Beig G

Beig G


Research Focus & Metrics

Academic Career Length

40Years (1987-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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22 October 2003 in Reviews of Geophysics
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Journal Article
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BGBeig G
Beig G
PKP. Keckhut
P. Keckhut
RLR. P. Lowe
R. P. Lowe
RRR. G. Roble
R. G. Roble
MMM. G. Mlynczak
M. G. Mlynczak
SFS. Fadnavis
S. Fadnavis

18 May 2010 in Atmospheric Chemistry and Physics
Verified
Journal Article
Open access
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SMS. Menon
S. Menon
DKD. Koch
D. Koch
BGBeig G
Beig G
SSSaroj Kumar Sahu
Saroj Kumar Sahu
JFJohn Fasullo
John Fasullo
DOD. Orlikowski
D. Orlikowski
Recent thinning of glaciers over the Himalayas (sometimes referred to as the third polar region) have raised concern on future water supplies since these glaciers supply water to large river systems that support millions of people inhabiting the surrounding areas. Black carbon (BC) aerosols, released from incomplete combustion, have been increasingly implicated as causing large changes in the hydrology and radiative forcing over Asia and its deposition on snow is thought to increase snow melt. In India BC emissions from biofuel combustion is highly prevalent and compared to other regions, BC aerosol amounts are high. Here, we quantify the impact of BC aerosols on snow cover and precipitation from 1990 to 2010 over the Indian subcontinental region using two different BC emission inventories. New estimates indicate that Indian BC emissions from coal and biofuel are large and transport is expected to expand rapidly in coming years. We show that over the Himalayas, from 1990 to 2000, simulated snow/ice cover decreases by ~0.9% due to aerosols. The contribution of the enhanced Indian BC to this decline is ~36%, similar to that simulated for 2000 to 2010. Spatial patterns of modeled changes in snow cover and precipitation are similar to observations (from 1990 to 2000), and are mainly obtained with the newer BC estimates.

28 July 2014 in Geophysical Research Letters
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SGSachin D. Ghude
Sachin D. Ghude
CJChinmay Jena
Chinmay Jena
DCD. M. Chate
D. M. Chate
BGBeig G
Beig G
GPG. G. Pfister
G. G. Pfister
VRV. Ramanathan
V. Ramanathan
This bottom‐up modeling study, supported by emission inventories and crop production, simulates ozone on local to regional scales. It quantifies, for the first time, potential impact of ozone on district‐wise cotton, soybeans, rice, and wheat crops in India for the first decade of the 21st century. Wheat is the most impacted crop with losses of 3.5 ± 0.8 million tons (Mt), followed by rice at 2.1 ± 0.8 Mt, with the losses concentrated in central and north India. On the national scale, this loss is about 9.2% of the cereals required every year (61.2 Mt) under the provision of the recently implemented National Food Security Bill (in 2013) by the Government of India. The nationally aggregated yield loss is sufficient to feed about 94 million people living below poverty line in India.

1 March 2020 in Science of The Total Environment
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Journal Article
Closed access
BGBeig G
Beig G
SSSaroj Kumar Sahu
Saroj Kumar Sahu
VSVikas Singh
Vikas Singh
STSuvarna Tikle
Suvarna Tikle
SSSandeepan B. Sobhana
Sandeepan B. Sobhana
BMB.S. Murthy
B.S. Murthy

17 October 2008 in Journal of Geophysical Research: Atmospheres
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SGSachin D. Ghude
Sachin D. Ghude
SFS. Fadnavis
S. Fadnavis
BGBeig G
Beig G
SPS. D. Polade
S. D. Polade
RAR. J. van der A
R. J. van der A

1 November 2011 in Atmospheric Environment
Verified
Journal Article
Closed access
SSSaroj Kumar Sahu
Saroj Kumar Sahu
BGBeig G
Beig G
NPNeha S. Parkhi
Neha S. Parkhi