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$75 USD / ora
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north 25 parganas, india
$75 USD / ora
Attualmente sono le 12:47 AM qui
Registrato il febbraio 5, 2020
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Sitav B.

@sitav369

 4,2 (1 valutazione)
1,7
1,7
100%
100%
$75 USD / ora
Bandiera: INDIA
north 25 parganas, india
$75 USD / ora
100%
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Tasso di riassunzione

Solar PV Expert | Energy Engineer | M.Eng

Hi, I'm an experienced Lead Engineer and Project Manager for solar companies. I hold a Master's Degree majoring in Solar Engineering. With 8+ years of experience in the solar PV field- I've been involved in planning, design, and installation of 150+ (700MW+) solar projects across Asia, Africa, Australia, Europe, North America and South America. I've authored a book on Planning, Design & Installation of Solar + Battery Systems, titled- "Off Grid Solar Power" (link in portfolio). Project Experience: Utility Scale Solar Farms, Rooftop (Residential, Commercial, Industrial), Ground-Mount, Floating, Carport, On-grid, Off-grid, Battery Storage Systems, Hybrid, Solar Pumping & Irrigation Systems, Wind and Hydrogen Projects etc. I can plan and design solar PV systems, and prepare project documentation for you with PE Stamp. What you will get: ✅ Solar System Design, Simulation, Optimization and Detailed Technical & Financial Evaluation ✅ Solar PV Planning, Engineering, Layout & Construction Plan ✅ Integration with Multiple Energy Sources: Wind Power Systems, Batteries, Hydrogen, Diesel Generators etc. ✅ Electric Vehicle (EV) Charging Station Planning, Design, Layout & Construction Plan ✅ Building Electrical Design ✅ Construction & Permit Plan Sets ✅ Complete Electrical Design ✅ Scale 3D Model & Shading Analysis ✅ Battery Modelling ✅ Cable Plan ✅ Environmental & Emissions Assessment ✅ Site Terrain Analysis ✅ Electrical Analysis ✅ Electrical Design & Diagrams (three line diagram, single line diagram) ✅ Civil Layout & Design of Utility Scale Solar Farms, Rooftop, Ground Mount, Floating Solar, Battery Systems etc. ✅ Advanced Software Proficiency ✅ International Standards for Engineering, Design and Safety: IEC/NEC/IEEE/VDE/AS/NZS/IFC/IBC ✅ Financial Analysis, Feasibility Study and LCOE Analysis ✅ Earthing/Grounding Design & Layout ✅ Lightning Protection System Design & Layout ✅ Contract Formulation and Review (EPC, PPA and O&M) ✅ Project Task Plan, Quality Control Plan and Safety Management ✅ Risk Assessment and Mitigation ✅ Project Documentation and Labels ✅ Detailed Project Reports and Proposals
Freelancer Renewable Energy Design Professionals India
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Portfolio

9627463
The project case presented here is a 740kW Rooftop PV + 300kWh Li-Ion Battery Storage + Backup Diesel Generator Hybrid System that works in parallel with the utility grid as well as backup during power outages. The project is located in a food processing factory in Pretoria, South Africa. The utility grid for this site has a Time-of-Use Energy & Demand Charge Schedule (peak/standard/off peak charges based on season and weekdays/weekends). Our aim was to reduce energy charges and reduce emissions over the long term by maximizing PV system size on the factory roofs. Energy storage system (ESS) was analyzed for its potential to increase self-consumption of PV, charge batteries from the grid when rate is cheap, discharge when rate is at peak, and reduce fuel costs incurred by the diesel generator during power outages. Annual grid price inflation, diesel fuel price inflation, solar PV output degradation and other practical parameters were factored in to create a fully realistic simula
740kW PV + 300kWh Battery Storage Hybrid System
The project case presented here is a 740kW Rooftop PV + 300kWh Li-Ion Battery Storage + Backup Diesel Generator Hybrid System that works in parallel with the utility grid as well as backup during power outages. The project is located in a food processing factory in Pretoria, South Africa. The utility grid for this site has a Time-of-Use Energy & Demand Charge Schedule (peak/standard/off peak charges based on season and weekdays/weekends). Our aim was to reduce energy charges and reduce emissions over the long term by maximizing PV system size on the factory roofs. Energy storage system (ESS) was analyzed for its potential to increase self-consumption of PV, charge batteries from the grid when rate is cheap, discharge when rate is at peak, and reduce fuel costs incurred by the diesel generator during power outages. Annual grid price inflation, diesel fuel price inflation, solar PV output degradation and other practical parameters were factored in to create a fully realistic simula
740kW PV + 300kWh Battery Storage Hybrid System
The project case presented here is a 740kW Rooftop PV + 300kWh Li-Ion Battery Storage + Backup Diesel Generator Hybrid System that works in parallel with the utility grid as well as backup during power outages. The project is located in a food processing factory in Pretoria, South Africa. The utility grid for this site has a Time-of-Use Energy & Demand Charge Schedule (peak/standard/off peak charges based on season and weekdays/weekends). Our aim was to reduce energy charges and reduce emissions over the long term by maximizing PV system size on the factory roofs. Energy storage system (ESS) was analyzed for its potential to increase self-consumption of PV, charge batteries from the grid when rate is cheap, discharge when rate is at peak, and reduce fuel costs incurred by the diesel generator during power outages. Annual grid price inflation, diesel fuel price inflation, solar PV output degradation and other practical parameters were factored in to create a fully realistic simula
740kW PV + 300kWh Battery Storage Hybrid System
The project case presented here is a 740kW Rooftop PV + 300kWh Li-Ion Battery Storage + Backup Diesel Generator Hybrid System that works in parallel with the utility grid as well as backup during power outages. The project is located in a food processing factory in Pretoria, South Africa. The utility grid for this site has a Time-of-Use Energy & Demand Charge Schedule (peak/standard/off peak charges based on season and weekdays/weekends). Our aim was to reduce energy charges and reduce emissions over the long term by maximizing PV system size on the factory roofs. Energy storage system (ESS) was analyzed for its potential to increase self-consumption of PV, charge batteries from the grid when rate is cheap, discharge when rate is at peak, and reduce fuel costs incurred by the diesel generator during power outages. Annual grid price inflation, diesel fuel price inflation, solar PV output degradation and other practical parameters were factored in to create a fully realistic simula
740kW PV + 300kWh Battery Storage Hybrid System
The project case presented here is a 740kW Rooftop PV + 300kWh Li-Ion Battery Storage + Backup Diesel Generator Hybrid System that works in parallel with the utility grid as well as backup during power outages. The project is located in a food processing factory in Pretoria, South Africa. The utility grid for this site has a Time-of-Use Energy & Demand Charge Schedule (peak/standard/off peak charges based on season and weekdays/weekends). Our aim was to reduce energy charges and reduce emissions over the long term by maximizing PV system size on the factory roofs. Energy storage system (ESS) was analyzed for its potential to increase self-consumption of PV, charge batteries from the grid when rate is cheap, discharge when rate is at peak, and reduce fuel costs incurred by the diesel generator during power outages. Annual grid price inflation, diesel fuel price inflation, solar PV output degradation and other practical parameters were factored in to create a fully realistic simula
740kW PV + 300kWh Battery Storage Hybrid System
The project case presented here is a 740kW Rooftop PV + 300kWh Li-Ion Battery Storage + Backup Diesel Generator Hybrid System that works in parallel with the utility grid as well as backup during power outages. The project is located in a food processing factory in Pretoria, South Africa. The utility grid for this site has a Time-of-Use Energy & Demand Charge Schedule (peak/standard/off peak charges based on season and weekdays/weekends). Our aim was to reduce energy charges and reduce emissions over the long term by maximizing PV system size on the factory roofs. Energy storage system (ESS) was analyzed for its potential to increase self-consumption of PV, charge batteries from the grid when rate is cheap, discharge when rate is at peak, and reduce fuel costs incurred by the diesel generator during power outages. Annual grid price inflation, diesel fuel price inflation, solar PV output degradation and other practical parameters were factored in to create a fully realistic simula
740kW PV + 300kWh Battery Storage Hybrid System
9627456
The project presented here is a 400MW utility-scale solar farm I worked on earlier this year with a client in the US. This gargantuan solar farm is enough to power 80,000 homes. The plant is located in Texas, USA- spanning over 3700 acres, housing around 750,000 bifacial solar modules mounted on single-axis trackers, 89 central inverters, and an extra-high voltage substation pumping 345,000 volts! My scope included complete plant layout, planning, engineering design, terrain analysis, equipment selection & sourcing, energy simulation, financial assessment, and creating civil & electrical plan sets.
400MW Solar Farm in Texas, USA
The project presented here is a 400MW utility-scale solar farm I worked on earlier this year with a client in the US. This gargantuan solar farm is enough to power 80,000 homes. The plant is located in Texas, USA- spanning over 3700 acres, housing around 750,000 bifacial solar modules mounted on single-axis trackers, 89 central inverters, and an extra-high voltage substation pumping 345,000 volts! My scope included complete plant layout, planning, engineering design, terrain analysis, equipment selection & sourcing, energy simulation, financial assessment, and creating civil & electrical plan sets.
400MW Solar Farm in Texas, USA
The project presented here is a 400MW utility-scale solar farm I worked on earlier this year with a client in the US. This gargantuan solar farm is enough to power 80,000 homes. The plant is located in Texas, USA- spanning over 3700 acres, housing around 750,000 bifacial solar modules mounted on single-axis trackers, 89 central inverters, and an extra-high voltage substation pumping 345,000 volts! My scope included complete plant layout, planning, engineering design, terrain analysis, equipment selection & sourcing, energy simulation, financial assessment, and creating civil & electrical plan sets.
400MW Solar Farm in Texas, USA
The project presented here is a 400MW utility-scale solar farm I worked on earlier this year with a client in the US. This gargantuan solar farm is enough to power 80,000 homes. The plant is located in Texas, USA- spanning over 3700 acres, housing around 750,000 bifacial solar modules mounted on single-axis trackers, 89 central inverters, and an extra-high voltage substation pumping 345,000 volts! My scope included complete plant layout, planning, engineering design, terrain analysis, equipment selection & sourcing, energy simulation, financial assessment, and creating civil & electrical plan sets.
400MW Solar Farm in Texas, USA
The project presented here is a 400MW utility-scale solar farm I worked on earlier this year with a client in the US. This gargantuan solar farm is enough to power 80,000 homes. The plant is located in Texas, USA- spanning over 3700 acres, housing around 750,000 bifacial solar modules mounted on single-axis trackers, 89 central inverters, and an extra-high voltage substation pumping 345,000 volts! My scope included complete plant layout, planning, engineering design, terrain analysis, equipment selection & sourcing, energy simulation, financial assessment, and creating civil & electrical plan sets.
400MW Solar Farm in Texas, USA
9616998
Authored a book that covers the planning, design and installation of Off-grid and Mobile Solar Power Systems. https://www.amazon.com/Mobile-Solar-Power-Photovoltaics-Batteries-ebook/dp/B08P3Q94KJ
Authored a Book on Off-grid & Mobile Solar Power
7158422
Engineering Design, Installation & Commissioning of 40+ Solar Projects
Solar PV Work Collection
7158395
Advanced Solar PV + Battery Design, Simulation & Analysis with PVSOL
PVSOL Sample
6124850
40kWp PV system integrated with 90kWh battery and diesel generator https://www.nrg-renewables.com/project/total-cambodia
Solar + Battery + Diesel Generator Hybrid System
9627463
The project case presented here is a 740kW Rooftop PV + 300kWh Li-Ion Battery Storage + Backup Diesel Generator Hybrid System that works in parallel with the utility grid as well as backup during power outages. The project is located in a food processing factory in Pretoria, South Africa. The utility grid for this site has a Time-of-Use Energy & Demand Charge Schedule (peak/standard/off peak charges based on season and weekdays/weekends). Our aim was to reduce energy charges and reduce emissions over the long term by maximizing PV system size on the factory roofs. Energy storage system (ESS) was analyzed for its potential to increase self-consumption of PV, charge batteries from the grid when rate is cheap, discharge when rate is at peak, and reduce fuel costs incurred by the diesel generator during power outages. Annual grid price inflation, diesel fuel price inflation, solar PV output degradation and other practical parameters were factored in to create a fully realistic simula
740kW PV + 300kWh Battery Storage Hybrid System
The project case presented here is a 740kW Rooftop PV + 300kWh Li-Ion Battery Storage + Backup Diesel Generator Hybrid System that works in parallel with the utility grid as well as backup during power outages. The project is located in a food processing factory in Pretoria, South Africa. The utility grid for this site has a Time-of-Use Energy & Demand Charge Schedule (peak/standard/off peak charges based on season and weekdays/weekends). Our aim was to reduce energy charges and reduce emissions over the long term by maximizing PV system size on the factory roofs. Energy storage system (ESS) was analyzed for its potential to increase self-consumption of PV, charge batteries from the grid when rate is cheap, discharge when rate is at peak, and reduce fuel costs incurred by the diesel generator during power outages. Annual grid price inflation, diesel fuel price inflation, solar PV output degradation and other practical parameters were factored in to create a fully realistic simula
740kW PV + 300kWh Battery Storage Hybrid System
The project case presented here is a 740kW Rooftop PV + 300kWh Li-Ion Battery Storage + Backup Diesel Generator Hybrid System that works in parallel with the utility grid as well as backup during power outages. The project is located in a food processing factory in Pretoria, South Africa. The utility grid for this site has a Time-of-Use Energy & Demand Charge Schedule (peak/standard/off peak charges based on season and weekdays/weekends). Our aim was to reduce energy charges and reduce emissions over the long term by maximizing PV system size on the factory roofs. Energy storage system (ESS) was analyzed for its potential to increase self-consumption of PV, charge batteries from the grid when rate is cheap, discharge when rate is at peak, and reduce fuel costs incurred by the diesel generator during power outages. Annual grid price inflation, diesel fuel price inflation, solar PV output degradation and other practical parameters were factored in to create a fully realistic simula
740kW PV + 300kWh Battery Storage Hybrid System
The project case presented here is a 740kW Rooftop PV + 300kWh Li-Ion Battery Storage + Backup Diesel Generator Hybrid System that works in parallel with the utility grid as well as backup during power outages. The project is located in a food processing factory in Pretoria, South Africa. The utility grid for this site has a Time-of-Use Energy & Demand Charge Schedule (peak/standard/off peak charges based on season and weekdays/weekends). Our aim was to reduce energy charges and reduce emissions over the long term by maximizing PV system size on the factory roofs. Energy storage system (ESS) was analyzed for its potential to increase self-consumption of PV, charge batteries from the grid when rate is cheap, discharge when rate is at peak, and reduce fuel costs incurred by the diesel generator during power outages. Annual grid price inflation, diesel fuel price inflation, solar PV output degradation and other practical parameters were factored in to create a fully realistic simula
740kW PV + 300kWh Battery Storage Hybrid System
The project case presented here is a 740kW Rooftop PV + 300kWh Li-Ion Battery Storage + Backup Diesel Generator Hybrid System that works in parallel with the utility grid as well as backup during power outages. The project is located in a food processing factory in Pretoria, South Africa. The utility grid for this site has a Time-of-Use Energy & Demand Charge Schedule (peak/standard/off peak charges based on season and weekdays/weekends). Our aim was to reduce energy charges and reduce emissions over the long term by maximizing PV system size on the factory roofs. Energy storage system (ESS) was analyzed for its potential to increase self-consumption of PV, charge batteries from the grid when rate is cheap, discharge when rate is at peak, and reduce fuel costs incurred by the diesel generator during power outages. Annual grid price inflation, diesel fuel price inflation, solar PV output degradation and other practical parameters were factored in to create a fully realistic simula
740kW PV + 300kWh Battery Storage Hybrid System
The project case presented here is a 740kW Rooftop PV + 300kWh Li-Ion Battery Storage + Backup Diesel Generator Hybrid System that works in parallel with the utility grid as well as backup during power outages. The project is located in a food processing factory in Pretoria, South Africa. The utility grid for this site has a Time-of-Use Energy & Demand Charge Schedule (peak/standard/off peak charges based on season and weekdays/weekends). Our aim was to reduce energy charges and reduce emissions over the long term by maximizing PV system size on the factory roofs. Energy storage system (ESS) was analyzed for its potential to increase self-consumption of PV, charge batteries from the grid when rate is cheap, discharge when rate is at peak, and reduce fuel costs incurred by the diesel generator during power outages. Annual grid price inflation, diesel fuel price inflation, solar PV output degradation and other practical parameters were factored in to create a fully realistic simula
740kW PV + 300kWh Battery Storage Hybrid System
9627456
The project presented here is a 400MW utility-scale solar farm I worked on earlier this year with a client in the US. This gargantuan solar farm is enough to power 80,000 homes. The plant is located in Texas, USA- spanning over 3700 acres, housing around 750,000 bifacial solar modules mounted on single-axis trackers, 89 central inverters, and an extra-high voltage substation pumping 345,000 volts! My scope included complete plant layout, planning, engineering design, terrain analysis, equipment selection & sourcing, energy simulation, financial assessment, and creating civil & electrical plan sets.
400MW Solar Farm in Texas, USA
The project presented here is a 400MW utility-scale solar farm I worked on earlier this year with a client in the US. This gargantuan solar farm is enough to power 80,000 homes. The plant is located in Texas, USA- spanning over 3700 acres, housing around 750,000 bifacial solar modules mounted on single-axis trackers, 89 central inverters, and an extra-high voltage substation pumping 345,000 volts! My scope included complete plant layout, planning, engineering design, terrain analysis, equipment selection & sourcing, energy simulation, financial assessment, and creating civil & electrical plan sets.
400MW Solar Farm in Texas, USA
The project presented here is a 400MW utility-scale solar farm I worked on earlier this year with a client in the US. This gargantuan solar farm is enough to power 80,000 homes. The plant is located in Texas, USA- spanning over 3700 acres, housing around 750,000 bifacial solar modules mounted on single-axis trackers, 89 central inverters, and an extra-high voltage substation pumping 345,000 volts! My scope included complete plant layout, planning, engineering design, terrain analysis, equipment selection & sourcing, energy simulation, financial assessment, and creating civil & electrical plan sets.
400MW Solar Farm in Texas, USA
The project presented here is a 400MW utility-scale solar farm I worked on earlier this year with a client in the US. This gargantuan solar farm is enough to power 80,000 homes. The plant is located in Texas, USA- spanning over 3700 acres, housing around 750,000 bifacial solar modules mounted on single-axis trackers, 89 central inverters, and an extra-high voltage substation pumping 345,000 volts! My scope included complete plant layout, planning, engineering design, terrain analysis, equipment selection & sourcing, energy simulation, financial assessment, and creating civil & electrical plan sets.
400MW Solar Farm in Texas, USA
The project presented here is a 400MW utility-scale solar farm I worked on earlier this year with a client in the US. This gargantuan solar farm is enough to power 80,000 homes. The plant is located in Texas, USA- spanning over 3700 acres, housing around 750,000 bifacial solar modules mounted on single-axis trackers, 89 central inverters, and an extra-high voltage substation pumping 345,000 volts! My scope included complete plant layout, planning, engineering design, terrain analysis, equipment selection & sourcing, energy simulation, financial assessment, and creating civil & electrical plan sets.
400MW Solar Farm in Texas, USA
9616998
Authored a book that covers the planning, design and installation of Off-grid and Mobile Solar Power Systems. https://www.amazon.com/Mobile-Solar-Power-Photovoltaics-Batteries-ebook/dp/B08P3Q94KJ
Authored a Book on Off-grid & Mobile Solar Power
7158422
Engineering Design, Installation & Commissioning of 40+ Solar Projects
Solar PV Work Collection
7158395
Advanced Solar PV + Battery Design, Simulation & Analysis with PVSOL
PVSOL Sample
6124850
40kWp PV system integrated with 90kWh battery and diesel generator https://www.nrg-renewables.com/project/total-cambodia
Solar + Battery + Diesel Generator Hybrid System

Valutazioni

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valutazioni 1 - 1 di 1 mostrate
 Filtra valutazioni per:
4,2
$110,00 NZD
PV installation solution on residential buildings
He is knowledgeable on the subject matter, awesome to work with and communicates promptly. I would hire him again.
Renewable Energy Design
Battery Charging and Batteries
Power Converters
Solar
A
Bandiera: Ackson Simpemba C.
@acksonchikoma
•
4 anni fa

Esperienza

Technical Manager

NRG Solar
ago 2017 - Attualmente
● Leading a team of 10 engineers ● Involved in several solar projects (grid-connected, standalone & hybrid systems) ● PV systems design, simulation, planning, installation & commissioning ● PV software used: PVsyst, HOMER Pro, Asana, Helioscope, AutoCAD, Sketchup, PV*SOL, NREL SAM etc. ● Creating & reviewing SLDs, BOM, BOQ, site models, spreadsheet tools, manuals, earthing diagrams etc. ● O&M including scheduled & preventative maintenance, technical work & reporting

Research Consultant (Dept. of Energy, Environment & Climate Change)

Asian Institute of Technology
giu 2017 - lug 2018 (1 anno, 1 mese)
● Responsible for several projects, knowledge dissemination workshops, seminars and lectures; ● Engineering design and consulting for renewable energy projects; ● Carried out technical design, policy research, financial modelling and project design pertaining to renewable energy technology and sustainability.

Engineer

PAG Electronics
ago 2014 - mag 2015 (9 mesi, 1 giorno)
● Mechanical design and analysis of body parts of electronic consumer goods using SolidWorks and Ansys; ● Innovated the mechanical design of a portable and foldable electronic weighing scale; ● Investigated equipment failures to diagnose faulty operation and made appropriate maintenance recommendations; ● Completed mechanical design projects while providing technical solutions feedback;; ● Developed costing and budgets; ● Assistance in procurement; ● Assisted in building external relations.

Formazione

Master of Engineering (Energy Engineering)

Asian Institute of Technology, Thailand 2015 - 2017
(2 anni)

Bachelor of Engineering (Mechanical Engineering)

Manipal Institute of Technology, India 2010 - 2014
(4 anni)

Certificati

Solar Energy: Integration of Photovoltaic Systems in Microgrids

Delft University of Technology (Netherlands)
2020
- Microgrids: Design & Layout - Energy Sources and Storage Technology - Power Electronic Interfaces - Intelligent Local Controllers - Control in Microgrids - AC & DC Microgrids - Protection - Faults

Advanced Certificate in AutoCAD

Amity Computer Academy
2015
AutoCAD 2D & 3D

Advanced Certificate in Solar PV Engineering, Installation & Management

Insitute of Solar Technology
2017
Solar PV & Electrical Engineering Solar Resource & Climate Data Assessment PV Components Site Assesment Project Management Installation & Commissioning Operation & Maintenance Safety Management Entrepreneurship

Pubblicazioni

Off-grid Solar Power: Design & Installation of Solar + Battery Systems

Monkey Publishing (Germany)
Authored a Book covering the Planning, Design and Installation of Off-grid and Mobile Solar Power + Battery Systems. Link: https://www.amazon.com/Mobile-Solar-Power-Photovoltaics-Batteries-ebook/dp/B08P3Q94KJ

Techno-economic analysis of large-scale algae fuel production

Environmental Quality Management
Plant design, costing, and detailed feasibility study for large-scale algae-based biofuel production utilizing coal thermal flue gas and wastewater. . Link: https://onlinelibrary.wiley.com/doi/abs/10.1002/tqem.21677

Contatta Sitav B. per il tuo lavoro

Accedi per discutere i dettagli via chat.

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Competenze principali

Renewable Energy Design 1
Solar 1
Electrical Engineering
Supplier Sourcing
AutoCAD

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