Winter Gardens Solar Calculator

So, what exactly is involved in calculating solar panels cost in Winter Gardens? When thinking about solar power very few people know the way the cost of solar panel systems is actually measured. Or even, for that matter, do we automatically grasp the connection relating to the cost of solar power and the value of solar power. We all know that gasoline prices are in dollars per gallon. We likewise are all aware of approximately how far we’ll be able to drive after spending 40 bucks for a tank of gas. In contrast to a tank of gas, the value of which can be consumed pretty much instantly, solar panels deliver their value across a period of time.

Cost To Install Solar Panels

Winter Gardens 3 Undervalued Solar Leaders

Caption: Kokam 24-megawatt Energy Storage System (NYSE:ESS), used by South Korea's largest utility, Korea Electric Power Corporation (KEPCO): world's largest Lithium NMC ESS for frequency regulation

Sometimes technology creeps up on you before you realize what is happening. Then something happens to get your attention and you realize that things are changing fast. And so it is with batteries, the missing link in replacing fossil fuels with renewable energy.

Here I cover two areas of battery technology that are transforming power management at scale. The first comes out of left field as a solution to frequency regulation in power plants. The second relates to management of excess energy generated by solar and wind, followed by dispatch of that energy when needed. At its most extreme this role may involve near complete charge and discharge once, or even twice, in a single day, every day.

Grid reliability, increased efficiency and frequency regulation

Late last month Kokam (XKRX:040480) a veteran Lithium ion South Korean battery manufacturer, announced the deployment of 3 high performance Lithium ion battery systems to provide 56MW of specialized batteries for frequency regulation in large power plants in South Korea. The batteries are: two Kokam Lithium Nickel Manganese Cobalt (NMC) battery systems with capacities of 24 MW/9 MWh and 16MW/6MWh, and a 16MW/5MWh Lithium Titanate Oxide (LTO) battery system. The LTO system was implemented first. While LTO technology is robust, with less dependence on temperature control, it is more expensive than NMC batteries and the specifications from the utilities often require temperature control (hence housing in containers which are cooled or heated). I suspect that NMC will become the preferred technology for frequency regulation.

The 24MW NMC battery system is the largest used in the world for frequency regulation. These batteries provide the Korea Electric Power Corporation (KEPCO) (NYSE:KEP) with ~10% of the frequency regulation needed to allow its entire system to run largely with batteries. KEPCO plans to install ~500MW of rapid response batteries by 2017 to effectively wean South Korea off the need for fossil fuel to provide this reserve power need for frequency regulation. Several battery manufacturers are involved in this project (Kokam, LG Chem (OTC:LGCLF), Samsung (OTC:SSNLF). It isn't clear how much KEPCO has already installed but it may be as much as 230MW of batteries for frequency regulation.

South Korea is special in that it has a single power authority, KEPCO, which is largely responsible for managing the nation's power capacity. So it is possible for one organization to setup a national program to manage 65 GW of power capacity. This capacity is mostly coal powered (~47GW) but with substantial nuclear and hydro capacity (~18GW). There is a very small contribution of wind and solar renewable energy in South Korea.

Currently ~5% of the coal needed to run a coal fired plant is dedicated to frequency regulation, so having batteries take over this role is a substantial saving in coal used. More importantly the South Korean plans (within 2 years!) indicate one of the first examples of batteries assuming a central role in an aspect of power generation that has been seen as a fossil fuel role.

Clearly Kokam doesn't see South Korea as the only market for this role and they have pilot facilities (2-5MW) being reviewed in both Germany and the US. Kokam has the capacity to deliver 100's of MW of the NMC frequency regulation batteries at short notice.

There is a lot of interest in fast response Lithium batteries and a substantial system (2MW) was recently announced in the UK using Toshiba (OTCPK:TOSYY) Lithium Titanate batteries in association with energy company E.ON (OTCPK:E.ON) and it's wholly owned subsidiary Uniper at the Willenhall substation. E.ON also has a 10MW/2.5MWh battery system under development with Tucson Electric Power in Arizona. E.ON is shortlisted for a 250MW tender for frequency response storage in the UK and Kokam is involved in tendering, so Korea's implementation is being watched in Europe too.

Interestingly lithium technology is being used to replace lead acid batteries by Duke Energy (NYSE:DUK) in a 35MW facility. There are also major frequency regulation projects in Canada (e.g. 12MW system in Ontario's Independent Electrical System Operator).

These Lithium NMC and LTO batteries are also useful for peak load management improving power quality and reliability in solar and wind applications, and also for spinning reserve applications.

Energy management for renewable energy

This is a big one, as you need a way to store and then access the intermittent power from solar PV and wind. Unlike the frequency regulation application described above, which needs fast, but short term response and high power delivery, energy arbitrage for solar and wind smoothing requires slower and longer term charge/discharge (up to over a number of hours).

A frequency regulation application has a high life cycle (10,000, compared with 4000-8000 with arbitrage), high power (i.e higher than arbitrage), but lower energy density than arbitrage. Because frequency regulation is a special rapid application it is more costly than an arbitrage battery.

The actual needs for energy management at scale are more varied than frequency regulation and so the actual configurations for batteries for this purpose are still evolving. It might be that the critical requirement is ramp rate control, or charge/discharge over hours may be more critical. Battery manufacturers are focusing in on their preferred configurations. For example Kokam has a High Energy NMC battery for energy management at scale.

For the technically minded here are a couple of links to give a sense of the kinds of lithium battery technology and how the different formulations behave. A good summary is here, and for those who want a deeper dive into lithium battery chemistry, here is a pretty up to date article.

Energy management applications for renewable power generation

Pumped hydro

Pumped hydro has a significant role in energy storage and this is well established with 140GW of pumped hydro already implemented. This large scale storage allows long term (even seasonal) energy storage.

There are surely many old mines, with tailing dams at the top and down below an open cut mine, that can be flooded. GW levels of power can be addressed in such schemes, but the capital costs are not small and they attract controversy because of their size. Two pumped hydro projects in California, Eagle Mountain and Iowa Hill, have been on this path for a long time, but capital and approvals are elusive.

Lithium batteries

This is happening at several levels. The easy one involves home solar PV systems linking with a home battery. Because it is a small cost (relatively) and the market is big (1.5 million homes in Australia have solar PV), just about all of the battery providers are interested. Here numbers matter as many small systems add up to a lot of power managed and it is managed locally (at the individual house level).

The harder thing is larger scale energy management, and detractors of Lithium batteries point to frequency regulation to indicate why Lithium batteries are inappropriate for energy arbitrage. However, Lithium battery chemistry configured for frequency regulation is not the only chemistry or configuration for lithium batteries, as Tesla is doing fine with its electric cars that have a range of several hundred miles and hence can discharge over many hours.

It seems that a 40ft container housing a 2-2.5MWh system is the scale for a number of utility energy management systems, but systems as large as 100MWh give a sense of the scale being implemented. Obviously a 100MWh plant would involve 40 x 2.5MWh 40ft containers.

Utilities adopting lithium battery energy management applications

There are now many multiple MW systems being installed for this kind of application. Kokam gives details of 12 of its systems installed in the US, South Korea and Australia that have more than 1MW power capacity. In 2015 Kokam alone installed 85MW of battery storage systems and 75MW of that capacity was larger than 1MW.

Substantial lithium batteries are also being adopted (along with solar PV) in remote and mining communities to partially substitute for diesel-powered systems. For example a remote indigenous community in Northern Australia is installing a 2MWh lithium battery storage system to store solar PV and take over grid forming functions from a diesel system. This will allow switchoff of the diesel system during the day as well as storing solar PV produced power.

Lithium batteries as part of a renewable energy project

Clearly renewable energy projects are considering including arbitrage, as there are various management functions that batteries do well, and holding the power generated to be delivered at a time when the value of the energy is greater may make sense. An early example of this kind of arbitrage involves Statoil (NYSE:STO) which recently announced a pilot 1MWh Lithium battery (technology not given) storage system to complement its Hywind Scottish floating 30MW wind farm.

Image : Statoil Hywind turbine

However, there are other battery technologies for deep charge/discharge on a daily basis. While at an earlier stage of development, flow batteries seem well suited to this task. It is a race to see if flow batteries will get a place at the table or whether lithium batteries now have sufficient momentum to dominate the battery arbitrage space.

Update on flow batteries

Six months ago I wrote an article on three flow battery companies (Redflow (ASX:RFX), Imergy Power Systems and ViZn Energy which had partnered with substantial manufacturing companies (Flextronics (NASDAQ:FLEX), Foxconn (OTC:FXCOF) (TWSE:2354) and JBL Circuit (NYSE:JBL) respectively for manufacture of their flow batteries.

While it is too soon to see a lot of progress, there have been developments in each of the partnerships.

Redflow/Flextronics ZnBr flow batteries :

The last 6 months have seen substantial progress with Flextronics now assuming 100% of manufacturing from Redflow. Flextronics now controls all aspects of manufacturing of the RedFlow batteries, with production ramp up in April 2016.

In 2015 in partnership with FLEX, manufacturing costs have been decreased by 15%, the lifecycle/longevity has been improved and cycle cost/kWh over battery lifetime decreased by 50%. Redflow will soon deliver an on-grid demonstration 0.1MW/0.48MWh flow battery system to Ergon Energy.

In addition to exploring remote markets around the world, Redflow is entering the Australian home battery market with a smaller offering. The Redflow share price has doubled since the start of 2016.

Imergy Power Systems/Foxconn :

It is too early to know how the Imergy projects in India, China and Africa are proceeding, although the status of the Sun Edison (NYSE:SUNE) purchase of up to 1000 of Imergy's vanadium flow batteries for implementing in India could be problematic given the disaster that has recently befallen SUNE and news that it is not supporting its activities in India. The rumor is that Adani (IN:ADANIT) may be interested in SUNE's Indian projects.

Recently (end of February 2016) SUNE announced agreement with Ontario Independent Electricity System Operator (Ontario IESO) to supply an Imergy 5MW/20MWh system in 2017; this was to be SUNE's first large scale grid-connected energy storage project and it will need to be restructured with SUNE in difficulty. Imergy and Foxconn will need to think creatively about diversifying the route to market for their flow batteries.

ViZn Energy/JBL Circuit : ViZn reported 20% improved capacity and reduced life cycle degradation, which is important for frequency regulation applications.

At the end of the day there will be winners and losers and here sits the dilemma for investors. Is it still too soon to know which technology to back and which companies to invest in? Given the intense interest in frequency regulation I suspect that this market, will be satisfied soon by companies like Kokam and LG Chem who have done the hard yards on understanding Lithium battery chemistry. I suspect that for management of renewable energy it will end up a combination of pumped hydro, Lithium and flow battery technologies, with the latter becoming increasingly important.

What is abundantly clear is that all investors need to look carefully at their fossil fuel portfolios, as the complacency that the switch to renewable energy (with storage) is going to take a long time seems misguided in 2016.

Conclusion

This story about battery storage starting to do heavy lifting has implications in two areas of large scale energy supply: frequency regulation and management of renewable energy. It will help resolve issues of intermittency of renewable energy. The impact will be felt not only on adoption of renewable energy (and hence solar and wind companies) but also on fossil fuel power generation. Investors in fossil fuels should think carefully about where this is heading.

Disclosure: I am/we are long ASX:RFX.

I wrote this article myself, and it expresses my own opinions. I am not receiving compensation for it (other than from Seeking Alpha). I have no business relationship with any company whose stock is mentioned in this article.

Editor's Note: This article covers one or more stocks trading at less than $1 per share and/or with less than a $100 million market cap. Please be aware of the risks associated with these stocks.

Solar Energy Cost

Best Science Fair Project Websites for Kids

Voyagerix/iStock/Getty Images If the power goes out at your home for a significant period of time, or if you have a home that is beyond the reach of the power lines, heating and lighting your home without electricity may be a bit more difficult, but it can be done using alternative energy sources. For heating and temporary lighting, appliances that burn kerosene, propane, wood or other fuels are a viable option, but for long-term lighting, battery or solar-based technologies may be safer. Wood A fireplace or a wood stove is a reliable way to provide both heat and a small amount of light for your home, as long as you have a steady supply of wood available. Harvesting, cutting, splitting, transporting and storing enough wood for a season can be a lot of work, and it may not always be possible, such as for those who live in cities. Many wood stoves can also be used for cooking and heating water, and newer models are both much safer for your health and much more efficient. Kerosene Kerosene heaters are a popular way of heating homes in many areas, especially for emergency or supplemental heating purposes. While kerosene burns relatively cleanly, it still has the potential to produce carbon monoxide, so proper ventilation and a working carbon monoxide detector are recommended. Local building codes may forbid or regulate the use of kerosene heaters, so check with your city building and permit department before buying one. Kerosene is also commonly used as a fuel in oil lamps for lighting. Propane/Natural Gas Many propane or gas-fired forced-air furnaces will not run without electricity, even models that use pilot lights, as they require the blower fan to distribute the heat. Some steam or hot water boilers will run without electricity, but in many cases, you will need to rely on alternative heating sources. Wall-mounted space heaters are available in versions that burn either natural gas or propane. Most models do not require electricity to operate, though some may have optional fans for distributing the heated air that require electricity. Externally vented wall heaters are the best choice, because they allow the combustion gases to exit the home through the flue or vent. Models without external vents, also called ventless heaters, are available, as well, but you must ventilate the room properly to avoid excessive carbon monoxide buildup. Check your local building codes before installing either type of heater. Solar Photovoltaic panels, also called solar panels, can be used to generate your own electricity during the daytime and, by storing it with deep-cycle batteries, that power can be used for lighting purposes at night. Automotive-style 12-volt light fixtures can be connected directly to the battery bank, or regular 120-volt household lighting could be used through an inverter, which converts the 12-volt DC current from the battery into the 120-volt AC current a typical house uses. Solar energy can also be used to provide supplemental heating for your home. Simply opening the curtains covering south-facing windows during the day can allow heat from the sun to warm your home, but you can also build or buy passive solar heaters to increase the heat output. Materials like stone and concrete used indoors can regulate your home's temperature. Because such materials are so dense, they take time to adjust to temperature changes. During the day they absorb heat from the sun, then slowly release it at night. Other Candles and lamps fueled by lamp oil can be used for lighting, as well as rechargeable solar lights or lights powered by disposable batteries. Both lamp oil and batteries may get expensive in long-term situations, however. For temporary situations, portable generators can be used for lighting and for powering the central heating system in some cases. Related Searches References EPA: Does Your Wood Stove Have A Dirty Little Secret? Web MD: Carbon Monoxide Poisoning - Topic Overview CSPC: CSPC Stresses Kerosene Heater Safety Fairfax County, Virginia: Ventless Fireplace Saftey Department of Energy: Planning for Home Renewable Energy Systems Home Power Magazine: Solar Electricity Basics Department of Energy: Passive Solar Home Design Photo Credit Voyagerix/iStock/Getty Images Promoted By Zergnet Comments Please enable JavaScript to view the comments powered by Disqus. You May Also Like How to Heat Your House Without a Furnace With heating bills rising all the time, it’s no surprise that people cannot longer afford to keep their furnace on like they... How to Live Without Electricity When most people enter a dark room, they reach for the light switch automatically. It's second nature. A 1-year-old can figure out... How to Heat a Greenhouse During the Winter With Water You can heat your greenhouse at night without using electricity. Lining one wall with blackened, water-filled jugs or barrels will keep your... How to Light a Gas Fireplace Without Electricity One advantage to having a gas fireplace is the ability to manage the unit in the event of a power failure. Electricity... Lighting Methods Without Electricity Lighting methods that don't require electricity are invaluable whether you're planning to live off the grid, preparing for a power outage, reducing... How to Light Your Range Without Electricity If the power goes out, an oven cannot be used, but the surface burners can still be used. Find out how to... How Do I Set Up a Generator?

Winter Gardens

How to Protect Lawn Decorations from Theft


Solar Panels San Diego

Winchester Solar Panel Install Cost

So, what exactly is involved in calculating solar panels cost in Winchester? When thinking about solar power very few people know the way the cost of solar panel systems is actually measured. Or even, for that matter, do we automatically grasp the connection relating to the cost of solar power and the value of solar power. We all know that gasoline prices are in dollars per gallon. We likewise are all aware of approximately how far we’ll be able to drive after spending 40 bucks for a tank of gas. In contrast to a tank of gas, the value of which can be consumed pretty much instantly, solar panels deliver their value across a period of time.

Solar Panels On Roof

Winchester 3 Undervalued Solar Leaders

Solar Power, Inc. (OTCQB:SOPW): Why this $1 Billion Company Could Fall By More Than 80%

When a stock rises from $.25 a share to close to $3.00 a share in a little over 3 months, it's bound to get your attention. Naturally, I became curious as to the catalyst that is driving this move and most importantly, is the share price sustainable. After looking into the company further it became very apparent that the company is significantly over valued with a market cap of $1 billion. With the stock price at $2.40 per share, investors could potentially lose 80% of their investment (or more).

Share Structure

The company currently reports having 334 million shares outstanding within their most recent 10-Q filing. Buried within the filings are a number of toxic debt conversions that could adversely affect the company's share price in the future.

In the second quarter of 2014, the company increased the amount of authorized shares from 250,000,000 to 1,000,000 shares. Around the same time of the increase in authorized shares, the company issued 40,625,000 shares of common stock to a non-U.S. investor at a price of $.16 a share (Source: 10-Q Filing)

In July 2014 the Company issued a large number of shares via a convertible bond and a private placement at a deep discount. 68,750,000 shares of common stock were issued at $.16 per share along with another 26,562,500 shares of common stock at $.16 per share.

Since the period ending June 30, the company entered into yet another agreement to sell 92,620,000 shares of common stock at a price of $.27 per share. This private placement was concluded on September 17 and increased the number of outstanding shares to a total of 426,771,956 shares.

In total, the company has issued 135,937,500 shares of common stock since May at a price of $.16 per share along with another 92,620,000 shares at a price of $.27 per share. During this same time, the share price has increased from $.20 per share to $2.40 per share, and increase of over 1000%. Since the 92 million private placement took place after the period ending on June 30, 2014, the actual number of outstanding shares is over 425 million shares. At a closing price of $2.40, this puts the current market cap of Solar Power, Inc. over $1,000,000,000.

Bankruptcy

LDK Solar Co. owns 42.4% of the Company's outstanding shares as of August 19, 2014. On October 21, LDK Solar Co. filed for bankruptcy. Despite the large number of positive press releases produced by the company, they have failed to disclose this material fact.

In addition to the bankruptcy of the Company's parent company and majority shareholder, the Company also has accounts payable due to LDK Solar Co. of $38.7 million. The Company admits within their filings that should LDK Solar demand payment (which is likely due to their bankruptcy filing), that they do not have the ability to make payment without additional sources of financing. With the recent increase in authorized shares, it can be reasonably concluded that Solar Power Inc. will need to dilute shareholders even further in the future.

(Source: 10-Q Filing)

Contact Information

Solar Power Inc. lists their phone number at otcmarkets.com as well as their own website at solarpowerinc.com. The two phone numbers listed are 916-770-8100 and 800-548-8767. Both of these phone numbers will not connect you to the company and will instead put you into a voicemail for a "Susan Carter." Susan Carter appears to have no affiliation with the company whatsoever.

Conclusion

With 426 million shares outstanding, the current market cap of Solar Power, Inc. is over $1 Billion and the company does not even maintain a working phone number. For this reason, along with the many other red flags that exist, we urge investors to take profits immediately before it's too late. Also, with the number of red flags that exist along with the billion dollar market cap of the company, it is very likely regulators will take notice which will then put the stock at a serious risk of a halt.

Disclosure: The author has no positions in any stocks mentioned, and no plans to initiate any positions within the next 72 hours.

The author wrote this article themselves, and it expresses their own opinions. The author is not receiving compensation for it (other than from Seeking Alpha). The author has no business relationship with any company whose stock is mentioned in this article.

Editor's Note: This article discusses one or more securities that do not trade on a major U.S. exchange. Please be aware of the risks associated with these stocks.

Cost Of Solar Power

Detailed Instruction on How to Make Homemade Solar Panels

SunPower Corporation (NASDAQ:SPWR) is a global solar energy solutions provider. It operates in the specialized semiconductor industry and was incorporated in 1985. It is headquartered in San Jose, California and has offices in North America, Europe, Africa and Asia. The company's operating activities include designing, manufacturing and supplying solar panels and solar systems to a wide range of clients. SunPower's customers range from residential to utility customers, including businesses and the government. The company also offers different products related to solar systems that include inverters and control chargers. SunPower Corporation reports its revenues based on geographical segmentation. The company generates about 70% of its revenue from America, 20% from EMEA (Europe) and 10% from APAC (Asia Pacific). The revenues from Europe and Asia have been decreasing over the years partly because of the growing American demand and partly because of the recent economic conditions of Europe. NRG Solar is a significant customer of the company, being responsible for 35% of the revenue generated from America or in aggregate terms 24.5% of the entire revenue. SunPower is backed by Total S. A., the fifth largest publicly-traded energy company in the world. Total has a controlling interest in the company and holds around 66% shares of SunPower.

Market Performance

SunPower Corporation is listed on NASDAQ and is currently trading around $30. 2013 proved to be a good year for the company as far as market performance is concerned. Shares of the company appreciated consistently during the year. In the first week of January, shares were trading at around $6 but now they are touching $30. The solar industry has been facing difficulty in the past two years but now it seems that the market is regaining confidence in the solar industry.

EPS of the company also improved during 2013 which caused the share price to increase. Revenues have also been improving over time and SunPower has posted a CAGR (compound annual growth rate) of 4.95% since December 2011. These growing financial figures were responsible for the positive trend of the share price.

Industry Profile

It appears that the solar industry is starting to recover. The recent years have been rough, especially for American solar businesses because of the dumping exercises carried out by China. The subsidizing of solar companies by the government of China enabled them to sell below their production costs. This forced the American companies to cut prices and suffer losses. Oversupply in the industry was also a major factor in the reduction of prices and diminished earnings. The sales of Chinese solar firms in Europe are capped now due to limitations imposed by the European Union. Once the US and Europe have settled the Chinese solar panel issue, profits in the industry will begin to grow. Furthermore, China has banned the construction of any further solar panel factories. All these developments enhanced the investor's confidence in the solar industry which in turn is reflected in the market performance of the American solar companies. "We're at a point now where demand starts to be driven by cold, hard economics rather than by subsidies and that is a game changer," says Jason Channell of Citigroup.

The solar industry is poised for future growth. According to IEA, renewable electricity will surpass output from natural gas and double the generation from nuclear plants by 2016; becoming the second most important source of energy after coal. It is worth noting that the growth of renewable energy has always been underestimated in projections. For instance, in 2003, IEA predicted that non-hydro renewable energy would represent 4% of the global generation by 2030 but the industry reached that figure in 2003. According to BNEF, renewable energy will account for around 69-74% of new capacity added by 2030. Estimates by HIS predict the global PV (photovoltaic) market to grow by 17% in 2014. All of this points toward the fact that the solar industry will grow in the future.

BNEF also projects a 20% increase in PV installations by 2017. The emerging markets are USA, China and Japan, accounting for 52% of the solar demand in 2013 compared to 13% in 2008. Overall, the industry is set for growth but the question is, on whose expense? China and the US are the two main competitors in this industry. The relative strategies and actions of their governments could affect the companies based in both countries.

Global Production Leader

China is the largest supplier of PV modules. It plans to add 10 GW of solar capacity to the system each year until 2015, aiming for 35GW by 2015. The current capacity is 5GW. Chinese companies like Trina Solar, Yingli Solar and Hanergy have low production costs and are offered subsidies by the government. Therefore, they manage to compete on very low costs, rendering the US based suppliers unprofitable.

The excess production and oversupply of solar panels by Chinese manufacturers reduced the price margins in the industry. This oversupply has been adversely affecting the global solar industry for the past few years. The capping of Chinese solar panels by the EU and the restriction of the Chinese government on the establishment of new solar panel installations has helped in improving the conditions of the industry globally. This, however, presents a problem for the American solar companies because the Chinese suppliers are likely to converge upon the attractive US market. This development could pose a serious hindrance to the growth of US based companies. China still produces the cheapest cells and the efficiency of the cells is also competitive. American companies need to find a way to produce cost effective cells to counter China's competitive advantage. To encourage competition, The U.S. Commerce Department set anti-dumping duties ranging from 18.32% to 249.96% on solar-energy cells imported from China in 2012. This provides a level playing field as far as the American market is concerned. In Europe, the market is equally competitive for both US and Chinese firms because China's sales have been capped. In Asia, as expected, Chinese companies have a clear advantage over their American counterparts.

Catalysts

Residential Leasing Program

SunPower's leasing program is a competitive advantage for the company, as it allows the consumers to install their energy systems without paying all charges upfront. Consumers can save up to 10% or 15% on their electricity bill and be eco-friendly at the same time. SunPower is trying to bridge the gap further by lowering the costs of the system and improving the efficiency. It is aiming to enhance efficiency by 10% and reduce panel costs by 35% in 2015. The residential lease program has attracted 16,200 customers since 2012. "Our residential lease business remains strong, with demand outstripping our financial capacity in the first quarter," said Tom Werner, SunPower's CEO, during a call with analysts to discuss quarterly earnings. The company has been fuelling its finance requirements from Citi, Credit Suisse and recently from US Bancorp. These leases are a competitive advantage for SunPower because they help in reducing the overall energy costs of the consumer.

Differentiated Products

Maxeon cells that are being manufactured by SunPower are the most efficient cells to date. They are 24% efficient. Provided the company manages to reduce the production cost of the cell, they would be every one's first choice.

SunPower's Oasis C7 is a solar photovoltaic tracking system that concentrates the sun's power seven times to achieve the lowest levelized cost of electricity (LCOE) for utility-scale solar power plants.

The leading technologies offered by SunPower are its differentiated strength and can help the company to grow.

Research and Development

SunPower is involved in research with King Abdullah University and the French Laboratory of Interfaces of Physics and Thin Films. Total S. A. is also working in solar R&D which could also benefit SunPower. Total is working in collaboration with:

LAAS: (Laboratory for Systems Analysis and Architecture - Toulouse, France) to enhance the efficiency of photovoltaic modules using a systemic approach.

IMEC: (Interuniversity Micro Electronics Center - Louvain, Belgium) to decrease the amount of silicon needed for cells and improve their efficiency

LPICM: (Interface and Thin Film Physics Laboratory - Saclay, France), a joint research facility of the French National Center for Scientific Research (CNRS) and the Ecole Polytechnique's engineering school with a combined team working on crystalline silicon thin film technology.

SunPower's exposure to extensive R&D is reflected in its technologically advanced products.

Valuation

P/E ratio of the company stands at 26.8x and PEG ratio at 0.76x. This indicates that the company's growth would be higher than what market is paying for a dollar of earnings. In simple terms, the market perception is not in line with future growth and we can say that the price is not perfectly correlated to the anticipated growth. Industry growth estimates are 17.09% but the street expects SunPower to grow by a staggering 30%.

With growth estimated at 30% for the next 5 years the multiplier to value the company should be higher than its P/E. That is why we are taking a relatively higher multiplier of 35x.

The mean price target is $35.7, using an average multiplier of 30x which is also above the current price. However, we will use a higher multiplier of 35x and a target price of $42. These estimates give us a 25% upside on SunPower.

Conclusion

SunPower Corp. is well-positioned in the solar industry. It has highly advanced and differentiated products, which, despite their high costs are capable of competing with the low cost and less efficient solar modules. With its intense exposure to R&D, we believe that the company will be able to compete on the cost basis in the near future. It has the potential to become the leader in the solar industry. With the anti-dumping legislation enacted in the US, cap on China's sales in the EU and plans to initiate global leasing, SunPower has an opportunity to penetrate these markets. The top quality cells, Maxeon, enable the company to compete with other American counterparts like First Solar. As far as Asia is concerned, the market will continue to be influenced by China until the solar giants of America can develop a cost effective solution.

Overall, the future of SunPower Corp. is bright whether fueled by their differentiated technology or by the backing of Total S A. The target price of the company indicates further price growth. So, our call on the shares of SPWR is a BUY.

Disclosure: I have no positions in any stocks mentioned, and no plans to initiate any positions within the next 72 hours. I wrote this article myself, and it expresses my own opinions. I am not receiving compensation for it (other than from Seeking Alpha). I have no business relationship with any company whose stock is mentioned in this article.

Winchester

Plexiglas Vs. Tempered Glass Solar Panel


Solar Panels San Diego

Wildomar Solar Companies

So, what exactly is involved in calculating solar panels cost in Wildomar? When thinking about solar power very few people know the way the cost of solar panel systems is actually measured. Or even, for that matter, do we automatically grasp the connection relating to the cost of solar power and the value of solar power. We all know that gasoline prices are in dollars per gallon. We likewise are all aware of approximately how far we’ll be able to drive after spending 40 bucks for a tank of gas. In contrast to a tank of gas, the value of which can be consumed pretty much instantly, solar panels deliver their value across a period of time.

Solar Installation Cost

Wildomar 3 Undervalued Solar Leaders

SunPower Corporation (NASDAQ:SPWR) is a global solar energy solutions provider. It operates in the specialized semiconductor industry and was incorporated in 1985. It is headquartered in San Jose, California and has offices in North America, Europe, Africa and Asia. The company's operating activities include designing, manufacturing and supplying solar panels and solar systems to a wide range of clients. SunPower's customers range from residential to utility customers, including businesses and the government. The company also offers different products related to solar systems that include inverters and control chargers. SunPower Corporation reports its revenues based on geographical segmentation. The company generates about 70% of its revenue from America, 20% from EMEA (Europe) and 10% from APAC (Asia Pacific). The revenues from Europe and Asia have been decreasing over the years partly because of the growing American demand and partly because of the recent economic conditions of Europe. NRG Solar is a significant customer of the company, being responsible for 35% of the revenue generated from America or in aggregate terms 24.5% of the entire revenue. SunPower is backed by Total S. A., the fifth largest publicly-traded energy company in the world. Total has a controlling interest in the company and holds around 66% shares of SunPower.

Market Performance

SunPower Corporation is listed on NASDAQ and is currently trading around $30. 2013 proved to be a good year for the company as far as market performance is concerned. Shares of the company appreciated consistently during the year. In the first week of January, shares were trading at around $6 but now they are touching $30. The solar industry has been facing difficulty in the past two years but now it seems that the market is regaining confidence in the solar industry.

EPS of the company also improved during 2013 which caused the share price to increase. Revenues have also been improving over time and SunPower has posted a CAGR (compound annual growth rate) of 4.95% since December 2011. These growing financial figures were responsible for the positive trend of the share price.

Industry Profile

It appears that the solar industry is starting to recover. The recent years have been rough, especially for American solar businesses because of the dumping exercises carried out by China. The subsidizing of solar companies by the government of China enabled them to sell below their production costs. This forced the American companies to cut prices and suffer losses. Oversupply in the industry was also a major factor in the reduction of prices and diminished earnings. The sales of Chinese solar firms in Europe are capped now due to limitations imposed by the European Union. Once the US and Europe have settled the Chinese solar panel issue, profits in the industry will begin to grow. Furthermore, China has banned the construction of any further solar panel factories. All these developments enhanced the investor's confidence in the solar industry which in turn is reflected in the market performance of the American solar companies. "We're at a point now where demand starts to be driven by cold, hard economics rather than by subsidies and that is a game changer," says Jason Channell of Citigroup.

The solar industry is poised for future growth. According to IEA, renewable electricity will surpass output from natural gas and double the generation from nuclear plants by 2016; becoming the second most important source of energy after coal. It is worth noting that the growth of renewable energy has always been underestimated in projections. For instance, in 2003, IEA predicted that non-hydro renewable energy would represent 4% of the global generation by 2030 but the industry reached that figure in 2003. According to BNEF, renewable energy will account for around 69-74% of new capacity added by 2030. Estimates by HIS predict the global PV (photovoltaic) market to grow by 17% in 2014. All of this points toward the fact that the solar industry will grow in the future.

BNEF also projects a 20% increase in PV installations by 2017. The emerging markets are USA, China and Japan, accounting for 52% of the solar demand in 2013 compared to 13% in 2008. Overall, the industry is set for growth but the question is, on whose expense? China and the US are the two main competitors in this industry. The relative strategies and actions of their governments could affect the companies based in both countries.

Global Production Leader

China is the largest supplier of PV modules. It plans to add 10 GW of solar capacity to the system each year until 2015, aiming for 35GW by 2015. The current capacity is 5GW. Chinese companies like Trina Solar, Yingli Solar and Hanergy have low production costs and are offered subsidies by the government. Therefore, they manage to compete on very low costs, rendering the US based suppliers unprofitable.

The excess production and oversupply of solar panels by Chinese manufacturers reduced the price margins in the industry. This oversupply has been adversely affecting the global solar industry for the past few years. The capping of Chinese solar panels by the EU and the restriction of the Chinese government on the establishment of new solar panel installations has helped in improving the conditions of the industry globally. This, however, presents a problem for the American solar companies because the Chinese suppliers are likely to converge upon the attractive US market. This development could pose a serious hindrance to the growth of US based companies. China still produces the cheapest cells and the efficiency of the cells is also competitive. American companies need to find a way to produce cost effective cells to counter China's competitive advantage. To encourage competition, The U.S. Commerce Department set anti-dumping duties ranging from 18.32% to 249.96% on solar-energy cells imported from China in 2012. This provides a level playing field as far as the American market is concerned. In Europe, the market is equally competitive for both US and Chinese firms because China's sales have been capped. In Asia, as expected, Chinese companies have a clear advantage over their American counterparts.

Catalysts

Residential Leasing Program

SunPower's leasing program is a competitive advantage for the company, as it allows the consumers to install their energy systems without paying all charges upfront. Consumers can save up to 10% or 15% on their electricity bill and be eco-friendly at the same time. SunPower is trying to bridge the gap further by lowering the costs of the system and improving the efficiency. It is aiming to enhance efficiency by 10% and reduce panel costs by 35% in 2015. The residential lease program has attracted 16,200 customers since 2012. "Our residential lease business remains strong, with demand outstripping our financial capacity in the first quarter," said Tom Werner, SunPower's CEO, during a call with analysts to discuss quarterly earnings. The company has been fuelling its finance requirements from Citi, Credit Suisse and recently from US Bancorp. These leases are a competitive advantage for SunPower because they help in reducing the overall energy costs of the consumer.

Differentiated Products

Maxeon cells that are being manufactured by SunPower are the most efficient cells to date. They are 24% efficient. Provided the company manages to reduce the production cost of the cell, they would be every one's first choice.

SunPower's Oasis C7 is a solar photovoltaic tracking system that concentrates the sun's power seven times to achieve the lowest levelized cost of electricity (LCOE) for utility-scale solar power plants.

The leading technologies offered by SunPower are its differentiated strength and can help the company to grow.

Research and Development

SunPower is involved in research with King Abdullah University and the French Laboratory of Interfaces of Physics and Thin Films. Total S. A. is also working in solar R&D which could also benefit SunPower. Total is working in collaboration with:

LAAS: (Laboratory for Systems Analysis and Architecture - Toulouse, France) to enhance the efficiency of photovoltaic modules using a systemic approach.

IMEC: (Interuniversity Micro Electronics Center - Louvain, Belgium) to decrease the amount of silicon needed for cells and improve their efficiency

LPICM: (Interface and Thin Film Physics Laboratory - Saclay, France), a joint research facility of the French National Center for Scientific Research (CNRS) and the Ecole Polytechnique's engineering school with a combined team working on crystalline silicon thin film technology.

SunPower's exposure to extensive R&D is reflected in its technologically advanced products.

Valuation

P/E ratio of the company stands at 26.8x and PEG ratio at 0.76x. This indicates that the company's growth would be higher than what market is paying for a dollar of earnings. In simple terms, the market perception is not in line with future growth and we can say that the price is not perfectly correlated to the anticipated growth. Industry growth estimates are 17.09% but the street expects SunPower to grow by a staggering 30%.

With growth estimated at 30% for the next 5 years the multiplier to value the company should be higher than its P/E. That is why we are taking a relatively higher multiplier of 35x.

The mean price target is $35.7, using an average multiplier of 30x which is also above the current price. However, we will use a higher multiplier of 35x and a target price of $42. These estimates give us a 25% upside on SunPower.

Conclusion

SunPower Corp. is well-positioned in the solar industry. It has highly advanced and differentiated products, which, despite their high costs are capable of competing with the low cost and less efficient solar modules. With its intense exposure to R&D, we believe that the company will be able to compete on the cost basis in the near future. It has the potential to become the leader in the solar industry. With the anti-dumping legislation enacted in the US, cap on China's sales in the EU and plans to initiate global leasing, SunPower has an opportunity to penetrate these markets. The top quality cells, Maxeon, enable the company to compete with other American counterparts like First Solar. As far as Asia is concerned, the market will continue to be influenced by China until the solar giants of America can develop a cost effective solution.

Overall, the future of SunPower Corp. is bright whether fueled by their differentiated technology or by the backing of Total S A. The target price of the company indicates further price growth. So, our call on the shares of SPWR is a BUY.

Disclosure: I have no positions in any stocks mentioned, and no plans to initiate any positions within the next 72 hours. I wrote this article myself, and it expresses my own opinions. I am not receiving compensation for it (other than from Seeking Alpha). I have no business relationship with any company whose stock is mentioned in this article.

Solar Energy Cost

How to Add Solar Panels to a Flat Roof

Recent Macro News

Source: Wallstreetdaily, SCMP, CNN Money

The last 2 quarters have seen influential countries such as china, India and Saudi Arabia announce heavy commitments to investing in solar infrastructure. The news isn't particularly surprising if you are aware of the hazardous pollution levels in China and India. China, the most populated country in the world, claimed that it will spend over $361 billion on renewable energy development by 2020. According to China's National Development and Reform Commission (NDRC), 40% of that spending will go towards solar and that will result in more than 1000 major solar plants, boosting china's solar capacity by 5 times.

Khalid Al-Falih, the energy minister of Saudi Arabia, announced that the oil capital of the world plans to spend as much as $50 billion on renewable energy. The short-term goal is to generate 10 GW of electricity through solar and wind by 2023. Al-Falih remarks that the long-term goal is to have renewable energy account for 30% of the country's total energy consumption by 2030.

Forbes states that India has installed 5.4 GW in 2016, and the Ministry of New and Renewable Energy estimates 15 GW (estimates to around 22% of global demand in 2017) and 16 GW of solar installation for the next two years. The Indian Government aims to accumulate 100 GW of solar by 2022, a feat which will require around $90 billion in total.

The combined future solar spending by these three countries, as well as the rest of the world, is an enormous pie to split between the big players in industry. In this article, I will use fundamental data to compare First Solar (NASDAQ:FSLR), Canadian Solar (NASDAQ:CSIQ) and JinkoSolar (NYSE:JKS), 3 heavily undervalued solar leaders which are well positioned to meet increasing global demand. All financial figures are expressed in USD via Bloomberg.

Market Cap

Source: Bloomberg

First Solar's $3.94 billion market cap is by far the largest in this group. First Solar is the only company on this list headquartered in the US and has an American management team. Canadian Solar's $855 million market cap is the next highest. Canadian Solar is based in Guelph, Canada, but the management team and production is predominantly Chinese. JinkoSolar's $542 million market is the lowest of the bunch. The company is entirely Chinese from its headquarters to production.

Revenue & Gross Profit & Net income

Source: Bloomberg

Please note that analyst consensus Q4 revenue and net income are used to estimate full-year 2016 revenue for Canadian Solar and JinkoSolar. On a GAAP basis, First Solar reported $2.951 billion in revenue and $704 million in gross profit for 2016. Net income came out to be -$382 million due to a $729 million unusual expense which we believe to be asset write-offs. Canadian Solar is expected to earn $2.871 billion in revenue, $459 million in gross profit and $89 million in net income. JinkoSolar is projected to pull in $3.331 billion in revenue, $647 million gross profit and $125 million in net income. JinkoSolar leads the pack in revenue and net income due to the tremendous demand for solar in China, where JinkoSolar conducts a majority of its business. First Solar boasts the highest gross margin at 24% while Canadian Solar and JinkoSolar have gross margins of 16% and 19%, respectively.

Source: Bloomberg

Cash & Debt

Source: Bloomberg

Looking at the balance sheets of these 3 companies, it's clear why First Solar is trading at a higher earnings multiple compared to its peers. First Solar currently has more than 10x cash on hand than total debt and actually received $5 million in interest income in 2016. Canadian Solar has $481 million cash on hand and a heavy debt load of $2.344 billion. The company is paying an estimated $52 million in interest expense (first 3 quarters annualized). JinkoSolar has $2.663 billion in debt, the highest of the three and dwarfs First Solar's debt of $188 million. JinkoSolar is estimated to pay a substantial $95 million interest payment in 2016 (first 3 quarters annualized). Although Canadian Solar and JinkoSolar are carrying high levels of debt, one must note that Canadian Solar and JinkoSolar have historically financed their projects with debt rather than equity.

Current Price vs. Book Value

Source: Bloomberg

All three solar leaders are currently undervalued relative to their book value. First Solar, with over $2.4 billion in retained earnings, is trading 22% below book value. JinkoSolar has been GAAP profitable for the past 10 quarters and accumulated $339 million in retained earnings during the same period. JinkoSolar is currently trading 28% below book value. Canadian Solar at its current price of $15 is trading just $1 below its book value of $16, but the company has been steadily growing its retained earnings from $47 million in Q4 2014 to $294 million as of Q3 2016.

Analyst Targets

Source: 4-traders

First Solar, with 22 covering analysts, has 5 buy ratings, 4 sell ratings and 13 hold ratings. First Solar is currently trading right around the analyst target of $35.9. Canadian Solar, with 2 buy ratings, 2 sell ratings and 7 hold ratings, is trading slightly below its price target of $15.2. JinkoSolar, with only 7 covering analysts, has 3 buy ratings and 4 hold ratings. The analyst target of $23.2 represents a 36% upside from the stock's current price.

Personal Holding

Although we believe all three stocks have bright futures, we currently hold Canadian Solar only. Although Canadian Solar's P/E is not as low as JinkoSolar's and the company's book value is below both of its peers, we remain enticed by Canadian Solar's diverse project portfolio. Since its inception, 100% of JinkoSolar's revenue came from the People's Republic of China. In 2016, 83% of First Solar's revenue came from the US, 5.4% came from India and 11.7% from various other countries. For the 12 months ending 9/30/2016, Canadian Solar derived 41.7% of its revenue from Asia, 46.8% from America (a good portion of which is from Canada) and 11.5% from Europe + other foreign countries. We believe Canadian Solar's diversified global presence positions the company tremendously to meet the increasing global demand for solar. We will continue to buy on dips and may initiate a position in JinkoSolar in the near future.

Source: Bloomberg

Disclosure: I am/we are long CSIQ.

I wrote this article myself, and it expresses my own opinions. I am not receiving compensation for it (other than from Seeking Alpha). I have no business relationship with any company whose stock is mentioned in this article.

Wildomar

Ways to Save Mother Earth


Solar Panels San Diego

Warner Springs Solar

So, what exactly is involved in calculating solar panels cost in Warner Springs? When thinking about solar power very few people know the way the cost of solar panel systems is actually measured. Or even, for that matter, do we automatically grasp the connection relating to the cost of solar power and the value of solar power. We all know that gasoline prices are in dollars per gallon. We likewise are all aware of approximately how far we’ll be able to drive after spending 40 bucks for a tank of gas. In contrast to a tank of gas, the value of which can be consumed pretty much instantly, solar panels deliver their value across a period of time.

Solar Price

Warner Springs 3 Undervalued Solar Leaders

solar cell research image by Albert Lozano from Fotolia.com If you go camping or hunting, or simply want to reduce your electricity bill, then a solar panel might make a good investment for you. Solar panels can charge batteries and run tools and appliances, all for free. They require no fuel, and because they have no moving parts, they need very little in the way of repair and maintenance. The only cost associated with solar panels is the up-front purchase cost. Even this can be reduced by making your own solar panels at home. Things You'll Need Solar cells Sheet of plywood Saw Narrow wooden strips Electrically conductive glue Spool of wire Wire cutters with wire-stripping attachments Silicone caulk Calculate the number of solar cells you will need to make your solar panel. Different cells provide different voltages. Divide the voltage you want your panel to produce by the voltage rating of your solar cells. This will give you the number of cells you need to produce 12 volts. Add a couple volts' worth of cells to this number to eliminate the danger of backcharging, which can damage your solar panel. Cut the plywood into a size just large enough to hold all the cells you need for your panel. Glue the narrow wooden strips all around the perimeter of the plywood you have cut. After your cell is assembled, these will hold up the Plexiglas cover to protect your panel from damage. Leave a small gap between two of the strips to run the wires out of the panel. Attach the solar cells to the panel of plywood, using the electrically conductive glue. Leave a small amount of this glue peeking above the top of each cell in order to form an electric link to the terminals on the bottoms of the cells. This edge of glue will be referred to as the "negative terminal" of each cell. Cut 6-inch lengths of wire from your spool of wire, using the wire cutters. Make as many short wires as there are cells in your panel, minus one. Remove 1 inch of insulation from one end of each wire, and 3 inches from the other ends, using the wire cutters. Glue the 3-inch-bare ends of these wires to the tops of the solar cells. Do not let any glue run from the top of the cell and touch the negative terminal of that cell. Do not let any bare wire touch the negative terminals of the cells. Leave the final cell without a short wire on top. Glue each of these wires to the exposed glue peeking over the edge of the cell next to it, after having allowed the glue on the other ends to dry. Allow this glue to dry. Cut two 3-foot sections of wire off the spool. Remove 1 inch of insulation from each end. Glue one to the negative terminal of the first cell, the one without any wire connected to it. Glue the other to the top of the cell on the other end, without any wire on top. Other People Are Reading How to Make a Solar Panel How to Make Homemade Solar Power Run the long wires out through the gap between the wooden strips. Glue them to the sides of the solar panel so that there is no possibility they will touch each other, which could short out your panel. Cut the Plexiglas sheet to match the size of your panel. Glue it to the top of the wooden strips. When the glue is dry, seal all the edges with silicone caulk to protect it from water. Tips & Warnings You can increase the power of your panel without changing the voltage by building other panels identical to the first. Connect their negative terminal wires to the negative terminal wire of the first panel, and their positive terminal wires (the wires connected to the top of the last solar cell) to the positive terminal wires of the first panel. Related Searches References SchoolPower Naturally: Solar Education for NY Solatron Technologies: Learn How to Wire Solar Panels and Batteries Photo Credit solar cell research image by Albert Lozano from Fotolia.com Promoted By Zergnet Comments Please enable JavaScript to view the comments powered by Disqus. Resources Green Living Tips: Solar Panel Basics You May Also Like How to Make a Solar Panel Solar cells convert the energy of the sun into electricity. By using items commonly found in the home or your local hardware... How to Make a Solar Panel Model A model of a solar panel can be a great visual aid for your science projects. Models help people to visualize how... How to Make Homemade Solar Power Humans have been using solar power for thousands of years to heat their homes. Making solar panels to collect and store the... Alternative Energy: How to Make Solar Cells & Solar Panels Free Solar Panel Construction Plans Free solar panel construction plans are available in a variety of places online. Some tutorials cover how a specific person built their... Solar Energy Pros And Cons

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Solar Power, Inc. (OTCQB:SOPW): Why this $1 Billion Company Could Fall By More Than 80%

When a stock rises from $.25 a share to close to $3.00 a share in a little over 3 months, it's bound to get your attention. Naturally, I became curious as to the catalyst that is driving this move and most importantly, is the share price sustainable. After looking into the company further it became very apparent that the company is significantly over valued with a market cap of $1 billion. With the stock price at $2.40 per share, investors could potentially lose 80% of their investment (or more).

Share Structure

The company currently reports having 334 million shares outstanding within their most recent 10-Q filing. Buried within the filings are a number of toxic debt conversions that could adversely affect the company's share price in the future.

In the second quarter of 2014, the company increased the amount of authorized shares from 250,000,000 to 1,000,000 shares. Around the same time of the increase in authorized shares, the company issued 40,625,000 shares of common stock to a non-U.S. investor at a price of $.16 a share (Source: 10-Q Filing)

In July 2014 the Company issued a large number of shares via a convertible bond and a private placement at a deep discount. 68,750,000 shares of common stock were issued at $.16 per share along with another 26,562,500 shares of common stock at $.16 per share.

Since the period ending June 30, the company entered into yet another agreement to sell 92,620,000 shares of common stock at a price of $.27 per share. This private placement was concluded on September 17 and increased the number of outstanding shares to a total of 426,771,956 shares.

In total, the company has issued 135,937,500 shares of common stock since May at a price of $.16 per share along with another 92,620,000 shares at a price of $.27 per share. During this same time, the share price has increased from $.20 per share to $2.40 per share, and increase of over 1000%. Since the 92 million private placement took place after the period ending on June 30, 2014, the actual number of outstanding shares is over 425 million shares. At a closing price of $2.40, this puts the current market cap of Solar Power, Inc. over $1,000,000,000.

Bankruptcy

LDK Solar Co. owns 42.4% of the Company's outstanding shares as of August 19, 2014. On October 21, LDK Solar Co. filed for bankruptcy. Despite the large number of positive press releases produced by the company, they have failed to disclose this material fact.

In addition to the bankruptcy of the Company's parent company and majority shareholder, the Company also has accounts payable due to LDK Solar Co. of $38.7 million. The Company admits within their filings that should LDK Solar demand payment (which is likely due to their bankruptcy filing), that they do not have the ability to make payment without additional sources of financing. With the recent increase in authorized shares, it can be reasonably concluded that Solar Power Inc. will need to dilute shareholders even further in the future.

(Source: 10-Q Filing)

Contact Information

Solar Power Inc. lists their phone number at otcmarkets.com as well as their own website at solarpowerinc.com. The two phone numbers listed are 916-770-8100 and 800-548-8767. Both of these phone numbers will not connect you to the company and will instead put you into a voicemail for a "Susan Carter." Susan Carter appears to have no affiliation with the company whatsoever.

Conclusion

With 426 million shares outstanding, the current market cap of Solar Power, Inc. is over $1 Billion and the company does not even maintain a working phone number. For this reason, along with the many other red flags that exist, we urge investors to take profits immediately before it's too late. Also, with the number of red flags that exist along with the billion dollar market cap of the company, it is very likely regulators will take notice which will then put the stock at a serious risk of a halt.

Disclosure: The author has no positions in any stocks mentioned, and no plans to initiate any positions within the next 72 hours.

The author wrote this article themselves, and it expresses their own opinions. The author is not receiving compensation for it (other than from Seeking Alpha). The author has no business relationship with any company whose stock is mentioned in this article.

Editor's Note: This article discusses one or more securities that do not trade on a major U.S. exchange. Please be aware of the risks associated with these stocks.

Warner Springs

How to Install Solar Panels on a Tile Roof


Solar Panels San Diego

Vista Solar Power

So, what exactly is involved in calculating solar panels cost in Vista? When thinking about solar power very few people know the way the cost of solar panel systems is actually measured. Or even, for that matter, do we automatically grasp the connection relating to the cost of solar power and the value of solar power. We all know that gasoline prices are in dollars per gallon. We likewise are all aware of approximately how far we’ll be able to drive after spending 40 bucks for a tank of gas. In contrast to a tank of gas, the value of which can be consumed pretty much instantly, solar panels deliver their value across a period of time.

Solar Hot Water Heater

Vista 3 Undervalued Solar Leaders

Solar panels are a source of alternative energy and can be constructed at home and mounted on the roof of a house. Depending on the amount of panels that are used, a significant amount of money can be saved on energy bills by using solar energy. When constructing solar panels, the two main choices for the body of the panel are Plexiglas or tempered glass -- it is important to know the specifications of both types of glass to meet the needs of your solar panels. Advantages of Plexiglas Panels Plexiglas panels are made of acrylic material, which means that they can be cut easily with a band saw. Plexiglas allows about 90 percent of light rays to pass through it to the solar cells. Despite allowing this much light through to the solar cells, Plexiglas protects the solar cells very well from wear, ensuring that they last as long as possible. Advantages of Tempered Glass Panels Tempered glass panels are more durable than Plexiglas -- this is important to consider in residential neighborhoods, as a stray ball can hit a solar panel. A crack in a tempered glass panel will not impede the solar cells from working properly. Tempered glass is also easy to cut -- this makes it easier to fit on panels of all shapes. Disadvantages of Plexiglas Panels Plexiglas has a softer outer surface than tempered glass and can crack or scratch easily, leading to solar cells being blocked from receiving solar rays. Plexiglas does not bend easily, which requires that it be supported on the solar panel -- failure to provide proper support can result in the Plexiglas panel cracking. Disadvantages of Tempered Glass Panels The cost of tempered glass is typically higher than that of Plexiglas (tempered glass can cost up to $150 per sheet as of 2011) and does not allow as much light to penetrate to the solar panels, reducing the efficiency of the cells. Although tempered glass sheets are durable, there exists the risk that they may shatter, which could block the solar cells from receiving light. A sheet of shattered tempered glass will also allow moisture into the panel, which will eventually ruin the solar cells. Related Searches References RPlastics: Plexiglas Primer Energy Matters: Solar Panel -- Plate vs. Tempered Glass Promoted By Zergnet Comments Please enable JavaScript to view the comments powered by Disqus. You May Also Like Glass Vs. Plexiglass In general, glass is cheaper to purchase than plexiglass, is more scratch resistant and more easily recycled. Plexiglass, on the other hand,... Acrylic Vs. Plexi Glass Acrylic and Plexiglass are often used interchangeably in product literature concerning sheet plastic. While Plexiglass is made from acrylic, there are subtle... Types of Glass Solar Panels Solar panels come in many forms and are made from multiple components. The glass components of solar collectors vary in form and... Solar Power System For Home

How to Install Solar Panels on a Tile Roof

To Find Out What Your Dream Means, You Need to Be Honest With Yourself

For the most part, dreams are challenging us to be honest about who we are, what we want, what we fear, what causes us pain, our insecurities and the things that are holding us back in life. Dreams often tell us where we’re at in terms of what’s going well and what’s going not so well in our lives.

Our subconscious is like our own personal therapist and we’d be wise to listen to her!

Getting into dream interpretation has so many benefits. It can bring liberation, self awareness, self knowledge, a strong connection to our inner selves and an awareness of our emotions.

Dream interpretation is a massive topic, but this article will explain many of the most important elements you'll need to interpret your dreams.

Step 1: Determine the Function of Your Dream

You can go a long way towards answering the question of what your dreams mean by identifying which of the following functions the dream you want to interpret may be able to serve.

For example, if you were watching a movie about vampires and that night you have a dream about vampires, then the most logical function of that dream, taken from the list below, would be "Organizing Knowledge & Experience." Your brain took in certain elements of the movie and the dream's purpose is to organize them into your existing knowledge base.

The Main Functions of Dreams

  • Expressing and processing emotions
  • Maintaining or improving mental health
  • Providing information on what we want, need, think or feel
  • Giving sexual release
  • Organising knowledge and experiences – de-fragging the mind like a computer
  • Learning (making connections)
  • Helping with problem solving (creativity, thinking out of the box, new inventions, finding solutions)
  • Providing wish-fulfillment (e.g. having a sexy dream with someone famous)
  • Connecting to spiritual realities (rare!)

Through lucid dreaming and dream incubation, we can develop confidence in ourselves and any area of our lives that we choose to. We can also go on some amazing adventures!

Step 2: Don't Ignore Your Emotions

The emotions we experience in our dreams are one of the most important aspects to dream interpretation. Believe it or not, our dreams are trying to be obvious! Understanding dream language can take a bit of practice but once you get into the right mindset you’ll find the majority of your dreams can be interpreted quickly and easily.

An Example of Why Emotions in Dreams are Important

If you are driving a fast car in your dream and feel exhilarated, this could mean you're progressing at a great speed in some area of your life and you are finding it exhilarating and exciting.

  • But, what if you are driving a fast car and feel terrified of crashing? The meaning will be vastly different. Something along the lines of, you are traveling too fast in an area of your life and feel out of control.
  • Or, what if you are driving in a fast car that will only do 10 miles an hour and you feel impotent and frustrated? You would need to look at what is holding you back in life either through inside or outside circumstances.

Make a special note of your feelings in relation to each symbol that appears in your dream as it's going to give you some of the most valuable information on the dream's message to you.

The Relevance of Recent and Past Events in Dreams

  • Recent events come up a lot in our dreams. Sometimes it is because our minds are trying to process and organise what happened, other times they offer the mind handy symbols to present other information.
  • Past events, people and places also come into our dreams frequently. They are usually telling us that there is something from our past that needs understanding or resolving. You will normally find that the issue is something that is also prominent in your life now.

If you dream about a house you lived in as a child, for instance, ask yourself what was happening in your life at the time you lived there.

  • Did your parents separate?
  • Did you change schools?
  • Was it a particularly happy time?
  • Ask yourself why your mind would want you to revisit that time again.
  • Are there things issues from that time still holding you back?
  • Did you make decisions based on events in the past that are no longer relevant or useful?
  • Do you need to recapture a certain quality or feeling?

Prophetic and Psychic Dreams

There’s a strong myth stating that all of our dreams are foretelling the future, and this is simply not true.

That’s not to say that it doesn’t happen -- I've had quite a few myself. Dreams can occasionally give us information about future events, (which is where the myth comes from). However, unless we have highly developed psychic abilities, these are usually few and far between. This begs the question, “How do we know when our dream is prophetic?” Unfortunately, the answer to that is that you can’t know until the event you dreamt of takes place.

A lot of people have experienced dreams that involve ESP or what we might call psychic events. Again, these are quite rare -- most people might be lucky to have one or two of these in their lifetime. They include:

  • Dreams of a deceased relative or friend (accompanied by feelings of joy, peace and love)
  • Dreams of a deceased person we do not know
  • A dream involving extra sensory perception (ESP) such as seeing an event in a dream that is taking place at the very moment you dream it
  • Dreams of angels, spirit guides or religious figures
  • Dreams of past lives
  • Out of body experiences
  • Astral travel

Those who have had these kinds of dreams report that they are exceptionally vivid and the feeling quality of the dream is different than in ordinary dreaming. The emotions are particularly intense and there is a sense of watching the scene as an observer rather than being involved in it.

Nightmares

While distressing, nightmares can tell us a great deal about ourselves. In particular: what we fear, what causes us the most emotional pain and what is holding us back in life. Nightmares are usually expressing deep feelings and thoughts that we are unconscious of. That's why they're so frightening -- because they are bringing to our attention emotions that were perceived to be threatening, devastating and/or overwhelming at some point in the past.

The occurrence of a nightmare is a sign that you're now ready to deal with these emotions and that you need to deal with them for the sake of your emotional, mental or spiritual health.

This statement may sound obvious, but it's surprising how many of us don't understand that our nightmare is telling us about something we are frightened of or anxious about. Take the time to discover its meaning, and you'll benefit in the long term.

Common Dreams

Below are three common dreams that show examples of the kinds of questions you need to be asking yourself to enable you to accurately interpret your dreams

A Partner Being Unfaithful

Dreams of your partner cheating on you are most often an expression of your own anxiety and insecurity. Very rarely will they be your intuition alerting you about actual cheating -- rule out all other possibilities first:

  • Are you scared your partner will leave you?
  • Do you have low self esteem and/or confidence and wonder whether you deserve your partner?
  • Have you or your partner cheated on each other or other partners before and you are worried this will happen again?
  • Do you have problems with trusting people?
  • Do you find it difficult to trust yourself?
  • Are you attracted to someone else?

Dreams of Being Naked

What is your dream of being naked telling you? It will depend greatly on how you feel about it in your dream. Are you embarrassed? Ashamed? Free? Liberated? Vulnerable? Scared? Indignant? Exposed? Natural? Exhilarated?

If you experienced a negative emotion in relation to your nakedness, it could mean:

  1. You are feeling very vulnerable at the moment.
  2. You are scared of being exposed in some way.
  3. You have problems with your relationship with your body.
  4. You are hiding something you need to share.

If you experienced a positive emotion in relation to your nakedness, it could mean:

  1. You feel totally free.
  2. You feel liberated from a problem, setback or difficulty.
  3. You are at one with your physical nature.
  4. You enjoy your body.
  5. You are being completely honest about who you are, what you want or need.

Dreams Involving Animals

One way of interpreting animal symbols that I often use is to ask myself, "What special characteristics does this animal embody?"

Eagle

  • The eagle soars freely high above the earth. Therefore, the eagle has a broad perspective of what is below and will be able to "take in the whole picture." Do you already see the whole picture, or you do need to take a more objective view of something? Maybe you need to look at things from another perspective.
  • The eagle is strong and powerful. Do you feel strong and powerful or does someone in your life embody these qualities?
  • The eagle is a skillful hunter. Do you need to hunt something down or do you feel like someone is hunting you down?

Bees

  • Are you feeling stung by something that happened recently or by something someone said?
  • Bee is a homophone of "Be." Is your dream of bees telling you to just "be" yourself?
  • Think about what is special about bees. Bees are very busy, productive and industrious creatures. They work cooperatively for their survival. They swarm together for protection and to attack. They are hive creatures - the group is more important and powerful than the individual. They produce a nourishing food (honey). Do one of these things prick your intuition about what the bees mean to you?

Vista

How to Add Solar Panels to a Flat Roof


Solar Panels San Diego

Valley Center Solar Reviews

So, what exactly is involved in calculating solar panels cost in Valley Center? When thinking about solar power very few people know the way the cost of solar panel systems is actually measured. Or even, for that matter, do we automatically grasp the connection relating to the cost of solar power and the value of solar power. We all know that gasoline prices are in dollars per gallon. We likewise are all aware of approximately how far we’ll be able to drive after spending 40 bucks for a tank of gas. In contrast to a tank of gas, the value of which can be consumed pretty much instantly, solar panels deliver their value across a period of time.

Solar Energy Cost

Valley Center 3 Undervalued Solar Leaders

Recent Macro News

Source: Wallstreetdaily, SCMP, CNN Money

The last 2 quarters have seen influential countries such as china, India and Saudi Arabia announce heavy commitments to investing in solar infrastructure. The news isn't particularly surprising if you are aware of the hazardous pollution levels in China and India. China, the most populated country in the world, claimed that it will spend over $361 billion on renewable energy development by 2020. According to China's National Development and Reform Commission (NDRC), 40% of that spending will go towards solar and that will result in more than 1000 major solar plants, boosting china's solar capacity by 5 times.

Khalid Al-Falih, the energy minister of Saudi Arabia, announced that the oil capital of the world plans to spend as much as $50 billion on renewable energy. The short-term goal is to generate 10 GW of electricity through solar and wind by 2023. Al-Falih remarks that the long-term goal is to have renewable energy account for 30% of the country's total energy consumption by 2030.

Forbes states that India has installed 5.4 GW in 2016, and the Ministry of New and Renewable Energy estimates 15 GW (estimates to around 22% of global demand in 2017) and 16 GW of solar installation for the next two years. The Indian Government aims to accumulate 100 GW of solar by 2022, a feat which will require around $90 billion in total.

The combined future solar spending by these three countries, as well as the rest of the world, is an enormous pie to split between the big players in industry. In this article, I will use fundamental data to compare First Solar (NASDAQ:FSLR), Canadian Solar (NASDAQ:CSIQ) and JinkoSolar (NYSE:JKS), 3 heavily undervalued solar leaders which are well positioned to meet increasing global demand. All financial figures are expressed in USD via Bloomberg.

Market Cap

Source: Bloomberg

First Solar's $3.94 billion market cap is by far the largest in this group. First Solar is the only company on this list headquartered in the US and has an American management team. Canadian Solar's $855 million market cap is the next highest. Canadian Solar is based in Guelph, Canada, but the management team and production is predominantly Chinese. JinkoSolar's $542 million market is the lowest of the bunch. The company is entirely Chinese from its headquarters to production.

Revenue & Gross Profit & Net income

Source: Bloomberg

Please note that analyst consensus Q4 revenue and net income are used to estimate full-year 2016 revenue for Canadian Solar and JinkoSolar. On a GAAP basis, First Solar reported $2.951 billion in revenue and $704 million in gross profit for 2016. Net income came out to be -$382 million due to a $729 million unusual expense which we believe to be asset write-offs. Canadian Solar is expected to earn $2.871 billion in revenue, $459 million in gross profit and $89 million in net income. JinkoSolar is projected to pull in $3.331 billion in revenue, $647 million gross profit and $125 million in net income. JinkoSolar leads the pack in revenue and net income due to the tremendous demand for solar in China, where JinkoSolar conducts a majority of its business. First Solar boasts the highest gross margin at 24% while Canadian Solar and JinkoSolar have gross margins of 16% and 19%, respectively.

Source: Bloomberg

Cash & Debt

Source: Bloomberg

Looking at the balance sheets of these 3 companies, it's clear why First Solar is trading at a higher earnings multiple compared to its peers. First Solar currently has more than 10x cash on hand than total debt and actually received $5 million in interest income in 2016. Canadian Solar has $481 million cash on hand and a heavy debt load of $2.344 billion. The company is paying an estimated $52 million in interest expense (first 3 quarters annualized). JinkoSolar has $2.663 billion in debt, the highest of the three and dwarfs First Solar's debt of $188 million. JinkoSolar is estimated to pay a substantial $95 million interest payment in 2016 (first 3 quarters annualized). Although Canadian Solar and JinkoSolar are carrying high levels of debt, one must note that Canadian Solar and JinkoSolar have historically financed their projects with debt rather than equity.

Current Price vs. Book Value

Source: Bloomberg

All three solar leaders are currently undervalued relative to their book value. First Solar, with over $2.4 billion in retained earnings, is trading 22% below book value. JinkoSolar has been GAAP profitable for the past 10 quarters and accumulated $339 million in retained earnings during the same period. JinkoSolar is currently trading 28% below book value. Canadian Solar at its current price of $15 is trading just $1 below its book value of $16, but the company has been steadily growing its retained earnings from $47 million in Q4 2014 to $294 million as of Q3 2016.

Analyst Targets

Source: 4-traders

First Solar, with 22 covering analysts, has 5 buy ratings, 4 sell ratings and 13 hold ratings. First Solar is currently trading right around the analyst target of $35.9. Canadian Solar, with 2 buy ratings, 2 sell ratings and 7 hold ratings, is trading slightly below its price target of $15.2. JinkoSolar, with only 7 covering analysts, has 3 buy ratings and 4 hold ratings. The analyst target of $23.2 represents a 36% upside from the stock's current price.

Personal Holding

Although we believe all three stocks have bright futures, we currently hold Canadian Solar only. Although Canadian Solar's P/E is not as low as JinkoSolar's and the company's book value is below both of its peers, we remain enticed by Canadian Solar's diverse project portfolio. Since its inception, 100% of JinkoSolar's revenue came from the People's Republic of China. In 2016, 83% of First Solar's revenue came from the US, 5.4% came from India and 11.7% from various other countries. For the 12 months ending 9/30/2016, Canadian Solar derived 41.7% of its revenue from Asia, 46.8% from America (a good portion of which is from Canada) and 11.5% from Europe + other foreign countries. We believe Canadian Solar's diversified global presence positions the company tremendously to meet the increasing global demand for solar. We will continue to buy on dips and may initiate a position in JinkoSolar in the near future.

Source: Bloomberg

Disclosure: I am/we are long CSIQ.

I wrote this article myself, and it expresses my own opinions. I am not receiving compensation for it (other than from Seeking Alpha). I have no business relationship with any company whose stock is mentioned in this article.

Solar Roof

How to Add Solar Panels to a Flat Roof

SunPower Corporation (NASDAQ:SPWR) is a global solar energy solutions provider. It operates in the specialized semiconductor industry and was incorporated in 1985. It is headquartered in San Jose, California and has offices in North America, Europe, Africa and Asia. The company's operating activities include designing, manufacturing and supplying solar panels and solar systems to a wide range of clients. SunPower's customers range from residential to utility customers, including businesses and the government. The company also offers different products related to solar systems that include inverters and control chargers. SunPower Corporation reports its revenues based on geographical segmentation. The company generates about 70% of its revenue from America, 20% from EMEA (Europe) and 10% from APAC (Asia Pacific). The revenues from Europe and Asia have been decreasing over the years partly because of the growing American demand and partly because of the recent economic conditions of Europe. NRG Solar is a significant customer of the company, being responsible for 35% of the revenue generated from America or in aggregate terms 24.5% of the entire revenue. SunPower is backed by Total S. A., the fifth largest publicly-traded energy company in the world. Total has a controlling interest in the company and holds around 66% shares of SunPower.

Market Performance

SunPower Corporation is listed on NASDAQ and is currently trading around $30. 2013 proved to be a good year for the company as far as market performance is concerned. Shares of the company appreciated consistently during the year. In the first week of January, shares were trading at around $6 but now they are touching $30. The solar industry has been facing difficulty in the past two years but now it seems that the market is regaining confidence in the solar industry.

EPS of the company also improved during 2013 which caused the share price to increase. Revenues have also been improving over time and SunPower has posted a CAGR (compound annual growth rate) of 4.95% since December 2011. These growing financial figures were responsible for the positive trend of the share price.

Industry Profile

It appears that the solar industry is starting to recover. The recent years have been rough, especially for American solar businesses because of the dumping exercises carried out by China. The subsidizing of solar companies by the government of China enabled them to sell below their production costs. This forced the American companies to cut prices and suffer losses. Oversupply in the industry was also a major factor in the reduction of prices and diminished earnings. The sales of Chinese solar firms in Europe are capped now due to limitations imposed by the European Union. Once the US and Europe have settled the Chinese solar panel issue, profits in the industry will begin to grow. Furthermore, China has banned the construction of any further solar panel factories. All these developments enhanced the investor's confidence in the solar industry which in turn is reflected in the market performance of the American solar companies. "We're at a point now where demand starts to be driven by cold, hard economics rather than by subsidies and that is a game changer," says Jason Channell of Citigroup.

The solar industry is poised for future growth. According to IEA, renewable electricity will surpass output from natural gas and double the generation from nuclear plants by 2016; becoming the second most important source of energy after coal. It is worth noting that the growth of renewable energy has always been underestimated in projections. For instance, in 2003, IEA predicted that non-hydro renewable energy would represent 4% of the global generation by 2030 but the industry reached that figure in 2003. According to BNEF, renewable energy will account for around 69-74% of new capacity added by 2030. Estimates by HIS predict the global PV (photovoltaic) market to grow by 17% in 2014. All of this points toward the fact that the solar industry will grow in the future.

BNEF also projects a 20% increase in PV installations by 2017. The emerging markets are USA, China and Japan, accounting for 52% of the solar demand in 2013 compared to 13% in 2008. Overall, the industry is set for growth but the question is, on whose expense? China and the US are the two main competitors in this industry. The relative strategies and actions of their governments could affect the companies based in both countries.

Global Production Leader

China is the largest supplier of PV modules. It plans to add 10 GW of solar capacity to the system each year until 2015, aiming for 35GW by 2015. The current capacity is 5GW. Chinese companies like Trina Solar, Yingli Solar and Hanergy have low production costs and are offered subsidies by the government. Therefore, they manage to compete on very low costs, rendering the US based suppliers unprofitable.

The excess production and oversupply of solar panels by Chinese manufacturers reduced the price margins in the industry. This oversupply has been adversely affecting the global solar industry for the past few years. The capping of Chinese solar panels by the EU and the restriction of the Chinese government on the establishment of new solar panel installations has helped in improving the conditions of the industry globally. This, however, presents a problem for the American solar companies because the Chinese suppliers are likely to converge upon the attractive US market. This development could pose a serious hindrance to the growth of US based companies. China still produces the cheapest cells and the efficiency of the cells is also competitive. American companies need to find a way to produce cost effective cells to counter China's competitive advantage. To encourage competition, The U.S. Commerce Department set anti-dumping duties ranging from 18.32% to 249.96% on solar-energy cells imported from China in 2012. This provides a level playing field as far as the American market is concerned. In Europe, the market is equally competitive for both US and Chinese firms because China's sales have been capped. In Asia, as expected, Chinese companies have a clear advantage over their American counterparts.

Catalysts

Residential Leasing Program

SunPower's leasing program is a competitive advantage for the company, as it allows the consumers to install their energy systems without paying all charges upfront. Consumers can save up to 10% or 15% on their electricity bill and be eco-friendly at the same time. SunPower is trying to bridge the gap further by lowering the costs of the system and improving the efficiency. It is aiming to enhance efficiency by 10% and reduce panel costs by 35% in 2015. The residential lease program has attracted 16,200 customers since 2012. "Our residential lease business remains strong, with demand outstripping our financial capacity in the first quarter," said Tom Werner, SunPower's CEO, during a call with analysts to discuss quarterly earnings. The company has been fuelling its finance requirements from Citi, Credit Suisse and recently from US Bancorp. These leases are a competitive advantage for SunPower because they help in reducing the overall energy costs of the consumer.

Differentiated Products

Maxeon cells that are being manufactured by SunPower are the most efficient cells to date. They are 24% efficient. Provided the company manages to reduce the production cost of the cell, they would be every one's first choice.

SunPower's Oasis C7 is a solar photovoltaic tracking system that concentrates the sun's power seven times to achieve the lowest levelized cost of electricity (LCOE) for utility-scale solar power plants.

The leading technologies offered by SunPower are its differentiated strength and can help the company to grow.

Research and Development

SunPower is involved in research with King Abdullah University and the French Laboratory of Interfaces of Physics and Thin Films. Total S. A. is also working in solar R&D which could also benefit SunPower. Total is working in collaboration with:

LAAS: (Laboratory for Systems Analysis and Architecture - Toulouse, France) to enhance the efficiency of photovoltaic modules using a systemic approach.

IMEC: (Interuniversity Micro Electronics Center - Louvain, Belgium) to decrease the amount of silicon needed for cells and improve their efficiency

LPICM: (Interface and Thin Film Physics Laboratory - Saclay, France), a joint research facility of the French National Center for Scientific Research (CNRS) and the Ecole Polytechnique's engineering school with a combined team working on crystalline silicon thin film technology.

SunPower's exposure to extensive R&D is reflected in its technologically advanced products.

Valuation

P/E ratio of the company stands at 26.8x and PEG ratio at 0.76x. This indicates that the company's growth would be higher than what market is paying for a dollar of earnings. In simple terms, the market perception is not in line with future growth and we can say that the price is not perfectly correlated to the anticipated growth. Industry growth estimates are 17.09% but the street expects SunPower to grow by a staggering 30%.

With growth estimated at 30% for the next 5 years the multiplier to value the company should be higher than its P/E. That is why we are taking a relatively higher multiplier of 35x.

The mean price target is $35.7, using an average multiplier of 30x which is also above the current price. However, we will use a higher multiplier of 35x and a target price of $42. These estimates give us a 25% upside on SunPower.

Conclusion

SunPower Corp. is well-positioned in the solar industry. It has highly advanced and differentiated products, which, despite their high costs are capable of competing with the low cost and less efficient solar modules. With its intense exposure to R&D, we believe that the company will be able to compete on the cost basis in the near future. It has the potential to become the leader in the solar industry. With the anti-dumping legislation enacted in the US, cap on China's sales in the EU and plans to initiate global leasing, SunPower has an opportunity to penetrate these markets. The top quality cells, Maxeon, enable the company to compete with other American counterparts like First Solar. As far as Asia is concerned, the market will continue to be influenced by China until the solar giants of America can develop a cost effective solution.

Overall, the future of SunPower Corp. is bright whether fueled by their differentiated technology or by the backing of Total S A. The target price of the company indicates further price growth. So, our call on the shares of SPWR is a BUY.

Disclosure: I have no positions in any stocks mentioned, and no plans to initiate any positions within the next 72 hours. I wrote this article myself, and it expresses my own opinions. I am not receiving compensation for it (other than from Seeking Alpha). I have no business relationship with any company whose stock is mentioned in this article.

Valley Center

How to Add Solar Panels to a Flat Roof


Solar Panels San Diego

Valle De Los Caballos Solar Energy

So, what exactly is involved in calculating solar panels cost in Valle De Los Caballos? When thinking about solar power very few people know the way the cost of solar panel systems is actually measured. Or even, for that matter, do we automatically grasp the connection relating to the cost of solar power and the value of solar power. We all know that gasoline prices are in dollars per gallon. We likewise are all aware of approximately how far we’ll be able to drive after spending 40 bucks for a tank of gas. In contrast to a tank of gas, the value of which can be consumed pretty much instantly, solar panels deliver their value across a period of time.

Solar Roof

Valle De Los Caballos 3 Undervalued Solar Leaders

Caption: Kokam 24-megawatt Energy Storage System (NYSE:ESS), used by South Korea's largest utility, Korea Electric Power Corporation (KEPCO): world's largest Lithium NMC ESS for frequency regulation

Sometimes technology creeps up on you before you realize what is happening. Then something happens to get your attention and you realize that things are changing fast. And so it is with batteries, the missing link in replacing fossil fuels with renewable energy.

Here I cover two areas of battery technology that are transforming power management at scale. The first comes out of left field as a solution to frequency regulation in power plants. The second relates to management of excess energy generated by solar and wind, followed by dispatch of that energy when needed. At its most extreme this role may involve near complete charge and discharge once, or even twice, in a single day, every day.

Grid reliability, increased efficiency and frequency regulation

Late last month Kokam (XKRX:040480) a veteran Lithium ion South Korean battery manufacturer, announced the deployment of 3 high performance Lithium ion battery systems to provide 56MW of specialized batteries for frequency regulation in large power plants in South Korea. The batteries are: two Kokam Lithium Nickel Manganese Cobalt (NMC) battery systems with capacities of 24 MW/9 MWh and 16MW/6MWh, and a 16MW/5MWh Lithium Titanate Oxide (LTO) battery system. The LTO system was implemented first. While LTO technology is robust, with less dependence on temperature control, it is more expensive than NMC batteries and the specifications from the utilities often require temperature control (hence housing in containers which are cooled or heated). I suspect that NMC will become the preferred technology for frequency regulation.

The 24MW NMC battery system is the largest used in the world for frequency regulation. These batteries provide the Korea Electric Power Corporation (KEPCO) (NYSE:KEP) with ~10% of the frequency regulation needed to allow its entire system to run largely with batteries. KEPCO plans to install ~500MW of rapid response batteries by 2017 to effectively wean South Korea off the need for fossil fuel to provide this reserve power need for frequency regulation. Several battery manufacturers are involved in this project (Kokam, LG Chem (OTC:LGCLF), Samsung (OTC:SSNLF). It isn't clear how much KEPCO has already installed but it may be as much as 230MW of batteries for frequency regulation.

South Korea is special in that it has a single power authority, KEPCO, which is largely responsible for managing the nation's power capacity. So it is possible for one organization to setup a national program to manage 65 GW of power capacity. This capacity is mostly coal powered (~47GW) but with substantial nuclear and hydro capacity (~18GW). There is a very small contribution of wind and solar renewable energy in South Korea.

Currently ~5% of the coal needed to run a coal fired plant is dedicated to frequency regulation, so having batteries take over this role is a substantial saving in coal used. More importantly the South Korean plans (within 2 years!) indicate one of the first examples of batteries assuming a central role in an aspect of power generation that has been seen as a fossil fuel role.

Clearly Kokam doesn't see South Korea as the only market for this role and they have pilot facilities (2-5MW) being reviewed in both Germany and the US. Kokam has the capacity to deliver 100's of MW of the NMC frequency regulation batteries at short notice.

There is a lot of interest in fast response Lithium batteries and a substantial system (2MW) was recently announced in the UK using Toshiba (OTCPK:TOSYY) Lithium Titanate batteries in association with energy company E.ON (OTCPK:E.ON) and it's wholly owned subsidiary Uniper at the Willenhall substation. E.ON also has a 10MW/2.5MWh battery system under development with Tucson Electric Power in Arizona. E.ON is shortlisted for a 250MW tender for frequency response storage in the UK and Kokam is involved in tendering, so Korea's implementation is being watched in Europe too.

Interestingly lithium technology is being used to replace lead acid batteries by Duke Energy (NYSE:DUK) in a 35MW facility. There are also major frequency regulation projects in Canada (e.g. 12MW system in Ontario's Independent Electrical System Operator).

These Lithium NMC and LTO batteries are also useful for peak load management improving power quality and reliability in solar and wind applications, and also for spinning reserve applications.

Energy management for renewable energy

This is a big one, as you need a way to store and then access the intermittent power from solar PV and wind. Unlike the frequency regulation application described above, which needs fast, but short term response and high power delivery, energy arbitrage for solar and wind smoothing requires slower and longer term charge/discharge (up to over a number of hours).

A frequency regulation application has a high life cycle (10,000, compared with 4000-8000 with arbitrage), high power (i.e higher than arbitrage), but lower energy density than arbitrage. Because frequency regulation is a special rapid application it is more costly than an arbitrage battery.

The actual needs for energy management at scale are more varied than frequency regulation and so the actual configurations for batteries for this purpose are still evolving. It might be that the critical requirement is ramp rate control, or charge/discharge over hours may be more critical. Battery manufacturers are focusing in on their preferred configurations. For example Kokam has a High Energy NMC battery for energy management at scale.

For the technically minded here are a couple of links to give a sense of the kinds of lithium battery technology and how the different formulations behave. A good summary is here, and for those who want a deeper dive into lithium battery chemistry, here is a pretty up to date article.

Energy management applications for renewable power generation

Pumped hydro

Pumped hydro has a significant role in energy storage and this is well established with 140GW of pumped hydro already implemented. This large scale storage allows long term (even seasonal) energy storage.

There are surely many old mines, with tailing dams at the top and down below an open cut mine, that can be flooded. GW levels of power can be addressed in such schemes, but the capital costs are not small and they attract controversy because of their size. Two pumped hydro projects in California, Eagle Mountain and Iowa Hill, have been on this path for a long time, but capital and approvals are elusive.

Lithium batteries

This is happening at several levels. The easy one involves home solar PV systems linking with a home battery. Because it is a small cost (relatively) and the market is big (1.5 million homes in Australia have solar PV), just about all of the battery providers are interested. Here numbers matter as many small systems add up to a lot of power managed and it is managed locally (at the individual house level).

The harder thing is larger scale energy management, and detractors of Lithium batteries point to frequency regulation to indicate why Lithium batteries are inappropriate for energy arbitrage. However, Lithium battery chemistry configured for frequency regulation is not the only chemistry or configuration for lithium batteries, as Tesla is doing fine with its electric cars that have a range of several hundred miles and hence can discharge over many hours.

It seems that a 40ft container housing a 2-2.5MWh system is the scale for a number of utility energy management systems, but systems as large as 100MWh give a sense of the scale being implemented. Obviously a 100MWh plant would involve 40 x 2.5MWh 40ft containers.

Utilities adopting lithium battery energy management applications

There are now many multiple MW systems being installed for this kind of application. Kokam gives details of 12 of its systems installed in the US, South Korea and Australia that have more than 1MW power capacity. In 2015 Kokam alone installed 85MW of battery storage systems and 75MW of that capacity was larger than 1MW.

Substantial lithium batteries are also being adopted (along with solar PV) in remote and mining communities to partially substitute for diesel-powered systems. For example a remote indigenous community in Northern Australia is installing a 2MWh lithium battery storage system to store solar PV and take over grid forming functions from a diesel system. This will allow switchoff of the diesel system during the day as well as storing solar PV produced power.

Lithium batteries as part of a renewable energy project

Clearly renewable energy projects are considering including arbitrage, as there are various management functions that batteries do well, and holding the power generated to be delivered at a time when the value of the energy is greater may make sense. An early example of this kind of arbitrage involves Statoil (NYSE:STO) which recently announced a pilot 1MWh Lithium battery (technology not given) storage system to complement its Hywind Scottish floating 30MW wind farm.

Image : Statoil Hywind turbine

However, there are other battery technologies for deep charge/discharge on a daily basis. While at an earlier stage of development, flow batteries seem well suited to this task. It is a race to see if flow batteries will get a place at the table or whether lithium batteries now have sufficient momentum to dominate the battery arbitrage space.

Update on flow batteries

Six months ago I wrote an article on three flow battery companies (Redflow (ASX:RFX), Imergy Power Systems and ViZn Energy which had partnered with substantial manufacturing companies (Flextronics (NASDAQ:FLEX), Foxconn (OTC:FXCOF) (TWSE:2354) and JBL Circuit (NYSE:JBL) respectively for manufacture of their flow batteries.

While it is too soon to see a lot of progress, there have been developments in each of the partnerships.

Redflow/Flextronics ZnBr flow batteries :

The last 6 months have seen substantial progress with Flextronics now assuming 100% of manufacturing from Redflow. Flextronics now controls all aspects of manufacturing of the RedFlow batteries, with production ramp up in April 2016.

In 2015 in partnership with FLEX, manufacturing costs have been decreased by 15%, the lifecycle/longevity has been improved and cycle cost/kWh over battery lifetime decreased by 50%. Redflow will soon deliver an on-grid demonstration 0.1MW/0.48MWh flow battery system to Ergon Energy.

In addition to exploring remote markets around the world, Redflow is entering the Australian home battery market with a smaller offering. The Redflow share price has doubled since the start of 2016.

Imergy Power Systems/Foxconn :

It is too early to know how the Imergy projects in India, China and Africa are proceeding, although the status of the Sun Edison (NYSE:SUNE) purchase of up to 1000 of Imergy's vanadium flow batteries for implementing in India could be problematic given the disaster that has recently befallen SUNE and news that it is not supporting its activities in India. The rumor is that Adani (IN:ADANIT) may be interested in SUNE's Indian projects.

Recently (end of February 2016) SUNE announced agreement with Ontario Independent Electricity System Operator (Ontario IESO) to supply an Imergy 5MW/20MWh system in 2017; this was to be SUNE's first large scale grid-connected energy storage project and it will need to be restructured with SUNE in difficulty. Imergy and Foxconn will need to think creatively about diversifying the route to market for their flow batteries.

ViZn Energy/JBL Circuit : ViZn reported 20% improved capacity and reduced life cycle degradation, which is important for frequency regulation applications.

At the end of the day there will be winners and losers and here sits the dilemma for investors. Is it still too soon to know which technology to back and which companies to invest in? Given the intense interest in frequency regulation I suspect that this market, will be satisfied soon by companies like Kokam and LG Chem who have done the hard yards on understanding Lithium battery chemistry. I suspect that for management of renewable energy it will end up a combination of pumped hydro, Lithium and flow battery technologies, with the latter becoming increasingly important.

What is abundantly clear is that all investors need to look carefully at their fossil fuel portfolios, as the complacency that the switch to renewable energy (with storage) is going to take a long time seems misguided in 2016.

Conclusion

This story about battery storage starting to do heavy lifting has implications in two areas of large scale energy supply: frequency regulation and management of renewable energy. It will help resolve issues of intermittency of renewable energy. The impact will be felt not only on adoption of renewable energy (and hence solar and wind companies) but also on fossil fuel power generation. Investors in fossil fuels should think carefully about where this is heading.

Disclosure: I am/we are long ASX:RFX.

I wrote this article myself, and it expresses my own opinions. I am not receiving compensation for it (other than from Seeking Alpha). I have no business relationship with any company whose stock is mentioned in this article.

Editor's Note: This article covers one or more stocks trading at less than $1 per share and/or with less than a $100 million market cap. Please be aware of the risks associated with these stocks.

Solar System Price

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Solar panels are a source of alternative energy and can be constructed at home and mounted on the roof of a house. Depending on the amount of panels that are used, a significant amount of money can be saved on energy bills by using solar energy. When constructing solar panels, the two main choices for the body of the panel are Plexiglas or tempered glass -- it is important to know the specifications of both types of glass to meet the needs of your solar panels. Advantages of Plexiglas Panels Plexiglas panels are made of acrylic material, which means that they can be cut easily with a band saw. Plexiglas allows about 90 percent of light rays to pass through it to the solar cells. Despite allowing this much light through to the solar cells, Plexiglas protects the solar cells very well from wear, ensuring that they last as long as possible. Advantages of Tempered Glass Panels Tempered glass panels are more durable than Plexiglas -- this is important to consider in residential neighborhoods, as a stray ball can hit a solar panel. A crack in a tempered glass panel will not impede the solar cells from working properly. Tempered glass is also easy to cut -- this makes it easier to fit on panels of all shapes. Disadvantages of Plexiglas Panels Plexiglas has a softer outer surface than tempered glass and can crack or scratch easily, leading to solar cells being blocked from receiving solar rays. Plexiglas does not bend easily, which requires that it be supported on the solar panel -- failure to provide proper support can result in the Plexiglas panel cracking. Disadvantages of Tempered Glass Panels The cost of tempered glass is typically higher than that of Plexiglas (tempered glass can cost up to $150 per sheet as of 2011) and does not allow as much light to penetrate to the solar panels, reducing the efficiency of the cells. Although tempered glass sheets are durable, there exists the risk that they may shatter, which could block the solar cells from receiving light. A sheet of shattered tempered glass will also allow moisture into the panel, which will eventually ruin the solar cells. Related Searches References RPlastics: Plexiglas Primer Energy Matters: Solar Panel -- Plate vs. Tempered Glass Promoted By Zergnet Comments Please enable JavaScript to view the comments powered by Disqus. You May Also Like Glass Vs. Plexiglass In general, glass is cheaper to purchase than plexiglass, is more scratch resistant and more easily recycled. Plexiglass, on the other hand,... Acrylic Vs. Plexi Glass Acrylic and Plexiglass are often used interchangeably in product literature concerning sheet plastic. While Plexiglass is made from acrylic, there are subtle... Types of Glass Solar Panels Solar panels come in many forms and are made from multiple components. The glass components of solar collectors vary in form and...

Valle De Los Caballos

How to Add Solar Panels to a Flat Roof


Solar Panels San Diego

University Heights Solar Power Companies

So, what exactly is involved in calculating solar panels cost in University Heights? When thinking about solar power very few people know the way the cost of solar panel systems is actually measured. Or even, for that matter, do we automatically grasp the connection relating to the cost of solar power and the value of solar power. We all know that gasoline prices are in dollars per gallon. We likewise are all aware of approximately how far we’ll be able to drive after spending 40 bucks for a tank of gas. In contrast to a tank of gas, the value of which can be consumed pretty much instantly, solar panels deliver their value across a period of time.

Solar Water Heater

University Heights 3 Undervalued Solar Leaders

SunPower Corporation (NASDAQ:SPWR) is a global solar energy solutions provider. It operates in the specialized semiconductor industry and was incorporated in 1985. It is headquartered in San Jose, California and has offices in North America, Europe, Africa and Asia. The company's operating activities include designing, manufacturing and supplying solar panels and solar systems to a wide range of clients. SunPower's customers range from residential to utility customers, including businesses and the government. The company also offers different products related to solar systems that include inverters and control chargers. SunPower Corporation reports its revenues based on geographical segmentation. The company generates about 70% of its revenue from America, 20% from EMEA (Europe) and 10% from APAC (Asia Pacific). The revenues from Europe and Asia have been decreasing over the years partly because of the growing American demand and partly because of the recent economic conditions of Europe. NRG Solar is a significant customer of the company, being responsible for 35% of the revenue generated from America or in aggregate terms 24.5% of the entire revenue. SunPower is backed by Total S. A., the fifth largest publicly-traded energy company in the world. Total has a controlling interest in the company and holds around 66% shares of SunPower.

Market Performance

SunPower Corporation is listed on NASDAQ and is currently trading around $30. 2013 proved to be a good year for the company as far as market performance is concerned. Shares of the company appreciated consistently during the year. In the first week of January, shares were trading at around $6 but now they are touching $30. The solar industry has been facing difficulty in the past two years but now it seems that the market is regaining confidence in the solar industry.

EPS of the company also improved during 2013 which caused the share price to increase. Revenues have also been improving over time and SunPower has posted a CAGR (compound annual growth rate) of 4.95% since December 2011. These growing financial figures were responsible for the positive trend of the share price.

Industry Profile

It appears that the solar industry is starting to recover. The recent years have been rough, especially for American solar businesses because of the dumping exercises carried out by China. The subsidizing of solar companies by the government of China enabled them to sell below their production costs. This forced the American companies to cut prices and suffer losses. Oversupply in the industry was also a major factor in the reduction of prices and diminished earnings. The sales of Chinese solar firms in Europe are capped now due to limitations imposed by the European Union. Once the US and Europe have settled the Chinese solar panel issue, profits in the industry will begin to grow. Furthermore, China has banned the construction of any further solar panel factories. All these developments enhanced the investor's confidence in the solar industry which in turn is reflected in the market performance of the American solar companies. "We're at a point now where demand starts to be driven by cold, hard economics rather than by subsidies and that is a game changer," says Jason Channell of Citigroup.

The solar industry is poised for future growth. According to IEA, renewable electricity will surpass output from natural gas and double the generation from nuclear plants by 2016; becoming the second most important source of energy after coal. It is worth noting that the growth of renewable energy has always been underestimated in projections. For instance, in 2003, IEA predicted that non-hydro renewable energy would represent 4% of the global generation by 2030 but the industry reached that figure in 2003. According to BNEF, renewable energy will account for around 69-74% of new capacity added by 2030. Estimates by HIS predict the global PV (photovoltaic) market to grow by 17% in 2014. All of this points toward the fact that the solar industry will grow in the future.

BNEF also projects a 20% increase in PV installations by 2017. The emerging markets are USA, China and Japan, accounting for 52% of the solar demand in 2013 compared to 13% in 2008. Overall, the industry is set for growth but the question is, on whose expense? China and the US are the two main competitors in this industry. The relative strategies and actions of their governments could affect the companies based in both countries.

Global Production Leader

China is the largest supplier of PV modules. It plans to add 10 GW of solar capacity to the system each year until 2015, aiming for 35GW by 2015. The current capacity is 5GW. Chinese companies like Trina Solar, Yingli Solar and Hanergy have low production costs and are offered subsidies by the government. Therefore, they manage to compete on very low costs, rendering the US based suppliers unprofitable.

The excess production and oversupply of solar panels by Chinese manufacturers reduced the price margins in the industry. This oversupply has been adversely affecting the global solar industry for the past few years. The capping of Chinese solar panels by the EU and the restriction of the Chinese government on the establishment of new solar panel installations has helped in improving the conditions of the industry globally. This, however, presents a problem for the American solar companies because the Chinese suppliers are likely to converge upon the attractive US market. This development could pose a serious hindrance to the growth of US based companies. China still produces the cheapest cells and the efficiency of the cells is also competitive. American companies need to find a way to produce cost effective cells to counter China's competitive advantage. To encourage competition, The U.S. Commerce Department set anti-dumping duties ranging from 18.32% to 249.96% on solar-energy cells imported from China in 2012. This provides a level playing field as far as the American market is concerned. In Europe, the market is equally competitive for both US and Chinese firms because China's sales have been capped. In Asia, as expected, Chinese companies have a clear advantage over their American counterparts.

Catalysts

Residential Leasing Program

SunPower's leasing program is a competitive advantage for the company, as it allows the consumers to install their energy systems without paying all charges upfront. Consumers can save up to 10% or 15% on their electricity bill and be eco-friendly at the same time. SunPower is trying to bridge the gap further by lowering the costs of the system and improving the efficiency. It is aiming to enhance efficiency by 10% and reduce panel costs by 35% in 2015. The residential lease program has attracted 16,200 customers since 2012. "Our residential lease business remains strong, with demand outstripping our financial capacity in the first quarter," said Tom Werner, SunPower's CEO, during a call with analysts to discuss quarterly earnings. The company has been fuelling its finance requirements from Citi, Credit Suisse and recently from US Bancorp. These leases are a competitive advantage for SunPower because they help in reducing the overall energy costs of the consumer.

Differentiated Products

Maxeon cells that are being manufactured by SunPower are the most efficient cells to date. They are 24% efficient. Provided the company manages to reduce the production cost of the cell, they would be every one's first choice.

SunPower's Oasis C7 is a solar photovoltaic tracking system that concentrates the sun's power seven times to achieve the lowest levelized cost of electricity (LCOE) for utility-scale solar power plants.

The leading technologies offered by SunPower are its differentiated strength and can help the company to grow.

Research and Development

SunPower is involved in research with King Abdullah University and the French Laboratory of Interfaces of Physics and Thin Films. Total S. A. is also working in solar R&D which could also benefit SunPower. Total is working in collaboration with:

LAAS: (Laboratory for Systems Analysis and Architecture - Toulouse, France) to enhance the efficiency of photovoltaic modules using a systemic approach.

IMEC: (Interuniversity Micro Electronics Center - Louvain, Belgium) to decrease the amount of silicon needed for cells and improve their efficiency

LPICM: (Interface and Thin Film Physics Laboratory - Saclay, France), a joint research facility of the French National Center for Scientific Research (CNRS) and the Ecole Polytechnique's engineering school with a combined team working on crystalline silicon thin film technology.

SunPower's exposure to extensive R&D is reflected in its technologically advanced products.

Valuation

P/E ratio of the company stands at 26.8x and PEG ratio at 0.76x. This indicates that the company's growth would be higher than what market is paying for a dollar of earnings. In simple terms, the market perception is not in line with future growth and we can say that the price is not perfectly correlated to the anticipated growth. Industry growth estimates are 17.09% but the street expects SunPower to grow by a staggering 30%.

With growth estimated at 30% for the next 5 years the multiplier to value the company should be higher than its P/E. That is why we are taking a relatively higher multiplier of 35x.

The mean price target is $35.7, using an average multiplier of 30x which is also above the current price. However, we will use a higher multiplier of 35x and a target price of $42. These estimates give us a 25% upside on SunPower.

Conclusion

SunPower Corp. is well-positioned in the solar industry. It has highly advanced and differentiated products, which, despite their high costs are capable of competing with the low cost and less efficient solar modules. With its intense exposure to R&D, we believe that the company will be able to compete on the cost basis in the near future. It has the potential to become the leader in the solar industry. With the anti-dumping legislation enacted in the US, cap on China's sales in the EU and plans to initiate global leasing, SunPower has an opportunity to penetrate these markets. The top quality cells, Maxeon, enable the company to compete with other American counterparts like First Solar. As far as Asia is concerned, the market will continue to be influenced by China until the solar giants of America can develop a cost effective solution.

Overall, the future of SunPower Corp. is bright whether fueled by their differentiated technology or by the backing of Total S A. The target price of the company indicates further price growth. So, our call on the shares of SPWR is a BUY.

Disclosure: I have no positions in any stocks mentioned, and no plans to initiate any positions within the next 72 hours. I wrote this article myself, and it expresses my own opinions. I am not receiving compensation for it (other than from Seeking Alpha). I have no business relationship with any company whose stock is mentioned in this article.

Cost To Install Solar Panels

How to Install Solar Panels on a Tile Roof

Caption: Kokam 24-megawatt Energy Storage System (NYSE:ESS), used by South Korea's largest utility, Korea Electric Power Corporation (KEPCO): world's largest Lithium NMC ESS for frequency regulation

Sometimes technology creeps up on you before you realize what is happening. Then something happens to get your attention and you realize that things are changing fast. And so it is with batteries, the missing link in replacing fossil fuels with renewable energy.

Here I cover two areas of battery technology that are transforming power management at scale. The first comes out of left field as a solution to frequency regulation in power plants. The second relates to management of excess energy generated by solar and wind, followed by dispatch of that energy when needed. At its most extreme this role may involve near complete charge and discharge once, or even twice, in a single day, every day.

Grid reliability, increased efficiency and frequency regulation

Late last month Kokam (XKRX:040480) a veteran Lithium ion South Korean battery manufacturer, announced the deployment of 3 high performance Lithium ion battery systems to provide 56MW of specialized batteries for frequency regulation in large power plants in South Korea. The batteries are: two Kokam Lithium Nickel Manganese Cobalt (NMC) battery systems with capacities of 24 MW/9 MWh and 16MW/6MWh, and a 16MW/5MWh Lithium Titanate Oxide (LTO) battery system. The LTO system was implemented first. While LTO technology is robust, with less dependence on temperature control, it is more expensive than NMC batteries and the specifications from the utilities often require temperature control (hence housing in containers which are cooled or heated). I suspect that NMC will become the preferred technology for frequency regulation.

The 24MW NMC battery system is the largest used in the world for frequency regulation. These batteries provide the Korea Electric Power Corporation (KEPCO) (NYSE:KEP) with ~10% of the frequency regulation needed to allow its entire system to run largely with batteries. KEPCO plans to install ~500MW of rapid response batteries by 2017 to effectively wean South Korea off the need for fossil fuel to provide this reserve power need for frequency regulation. Several battery manufacturers are involved in this project (Kokam, LG Chem (OTC:LGCLF), Samsung (OTC:SSNLF). It isn't clear how much KEPCO has already installed but it may be as much as 230MW of batteries for frequency regulation.

South Korea is special in that it has a single power authority, KEPCO, which is largely responsible for managing the nation's power capacity. So it is possible for one organization to setup a national program to manage 65 GW of power capacity. This capacity is mostly coal powered (~47GW) but with substantial nuclear and hydro capacity (~18GW). There is a very small contribution of wind and solar renewable energy in South Korea.

Currently ~5% of the coal needed to run a coal fired plant is dedicated to frequency regulation, so having batteries take over this role is a substantial saving in coal used. More importantly the South Korean plans (within 2 years!) indicate one of the first examples of batteries assuming a central role in an aspect of power generation that has been seen as a fossil fuel role.

Clearly Kokam doesn't see South Korea as the only market for this role and they have pilot facilities (2-5MW) being reviewed in both Germany and the US. Kokam has the capacity to deliver 100's of MW of the NMC frequency regulation batteries at short notice.

There is a lot of interest in fast response Lithium batteries and a substantial system (2MW) was recently announced in the UK using Toshiba (OTCPK:TOSYY) Lithium Titanate batteries in association with energy company E.ON (OTCPK:E.ON) and it's wholly owned subsidiary Uniper at the Willenhall substation. E.ON also has a 10MW/2.5MWh battery system under development with Tucson Electric Power in Arizona. E.ON is shortlisted for a 250MW tender for frequency response storage in the UK and Kokam is involved in tendering, so Korea's implementation is being watched in Europe too.

Interestingly lithium technology is being used to replace lead acid batteries by Duke Energy (NYSE:DUK) in a 35MW facility. There are also major frequency regulation projects in Canada (e.g. 12MW system in Ontario's Independent Electrical System Operator).

These Lithium NMC and LTO batteries are also useful for peak load management improving power quality and reliability in solar and wind applications, and also for spinning reserve applications.

Energy management for renewable energy

This is a big one, as you need a way to store and then access the intermittent power from solar PV and wind. Unlike the frequency regulation application described above, which needs fast, but short term response and high power delivery, energy arbitrage for solar and wind smoothing requires slower and longer term charge/discharge (up to over a number of hours).

A frequency regulation application has a high life cycle (10,000, compared with 4000-8000 with arbitrage), high power (i.e higher than arbitrage), but lower energy density than arbitrage. Because frequency regulation is a special rapid application it is more costly than an arbitrage battery.

The actual needs for energy management at scale are more varied than frequency regulation and so the actual configurations for batteries for this purpose are still evolving. It might be that the critical requirement is ramp rate control, or charge/discharge over hours may be more critical. Battery manufacturers are focusing in on their preferred configurations. For example Kokam has a High Energy NMC battery for energy management at scale.

For the technically minded here are a couple of links to give a sense of the kinds of lithium battery technology and how the different formulations behave. A good summary is here, and for those who want a deeper dive into lithium battery chemistry, here is a pretty up to date article.

Energy management applications for renewable power generation

Pumped hydro

Pumped hydro has a significant role in energy storage and this is well established with 140GW of pumped hydro already implemented. This large scale storage allows long term (even seasonal) energy storage.

There are surely many old mines, with tailing dams at the top and down below an open cut mine, that can be flooded. GW levels of power can be addressed in such schemes, but the capital costs are not small and they attract controversy because of their size. Two pumped hydro projects in California, Eagle Mountain and Iowa Hill, have been on this path for a long time, but capital and approvals are elusive.

Lithium batteries

This is happening at several levels. The easy one involves home solar PV systems linking with a home battery. Because it is a small cost (relatively) and the market is big (1.5 million homes in Australia have solar PV), just about all of the battery providers are interested. Here numbers matter as many small systems add up to a lot of power managed and it is managed locally (at the individual house level).

The harder thing is larger scale energy management, and detractors of Lithium batteries point to frequency regulation to indicate why Lithium batteries are inappropriate for energy arbitrage. However, Lithium battery chemistry configured for frequency regulation is not the only chemistry or configuration for lithium batteries, as Tesla is doing fine with its electric cars that have a range of several hundred miles and hence can discharge over many hours.

It seems that a 40ft container housing a 2-2.5MWh system is the scale for a number of utility energy management systems, but systems as large as 100MWh give a sense of the scale being implemented. Obviously a 100MWh plant would involve 40 x 2.5MWh 40ft containers.

Utilities adopting lithium battery energy management applications

There are now many multiple MW systems being installed for this kind of application. Kokam gives details of 12 of its systems installed in the US, South Korea and Australia that have more than 1MW power capacity. In 2015 Kokam alone installed 85MW of battery storage systems and 75MW of that capacity was larger than 1MW.

Substantial lithium batteries are also being adopted (along with solar PV) in remote and mining communities to partially substitute for diesel-powered systems. For example a remote indigenous community in Northern Australia is installing a 2MWh lithium battery storage system to store solar PV and take over grid forming functions from a diesel system. This will allow switchoff of the diesel system during the day as well as storing solar PV produced power.

Lithium batteries as part of a renewable energy project

Clearly renewable energy projects are considering including arbitrage, as there are various management functions that batteries do well, and holding the power generated to be delivered at a time when the value of the energy is greater may make sense. An early example of this kind of arbitrage involves Statoil (NYSE:STO) which recently announced a pilot 1MWh Lithium battery (technology not given) storage system to complement its Hywind Scottish floating 30MW wind farm.

Image : Statoil Hywind turbine

However, there are other battery technologies for deep charge/discharge on a daily basis. While at an earlier stage of development, flow batteries seem well suited to this task. It is a race to see if flow batteries will get a place at the table or whether lithium batteries now have sufficient momentum to dominate the battery arbitrage space.

Update on flow batteries

Six months ago I wrote an article on three flow battery companies (Redflow (ASX:RFX), Imergy Power Systems and ViZn Energy which had partnered with substantial manufacturing companies (Flextronics (NASDAQ:FLEX), Foxconn (OTC:FXCOF) (TWSE:2354) and JBL Circuit (NYSE:JBL) respectively for manufacture of their flow batteries.

While it is too soon to see a lot of progress, there have been developments in each of the partnerships.

Redflow/Flextronics ZnBr flow batteries :

The last 6 months have seen substantial progress with Flextronics now assuming 100% of manufacturing from Redflow. Flextronics now controls all aspects of manufacturing of the RedFlow batteries, with production ramp up in April 2016.

In 2015 in partnership with FLEX, manufacturing costs have been decreased by 15%, the lifecycle/longevity has been improved and cycle cost/kWh over battery lifetime decreased by 50%. Redflow will soon deliver an on-grid demonstration 0.1MW/0.48MWh flow battery system to Ergon Energy.

In addition to exploring remote markets around the world, Redflow is entering the Australian home battery market with a smaller offering. The Redflow share price has doubled since the start of 2016.

Imergy Power Systems/Foxconn :

It is too early to know how the Imergy projects in India, China and Africa are proceeding, although the status of the Sun Edison (NYSE:SUNE) purchase of up to 1000 of Imergy's vanadium flow batteries for implementing in India could be problematic given the disaster that has recently befallen SUNE and news that it is not supporting its activities in India. The rumor is that Adani (IN:ADANIT) may be interested in SUNE's Indian projects.

Recently (end of February 2016) SUNE announced agreement with Ontario Independent Electricity System Operator (Ontario IESO) to supply an Imergy 5MW/20MWh system in 2017; this was to be SUNE's first large scale grid-connected energy storage project and it will need to be restructured with SUNE in difficulty. Imergy and Foxconn will need to think creatively about diversifying the route to market for their flow batteries.

ViZn Energy/JBL Circuit : ViZn reported 20% improved capacity and reduced life cycle degradation, which is important for frequency regulation applications.

At the end of the day there will be winners and losers and here sits the dilemma for investors. Is it still too soon to know which technology to back and which companies to invest in? Given the intense interest in frequency regulation I suspect that this market, will be satisfied soon by companies like Kokam and LG Chem who have done the hard yards on understanding Lithium battery chemistry. I suspect that for management of renewable energy it will end up a combination of pumped hydro, Lithium and flow battery technologies, with the latter becoming increasingly important.

What is abundantly clear is that all investors need to look carefully at their fossil fuel portfolios, as the complacency that the switch to renewable energy (with storage) is going to take a long time seems misguided in 2016.

Conclusion

This story about battery storage starting to do heavy lifting has implications in two areas of large scale energy supply: frequency regulation and management of renewable energy. It will help resolve issues of intermittency of renewable energy. The impact will be felt not only on adoption of renewable energy (and hence solar and wind companies) but also on fossil fuel power generation. Investors in fossil fuels should think carefully about where this is heading.

Disclosure: I am/we are long ASX:RFX.

I wrote this article myself, and it expresses my own opinions. I am not receiving compensation for it (other than from Seeking Alpha). I have no business relationship with any company whose stock is mentioned in this article.

Editor's Note: This article covers one or more stocks trading at less than $1 per share and/or with less than a $100 million market cap. Please be aware of the risks associated with these stocks.

University Heights

How to Remove Solar Water Heater Panels From a Roof


Solar Panels San Diego

University City Solar Quotes

So, what exactly is involved in calculating solar panels cost in University City? When thinking about solar power very few people know the way the cost of solar panel systems is actually measured. Or even, for that matter, do we automatically grasp the connection relating to the cost of solar power and the value of solar power. We all know that gasoline prices are in dollars per gallon. We likewise are all aware of approximately how far we’ll be able to drive after spending 40 bucks for a tank of gas. In contrast to a tank of gas, the value of which can be consumed pretty much instantly, solar panels deliver their value across a period of time.

Home Solar Panels Cost

University City 3 Undervalued Solar Leaders

solar cell research image by Albert Lozano from Fotolia.com If you go camping or hunting, or simply want to reduce your electricity bill, then a solar panel might make a good investment for you. Solar panels can charge batteries and run tools and appliances, all for free. They require no fuel, and because they have no moving parts, they need very little in the way of repair and maintenance. The only cost associated with solar panels is the up-front purchase cost. Even this can be reduced by making your own solar panels at home. Things You'll Need Solar cells Sheet of plywood Saw Narrow wooden strips Electrically conductive glue Spool of wire Wire cutters with wire-stripping attachments Silicone caulk Calculate the number of solar cells you will need to make your solar panel. Different cells provide different voltages. Divide the voltage you want your panel to produce by the voltage rating of your solar cells. This will give you the number of cells you need to produce 12 volts. Add a couple volts' worth of cells to this number to eliminate the danger of backcharging, which can damage your solar panel. Cut the plywood into a size just large enough to hold all the cells you need for your panel. Glue the narrow wooden strips all around the perimeter of the plywood you have cut. After your cell is assembled, these will hold up the Plexiglas cover to protect your panel from damage. Leave a small gap between two of the strips to run the wires out of the panel. Attach the solar cells to the panel of plywood, using the electrically conductive glue. Leave a small amount of this glue peeking above the top of each cell in order to form an electric link to the terminals on the bottoms of the cells. This edge of glue will be referred to as the "negative terminal" of each cell. Cut 6-inch lengths of wire from your spool of wire, using the wire cutters. Make as many short wires as there are cells in your panel, minus one. Remove 1 inch of insulation from one end of each wire, and 3 inches from the other ends, using the wire cutters. Glue the 3-inch-bare ends of these wires to the tops of the solar cells. Do not let any glue run from the top of the cell and touch the negative terminal of that cell. Do not let any bare wire touch the negative terminals of the cells. Leave the final cell without a short wire on top. Glue each of these wires to the exposed glue peeking over the edge of the cell next to it, after having allowed the glue on the other ends to dry. Allow this glue to dry. Cut two 3-foot sections of wire off the spool. Remove 1 inch of insulation from each end. Glue one to the negative terminal of the first cell, the one without any wire connected to it. Glue the other to the top of the cell on the other end, without any wire on top. Other People Are Reading How to Make a Solar Panel How to Make Homemade Solar Power Run the long wires out through the gap between the wooden strips. Glue them to the sides of the solar panel so that there is no possibility they will touch each other, which could short out your panel. Cut the Plexiglas sheet to match the size of your panel. Glue it to the top of the wooden strips. When the glue is dry, seal all the edges with silicone caulk to protect it from water. Tips & Warnings You can increase the power of your panel without changing the voltage by building other panels identical to the first. Connect their negative terminal wires to the negative terminal wire of the first panel, and their positive terminal wires (the wires connected to the top of the last solar cell) to the positive terminal wires of the first panel. Related Searches References SchoolPower Naturally: Solar Education for NY Solatron Technologies: Learn How to Wire Solar Panels and Batteries Photo Credit solar cell research image by Albert Lozano from Fotolia.com Promoted By Zergnet Comments Please enable JavaScript to view the comments powered by Disqus. Resources Green Living Tips: Solar Panel Basics You May Also Like How to Make a Solar Panel Solar cells convert the energy of the sun into electricity. By using items commonly found in the home or your local hardware... How to Make a Solar Panel Model A model of a solar panel can be a great visual aid for your science projects. Models help people to visualize how... How to Make Homemade Solar Power Humans have been using solar power for thousands of years to heat their homes. Making solar panels to collect and store the... Alternative Energy: How to Make Solar Cells & Solar Panels Free Solar Panel Construction Plans Free solar panel construction plans are available in a variety of places online. Some tutorials cover how a specific person built their... Best Solar Panels

How to Remove Solar Water Heater Panels From a Roof

Caption: Kokam 24-megawatt Energy Storage System (NYSE:ESS), used by South Korea's largest utility, Korea Electric Power Corporation (KEPCO): world's largest Lithium NMC ESS for frequency regulation

Sometimes technology creeps up on you before you realize what is happening. Then something happens to get your attention and you realize that things are changing fast. And so it is with batteries, the missing link in replacing fossil fuels with renewable energy.

Here I cover two areas of battery technology that are transforming power management at scale. The first comes out of left field as a solution to frequency regulation in power plants. The second relates to management of excess energy generated by solar and wind, followed by dispatch of that energy when needed. At its most extreme this role may involve near complete charge and discharge once, or even twice, in a single day, every day.

Grid reliability, increased efficiency and frequency regulation

Late last month Kokam (XKRX:040480) a veteran Lithium ion South Korean battery manufacturer, announced the deployment of 3 high performance Lithium ion battery systems to provide 56MW of specialized batteries for frequency regulation in large power plants in South Korea. The batteries are: two Kokam Lithium Nickel Manganese Cobalt (NMC) battery systems with capacities of 24 MW/9 MWh and 16MW/6MWh, and a 16MW/5MWh Lithium Titanate Oxide (LTO) battery system. The LTO system was implemented first. While LTO technology is robust, with less dependence on temperature control, it is more expensive than NMC batteries and the specifications from the utilities often require temperature control (hence housing in containers which are cooled or heated). I suspect that NMC will become the preferred technology for frequency regulation.

The 24MW NMC battery system is the largest used in the world for frequency regulation. These batteries provide the Korea Electric Power Corporation (KEPCO) (NYSE:KEP) with ~10% of the frequency regulation needed to allow its entire system to run largely with batteries. KEPCO plans to install ~500MW of rapid response batteries by 2017 to effectively wean South Korea off the need for fossil fuel to provide this reserve power need for frequency regulation. Several battery manufacturers are involved in this project (Kokam, LG Chem (OTC:LGCLF), Samsung (OTC:SSNLF). It isn't clear how much KEPCO has already installed but it may be as much as 230MW of batteries for frequency regulation.

South Korea is special in that it has a single power authority, KEPCO, which is largely responsible for managing the nation's power capacity. So it is possible for one organization to setup a national program to manage 65 GW of power capacity. This capacity is mostly coal powered (~47GW) but with substantial nuclear and hydro capacity (~18GW). There is a very small contribution of wind and solar renewable energy in South Korea.

Currently ~5% of the coal needed to run a coal fired plant is dedicated to frequency regulation, so having batteries take over this role is a substantial saving in coal used. More importantly the South Korean plans (within 2 years!) indicate one of the first examples of batteries assuming a central role in an aspect of power generation that has been seen as a fossil fuel role.

Clearly Kokam doesn't see South Korea as the only market for this role and they have pilot facilities (2-5MW) being reviewed in both Germany and the US. Kokam has the capacity to deliver 100's of MW of the NMC frequency regulation batteries at short notice.

There is a lot of interest in fast response Lithium batteries and a substantial system (2MW) was recently announced in the UK using Toshiba (OTCPK:TOSYY) Lithium Titanate batteries in association with energy company E.ON (OTCPK:E.ON) and it's wholly owned subsidiary Uniper at the Willenhall substation. E.ON also has a 10MW/2.5MWh battery system under development with Tucson Electric Power in Arizona. E.ON is shortlisted for a 250MW tender for frequency response storage in the UK and Kokam is involved in tendering, so Korea's implementation is being watched in Europe too.

Interestingly lithium technology is being used to replace lead acid batteries by Duke Energy (NYSE:DUK) in a 35MW facility. There are also major frequency regulation projects in Canada (e.g. 12MW system in Ontario's Independent Electrical System Operator).

These Lithium NMC and LTO batteries are also useful for peak load management improving power quality and reliability in solar and wind applications, and also for spinning reserve applications.

Energy management for renewable energy

This is a big one, as you need a way to store and then access the intermittent power from solar PV and wind. Unlike the frequency regulation application described above, which needs fast, but short term response and high power delivery, energy arbitrage for solar and wind smoothing requires slower and longer term charge/discharge (up to over a number of hours).

A frequency regulation application has a high life cycle (10,000, compared with 4000-8000 with arbitrage), high power (i.e higher than arbitrage), but lower energy density than arbitrage. Because frequency regulation is a special rapid application it is more costly than an arbitrage battery.

The actual needs for energy management at scale are more varied than frequency regulation and so the actual configurations for batteries for this purpose are still evolving. It might be that the critical requirement is ramp rate control, or charge/discharge over hours may be more critical. Battery manufacturers are focusing in on their preferred configurations. For example Kokam has a High Energy NMC battery for energy management at scale.

For the technically minded here are a couple of links to give a sense of the kinds of lithium battery technology and how the different formulations behave. A good summary is here, and for those who want a deeper dive into lithium battery chemistry, here is a pretty up to date article.

Energy management applications for renewable power generation

Pumped hydro

Pumped hydro has a significant role in energy storage and this is well established with 140GW of pumped hydro already implemented. This large scale storage allows long term (even seasonal) energy storage.

There are surely many old mines, with tailing dams at the top and down below an open cut mine, that can be flooded. GW levels of power can be addressed in such schemes, but the capital costs are not small and they attract controversy because of their size. Two pumped hydro projects in California, Eagle Mountain and Iowa Hill, have been on this path for a long time, but capital and approvals are elusive.

Lithium batteries

This is happening at several levels. The easy one involves home solar PV systems linking with a home battery. Because it is a small cost (relatively) and the market is big (1.5 million homes in Australia have solar PV), just about all of the battery providers are interested. Here numbers matter as many small systems add up to a lot of power managed and it is managed locally (at the individual house level).

The harder thing is larger scale energy management, and detractors of Lithium batteries point to frequency regulation to indicate why Lithium batteries are inappropriate for energy arbitrage. However, Lithium battery chemistry configured for frequency regulation is not the only chemistry or configuration for lithium batteries, as Tesla is doing fine with its electric cars that have a range of several hundred miles and hence can discharge over many hours.

It seems that a 40ft container housing a 2-2.5MWh system is the scale for a number of utility energy management systems, but systems as large as 100MWh give a sense of the scale being implemented. Obviously a 100MWh plant would involve 40 x 2.5MWh 40ft containers.

Utilities adopting lithium battery energy management applications

There are now many multiple MW systems being installed for this kind of application. Kokam gives details of 12 of its systems installed in the US, South Korea and Australia that have more than 1MW power capacity. In 2015 Kokam alone installed 85MW of battery storage systems and 75MW of that capacity was larger than 1MW.

Substantial lithium batteries are also being adopted (along with solar PV) in remote and mining communities to partially substitute for diesel-powered systems. For example a remote indigenous community in Northern Australia is installing a 2MWh lithium battery storage system to store solar PV and take over grid forming functions from a diesel system. This will allow switchoff of the diesel system during the day as well as storing solar PV produced power.

Lithium batteries as part of a renewable energy project

Clearly renewable energy projects are considering including arbitrage, as there are various management functions that batteries do well, and holding the power generated to be delivered at a time when the value of the energy is greater may make sense. An early example of this kind of arbitrage involves Statoil (NYSE:STO) which recently announced a pilot 1MWh Lithium battery (technology not given) storage system to complement its Hywind Scottish floating 30MW wind farm.

Image : Statoil Hywind turbine

However, there are other battery technologies for deep charge/discharge on a daily basis. While at an earlier stage of development, flow batteries seem well suited to this task. It is a race to see if flow batteries will get a place at the table or whether lithium batteries now have sufficient momentum to dominate the battery arbitrage space.

Update on flow batteries

Six months ago I wrote an article on three flow battery companies (Redflow (ASX:RFX), Imergy Power Systems and ViZn Energy which had partnered with substantial manufacturing companies (Flextronics (NASDAQ:FLEX), Foxconn (OTC:FXCOF) (TWSE:2354) and JBL Circuit (NYSE:JBL) respectively for manufacture of their flow batteries.

While it is too soon to see a lot of progress, there have been developments in each of the partnerships.

Redflow/Flextronics ZnBr flow batteries :

The last 6 months have seen substantial progress with Flextronics now assuming 100% of manufacturing from Redflow. Flextronics now controls all aspects of manufacturing of the RedFlow batteries, with production ramp up in April 2016.

In 2015 in partnership with FLEX, manufacturing costs have been decreased by 15%, the lifecycle/longevity has been improved and cycle cost/kWh over battery lifetime decreased by 50%. Redflow will soon deliver an on-grid demonstration 0.1MW/0.48MWh flow battery system to Ergon Energy.

In addition to exploring remote markets around the world, Redflow is entering the Australian home battery market with a smaller offering. The Redflow share price has doubled since the start of 2016.

Imergy Power Systems/Foxconn :

It is too early to know how the Imergy projects in India, China and Africa are proceeding, although the status of the Sun Edison (NYSE:SUNE) purchase of up to 1000 of Imergy's vanadium flow batteries for implementing in India could be problematic given the disaster that has recently befallen SUNE and news that it is not supporting its activities in India. The rumor is that Adani (IN:ADANIT) may be interested in SUNE's Indian projects.

Recently (end of February 2016) SUNE announced agreement with Ontario Independent Electricity System Operator (Ontario IESO) to supply an Imergy 5MW/20MWh system in 2017; this was to be SUNE's first large scale grid-connected energy storage project and it will need to be restructured with SUNE in difficulty. Imergy and Foxconn will need to think creatively about diversifying the route to market for their flow batteries.

ViZn Energy/JBL Circuit : ViZn reported 20% improved capacity and reduced life cycle degradation, which is important for frequency regulation applications.

At the end of the day there will be winners and losers and here sits the dilemma for investors. Is it still too soon to know which technology to back and which companies to invest in? Given the intense interest in frequency regulation I suspect that this market, will be satisfied soon by companies like Kokam and LG Chem who have done the hard yards on understanding Lithium battery chemistry. I suspect that for management of renewable energy it will end up a combination of pumped hydro, Lithium and flow battery technologies, with the latter becoming increasingly important.

What is abundantly clear is that all investors need to look carefully at their fossil fuel portfolios, as the complacency that the switch to renewable energy (with storage) is going to take a long time seems misguided in 2016.

Conclusion

This story about battery storage starting to do heavy lifting has implications in two areas of large scale energy supply: frequency regulation and management of renewable energy. It will help resolve issues of intermittency of renewable energy. The impact will be felt not only on adoption of renewable energy (and hence solar and wind companies) but also on fossil fuel power generation. Investors in fossil fuels should think carefully about where this is heading.

Disclosure: I am/we are long ASX:RFX.

I wrote this article myself, and it expresses my own opinions. I am not receiving compensation for it (other than from Seeking Alpha). I have no business relationship with any company whose stock is mentioned in this article.

Editor's Note: This article covers one or more stocks trading at less than $1 per share and/or with less than a $100 million market cap. Please be aware of the risks associated with these stocks.

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Torrey Pines Best Solar Companies In

So, what exactly is involved in calculating solar panels cost in Torrey Pines? When thinking about solar power very few people know the way the cost of solar panel systems is actually measured. Or even, for that matter, do we automatically grasp the connection relating to the cost of solar power and the value of solar power. We all know that gasoline prices are in dollars per gallon. We likewise are all aware of approximately how far we’ll be able to drive after spending 40 bucks for a tank of gas. In contrast to a tank of gas, the value of which can be consumed pretty much instantly, solar panels deliver their value across a period of time.

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Torrey Pines 3 Undervalued Solar Leaders

SunPower Corporation (NASDAQ:SPWR) is a global solar energy solutions provider. It operates in the specialized semiconductor industry and was incorporated in 1985. It is headquartered in San Jose, California and has offices in North America, Europe, Africa and Asia. The company's operating activities include designing, manufacturing and supplying solar panels and solar systems to a wide range of clients. SunPower's customers range from residential to utility customers, including businesses and the government. The company also offers different products related to solar systems that include inverters and control chargers. SunPower Corporation reports its revenues based on geographical segmentation. The company generates about 70% of its revenue from America, 20% from EMEA (Europe) and 10% from APAC (Asia Pacific). The revenues from Europe and Asia have been decreasing over the years partly because of the growing American demand and partly because of the recent economic conditions of Europe. NRG Solar is a significant customer of the company, being responsible for 35% of the revenue generated from America or in aggregate terms 24.5% of the entire revenue. SunPower is backed by Total S. A., the fifth largest publicly-traded energy company in the world. Total has a controlling interest in the company and holds around 66% shares of SunPower.

Market Performance

SunPower Corporation is listed on NASDAQ and is currently trading around $30. 2013 proved to be a good year for the company as far as market performance is concerned. Shares of the company appreciated consistently during the year. In the first week of January, shares were trading at around $6 but now they are touching $30. The solar industry has been facing difficulty in the past two years but now it seems that the market is regaining confidence in the solar industry.

EPS of the company also improved during 2013 which caused the share price to increase. Revenues have also been improving over time and SunPower has posted a CAGR (compound annual growth rate) of 4.95% since December 2011. These growing financial figures were responsible for the positive trend of the share price.

Industry Profile

It appears that the solar industry is starting to recover. The recent years have been rough, especially for American solar businesses because of the dumping exercises carried out by China. The subsidizing of solar companies by the government of China enabled them to sell below their production costs. This forced the American companies to cut prices and suffer losses. Oversupply in the industry was also a major factor in the reduction of prices and diminished earnings. The sales of Chinese solar firms in Europe are capped now due to limitations imposed by the European Union. Once the US and Europe have settled the Chinese solar panel issue, profits in the industry will begin to grow. Furthermore, China has banned the construction of any further solar panel factories. All these developments enhanced the investor's confidence in the solar industry which in turn is reflected in the market performance of the American solar companies. "We're at a point now where demand starts to be driven by cold, hard economics rather than by subsidies and that is a game changer," says Jason Channell of Citigroup.

The solar industry is poised for future growth. According to IEA, renewable electricity will surpass output from natural gas and double the generation from nuclear plants by 2016; becoming the second most important source of energy after coal. It is worth noting that the growth of renewable energy has always been underestimated in projections. For instance, in 2003, IEA predicted that non-hydro renewable energy would represent 4% of the global generation by 2030 but the industry reached that figure in 2003. According to BNEF, renewable energy will account for around 69-74% of new capacity added by 2030. Estimates by HIS predict the global PV (photovoltaic) market to grow by 17% in 2014. All of this points toward the fact that the solar industry will grow in the future.

BNEF also projects a 20% increase in PV installations by 2017. The emerging markets are USA, China and Japan, accounting for 52% of the solar demand in 2013 compared to 13% in 2008. Overall, the industry is set for growth but the question is, on whose expense? China and the US are the two main competitors in this industry. The relative strategies and actions of their governments could affect the companies based in both countries.

Global Production Leader

China is the largest supplier of PV modules. It plans to add 10 GW of solar capacity to the system each year until 2015, aiming for 35GW by 2015. The current capacity is 5GW. Chinese companies like Trina Solar, Yingli Solar and Hanergy have low production costs and are offered subsidies by the government. Therefore, they manage to compete on very low costs, rendering the US based suppliers unprofitable.

The excess production and oversupply of solar panels by Chinese manufacturers reduced the price margins in the industry. This oversupply has been adversely affecting the global solar industry for the past few years. The capping of Chinese solar panels by the EU and the restriction of the Chinese government on the establishment of new solar panel installations has helped in improving the conditions of the industry globally. This, however, presents a problem for the American solar companies because the Chinese suppliers are likely to converge upon the attractive US market. This development could pose a serious hindrance to the growth of US based companies. China still produces the cheapest cells and the efficiency of the cells is also competitive. American companies need to find a way to produce cost effective cells to counter China's competitive advantage. To encourage competition, The U.S. Commerce Department set anti-dumping duties ranging from 18.32% to 249.96% on solar-energy cells imported from China in 2012. This provides a level playing field as far as the American market is concerned. In Europe, the market is equally competitive for both US and Chinese firms because China's sales have been capped. In Asia, as expected, Chinese companies have a clear advantage over their American counterparts.

Catalysts

Residential Leasing Program

SunPower's leasing program is a competitive advantage for the company, as it allows the consumers to install their energy systems without paying all charges upfront. Consumers can save up to 10% or 15% on their electricity bill and be eco-friendly at the same time. SunPower is trying to bridge the gap further by lowering the costs of the system and improving the efficiency. It is aiming to enhance efficiency by 10% and reduce panel costs by 35% in 2015. The residential lease program has attracted 16,200 customers since 2012. "Our residential lease business remains strong, with demand outstripping our financial capacity in the first quarter," said Tom Werner, SunPower's CEO, during a call with analysts to discuss quarterly earnings. The company has been fuelling its finance requirements from Citi, Credit Suisse and recently from US Bancorp. These leases are a competitive advantage for SunPower because they help in reducing the overall energy costs of the consumer.

Differentiated Products

Maxeon cells that are being manufactured by SunPower are the most efficient cells to date. They are 24% efficient. Provided the company manages to reduce the production cost of the cell, they would be every one's first choice.

SunPower's Oasis C7 is a solar photovoltaic tracking system that concentrates the sun's power seven times to achieve the lowest levelized cost of electricity (LCOE) for utility-scale solar power plants.

The leading technologies offered by SunPower are its differentiated strength and can help the company to grow.

Research and Development

SunPower is involved in research with King Abdullah University and the French Laboratory of Interfaces of Physics and Thin Films. Total S. A. is also working in solar R&D which could also benefit SunPower. Total is working in collaboration with:

LAAS: (Laboratory for Systems Analysis and Architecture - Toulouse, France) to enhance the efficiency of photovoltaic modules using a systemic approach.

IMEC: (Interuniversity Micro Electronics Center - Louvain, Belgium) to decrease the amount of silicon needed for cells and improve their efficiency

LPICM: (Interface and Thin Film Physics Laboratory - Saclay, France), a joint research facility of the French National Center for Scientific Research (CNRS) and the Ecole Polytechnique's engineering school with a combined team working on crystalline silicon thin film technology.

SunPower's exposure to extensive R&D is reflected in its technologically advanced products.

Valuation

P/E ratio of the company stands at 26.8x and PEG ratio at 0.76x. This indicates that the company's growth would be higher than what market is paying for a dollar of earnings. In simple terms, the market perception is not in line with future growth and we can say that the price is not perfectly correlated to the anticipated growth. Industry growth estimates are 17.09% but the street expects SunPower to grow by a staggering 30%.

With growth estimated at 30% for the next 5 years the multiplier to value the company should be higher than its P/E. That is why we are taking a relatively higher multiplier of 35x.

The mean price target is $35.7, using an average multiplier of 30x which is also above the current price. However, we will use a higher multiplier of 35x and a target price of $42. These estimates give us a 25% upside on SunPower.

Conclusion

SunPower Corp. is well-positioned in the solar industry. It has highly advanced and differentiated products, which, despite their high costs are capable of competing with the low cost and less efficient solar modules. With its intense exposure to R&D, we believe that the company will be able to compete on the cost basis in the near future. It has the potential to become the leader in the solar industry. With the anti-dumping legislation enacted in the US, cap on China's sales in the EU and plans to initiate global leasing, SunPower has an opportunity to penetrate these markets. The top quality cells, Maxeon, enable the company to compete with other American counterparts like First Solar. As far as Asia is concerned, the market will continue to be influenced by China until the solar giants of America can develop a cost effective solution.

Overall, the future of SunPower Corp. is bright whether fueled by their differentiated technology or by the backing of Total S A. The target price of the company indicates further price growth. So, our call on the shares of SPWR is a BUY.

Disclosure: I have no positions in any stocks mentioned, and no plans to initiate any positions within the next 72 hours. I wrote this article myself, and it expresses my own opinions. I am not receiving compensation for it (other than from Seeking Alpha). I have no business relationship with any company whose stock is mentioned in this article.

Solar System For Home

How to Hook Up a Wind Turbine and Solar Panels to a Battery

Hemera Technologies/AbleStock.com/Getty Images Solar panels can be installed on many roof types. The panels can be tilted up as well as flush-mounted. It is much easier to locate the rafters when the roof is off to install the mounts for the panels. The mounts need to be secured with stainless steel lag bolts bolted into the roof rafters. Shingle roofs are easy to work with because there are no special requirements needed. Tile roofs are difficult to install on and transporting solar panels across them can be challenging. Things You'll Need Solar panels Mounting kit Tar and heater Safety goggles Remove the tiles at intervals where the mount will be installed. Find the rafters with a stud finder, then use a laser sight or chalk line to for a straight-line mark where each mount will go. Use a drill to pre-drill with a pilot bit to steer clear of splitting the rafters. Install the mounts where the holes you made earlier with stainless steel lag bolts. Place metal flashing over the mounts and hot-mop (seal with tar and heat) around the mounts. Secure the metal rails to the mounting posts with 0.375 bolts. Cut a hole into the tile to fit snugly over the mounting bracket and seal with tar. Install the solar panels and attach them into an array. Install the conduit and run the wires to connect the panels to the inverter. Tips & Warnings Always wear safety goggles. Related Searches References Ameco Photo Credit Hemera Technologies/AbleStock.com/Getty Images Promoted By Zergnet Comments Please enable JavaScript to view the comments powered by Disqus. You May Also Like How to Install Tile Roofing Tile is one of the oldest types of finish covering used on pitched roofs. Tile roofing has grown increasingly popular because of... How to Install Solar Panels on My Roof Solar panels have become very popular these days. More and more people are switching to these environment-friendly ways of generating electricy. Mounting...

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