High impact information on Plant Physiology

• This finding has profound implications for understanding plant physiology and development and for defining new modes of regulation of SCF ubiquitin ligase complexes [1].
• The plant hormone auxin regulates plant physiology by modulating the interaction of transcription factors with auxin response elements (AuxREs) of the affected genes [2].
• Sucrose to starch: a transition in molecular plant physiology [3].
• The recent discovery that the effectors XopD, AvrXv4, AvrPphB, and AvrRpt2 have cysteine protease functions reveals that the proteolysis of host substrates is an important strategy employed by pathogens to alter plant physiology [4].
• To elucidate plant mechanisms involved in molybdenum (Mo) sequestration and tolerance, Brassica spp. seedlings were supplied with molybdate, and the effects on plant physiology, morphology, and biochemistry were analyzed [5].

Anatomical context of Plant Physiology

• The plasma membrane (PM) H(+)-ATPase has been proposed to play important transport and regulatory roles in plant physiology, including its participation in auxin-induced acidification in coleoptile segments [6].

Associations of Plant Physiology with chemical compounds

• Several aspects of the relationship between Pro metabolism and plant physiology are discussed [7].
• Heavy metal, such as cadmium, have a significant impact on plant physiology [8].
• The proportional balances of free and/or protein-bound lysine, threonine, isoleucine and methionine are a function of protein synthesis, secondary metabolism and plant physiology [9].
• The maintenance of normal higher plant physiology in the absence of particular sterols or in the presence of modified sterol ratios is controversial [10].
• Three traits important for plant physiology, i.e. chlorophyll content, sensitivity to GA and sensitivity to ABA, were evaluated for 99 F2 families of the DS2 x RXL10 rye mapping population [11].

Gene context of Plant Physiology

• These results provide first insight into the possible roles of PGM/bPGM in plant physiology and in plant-pathogen interactions [12].
• These results were achieved within a cooperation funded by DFG and comprising Niko Beerenwinkel (MPI Saarbücken), Martin Däumer (Univ. Cologne), Daniel Hoffmann (caesar Bonn), Rolf Kaiser (Univ. Cologne), Klaus Korn (Univ. Erlangen), Joachim Selbig (MPI Plant Physiology, Golm) Barbara Schmidt (Univ. Erlangen) and Hauke Walter (Univ. Erlangen) [13].
• PME action produces pectin with different structural and functional properties, having an important role in plant physiology [14].

References