Navneet Sidhu
University College Dublin, Thapar Institute of Engineering and Technology, Thapar Institute of Engineering & Technology, Punjab Agricultural University, Patil Dabur healthcare
About
I am a microbiologist with expertise in biomineralization and Microbially Induced Calcium Carbonate Precipitation (MICCP). My work explores the interactions between microorganisms and minerals to develop sustainable solutions for construction and geotechnical applications.
During my postdoctoral research, I investigated the biostimulation of ureolytic bacteria for calcium carbonate precipitation, with applications in concrete repair and soil stabilization. My doctoral research involved application of urease-producing bacterial strains and Cyanobacteria in enhancing the properties of cementitious materials and marble.
I have also contributed to the development of innovative bacterial carrier materials, including fly ash, metakaolin-based systems, and hydrogels, designed to improve the mechanical strength, durability, and self-healing capacity of concrete.
My long-term vision is to advance microbial-based green technologies that integrate microbiology, materials science, and environmental engineering for sustainable infrastructure development.
Employment
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University College Dublin Post-doctrate2024 - 2024
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Thapar Institute of Engineering and Technology Research Fellow2018 - 2021
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Patil Dabur healthcare Assistant Microbiologist2016 - 2017
Education
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Thapar Institute of Engineering & Technology PhD2017 - 2024
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Punjab Agricultural University Masters in Science2013 - 2016
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Punjab Agricultural University M.Sc Integrated (Hons.)2010 - 2016
Projects & Funding
Projects & funding information is unavailable.
Publications (12)
- Isolation and Characterization of Calcifying Bacteria from Marble Dust and Their Efficiency to Improve Durability Properties of Concrete Save
- Removal of cadmium through biomineralization using halophilic and ureolytic bacteria under saline conditions Save
- Comparative study of heterotrophic and photoautotrophic bacteria on strength and permeability properties of concrete Save
- Crack Bioremediation in Concrete by Photoautotrophic Cyanobacteria through Fly Ash–Based Cementitious Biogrout Save
- Self-healing by biocomposite containing metakaolin immobilized bacterial spores in concrete using low-cost corn steep liquor media Save
- Healing of cracks in concrete by using bacterial spores immobilized in metakaolin Save
- Removal of cadmium and arsenic from water through biomineralization Save
- Biomineralization of cyanobacteria Synechocystis pevalekii improves the durability properties of cement mortar Save
- Role of nanomaterials in protecting building materials from degradation and deterioration Save
- Osmotic pre-treatment of kinnow peel slices Save