High impact information on Plant Shoots

• Nitrate assimilation in plant shoots depends on photorespiration [1].
• Gravitropism in higher plant shoots. VI. Changing sensitivity to auxin in gravistimulated soybean hypocotyls [2].
• Gravitropism in higher plant shoots. IV. Further studies on participation of ethylene [3].
• The present work determines both previously observed organoselenium species such as selenomethionine and Se-methylselenocysteine and for the first time detects the newly characterized S-(methylseleno)cysteine in plant shoots and roots when grown in the presence of selenate or selenite as the only selenium source [4].
• BACKGROUND AND AIMS: Plant shoots form a sink for NH3, and are able to utilize it as a source of N [5].

Biological context of Plant Shoots

• Gravitropism in higher plant shoots. V. Changing sensitivity to auxin [6].

Associations of Plant Shoots with chemical compounds

• At the opposite of what occurred in plant shoots, the transformation of isoxaflutole 1 into diketonitrile 2 was not immediate in soil [7].
• Soil Ni extracted with diethylenetriaminepentaacetic acid (DTPA) and 0.01 M Sr(NO3)2 was indicative of the ameliorative effect of amendments and correlated well with Ni concentrations in plant shoots [8].
• However, no transfer of Nb to plant shoots was detected in any of the soils [9].
• The concentrations of essential elements, Mn and Zn, in the shoots of rice plants inoculated with P. oryzae were slightly higher than those in the control plant shoots, while Se, Rb, Tc, and Re showed almost the same concentrations for both the shoots [10].
• Cadmium accumulation by plant shoots was obvious higher in the ME than in the NME at varied Cd supply levels or Cd treatment time [11].

Gene context of Plant Shoots

• Parameters that were examined include metal concentration and ACC deaminase activity in both plant shoots and roots; root and shoot development; and leaf chlorophyll content [12].

References