Is Solar Power The Future Of Energy?

Solar power can play a substantial and cost-effective role in reducing the United States’ dependency on fossil fuels, according to the Department of Energy’s 2021 Solar Futures Study (PDF, 11.7MB).

It claims that switching to alternative energy sources like solar and wind will create about 3 million jobs in the United States and lower customers’ energy bills.

Solar power, according to the Department of Energy, has the potential to produce up to 40% of the nation’s energy. This is especially essential because, according to the report, electricity demand is expected to increase by 30% between 2020 and 2035.

Improved solar energy storage can also help to strengthen the electricity grid’s resilience. Solar batteries store excess energy from bright days, making it available during cloudier weather or when storms might knock down regular power lines.

According to the study, this means more reliable electricity at a lower cost. Other countries can also gain in the same way.

President Biden said during the United Nations General Assembly’s 76th session, “Making these ambitious investments isn’t simply good climate policy; it’s a chance for each of our countries to invest in ourselves and our own future.”

What role will solar energy play in the future?

A simplified analysis of 100 percent decarbonization of the US energy system by 2050 shows solar capacity doubling from the Decarb+E scenarioto about 3,200 GW of solar deployed by 2050to produce electricity for even more direct electrification and the production of clean fuels, such as hydrogen produced via hydrogen production.

Will solar energy be available indefinitely?

Solar energy is experiencing a hockey stick moment. The number of solar panels deployed worldwide has increased tremendously since the early 2000s, and this trend is anticipated to continue for decades. Globally, an estimated 222 gigawatts of solar energy had been installed by the end of 2015. That figure might reach 4,500 GW by 2050, according to a recent research (PDF) from the International Renewable Energy Agency.

However, the solar panels that generate that energy do not survive indefinitely. Because the industry typical life lifetime is roughly 25 to 30 years, some panels installed at the start of the present boom aren’t far from being replaced. With each passing year, additional glass and metal solar modules will be removed from operation, eventually amounting to millions, if not tens of millions, of metric tons of material.

“Those will be coming off line in the not-too-distant future, and we’ll have a waste management issue,” said Garvin Heath, a senior scientist at the National Renewable Energy Laboratory and a solar power expert. “It’s fair to say that it’s becoming more widely recognized as an issue on which we’ll need to go to work relatively soon.”

Why is solar energy dubbed “future energy”?

Unlike non-renewable sources such as fossil fuels, it is a renewable source of energy. Solar energy systems harness the sun’s energy to provide light, hot water, heat, and power to homes. The world’s energy demand is rapidly increasing as a result of population growth and technological improvements.

Is solar energy the next big thing?

Did you know that every hour, enough energy from the sun reaches the globe to power every family and company on the planet for a whole year? The sun is also anticipated to last for another 30 billion years.

All energy on the planet comes from the sun, whether it is from fossil fuels, coal, wind, waves, or nuclear power. In addition, the sun is the origin of all life on the earth. As a result, without the sun, humans would cease to exist and the earth would be unimaginable.

Despite this, the sun’s energy accounts for only 0.06 percent of all energy consumed in the United States. Instead, we invest in coal mining or the annual transfer of trillions of dollars to oil-rich Middle Eastern countries or other hostile territory.

Solar energy is both free and plentiful. It is also pure, emitting only a trace of the so-called Greenhouse Gases that damage our atmosphere, such as CO2.

But has the technology progressed to the point where it is economically viable to install solar energy systems on a large scale in our homes and businesses? The answer is an unequivocal YES.

Photovoltaic (PV) cells and Concentrating Solar Power (CSP) systems may now offer electricity to light our homes and businesses, and solar thermal systems; evacuated tubes and/or flat plate collectors can now provide heating and cooling.

It’s also worth noting that the government is committed to assisting us in developing and installing solar systems in our homes and companies, and has granted numerous grants and tax advantages to assist with the cost of installation or research and development of the technology.

Installing a solar system in your home might save you more than 60% on your energy bill, and in a normal business, it could save you more than 30%. More savings may be possible, and your consultant should be able to advise you on this.

We could save over 5 million tons of carbon dioxide and lower our national debt by more than 3 trillion dollars if just 10% of our neighborhoods installed solar panels.

You are invited to ride this wave to lower your energy bills, lessen your carbon footprint, and contribute to the preservation of our world.

Is solar energy becoming more popular?

In recent years, the rapid rise of solar and wind power has given new hope to worldwide efforts to cut greenhouse gas emissions and mitigate the most serious effects of climate change.

Solar and wind power combined accounted for barely 1.7 percent of worldwide electricity generation in 2010. By the end of last year, it had risen to 8.7%, significantly higher than what orthodox energy models had expected. For example, the International Energy Agency predicted that global solar energy generation will reach 550 terrawatt-hours by 2030 in 2012, but that number had already been surpassed by 2018. These models frequently presume that solar and wind power would expand in a linear fashion, but in reality, growth has been exponential.

Understanding the previous exponential expansion of renewable energy offers us cause to be more confident about how quickly it can ramp up in the future to fulfill climate targets. This article describes why solar and wind power are becoming more popular, how far they’ve come, and what more has to be done.

Why is renewable growing so fast?

The most important driver in the growth of renewable energy has been lower costs. Solar photovoltaic electricity costs have dropped by 85% since 2010, and the costs of onshore and offshore wind generation have been slashed in half. Both of these renewable energy sources are cheaper than fossil-fuel electricity.

Because of positive feedback loops, costs have dropped considerably. Because of economies of scale and competitive supply chains, among other things, the more renewable energy technologies are deployed, the less expensive they become. As a result of the lower costs, more deployment occurs. For example, every time the quantity of solar power deployed globally has doubled in the last decade, the cost of deploying solar capacity has decreased by 34%. Because renewable energy systems are modular and standardized, cost reductions or technological advancements made in one region can be rapidly replicated in other locations.

Other aspects of the adoption of renewable energy are similarly self-reinforcing. As renewables gain in popularity, political clout, and financial backing, it becomes easier to enlist additional policy and financial support. The cost of funding has fallen as investors have a better understanding of the technical and project risks associated with renewable energy. Furthermore, evidence suggests that renewable energy adoption is socially contagious: when one house installs rooftop solar, the neighbors who see it and talk about it are more likely to do so as well.

Support from policymakers has also been critical to the rise of renewable energy. Renewable energy tax credits and subsidies, as well as feed-in tariffs and competitive auctions, have all aided in lowering costs and accelerating adoption. In addition, government funding in research and development has been critical in supporting renewable energy innovation. Through policy assistance, China, Europe, and the United States have become leaders in solar and wind energy, and 165 countries have renewable energy targets. It’s not only countries; more than 600 cities around the world have pledged to use 100 percent renewable energy by 2050.

Timeline of renewable energy’s growth

Wind energy became popular in the early 2000s, whereas solar energy gained popularity a decade later and has been expanding at a quicker rate than wind. Although the causes driving renewable energy adoption have been systemic, several critical events have mirrored wider trends or served as turning points in renewable energy adoption.

Understanding S-curve growth dynamics

A global decarbonization objective for the share of renewable electricity to limit global warming to safe levels is included in a 2020 study from Climate Action Tracker. Renewables will need to reach 55 to 95 percent of global electricity by 2030 and 98 to 100 percent by 2050 to stay on track with the 1.5 degree Celsius goal, with solar and wind taking the lead, with other renewables filling in the gaps. The UN High Level Champions’ Race to Zero campaign, which has been striving to align key sectoral actors on breakthrough actions and ambitions that can catalyze change, and the State of Climate Action 2021 report, which was released in November ahead of COP26, are both intimately linked to these goals.

Reaching such high amounts of renewable energy may appear difficult, but when you consider the strength of exponential growth, it becomes less so. From 2015 to 2020, solar and wind’s market share in worldwide energy generation increased at a compound annual growth rate of 15%. Solar and wind power would account for 45 percent of electricity generation by 2030 and 100 percent by 2033 if exponential development maintained.

Is the issue now resolved? That’s not the case. In the past, exponentially growing technologies have had a “peak speed” of growth a maximum rate of growth that is established, lasts for a while, and then slows down as it approaches 100 percent adoption. An S-curve is the name for this pattern.

A new study published in Nature Energy seeks to figure out what the top speed for solar and wind energy growth is by looking at the nations that are farthest along and have already hit the steepest part of the S-curve for either solar or wind.

They discovered that in nations where solar development has stabilized at a maximum rate, annual solar growth has averaged 0.6 percent of total electricity supply. According to their own measurements, this is less than the 1.4 percent annual pace required globally to reach the Paris Agreement’s 1.5 degree C goal. Chile is the only country with a mature solar sector in which the maximum growth rate has exceeded the required pace.

Meanwhile, in nations where onshore wind growth has stabilized at a maximum pace, annual growth has averaged 0.8 percent of total electricity supply, which is lower than the global average of 1.3 percent. Only a few nations with mature wind sectors, such as Ireland, Portugal, and Brazil, have seen maximum growth rates higher than what is required.

Countries like these show that rapid growth is possible the trick will be to maintain high maximum growth rates globally, rather than just in a few countries with excellent conditions.

What will happen to renewable energy in the future?

Despite apparent momentum, it appears that renewables growth must accelerate, albeit the amount of acceleration required remains unknown.

The diagram below depicts one possible path for solar and wind to meet the climate targets required to keep global warming to 1.5 degrees Celsius. This isn’t the only or even the most likely shape for an S-curve to fulfill the criteria, but it gives a good idea of what’s needed.

More governmental assistance is required to ensure that renewable energy adoption follows an S-curve and expands at a rate sufficient to satisfy the Paris Agreement’s targets. All governments, especially those that aren’t now pioneers in this field, will need to encourage rapid implementation and continue to reduce prices.

Governments should set targets and mandates for renewable energy consumption. These are most commonly used in the electricity sector, but they should also be used in other end-use industries including heating and cooling, industry, and transportation. To accommodate renewables, governments will need to expand the flexibility of the power grid, for example, by investing in long-distance transmission lines and introducing new energy storage technologies.

Non-linear transformation is a powerful force, notwithstanding the hurdles that must be faced. Energy sector professionals would be surprised to see how much renewable energy costs have dropped and how yearly deployment has quadrupled if we traveled back in time a decade. In 2030, how surprised will we be? That is contingent on our actions today.


The cost of purchasing a solar system is relatively expensive at first. Solar panels, inverters, batteries, wiring, and installation are all included in this cost. Nonetheless, because solar technology is continually improving, it’s realistic to predict that prices will continue to fall in the future.


Although solar energy can be collected during overcast and rainy days, the solar system’s efficiency is reduced. Solar panels must be exposed to sunlight in order to collect solar energy. As a result, a couple of overcast, rainy days can have a significant impact on the energy system. It’s also important to remember that solar energy cannot be collected at night.

Thermodynamic panels, on the other hand, are an option to consider if you need your water heating solution to work at night or during the winter.

Check out our video for a breakdown of how effective solar panels are in the winter:

Why are solar panels a waste of money?

Because solar panels cannot store electricity, their production will be reduced in overcast conditions and will be nil at night. As a result, most home solar systems necessitate the usage of a solar battery. When evaluating if solar panels are worth it for you, keep this additional expense in mind.

What happens to solar panels after they’ve been in use for 25 years?

Solar panels are an excellent option for households to lower their carbon impact. Fortunately, solar panels have a long lifespan and can produce electricity for many years, giving you a good return on investment.

Most photovoltaic solar panels will endure for at least 25 years before they start to degrade. For the projected life expectancy of the solar panels, most solar panel producers will issue a standard 25-year warranty. Your solar panels won’t necessarily need to be replaced after 25 years, but their ability to collect sunlight will be diminished.

We’ll go over how long solar panels last, how solar panel degradation rates work, and how to make sure your solar panels survive as long as possible in this blog.

What kind of energy will be used in the future?

Atomic energy, solar energy, wind energy, and biofuels are just a few of the potential choices for a cleaner, more environmentally friendly future. Fuel cells, geothermal energy, and ocean energy are all relatively novel forms of energy that are being investigated.

What is the term “future energy”?

Solar energy is said to as the “energy of the future” for the following reasons: Electricity that is free of pollution. Useful in places with a lot of sun insolation.