Most importantly, the normal optical states can be regulated from opaque to transparent through microstructure control, showing great potential E-O applications in practical uses.
After i.m. injection blood samples were taken at 0, 24, and 48 h, whereas blood samples after per os application were collected at 0, 2, 4, 6, 24, 48, 50, 52, 54, 71, and 96 h.
These results provide a facile strategy for the synthesis of Pt-based alloy NPs/rG-O nanocomposites for applications in catalysis and energy-related processes.
These results provide a facile strategy for the synthesis of various Pt-based alloy/rG-O nanocomposites for applications in catalysis and energy-related processes.
Figure 6 The effect of H 2 O 2 application on soluble protein content under excess copper in maize cultivars.
Figure 8 The effect of H 2 O 2 application on inorganic ions under excess copper in maize cultivars.
Pretreatment with H2O2 also reduced the overproduction of H2O2 in both cultivars under copper stress (Figure 2). Figure 2 The effect of H 2 O 2 application on H 2 O 2 content under excess copper in maize cultivars.
H2O2 pretreatment also reduced the decrease in amount of dry matter in both cultivars (Figure 3 A). Figure 3 The effect of H 2 O 2 application on dry weight and GGI under excess copper in maize cultivars.
A similar trend of the Ψleaf and RWC was also recorded in Akpinar cultivar (Figure 4). Figure 4 The effect of H 2 O 2 application on leaf water status under excess copper in maize cultivars.
The proline accumulation was of the greatest magnitude in copper stress plus H2O2 pretreatment (Cu + H2O2) (Figure 5). Figure 5 The effect of H 2 O 2 application on proline content under excess copper in maize cultivars.
The soluble sugar content showed a higher increase under pretreatment of H2O2 (Cu + H2O2 group) than under Cu stress (Figure 7). Figure 7 The effect of H 2 O 2 application on total soluble sugar under excess copper in maize cultivars.
