I am responsible for leveraging data-driven insights to optimize energy management systems and drive actionable energy savings for our clients.

Working with Energy Solutions Team of Johnson Controls India as Application Engineer.Responsibilities:1. To lead Energy Performance Contracting (EPC) global projects, detailed Energy Analysis by keeping operational parameters within budget from India office.2. Co-ordination with JCI global branches for effective solution for energy conservation and energy efficiency. 3. Handling data-preprocessing, data analysis, and recommending actions to ensure effective performance of the HVAC equipment and buildings as-a-whole.4. Data Analytics and reporting using MS Excel, MS Power BI, MySQL, and Python.5. Collect and analyze daily energy & other operational profiles and build expert level insights for customer adoption.6.Perform Dashboard reviews, analyze, generate reports and recommendations to branches and customers.7. Analyze remote operational data, widgets, graphs, visuals to identify issues, problems in HVAC equipment (Chillers, boilers, pumps, CTs, AHU, VAVs etc.) and derive recommendations.8. Developed PowerBI reports / dashboards as per business requirements (e.g., Utility consumptions, M&V Savings, Trend Analysis.) for multiple JCI Clients. Capable of implementing row-level security on data along with an understanding of application security layer models in power bi9. Measurement and Verification (M&V) activity support to JCI branches (North America) for Energy Performance Contracting projects as per IPMVP Protocol.10. Review of Utility Bills and working on Utility Analysis for EPC project. 11. Review and analyze BMS trend data for verification of operation of different control strategies etc. as per the EPC. 12. Analyzing data collected during ASHRAE Level I & II Energy Audits of commercial buildings across North America Region. 13. Energy Modelling eQUEST for retrofit buildings of K12 schools and universities retrofit buildings (US based projects):14. Good Knowledge of HVAC systems such as chilled water system, Hot water system, Boilers.

Design & Proposal Engineer(Industrial Heating Segment)- Assessment of Industrial process heat applications (Steam, hot waters, and Industrial cooling).- Analysis of data collected during the audit and Identification of ECMs.- Detailed Techno-commercial proposal generation with estimating the scope of energy savings with emission reduction and attractive paybacks- Detailed P&ID, PFD, Case Studies, BOM and Vendor Management- Selection and Sizing of thermal equipment.- Developed cost estimation model to forecast the project cost at the proposal stage.- Cross-functional communicator easily interfaces with senior-level executives, functional organizations & customer’sEnergy Modeling and Analysis ( Industrial and Commercial Segment for Comfort Cooling) - Analyze the project preliminary details and conduct feasibility in providing sustainable cooling.- Benchmarking energy consumption against best practices guideline and assessment.- Analyzed and optimized building energy systems using software tools, spreadsheets, and manual calculations.- Review and Improvements in Energy Performance Index (EPI) of the clients.- Sizing Evaporative Cooling System including two stages cooling.- Calculating the Duct Sizing according to the CFM.- Quantifying relative saving in terms of energy and loads over conventional space cooling systemscalculations.

In a BWR, the rate of heat generation in a nuclear reactor is directly related to fission rate and hence the neutron flux which is directly related to the reactor power. Any change in the fuel temperature and void fraction affects the neutron flux distribution in the core and a change in core power effects both fuel temperature and void distribution in the core. Hence, the design of a nuclear reactor is the result of interplay of several variables like nature of the fuel, moderator, core composition, core geometry and the heat removal by coolant. Therefore, coupled neutronic and thermal hydraulic analysis of a nuclear core is very much required for accurate prediction of its steady state and transient behavior. The present study aims to develop one such tool for predicting the behavior of a boiling water reactor. I developed a mathematical model using FORTRAN code, which required fundamental understanding of Fluid mechanics, Heat Transfer and CFD.The objectives of the project work are: 1. To extend the model developed for single-channel thermal hydraulics to multi-channel systems and validate the same. Against experimental data available in literature2. To develop and validate a space-time neutron kinetics model.3. To validate the coupled model against the data available in open literature and to analysis the transient of interest.Application of Multichannel model- Nuclear power plants, Boilers, Solar heating and cooling systems, Geothermal systems, Electrical machine rotor cooling, Turbine blade cooling, electronic device cooling and process industry.