V.R.R. PARAMA’s scientific contributions

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Publications (1)


Fig. 1. Soil carbon stocks among different land use systems. UG = Ungrazed grasses, GG = Grazed grasses, NG = Napier grass, MF = Mixed forest, TF = Teak Forest, GH = Horticultural plantation-Grape, PH = Horticultural plantation-Pomegranate, MH = Horticultural plantationMango, IR-1 = Irrigated agricultural system with FYM and fertilizer, IR-2 = Irrigated agricultural system with fertilizer alone, DL-1 = Dryland agricultural system with FYM and fertilizer, and DL-2 = Dryland agricultural system with fertilizer alone. 
Table 3 . Seasonal changes in soil organic carbon (per cent) under different land use systems.
Soil carbon stocks in natural and manmade agri-hortisilvipastural land use systems in dry zones of Southern India
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September 2016

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8 Citations

Journal of Soil and Water Conservation

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G.V.P. REDDY

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A study was undertaken to assess the soil carbon stocks in 0-50 cm soil depth, under natural and man-made land use systems in the eastern dry zones of Karnataka in India. The carbon (C) stocks in soils ranged from 26.46 t ha-1 in dry land agricultural systems (without manure) to 89.20 t ha-1 in a mixed forest. Among natural systems, mixed forest (89.20 t ha-1) and ungrazed grassland (71.78 t ha-1) recorded higher levels of C stock than other systems, while grazing in grassland and litter removal in teak plantations correlated to reduced carbon stocks to 39.32 and 32.74 t ha-1, respectively. Intensively managed horticultural systems namely, grapes plantation (85.52 t ha-1) and pomegranate plantation (78.78 t ha-1) maintained higher levels of C stock. However, agricultural systems recorded moderate to lower levels. Total carbon stocks in top 0-50 cm soils of agricultural systems was in the order: irrigated lands with manure application (52.77 t ha-1) > irrigated lands without manure application (44.47 t ha-1) > dry lands with manure application (37.79 t ha-1) > dry lands without manure application (26.46 t ha-1). It was observed that adoption of appropriate soil and crop management practices such as conservation tillage, good irrigation, incorporation of crop residues and application of manure etc. could enhance soil C pool by reducing existing carbon loss and promoting C accumulation in the soil.

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Citations (1)


... Studies conducted by revealed surface soil gets enriched with organic carbon due to continuous addition of the plant material in the form of grasses, weeds, cover crops and crop residues to the surface itself. Higher amounts of soil organic C in irrigated soils compared to dry land areas can be attributed to higher biomass turnovers (Nagaraja et al., 2016). It is well-established that the productivity of land increases and hence, the biomass turnover with the introduction of irrigations (FAO, 1982). ...

Reference:

PROCEEDINGS OF INTERNATIONAL EUCARPIA CONGRESS ON OIL AND PROTEIN CROPS 2-4 NOVEMBER, 2023 ANTALYA, TURKEY
Soil carbon stocks in natural and manmade agri-hortisilvipastural land use systems in dry zones of Southern India

Journal of Soil and Water Conservation