How sensitive is Melissa officinalis to realistic ozone concentrations?

Anne Sarah Döring1, Elisa Pellegrini2, Alessandra Campanella2

  • 1Institut für Pharmazeutische Biologie und Biotechnologie, Philipps-Universität Marburg, Deutschhausstr. 17A, D-35037 Marburg, Germany.

Keywords:
1-qP3,3′-diaminobenzidineA(max)A(sat)ABAANOVABSAC(i)CAFEChl a/bChl a + bClean Air for EuropeDABDBPADEPSEECELISAF(0)F(m)F(s)F(v)/F(m)FBEG(w)ITEJ(max)LHCPsLeaf symptomsLemon balmMDAMembrane integrityOxidative stressPARPFDPPFDPSIPSIIPSII photochemistryPhotosynthesisR(d)RHRWCRuBPRubiscoTBATBARSTPUV(cmax)VPDabscisic acidactual quantum yield of PSIIair vapor pressure deficitapparent quantum yieldbovine serum albuminchlorophyll a/chlorophyll bchlorophyll a + chlorophyll bdaytime respirationde-epoxidation indexdecoring-binding protein Aelectron conductivity of leaf disc leachatesenzyme linked immunosorbent assayfrom the beginning of exposureinstantaneous transpiration efficiencyintercellular CO(2) concentrationlight-harvesting complex proteinslight-saturated rate of electron transportmalondialdehydemaximal fluorescencemaximal fluorescence in the light-adapted statemaximum level of photosynthetic activitymaximum rate of carboxylationminimal fluorescenceminimal fluorescence in the light-adapted statenon-photochemical quenchingone-way analysis of variancephotochemical quenchingphoton flux densityphotosynthetic activity at saturating light levelphotosynthetic photon flux densityphotosynthetically active radiationphotosystem Iphotosystem IIqNPqPquantum efficiencyreduction state of Q(A)relative humidityrelative water contentribulose 1,5-bisphosphateribulose-1,5-bisphosphate carboxylase/oxygenasesteady-state fluorescence yield in the light-adapted statestomatal conductance to water vaporthiobarbituric acidthiobarbituric acid reactive substancestranspiration ratetriose phosphate utilizationvariable and maximal fluorescence ratioΦ(PSII)Φ(a)