Chetan Sharma

Dr. Chetan Sharma

orcid

Research Focus & Metrics

Academic Career Length

10Years (2017-Present)

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

Representative Publications

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1 September 2021 in Geoscience Frontiers
Verified
Journal Article
Open access
Chetan SharmaChetan Sharma
Chetan Sharma
ASAnoop Kumar Shukla
Anoop Kumar Shukla
YZYongqiang Zhang
Yongqiang Zhang

1 November 2020 in Desalination and Water Treatment
Verified
Journal Article
Open access
QPQuoc Bao Pham
Quoc Bao Pham
MGM.S. Gaya
M.S. Gaya
SAS.I. Abba
S.I. Abba
RAR.A. Abdulkadir
R.A. Abdulkadir
PEParvaneh Esmaili
Parvaneh Esmaili
DLDo Quang Linh
Do Quang Linh

8 October 2019 in Water
Verified
Journal Article
Open access
PDF file
Chetan SharmaChetan Sharma
Chetan Sharma
COC.S.P Ojha
C.S.P Ojha
Analysis of Spatio-temporal changes in precipitation (Pre) on the land surface of the earth was the focus of this study. Thiel-Sen median slopes and Modified Mann-Kendall (MMK) test were utilized to draw inferences. Majority of the regions were identified to show an increasing trend of annual precipitation except some of the low to mid-latitude regions in Northern hemisphere. The trends of wet-day frequency (Wet) were found in agreement with precipitation for most of the regions, but the inverse relationship was found for the subtropical regions of Northern hemisphere. These changes were examined for the world climate types based on Koppen-Gieger climate classes. Also, it was tried to find the probability distribution, which best describes the annual precipitation pattern in different climate types of the world among 21 commonly assumed probability distributions.

15 September 2025 in Construction Materials
Verified
Journal Article
Open access
PDF file
BSBishnu Kant Shukla
Bishnu Kant Shukla
HYHarshit Yadav
Harshit Yadav
SSSatvik Singh
Satvik Singh
SVShivam Verma
Shivam Verma
Anoop Kumar ShuklaAnoop Kumar Shukla
Anoop Kumar Shukla
Chetan SharmaChetan Sharma
Chetan Sharma
The transition toward sustainable infrastructure in the construction sector necessitates the practical integration of Circular Economy (CE) principles, particularly through the valorization of recycled materials in concrete applications. This review critically synthesizes recent advancements in the use of recycled polyethylene terephthalate (PET), glass powder, and crumb rubber as partial replacements for conventional aggregates in Ordinary Portland Cement (OPC)-based concrete. The incorporation of these secondary materials has demonstrated the ability to reduce the environmental footprint of concrete production—achieving up to 25% reductions in greenhouse gas emissions and diverting significant volumes of waste from landfills—while maintaining structural viability with compressive strength retention levels exceeding 90% in several optimized mix designs. Enhanced ductility, thermal resistance, and reduced density further support their application in specialized construction scenarios. Beyond material characterization, the review systematically examines implementation enablers, including regulatory alignment, life-cycle-based procurement, and design-for-deconstruction strategies. It also highlights critical gaps such as the absence of harmonized standards, variability in recycled material quality, and systemic barriers to market uptake. Addressing these challenges is essential for scaling CE integration and achieving measurable sustainability gains across the built environment. This study aims to inform policy, practice, and research trajectories by linking material innovation with operational frameworks that support regenerative construction systems.

1 June 2025 in Earth
Verified
Journal Article
Open access
PDF file
Rakesh Ranjan ThakurRakesh Ranjan Thakur
Rakesh Ranjan Thakur
DEBABRATA NANDIDEBABRATA NANDI
DEBABRATA NANDI
Anoop Kumar ShuklaAnoop Kumar Shukla
Anoop Kumar Shukla
SDSubhasmita Das
Subhasmita Das
Sasmita ChandSasmita Chand
Sasmita Chand
Chetan SharmaChetan Sharma
Chetan Sharma
Amidst global shifts in land use patterns due to urbanization, this study focuses on the rapid land use and land cover (LULC) changes in Midnapore City during the periods 2003–2014 and 2014–2024. The study employs Landsat 5 and 8 imagery with 30 m spatial resolution which were processed through Maximum Likelihood Classifier (MLC) algorithms. The results were attained through ArcGIS 10.2.2 and ERDAS IMAGINE 2014 software, with ground-truth validation using data from 117, 111, and 116 points for 2024, 2014, and 2003, respectively. For the validation, the kappa coefficient was calculated and achieved 87.3%, 88.1%, and 81.7% for 2024, 2014, and 2003, indicating substantial accuracy. Using statistical measures such as change matrix union, binary logistic regression, and correlation matrix analysis applied to classified LULC outputs and spatial drivers, the research highlights significant transformations in the region. The study reveals significant transformations, notably the conversion of 77% of forest areas and 5% of fallow land to built-up land. The increased rate of agricultural land conversion to built-up areas is evident after 2014, indicating rapid urban growth. These factors led to the reduction of LULC classes possessing substantial ecological value like forests and scrub lands which are becoming more accessible due to the increasing population. The results point out the drastic alteration of these developments and recommend a planning approach responsive to environmental needs for safeguarded ecological impacts. The research highlights the importance of reforestation, preservation of water bodies, and socio-economic surveillance in fostering urban management and sustainable development in Midnapore City.