Solar in India have its own importance. It's the best opportunity for investors and this presentation explores it. If you need any further info please feel free to contact me. Viraj
Solar Power 2020: India On A National Solar MissionHIMADRI BANERJI
India can now make 700 megawatts of photovoltaic modules each year, according to the plan. The aim would be to make 20,000 megawatts of solar cells annually by 2017 and to establish expertise in solar thermal technologies.
Total costs would be 85,000 and 105,000 crores ($18.5 billion to $22.8 billion) over a 30-year period. To help finance the project, the plan foresees a significant tax on gasoline and diesel — fuels the government currently subsidizes.
Solar Potential In India - An Overview of the Prospects of Solar Power Projects in India with focus on Grid Connected & Roof Top Systems and associated PV technologies.
Presentation Made By: Shaantanu Gaur (For Eixil Group)
Follow Me: https://in.linkedin.com/in/shaantanugaur
Contact: gaur.shaantanu@gmail.com / 98732 666 04
Solar Power 2020: India On A National Solar MissionHIMADRI BANERJI
India can now make 700 megawatts of photovoltaic modules each year, according to the plan. The aim would be to make 20,000 megawatts of solar cells annually by 2017 and to establish expertise in solar thermal technologies.
Total costs would be 85,000 and 105,000 crores ($18.5 billion to $22.8 billion) over a 30-year period. To help finance the project, the plan foresees a significant tax on gasoline and diesel — fuels the government currently subsidizes.
Solar Potential In India - An Overview of the Prospects of Solar Power Projects in India with focus on Grid Connected & Roof Top Systems and associated PV technologies.
Presentation Made By: Shaantanu Gaur (For Eixil Group)
Follow Me: https://in.linkedin.com/in/shaantanugaur
Contact: gaur.shaantanu@gmail.com / 98732 666 04
On-grid PV Opportunities in University Campuses: A case study at Nazarbayev U...Luis Ram Rojas-Sol
The universities around the world are taking every day a more decisive role in fighting global warming. Indeed,
many campuses are not only teaching established and disrupting clean energy technologies, but also are practicing
their lectures. For example, the University of Arizona, USA, leads the campuses with 28 MW of installed On-Grid
PV systems (http://www.aashe.org/resources/campus-solar-photovoltaic-installations/top10/). Furthermore,
campuses of emerging universities, as Nazarbayev University (NU), located in Astana, Kazakhstan, which is
developing with the firm aim to become a leader world class research university in the heart of Eurasia, are taking
this commitment as well. Additionally, being Kazakhstan the host of EXPO-2017 which has the motto: ¨Future
Energy¨, it is natural to evaluate if NU campus would be a good candidate to support and exhibit, with demonstrated
technical and economic advantages, its own On-Grid PV in-campus system. Therefore, in this investigation, a
feasibility study of installing PV panels on the rooftop of School of Engineering at NU is carried out. A 24 kWp rooftop
PV installation with a 14.7% capacity factor, capable to export 31 MWh of electricity to the grid per year, is assumed
to be the system for the purpose of this analysis. The financial analysis has a horizon of 20-year lifetime and 25%
debt ratio financed at 15% interest over 20 years. Selection of appropriate equipment and calculation of financial
outcomes under three different scenarios or policy options are presented. The policies or scenarios corresponded
to having or not government grants (GG) and having attractive Feed-in-Tariff (FIT) rates in order to determine their
financial benefits. The GG scenario was stretched up to consider 30% of the total project cost and FIT was varied
from current offered FIT rate by KEGOC (Kazakhstan utility company) of 36,410 KZT/MWh to a more attractive rate
of 70,000 KZT/MWh. Results demonstrate that current scenario of FIT is marginally favorable (IRR on Equity: 15.1%,
Benefit-Cost Ratio: 1.37, Equity Payback: 8.8 years), while the 30% of incentives on top of current FIT moderatedly
improves the benefits of the project (IRR on Equity: 20.9%, Benefit-Cost Ratio: 1.47, Equity Payback: 7.2 years).
Nevertheless, upgrading current FIT to 70,000 KZT/MWh, even without incentives, proved to be enough to
dramatically improve the outcome of the project for investors (IRR-Equity > 28%, Equity Payback of 5 years and
Benefit-Cost ratio > 3.6), demonstrating that with a subtle change in policies, Nazarbayev University as many other
campuses in the country, may easily justify the investment in their On-Grid PV systems and therefore, become part
of the “green” universities in the world with direct contribution to tackle climate change.
Pay back period and cost base analysis of solar PV LanternMalik Sameeullah
Financial analysis tool is used to find out the financial feasibility of solar Photo voltaic Lantern. Topic used simple financial tool with self explanatory formula and explain financial analysis of SPV lantern. It is easy to understand the financial analysis specially for beginner.
ita a scheme statrted in 2009 by congress. earlier it waas known as jawahar lal nehru national solar mission bt recently its name change into national solar mission
Solar News from India for week 1 July 2021- Solar Policy change, Minister app...Rohit Arora
This video Compiles all the BIG NEWS in Indian Solar Market for Week 1 of July 2021.
Welcome to SolarOcta, our weekly & Monthly news series on the latest megaprojects in Solar Industry, New Policies, New Tenders, New startups, New announcements, and a lot more.
#SolarWeekly
Official Document of the Solar Power Policy of Andhra Pradesh 2015.
This document is not a work of Headway Solar (http://headwaysolar.com/) and it has been released here for the benefit of the general public.
On-grid PV Opportunities in University Campuses: A case study at Nazarbayev U...Luis Ram Rojas-Sol
The universities around the world are taking every day a more decisive role in fighting global warming. Indeed,
many campuses are not only teaching established and disrupting clean energy technologies, but also are practicing
their lectures. For example, the University of Arizona, USA, leads the campuses with 28 MW of installed On-Grid
PV systems (http://www.aashe.org/resources/campus-solar-photovoltaic-installations/top10/). Furthermore,
campuses of emerging universities, as Nazarbayev University (NU), located in Astana, Kazakhstan, which is
developing with the firm aim to become a leader world class research university in the heart of Eurasia, are taking
this commitment as well. Additionally, being Kazakhstan the host of EXPO-2017 which has the motto: ¨Future
Energy¨, it is natural to evaluate if NU campus would be a good candidate to support and exhibit, with demonstrated
technical and economic advantages, its own On-Grid PV in-campus system. Therefore, in this investigation, a
feasibility study of installing PV panels on the rooftop of School of Engineering at NU is carried out. A 24 kWp rooftop
PV installation with a 14.7% capacity factor, capable to export 31 MWh of electricity to the grid per year, is assumed
to be the system for the purpose of this analysis. The financial analysis has a horizon of 20-year lifetime and 25%
debt ratio financed at 15% interest over 20 years. Selection of appropriate equipment and calculation of financial
outcomes under three different scenarios or policy options are presented. The policies or scenarios corresponded
to having or not government grants (GG) and having attractive Feed-in-Tariff (FIT) rates in order to determine their
financial benefits. The GG scenario was stretched up to consider 30% of the total project cost and FIT was varied
from current offered FIT rate by KEGOC (Kazakhstan utility company) of 36,410 KZT/MWh to a more attractive rate
of 70,000 KZT/MWh. Results demonstrate that current scenario of FIT is marginally favorable (IRR on Equity: 15.1%,
Benefit-Cost Ratio: 1.37, Equity Payback: 8.8 years), while the 30% of incentives on top of current FIT moderatedly
improves the benefits of the project (IRR on Equity: 20.9%, Benefit-Cost Ratio: 1.47, Equity Payback: 7.2 years).
Nevertheless, upgrading current FIT to 70,000 KZT/MWh, even without incentives, proved to be enough to
dramatically improve the outcome of the project for investors (IRR-Equity > 28%, Equity Payback of 5 years and
Benefit-Cost ratio > 3.6), demonstrating that with a subtle change in policies, Nazarbayev University as many other
campuses in the country, may easily justify the investment in their On-Grid PV systems and therefore, become part
of the “green” universities in the world with direct contribution to tackle climate change.
Pay back period and cost base analysis of solar PV LanternMalik Sameeullah
Financial analysis tool is used to find out the financial feasibility of solar Photo voltaic Lantern. Topic used simple financial tool with self explanatory formula and explain financial analysis of SPV lantern. It is easy to understand the financial analysis specially for beginner.
ita a scheme statrted in 2009 by congress. earlier it waas known as jawahar lal nehru national solar mission bt recently its name change into national solar mission
Solar News from India for week 1 July 2021- Solar Policy change, Minister app...Rohit Arora
This video Compiles all the BIG NEWS in Indian Solar Market for Week 1 of July 2021.
Welcome to SolarOcta, our weekly & Monthly news series on the latest megaprojects in Solar Industry, New Policies, New Tenders, New startups, New announcements, and a lot more.
#SolarWeekly
Official Document of the Solar Power Policy of Andhra Pradesh 2015.
This document is not a work of Headway Solar (http://headwaysolar.com/) and it has been released here for the benefit of the general public.
Official Document of the J&K Solar policy 2010.
This document is not a work of Headway Solar (http://headwaysolar.com/) and it has been released here for the benefit of the general public.
The ppt gives an overview on recent policy initiatives on Renwable Energy, like cerc\'s new regulation, national solar mission and renewable energy certificate
Solar India - Sun Power is Solution to India's Energy Crisissolarindia
The report talks about Jawaharlal Nehru Solar Mission, Solar farms, SEZs, Solar technologies, Photovoltaics, PV trends, thin film solar panels, stocks /shares listed on Bombay stock exchange and National stock exchange in India
Indian government has announced several measures to promote on-grid solar and thermal PV projects. This study presents the financial attractiveness of solar and thermal projects considering the central & state incentives and tax regime.
Official Jharkhand solar power policy 2013 Document.
This document is not a work of Headway Solar (http://headwaysolar.com/) and it has been released here for the benefit of the general public.
Overview of solar power generation in indiaBinit Das
-Overall Indian solar capacity addition target vs. current progress
-Current competitive landscape in solar power generation in India
-Typical timeline / milestones for ground-mounted solar project implementation (incl. activity-wise phasing)
-Usual EPC supply chain for ground-mounted solar project
-Key EPC / implementation risks and other key challenges faced by solar developers in India
-Typical risk mitigation measures and key success factors
Reminiscing memories 5 years ago in 2014 winning 1st runner up spot for General Electric Manufacturing Company (GEMAC) / GE Challenge University Level with the theme of Sustainable Energy in Malaysia. Our team Energive (Giving Energy) made some proposal/strategic planning of smartgrid in Malaysia.
Similar to Solar power plant Opportunity and Costing (20)
Industrial Training at Shahjalal Fertilizer Company Limited (SFCL)MdTanvirMahtab2
This presentation is about the working procedure of Shahjalal Fertilizer Company Limited (SFCL). A Govt. owned Company of Bangladesh Chemical Industries Corporation under Ministry of Industries.
Hierarchical Digital Twin of a Naval Power SystemKerry Sado
A hierarchical digital twin of a Naval DC power system has been developed and experimentally verified. Similar to other state-of-the-art digital twins, this technology creates a digital replica of the physical system executed in real-time or faster, which can modify hardware controls. However, its advantage stems from distributing computational efforts by utilizing a hierarchical structure composed of lower-level digital twin blocks and a higher-level system digital twin. Each digital twin block is associated with a physical subsystem of the hardware and communicates with a singular system digital twin, which creates a system-level response. By extracting information from each level of the hierarchy, power system controls of the hardware were reconfigured autonomously. This hierarchical digital twin development offers several advantages over other digital twins, particularly in the field of naval power systems. The hierarchical structure allows for greater computational efficiency and scalability while the ability to autonomously reconfigure hardware controls offers increased flexibility and responsiveness. The hierarchical decomposition and models utilized were well aligned with the physical twin, as indicated by the maximum deviations between the developed digital twin hierarchy and the hardware.
We have compiled the most important slides from each speaker's presentation. This year’s compilation, available for free, captures the key insights and contributions shared during the DfMAy 2024 conference.
Saudi Arabia stands as a titan in the global energy landscape, renowned for its abundant oil and gas resources. It's the largest exporter of petroleum and holds some of the world's most significant reserves. Let's delve into the top 10 oil and gas projects shaping Saudi Arabia's energy future in 2024.
Sachpazis:Terzaghi Bearing Capacity Estimation in simple terms with Calculati...Dr.Costas Sachpazis
Terzaghi's soil bearing capacity theory, developed by Karl Terzaghi, is a fundamental principle in geotechnical engineering used to determine the bearing capacity of shallow foundations. This theory provides a method to calculate the ultimate bearing capacity of soil, which is the maximum load per unit area that the soil can support without undergoing shear failure. The Calculation HTML Code included.
6th International Conference on Machine Learning & Applications (CMLA 2024)ClaraZara1
6th International Conference on Machine Learning & Applications (CMLA 2024) will provide an excellent international forum for sharing knowledge and results in theory, methodology and applications of on Machine Learning & Applications.
HEAP SORT ILLUSTRATED WITH HEAPIFY, BUILD HEAP FOR DYNAMIC ARRAYS.
Heap sort is a comparison-based sorting technique based on Binary Heap data structure. It is similar to the selection sort where we first find the minimum element and place the minimum element at the beginning. Repeat the same process for the remaining elements.
6. I) ELECTRICITY ACT 2003 : Most transformational & dynamic act till date
includes laid guidelines for Renewable energy.
SECTION 61(h): While specifying terms and condition for tariff
determination the commission shall consider the promotion of generation
from renewable energy sources.
SECTION 86(1) (e): State commission shall promote generation of
Electricity from renewable energy sources. It shall be done by providing grid
connectivity & sale of Electricity to anyone.
II) NATIONAL ELECTRICITY POLICY 2005 :
SECTION 6.4 : This section states that in present stage non conventional
and conventional energy cannot compete at same similar tariff and hence
power shall be procured from non-conventional sources at preferential tariff
as determined by appropriate commission.
7. Amendment of National tariff policy for Solar specific RPO’s.
Solar specific RPO’s – 025 % in 2013 to 3 % by 2022.
REC mechanism .
Encourage state specific solar policies.
State wise RPO orders by Regulators.
Exemption for Environmental clearance for Solar Power Projects.
8. Launched by Govt. of India in January 2011.
One of the major initiative at global level in promotion of
Solar energy technologies.
Mission aims to achieve grid tariff parity by 2022.
Large scale utilization, rapid diffusion and deployment at a
scale which leads to cost reduction.
R&D pilot projects and Technology Demonstration.
9. Average tariff for selected projects was 1216 paisa/kWh
which was 32% lower than CERC approved benchmark tariff
1791 paisa/kWh.
In a Batch I a total of 204 MW capacity grid connected solar
power projects have been commissioned.
10. Maharashtra has reasonably high solar insolation 4-5 kWh/sq. meter
with 280-300 clear sunny days.
Eastern Maharashtra considered to be most suitable region for solar
power projects
OBJECTIVE
To generate 1000 MW of Solar energy by 2016.
To achieve grid parity by 2016 .
Promotion of R&D and facilitation of technology transfer.
Promotion of local manufacturing facilities.
12. Subsidy under each project will be distributed into three installments by
state government
13. Project developer should not procure any incentives/
subsidy from central government.
PPA’s should be singed with MAHADISCOM.
Capacity Utilization Factor of Solar PV should be more than
19% for initial two years of installation.
An audited detailed report and energy generation report
should be submitted to MEDA.
14. Capital Cost: Normative Capital cost INR 700 Lakhs/MW for 2014-
15 as per MERC.
Annual Energy Yield: There are number of factors(e.g. Air
pollution, Shading, Soiling, Ambient temperature, Downtime etc.)
Which affect annual yield of Solar PV.
For 1 MWp Plant annual yield would averaged around 1.4 million
kWh units. Yield prediction are assumed for next 25 years.
Certified Emission Reductions: As India is non Annex 1 party
under UN Clean Development Mechanism (CDM) qualifying solar
projects could generate Certified Emission Reductions(CERs)
15. Energy Price :
Solar PV Plant under REC mechanism can earn its revenue from
selling grey.
In the financial model it is assumed that grey component of
energy sold to State discom at MSEDCL.
Operation and Maintenance cost: One of the major benefit of Solar
PV plant is less O & M cost as compared to other renewable energy
technologies.
Financing Assumptions: General financial assumptions for a
project in India as follows
Financial Structure: Equity 30 % and debt 70 % as assumed in
MERC tariff order.
Debt repayment is taken over as 10 years. Interest rate on term
loan and work capital is taken as 12.87% and 13.37% respectively.
16.
17.
18. Great opportunity, favorable Government Policies and assured returns on
Solar PV project installations make this attractive proposal for Green
entrepreneurship.
We as a consultant and promoter of Solar technology have tailored Solar
PV business solutions.
Please feel free to contact:
Mr. V. Bhosale 8390123426