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Figure 1

The yield of roots and aboveground parts of maize [g×pot−1] grown on soil without (0) and with application of rubber rag (10, 50, 100 g×kg−1 DM soil)
The yield of roots and aboveground parts of maize [g×pot−1] grown on soil without (0) and with application of rubber rag (10, 50, 100 g×kg−1 DM soil)

Figure 2

Zinc content [μg×g−1 DM] in roots and aboveground parts of maize grown on soil without (0) and with application of rubber rag (10, 50, 100 g×kg−1 DM soil)
Zinc content [μg×g−1 DM] in roots and aboveground parts of maize grown on soil without (0) and with application of rubber rag (10, 50, 100 g×kg−1 DM soil)

Figure 3

SPAD values in maize leaves grown on soil without (0) and with application of rubber rag (10, 50, 100 g×kg−1 DM soil); a, b – homogeneous groups (ANOVA and Tuckey's test p < 0.05)
SPAD values in maize leaves grown on soil without (0) and with application of rubber rag (10, 50, 100 g×kg−1 DM soil); a, b – homogeneous groups (ANOVA and Tuckey's test p < 0.05)

Figure 4

Radar charts of physiological features of maize leaves F0, FM, FV grown on soil without (0) and with application of rubber rag (10, 50, 100 g×kg−1 DM soil)
Radar charts of physiological features of maize leaves F0, FM, FV grown on soil without (0) and with application of rubber rag (10, 50, 100 g×kg−1 DM soil)

Figure 5

Radar charts of physiological features of maize leaves Fv/F0, Fv/FM, grown on soil without (0) and with application of rubber rag (10, 50, 100 g×kg−1 DM)
Radar charts of physiological features of maize leaves Fv/F0, Fv/FM, grown on soil without (0) and with application of rubber rag (10, 50, 100 g×kg−1 DM)

The experimental scheme

ObjectRubber rag content in soil [g×kg−1 DM* soil]
0 - control0
I10
II50
III100

Heavy metals’ content in rubber rag [μg×g−1]

NiCdFeCuMnZnPb
1.020.91607.5057.4212.507386.5112.50
eISSN:
2353-8589
Język:
Angielski
Częstotliwość wydawania:
4 razy w roku
Dziedziny czasopisma:
Life Sciences, Ecology