiology The cold atmospheric pressure plasma-generated species superoxide, singlet oxygen and atomic oxygen activate the molecular chaperone Hsp33 xlsx
Figure 2a Plasma stability Hsp33 Applied Microbiology The cold atmospheric pressure plasma-generated species superoxide, singlet oxygen and atomic oxygen activate the molecular chaperone Hsp33 xlsx
Figure 1a Survival Rates Applied Microbiology The cold atmospheric pressure plasma-generated species superoxide, singlet oxygen and atomic oxygen activate the molecular chaperone Hsp33 xlsx
Figure 3b CD spectra Hsp33 Applied Microbiology The cold atmospheric pressure plasma-generated species superoxide, singlet oxygen and atomic oxygen activate the molecular chaperone Hsp33 xlsx
Figure 4a Hsp33 Carbonylation Applied Microbiology The cold atmospheric pressure plasma-generated species superoxide, singlet oxygen and atomic oxygen activate the molecular chaperone Hsp33 xlsx
Figure 6b bubble radius evolution pos. pol. EP2 Ignition and propagation of nanosecond pulsed plasmas in distilled water - negative vs. positive polarity applied to a pin electrode txt