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From examining your current eletrical usage and costs to assisting with the correct financing plan, you will receive a custom designed solar energy plan which suits you and your family.
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- Fully licensed & insured installers
- Custom tailored solutions
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- Easy financing options
- 20 year warranty
- Transparent contracts
- State and federal incentives
- Roof repair if damaged during installation
- Customer service is our top priority
About Solar Energy
Solar power is energy from the sun that is transformed into thermal or electrical energy.
Solar energy is the cleanest and most abundant renewable resource source available, and the United States has some of the richest solar resources worldwide. Modern innovation can harness this energy for a variety of usages, consisting of producing electricity, supplying light or a comfortable interior environment, and heating water for domestic, commercial, or industrial usage.
Solar power makes it possible for home owners to use the sun to power everyday life: running your air conditioner, cleaning clothes, viewing TELEVISION, cooking supper. All while decreasing your carbon footprint, and without burning nonrenewable fuel sources or putting a pressure on the electrical grid. And while the environmental advantages of solar power are considerable, lots of residents discover that the benefit, special functions, and cost savings of owning a solar power system are a lot more enticing.
Top 10 Advantages of Solar Energy
#1 Drastically decrease and even eliminate your electric costs
Whether you're a homeowner, service, or not-for-profit, electricity expenses can make up a big part of your monthly costs. With a solar panel system, you'll produce free power for your system's whole 25+ year lifecycle. Even if you don't produce One Hundred Percent of the energy you consume, solar will minimize your energy costs and you'll still save a lot of loan.
#2 Make an excellent return on your investment
Photovoltaic panels aren't an expense-- they are among the best methods to invest, with returns equaling those of more traditional investments like stocks and bonds. Thanks to considerable electrical power costs cost savings, the typical American house owner settles their solar panel system in 7 to 8 years and sees an ROI of 20 percent or more.
#3 Protect versus rising energy costs
Among the most clear cut benefits of photovoltaic panels is the ability to hedge utility prices. In the past 10 years, domestic electricity costs have gone up by an average of three percent annually. By investing in a solar energy system now, you can fix your electrical energy rate and safeguard versus unforeseeable boosts in electrical power costs. If you're a service or property owner with rising and falling capital, going solar likewise helps you much better forecast and handle your expenses.
#4 Boost your property value
Several research studies have actually found that homes geared up with solar energy systems have higher home worths and sell quicker than non-solar houses. Appraisers are progressively taking solar setups into factor to consider as they value houses at the time of a sale, and as property buyers become more informed about solar, need for properties geared up with photovoltaic panel systems will continue to grow.
#5 Boost U.S. energy self-reliance
The sun is a near-infinite source of energy and a key component of accomplishing energy self-reliance in the United States. By increasing our capability to produce electricity from the sun, we can likewise insulate our nation from cost fluctuations in global energy markets.
#6 Create jobs and help your local economy
According to The Solar Foundation, the solar market added tasks at a rate almost 12 times faster than the overall U.S. economy in 2015, representing 1.2 percent of all tasks in the country. This development is expected to continue. Because solar-related jobs have the tendency to be greater paying and can not be outsourced, they are a significant contributor to the U.S. economy.
#7 Protect the environment
Solar is an excellent way to lower your carbon footprint. Buildings are responsible for 38 percent of all carbon emissions in the U.S., and going solar can substantially decrease that number. A common residential solar panel system will get rid of 3 to four tons of carbon emissions each year-- the equivalent of planting over 100 trees every year.
#8 Show your commitment to sustainability
Sustainability and corporate social duty are essential elements of an organization's culture and worths. They likewise produce bottom line outcomes. Progressively, customers and neighborhoods are acknowledging and rewarding services that opt to run responsibly. Companies are discovering that "green" credentials are a powerful chauffeur of consumer buying decisions, developing goodwill and improving company results.
#9 Start Conserving from Day 1
Solar purchase power agreements (PPAs) and solar leasing has made it possible for house owners to go solar for little or no loan down.
Many house owners opt to fund their solar panels with one of the "pay-as-you-go" funding alternatives. This suggests that a third-party business-- the solar service provider-- owns the planetary system and takes care of installation, upkeep, monitoring and repairs. You merely pay the solar company for electricity-- less than you would've paid the utility company.
Since June 2013, 75% of all American homes have access to pay-as-you-go solar.
#10. Solar is a Secure Financial investment
The utility business are notorious for their fluctuating and unreliable electricity rates. There is clearly an upward pattern.
With photovoltaic panels and basic math, we can calculate what does it cost? electrical power will be created, and most importantly, at what rate, for at least the next 20 years (repaired energy expenses).
What are the various payment options?
We have many flexible purchasing agreements for customers who would like to install a new home solar system. There are three different payment options, making them a viable choice for customers of all budgets. The payment options include Lease, PPA, and Purchase.
- Low, fixed payments each month
- System insurance for 20 years, including maintenance
- Flexible end-of-term options, including system upgrade, lease extension, and free panel removal
Power Purchase Agreement (PPA)
- We own the solar panel system
- $0 down for installation
- Customers only pay for the solar energy that they use
- Customer pays for the system upfront and owns the system
- System monitoring and maintenance for 20 years
- Receive 30% federal tax credit
- See a return on investment within 7-10 years
What happens when the contract for my lease is finished?
We provide our customers with a few different options for when their lease contract is up. Customers can upgrade their equipment to the newest solar technology available, extend the agreement, or have the panels removed at no cost.
What is the warranty?
The Lease and PPA include a 20-year warranty during the lifetime of the system. This warranty exceeds that of most other solar installers’ warranties.
Frequently Asked Questions
What Kind Of Rays Are Used In Solar Panels?
Electromagnetic...meaning light rays, primarily in the visible spectrum. Ultraviolet and infrared light rays actually degrade most types of solar panels, limiting their useful lifetime.
That said, your question is not stated well...so I'm not sure if that's the information you were looking for. Rays are not used "in" solar panels...rather solar panels are used to collect sunlight and convert it to energy--either directly into heat in the case of passive solar, or into electricity by the use of photovoltaic cells.
When / How Is Solar Power Going To Be Cost-Competitive With Today'S Common Energy Sources?
Actually this depends on where you live, and how much electricity you use.
obviously if you live in an area that has a lot of mostly sunny days, the Solar panels are more cost effective than where I live.
where I live we get 80 to 100 inches of rain a year, so we only get about 75 non-rainy or cloudy, or foggy days a year.
also our utility company is a Co=op, so our energy bills are reasonably low.
however if you live in say Ca. either central or southern, with rebates and incentives, you should be able to recoup the cost of you solar panels in 15 years or less.
This site should give you insight into cost and other related benefits.
Can We Reduce The Cost To Produce Solar Panels Used To Produce Electricity?
Global Warming Is Our Present Problem, One Cause Is The Use Of Fossil Fuel To Produce Electricity And The Exhaust Of Vehicles. If We Can Produce More Electricity Using Solar Power And Convert Some Automobiles To Use Electricity Maybe The Warming Maybe Controlled.
Yes, but it will likely take many years of research and development to get to something to provide the amount of energy currently provided by fossil fuel. Electric power for automobiles is a good idea, but remember most of the electricity is created in a power plant that burns fossil fuels. The only technology that is out there that is a viable replacement for fossil fuels is nuclear fission.
To truly reduce greenhouse gases in a rapid manner, investment in nuclear power and nuclear waste reuse is where we need to be headed. Biofuels, wind, solar are part of the equation, but they will be a smaller part.
New Advancement In Solar Panels...Half The Cost Of Silicone.?
Has Anyone Heard Of Or Researched The New Solar Panel Design Of Using Cadmium Telluride Instead Of Silicone In Solar Panels. Supposedly Half The Cost. A Company Called Ava Solar, Through Research At Colorado State Is Developing Them.
Sounds Very Exciting And Enormous Potential.
Yes, thin film solar cells are expected to reduce the cost of solar power to the point that it can compete with coal and oil. We are talking about reducing the cost to manufacture a cell than can make 1 watt of power in full sunlight from $3 to $1. I am told that $3 per watt is already competitive in Japan where coal and oil are all imported, but most of the rest of the world needs $1 per watt to make it worth while. Many companies are working on thin film solar cells. Many many. It is not just one company working on one kind of thin film solar cell technology.
What Capacity Solar Panel Do I Need To Charge Batteries With A Total Capacity Of 25,000 Mahours In 8 Hours?
I Have Four Power Packs For Solar Lights. They Have 3 Aa 1.2Volt Batteries Of 2450 Mah Capacity Installed In Series For A Total Supply Voltage Of 4 Volt Maximum For The Lights.
I Want To Charge All Four Packs At Once Off A Single 6 Volt Solar Panel. With The Four Packs Wired In Parallel, What Capacity Output (Wattage) Panel Do I Need To Charge The Batteries In An 8 Hour Day?
Each battery has 3 cells so the voltage is 3.6V. The maximum required charge voltage is about 4.4V. The capacity of the 4 packs is 2450 * 4 = 9800 mAh. The charge takes around 1.4 times as much, so 9.8Ah * 1.4 = 13.8Ah is required from the solar panel. To charge in 8 hour day the hours of equivalent full sun are required for the location. This is up to 5h in the tropics and as little as 2h in the higher temperate zones. Lets say it is 3h for your location. (That would be ok for Sydney in winter I think).
This means the sunlight during the whole day is the equivalent of 3h @ 1000W/m², which is what the panels are rated at. Therefore the charging needs 13.8Ah in 3 hours. But... panels are specified at 25°C, but might reach 60°C in the sun. The output can be 80% of the rated output power therefore. The rated Ah is now 13.8 / 0.8 = 17.25Ah. The rated current is 17.25Ah / 3h = 5.75A panel. The available 6V panels may be much less current than this, but choosing less will mean it takes longer. If a 6A panel is needed for 1 day, then a 1 amp panel will take 6 days etc. It seems you may have to use a 12V panel to get appropriate current.
On voltage, if the panels are intended for a 6V lead acid battery, they would have 18 cells, produce about 11V on no load, and about 7.5V at rated load current. This is fine for charging your batteries. A 12V panel is double these figures, and seems the only way to get a big enough panel to provide enough current to charge 4 packs in one day. It is possible to use an efficient converter to reduce the voltage and increase the current, so a 12V to 6V converter would help. The 12V panel then needs to be 3A only, providing 6A at 6V (still 36W).
The batteries are charged by current, and the charge terminates when the charge is sufficient. There are various algorithms for determining this with Nimh cells. The first link explains. As these batteries are mostly charged in a 3h period they are fast charged. A way to determine end of charge is needed. Time is not suitable as the charge amount is not known properly, and the battery state may not be known either. The ΔV charging method or the ΔT charging methods are popular. The temperature should be monitored anyway. Maximum is usually rated at 45 degrees. These methods need a specialised charger - a charger for each pack (that is 4 of them). The chargers are for a 3 AA cell Nimh battery. Because the charging supply is vague, we should adjust maximum charge current to 1/4 of the rated panel current, which might be 1.5A. This is close to the 2 hour rate. However it will be inherently limited by what the panel can provide with the sunlight available at any instant.
I could not find suitable charger devices for this. The problems arise because you want to charge all these in one day (actually a few hours). The second link shows a basic charger for 1 battery using a 12V panel, but this device needs plenty of heat sink (15W maybe) and wastes a lot of power. Also it is completely dumb. You remove the battery when you think it is charged. A suitable system needs a microprocessor or something to determine the change in temperature or voltage for automatic control, and a switch mode method of controlling voltage/current for best efficiency.
The alternative is to go with what the market has, get 4 small 250mA 6V panels. These can connect to the 4 batteries directly with no charger, but with take 14 hours of full sun equivalent for a full charge typically, so several days.
The third link shows an electronic device that could make a suitable charger. This still needs one per battery, and if a 12V panel is used on its own, some way to limit the voltage from the panel, as this device is maximum 16.5V, while a 12V panel is up to 22V. It would work well with a large 6V panel if you can find such a thing. It makes sense to charge a 12V battery with a 12V panel, and use this 12V to power these or some other chargers. Then you can charge the lamps any time of the day.