
Summer Training & Internship Program
on
Solar Photo-Voltaic (PV) Design & Simulation
Training more than thousands of engineers in Solar Field, Enelek with zeal of "Developing Next-Gen Solar TechnoCrats" initiated "Solar Clan" - 1 Week Industry based Training & 3 Weeks Internship in Summer.
Solar Clan will provide platform for students
Learn Industry based Simulation Software,
Develop Industry Oriented Innovative Gadgets/Products
Develop Technology & Entrepreneurial Skills
Work on Industry Designed Projects (IDP's)
Mentored by leading Academicians & Industrialists
Think Out-of Box Ideas
Nurture Creativity & Innovation
Develop Scientific Temperament
Develop Skill Sets as per Industry Requirements
Certificate jointly issued by SINE,IIT-Bombay & Enelek

| City | Date | Timing |
|---|
Students from any background can attend the Course (Engineering or Science)
| Number of Persons | Fees (Rupees) | Discount |
|---|
Certification of Training jointly issued by SINE, IIT-Bombay & Enelek.
Certification of Internship jointly issued by SINE, IIT-Bombay & Enelek.
| Enelek Power Pvt. Ltd. | |
| Account Name: | 0454102000002998 |
| Bank: | IDBI Bank, Dadar - East |
| IFSC Code: | IBKL0000454 |
Campus Ambassador is intended to foster social innovation and entrepreneurship among Indian college students.
Profile
As a Campus Ambassador, you shall be expected to:
Works on Campus as a representative of ENELEK Power
Creates Brand Awareness for ENELEK Power in and around your Campus
Coordinating with your and other colleges to organize workshops
Help build a partnership with your college or university
What a Campus Ambassador gets?
Experience of working in a start-up by IITians
Real World Marketing Experience
Professional Skill Development
Recognition from various people in this profession
Certificate after the successful completion of intern
Required Skills
Excellent & Sensible communication, language skills are a must
Enthusiasm about learning new technologies and inspiring other about them
Willing to work in a start-up
We all know solar is a good choice for energy, but why? We'll discuss solar facts and debunk some myths too.
SOLAR FACT: In a study by the National Renewable Energy Laboratory (NREL) conclusively demonstrates that energy payback for photovoltaic (PV) power is, in the worst case, less than 4 years. Given that PV module lifetimes are generally in excess of 30 years, a PV system will produce far more energy than it consumes over its lifetime.
Energy output and input ratios for concentrating solar power (CSP) and solar thermal devices are even more favorable, given their simple manufacture. This myth has its origins in the early history of PV power, when devices were essentially custom-fabricated for military, space and research markets.
SOLAR FACT:
Solar PV technologies have declined in price every year since they were introduced onto the market, driven by improved research and development, and most of all by steady increases in sales volume. (In 1954, approximately one watt of PV generating devices was manufactured. In 2004, approximately one billion watts will be manufactured worldwide.)
Every solar panel purchased makes the next one cheaper, in stark contrast to nonrenewable sources, which become scarcer and more expensive with every ton that is burned.
PV has recently exploded into a number of industrial markets, where it is quite simply the lowest -cost source of power available. These include highway warning signs, rural irrigation applications and remote electrical and communications devices. Similarly, for any application more than about half a mile away from the electrical grid, a solar system will likely prove less expensive than will power line construction.
The most rapidly-growing segment of the solar industry is for “grid connected” systems – rooftop solar panels on homes or businesses that remain connected to the conventional electrical grid. In some cases, as where electricity is more expensive during the middle of the day, or when solar is used to support power-critical applications (e.g. banking, microchip manufacturing), the economics are very compelling without further incentives. In other places, comparatively modest state or federal incentives can make solar a great investment for home or business owners that better with every year.
SOLAR FACT:
Solar thermal is dependent on heat and PV Solar devices are dependent on light - and this light does not need to be direct.
More important than place-to-place variations in solar intensity is the price of daytime electricity where you live and the existence of state incentives for clean energy. Learn more about solar power tax credits.
SOLAR FACT:
PV systems produce no atmospheric emissions or greenhouse gases. Compared to fossil-generated electricity, each kilowatt of PV electricity annually offsets up to:
16 kilograms of nitrogen oxides
9 kilograms of sulfur oxides
2,300 kilograms of carbon dioxide (CO2)
If the industry grows by the 25% per year as predicted PV in the United States will offset 10 million metric tons of CO2 per year by 2027 - equivalent to the annual increase emitted by U.S. fossil fuel electricity generation. This means that the emission rate will become negative thereafter as the PV contribution grows!
SOLAR FACT:
This is a real business - one that has been growing by more than 35% per year over the past 2 years. In 2001, PV module shipments closed in on the 400-megawatt mark, representing a $2.5 to $3 billion market. The U.S.-based industry itself is now approaching $1 billion per year and providing 25,000 jobs. It's expected to grow to the $10-$15 billion level in the next 20 years, providing 300,000 jobs by 2025. This sustained growth exceeds that of the semiconductor industry.
A market shift has sparked the recent growth in the PV industry. It has shifted from almost completely remote, off-grid, and consumer products to nearly 60% grid-connected, distributed power. And these applications don't represent small niche markets. They represent the significant growth path for PV - the true distributed power source.
SOLAR FACT: The energy payback period is dropping rapidly. For example, it takes today's typical crystalline silicon module about 4 years to generate more energy than went into making the module in the first place. The next generation of silicon modules, which will employ a different grade of silicon and use thinner layers of semiconductor material, will have an energy payback of about 2 years. This means that these modules will produce “free” and clean energy for the remaining 28 years of their expected life.