Sanjeev Kimothi

Dr. Sanjeev Kimothi

orcid

Research Focus & Metrics

Academic Career Length

5Years (2022-Present)

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

Representative Publications

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2 February 2024 in Sustainable Futures
Verified
Journal Article
Open access
SKSanjeev Kimothi
Sanjeev Kimothi
VBVyomkesh Bhatt
Vyomkesh Bhatt
SKSomil Kumar
Somil Kumar
AGAshulekha Gupta
Ashulekha Gupta
UDUmesh Chand Dumka
Umesh Chand Dumka

21 June 2022 in Electronics
Verified
Journal Article
Open access
PDF file
SKSanjeev Kimothi
Sanjeev Kimothi
ATAsha Thapliyal
Asha Thapliyal
VSVaseem Akram Shaik
Vaseem Akram Shaik
RSRajesh Singh
Rajesh Singh
AGAnita Gehlot
Anita Gehlot
INIrene Delgado Noya
Irene Delgado Noya
According to the United Nations, the Sustainable Development Goal ‘6’ seeks to ensure the availability and sustainable management of water for all. Digital technologies, such as big data, Internet of Things (IoT), and machine learning (ML) have a significant role and capability to meet the goal. Water quality analysis in any region is critical to identify and understand the standard of water quality and the quality of water is analyzed based on water quality parameters (WQP). Currently, water pollution and the scarcity of water are two major concerns in the region of Uttarakhand, and the analysis of water before it is supplied for human consumption has gained attention. In this study, a big data analytics framework is proposed to analyze the water quality parameters of 13 districts of Uttarakhand and find the correlation among the parameters with the assimilation of IoT and ML. During the analysis, statistical and fractal methods are implemented to understand the anomalies between the water quality parameters in 13 districts of Uttarakhand. The variation in WQP is analyzed using a random forest (RF) model, and the dataset is segmented location wise and the mean, mode, standard deviation, median, kurtosis, and skewness of time series datasets are examined. The mean of the parameters is adjusted with the coefficient of variation based on the standard values of each parameter. The turbidity in almost all the experimental sites has a normal distribution, with the lowest mean value (0.352 mg/L) and highest (11.9 mg/L) in the Pauri Garhwal and Almora districts, respectively. The pH of the water samples is observed to be in the standard range in all the experimental sites, with average and median values being nearly identical, at 7.189 and 7.20, respectively. However, the pH mode is 0.25. The Cl− concentration varies with mean values from the lowest (0.46 mg/L) to the highest (35.2 mg/L) over the experimental sites, i.e., the Bageshwar and Rudraprayag districts, respectively. Based on the analysis, it was concluded that the water samples were found to be safe to drink and in healthy condition in almost all the districts of the state Uttarakhand, except for the Haridwar district, where some increase in contaminants was observed.

1 April 2024 in Energy and Built Environment
Verified
Journal Article
Open access
PRPrashant Raturi
Prashant Raturi
HDHemlata Deolal
Hemlata Deolal
SKSanjeev Kimothi
Sanjeev Kimothi

6 January 2023 in Sustainability
Verified
Journal Article
Open access
PDF file
SKSanjeev Kimothi
Sanjeev Kimothi
ATAsha Thapliyal
Asha Thapliyal
RSRajesh Singh
Rajesh Singh
Mamoon RashidMamoon Rashid
Mamoon Rashid
AGAnita Gehlot
Anita Gehlot
AJAbdul Rehman Javed
Abdul Rehman Javed
The framework for aqua farming database collection and the real-time monitoring of different working functions of aqua farming are essential to enhance and digitalize aqua farming. Data collection and real-time monitoring are attained using cutting-edge technologies, and these cutting-edge technologies are useful for the conservation and advancement of traditional aquatic farming, particularly in hilly areas with sustainable development goals (SDGs). Geo-tagging and geo-mapping of the aqua resources will play an important role in monitoring the species in the aquatic environment and can track the real-time health status, movement, and location, and monitor the foraging behaviors, of aquatic species. This study proposed an architecture with the IoT to manage the aqua resource for eco-sustainability with geospatial data. This study also discussed the geo information systems (GIS)- and geo positioning system (GPS)-based web-based framework for the fisheries sector and the creation of a database for aqua resource management. In the study, the results of database generation for the aqua resource management and the results of the fishpond in the cloud server are presented in detail. Machine learning (ML) is integrated with the framework to analyze the sensor data and geo-spatial data for the identification of any degradation in the water quality. This will provide real-time information to the policymakers for their critical decisions for the further development of aquatic species for enhancing the economy of the state as well as aqua farmers.

3 January 2025 in Environmental Monitoring and Assessment
Verified
Journal Article
Closed access
PDF file
KSKrishna Pal Singh
Krishna Pal Singh
SCSubhash Chandra
Subhash Chandra
MPMukesh Prasad
Mukesh Prasad
PPPooja Panwar
Pooja Panwar
AJAbhishek Joshi
Abhishek Joshi
RRR. C. Ramola
R. C. Ramola

8 November 2023 in Environmental Research
Verified
Journal Article
Closed access
ATAsha Thapliyal
Asha Thapliyal
SKSanjeev Kimothi
Sanjeev Kimothi
Umesh Chandra DumkaUmesh Chandra Dumka
Umesh Chandra Dumka
IDIswar Chandra Das
Iswar Chandra Das