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Solar Battery Guide

TheCamel Designer • June 3, 2022

What is a solar battery?

This is an appliance used to store electricity for later usage, so you can keep devices operational in case of an outage, utilize more of the solar energy you generate in your household, and even save on electricity bills in some instances. They are usually known as ‘deep cycle batteries’ because of their capability to discharge and charge a considerable amount of electrical energy than a car battery.

What to search for in a household solar battery: six measurements to take into account

Energy storage appliances offer various advantages, from providing emergency power to even monetary savings. Nevertheless, they also come with technical difficulties and a host of unfamiliar jargon. Here’s are some of the areas to concentrate on and be on the watch for in a deep cycle solar battery:

How to determine which battery specifications matter to you

There are various prospective decision benchmarks and comparisons to make when assessing your energy storage alternatives. Here are some of the most standard decision criteria, together with which battery specifications make a difference if these conditions correspond with your circumstance.

If you want more of your household powered simultaneously, go for a solar battery that has a high-power score.

If you are looking to run a more energy-intensive device (such as a sump pump), go for a battery that has a high instantaneous power score.

If you are looking to power your household with your battery for an extended duration of time, go for a solar battery that has an elevated usable capacity.

If you are looking to harness every kilowatt-hour of electricity that is in your solar battery, go for batteries that have a greater roundtrip efficiency.

If you have limited space and are looking to maximize storage out of the constricted amount of space you’ve got, go for nickel manganese cobalt lithium-ion batteries.

If you are looking for a battery with a prolonged lifespan that you’ll be able to cycle the most times, go for lithium iron phosphate (LFP) batteries.

If you are in the market for a battery with the greatest safety rating (they are all safe to use, don’t worry), go for LFP batteries

Power rating

The power rating score of a solar battery represents the kilowatts (kW) of electrical energy that the battery can generate at a go. To put it differently, the power rating score of a battery informs you the number of devices your battery can run simultaneously and which devices those are.

Power is denoted either in Amps or in kilowatts (thousands of Watts), and various electrical devices use different power levels. For example, a standard fluorescent bulb will utilize 12 Watts (or 0.012 kW) of electrical power units, while a 3-ton AC unit will use 20 Amps, which equates to 4.8 kW. The majority of batteries these days have a constant power output of about 5 kW.

Most importantly, solar batteries usually come with two varying power ratings – an instantaneous power score and a continuous power score – which means that power can be generated in short bursts. This is essential if you’ve got a device, such as a sump pump that needs a considerable amount of energy to switch on but then operates at a decreased power.

Battery size/usable storage capacity

The size or capacity of a battery is basically the measure of electricity that a battery is capable of storing and supplying to your household. Whereas power is denoted in kW, battery capacity is denoted in kilowatt-hours (kWh)–power multiplied by time. The storage capacity of a battery lets you know the duration your battery can run sections of your household. Make a point of checking the battery’s usable capacity since that figure shows the measure of stored electricity that is accessible in the battery.

Given how electricity usage denotes power x time, using large amounts of power will make stored electricity run out faster. On the other hand, if your battery is used to backup a couple of appliances with relatively low power usage, you can keep them operational for an extended duration of time. So, this means that the battery’s size is a bit misleading as the duration of time the charge of the battery will last is influenced by the amount of electrical current that the battery is emitting.

Look back at the example shown above between the difference of an AC unit and a light bulb. If you’ve got a 5, 10 kWh battery, you’ll be able to power your AC unit for only two hours (4.8 kW * 2 hours = 9.6 kWh). But that identical battery will be capable of running 20 lightbulbs for two days 636-757-3083 kW * 20 lightbulbs * 42 hours = 10 kWh).

How many solar batteries do you require to run your household?

The number of solar batteries you require can contrast and will be contingent on the purpose of your energy storage system and the specs of your home devices. There are numerous questions you’ll have to ask yourself: the duration you’re looking to remain battery-powered, what sort of production your panels receive, what electrical devices are a must to keep on, and the list continues.

Although we can’t say for sure the number of batteries you’ll require, we’ve stipulated the stages you can take to begin doing the calculations in our guide about the sections of your home you can keep running on batteries. You can also have a look at our article guide on going off-grid with batteries and solar, where we outline some math examples on how many batteries you need to keep your household completely battery and solar-powered.

Roundtrip efficiency

This refers to a system-level metric that gauges the functionality of energy storage system (inverter + battery) changes and stores electricity. There are losses affiliated with any electrical action. You’ll lose some amount of electricity when inverting it from DC electricity to AC electricity or when inputting electricity into a battery and using it again. The roundtrip efficiency of a solar battery enables you to know the number of electrical units you’ll harness out of a single battery for each electrical unit you input.

Battery lifetime: throughput and cycles

Battery lifespans are determined using three metrics: expected operational years, expected cycles, and expected throughput. The expected throughput and cycles of a battery are similar to that of a vehicle’s mileage warranty. Throughput allows you to assess the amount of electricity you can transmit through your battery over the course of its lifespan. Cycles determine the number of times you can discharge and charge a battery.

To change the warranted or expected throughput of a battery into an expected shelf life, divide the throughput (kWh)by the usable battery capacity to approximate the number of complete cycles you’ll receive from your battery, and divide that sum of complete cycles by the days found in 1yr: a throughput of 30,000 kWh using a 10 kWh battery translates to a cycle/per for 8.2 years or 3,000 expected cycles.

To change the warranted or expected number of cycles of a battery into an expected shelf life, divide the cycles by the number of days found in a year: a 2,000 cycle warranty will translate to a cycle/per for 5.5 years.

Safety

Every solar battery in the market is required to satisfy certain safety caveats in order to be approved for installation in businesses and homes. However, there are a few battery chemistries that have been evaluated for safety to varying levels, superseding even the government-set safety standards for batteries, which means that some battery chemistries are a bit safer when compared to others.

Chemistry

The chemistry of a battery denotes the main compound that is utilized for storing electricity in the battery. Chemistry is by far the most integral property to assess as it will ultimately play a hand in most of the battery properties listed. For example, various lithium-ion chemistries may be extra power dense – this means they store additional electricity in a small space –or are better at cycling– which means they run efficiently for more years. And those are but a few of the distinctions in lithium-ion chemistries, saying nothing of the contrast between lead-acid batteries, or vanadium flow batteries, or lithium-ion batteries, or other experimental battery chemistries. Similar to most appliances, various solar battery chemistries come at varying price points.

What is the best solar battery?

It’s difficult to pick one out. The best solar battery for your case will be contingent on various factors, from the amount of space in your house to the properties of your solar installation and even what you’ll be looking to gain from an energy storage unit. If you’ve got a big household with numerous appliances, you should consider acquiring a high-capacity battery that can generate electricity for a long period. If you’re budget-conscious and are more concerned about maximizing the solar energy system, going for a small battery with good battery integration may be better.

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The Growing Threat of Power Outages: Why Energy Independence Matters

By Jack Casey • March 28, 2025

Power outages are more than just a temporary inconvenience—they disrupt daily life, impact businesses, and can even become life-threatening during extreme weather conditions. From local blackouts in St. Louis to massive global outages, the need for reliable power solutions has never been greater. In this article, we’ll dive into the causes, impacts, and trends of power outages before exploring how backup battery systems can help you achieve energy independence. Power Outages in St. Louis and the Midwest Severe weather events have led to widespread power outages in St. Louis and surrounding areas. Recent data highlights the growing concern: Over 100,000 customers lost power in St. Louis due to severe storms. A single Ameren report recorded 136,051 outages in Missouri and 40,817 outages in Illinois . St. Louis City: 5,112 outages | St. Louis County: 81,888 outages. Outage Trends Over the Years: 2021: 9 major events, mostly due to severe weather. 2020: 3 major events, largely caused by system failures. Notable Outages: June 2021: Storms left 38,000 residents without power . Faulty underground cables caused two outages within 24 hours. Jefferson City: Storms downed multiple power lines, leaving thousands in the dark. The Impact of Power Outages: Health Risks: Extreme heat or cold without power increases the risk of heatstroke or hypothermia. Carbon Monoxide Poisoning: Improper use of gas generators can be deadly. Hospitals: Limited backup power for critical equipment endangers lives. Food Supply Disruptions: Grocery stores and factories lose perishables, impacting food availability. Power Outages Across the U.S. The frequency and severity of power outages vary widely across states. Some of the most affected regions include: Maine: The highest average outages per year ( ~4 per year ). West Virginia: Second highest ( ~2.8 per year ). Florida: Experiences the longest downtime , averaging 14.6 hours per outage . Maine: Follows close behind with 14.1 hours of downtime per outage . States with the Fewest Outages: Washington D.C.: 0.7 outages per year , with the shortest downtime ( 1.5 hours on average ). Wisconsin, Utah, Massachusetts: Each averaging 0.8 outages per year . Major Causes of U.S. Power Outages: Severe weather events: Hurricanes, blizzards, wildfires, tornadoes, and thunderstorms . Preventative blackouts in wildfire-prone areas. Aging infrastructure struggling to handle modern power demands.

Swinging for Sustainability: How the Cardinals and Other Stadiums Use Solar Power

By Jack Casey • March 27, 2025

Today marks the long-awaited Opening Day for the St. Louis Cardinals, a time when fans flood Busch Stadium, eager to cheer on their team. But while the players take the field, something else is working hard behind the scenes to power the game—solar energy. The Cardinals’ Commitment to Green Energy Busch Stadium first introduced solar power in 2012, making it the sixth Major League Baseball park to embrace solar energy. Thanks to a partnership with Microgrid Energy, the Electrical Connection, and Sachs Electric, the stadium installed 106 solar panels capable of generating approximately 32,000 kilowatt hours per year. While this may only offset a fraction of the stadium’s total energy use, it represents a significant step in reducing the venue’s reliance on fossil fuels. The solar panels , located on the roof of the ticket building and the Ford Family Plaza canopy, contribute to the Cardinals’ larger sustainability efforts. Since opening in 2006, Busch Stadium has cut energy use by 20% and water consumption by 10%. The team even celebrates “Solar Day” each season to raise awareness about renewable energy’s role in sports. Solar Power is Taking Over Sports The Cardinals aren’t the only team leading the charge for sustainability. Across the country—and the world—sports stadiums are turning to solar energy to power their massive operations. Golden 1 Center (Sacramento Kings) – This NBA arena runs entirely on solar power, with a 1.2 MW array on-site and an additional 11 MW sourced from a local solar farm. Mercedes-Benz Stadium (Atlanta Falcons) – With 4,000 solar panels, this stadium generates enough electricity to power ten home games per year. Johan Cruijff Arena (Amsterdam) – Home to AFC Ajax, this stadium boasts 4,200 solar panels and 3 MW of energy storage from reused car batteries. Oracle Park (San Francisco Giants) – The Giants’ stadium uses solar energy alongside aeroponic growing towers, water recycling, and composting to minimize its environmental footprint. Why Solar Makes Sense for Stadiums Stadiums are energy-intensive facilities, requiring vast amounts of power for lighting, sound systems, scoreboards, and climate control. Night games alone can consume between 800 and 5,000 kilowatts of electricity. By integrating solar energy, stadiums can: Reduce electricity costs over time Decrease their carbon footprint Enhance their public image as eco-friendly venues Educate fans on the benefits of renewable energy Looking to the Future With advancements in solar technology, such as Building-Integrated Photovoltaics (BIPV) and tandem solar cells, stadiums will only become more efficient in harnessing the sun’s energy. As fans celebrate the return of baseball, it’s worth acknowledging that sustainability is playing an ever-growing role in America’s pastime. Want to add solar to your home? SunSent will give you a quote today! It's so much cheaper than you might think and we've seen energy bills drop form $400 to $19. Give us a call or visit sunsent.com .

How Much Does Energy Really Cost in Missouri? Here’s What You Need to Know

By Jack Casey • March 25, 2025

Missouri residents, have you ever wondered how much control utility companies have over your energy costs? A new interactive map from Renew Missouri allows you to see exactly how your area is impacted. This tool helps homeowners and businesses understand their energy burden—how much they pay for electricity compared to their income—and whether they’re paying more than they should. Missouri’s Rising Electricity Costs Missouri’s average monthly electric bill is around $172 due to an average consumption of 1,350 kWh per month at a rate of 13 cents per kWh . And these rates aren’t staying the same—electricity costs are expected to keep rising, making it more expensive to power homes over time.

The EPA’s Solar for All Funding is Back – What That Means for Homeowners

By Jack Casey • March 20, 2025

The Environmental Protection Agency (EPA) has officially unfrozen $7 billion in funding for the Solar for All program, which was originally created under the Inflation Reduction Act (IRA) . The program aims to expand solar energy access to low-income and disadvantaged communities , helping households save on electricity bills while supporting clean energy initiatives. The funds had been frozen due to a January 2025 executive order by President Donald Trump, but following legal pushback and court rulings, the grants are once again available. What is the Solar for All Program? The Solar for All program is part of the Greenhouse Gas Reduction Fund (GGRF) and was designed to ensure that historically underserved communities gain access to affordable solar energy . The initiative provides funding to states, tribal governments, municipalities, and nonprofit organizations to support local solar projects that reduce energy costs and increase resilience against grid failures. Each state is using its Solar for All funding differently: New Jersey plans to allocate funds toward residential solar, multifamily housing solar, community solar projects, and workforce development programs to ensure more equitable access to solar energy. New York is leveraging its grant to enhance existing solar initiatives, focusing on overcoming key barriers for low-income households. Puerto Rico is directing its funds toward deploying solar-plus-storage systems, a crucial step in increasing resilience against frequent power outages caused by hurricanes. Washington, D.C. will use its funding to expand residential solar while supporting energy efficiency upgrades such as roof repairs and electrical improvements —steps that will increase solar adoption among low-income homeowners. Pennsylvania, Virginia, and Maryland are also investing in solar deployment, workforce training, and community solar programs aimed at reducing the energy burden on disadvantaged households. Why This Matters for Homeowners With the funding now unfrozen , homeowners in many states will see new opportunities to install solar at reduced costs , thanks to government-backed programs that provide direct incentives or community-based solar solutions. Many of these initiatives also include options for solar-plus-storage , allowing homeowners to store energy for backup power —a major benefit during power outages. For those interested in solar but unable to install panels due to roof conditions or financial constraints, community solar programs supported by Solar for All funding may offer a way to benefit from solar savings without owning panels . What’s Next? While the future of clean energy policy remains uncertain, the successful pushback against the funding freeze shows that federal investments in solar energy are here to stay—at least for now . If you're considering solar, now may be the best time to explore available funding and incentives in Missouri and Illinois . Looking to make the switch? SunSent Solar can help guide you through the process and find the best solar solutions for your home. Contact us today to learn more or read one of our latest blogs on How Much Money You Can Save with Solar?

Wind and Hail: Why You Need an Inspection Now

By Jack Casey • March 19, 2025

The recent storms across the Midwest brought high winds and hail, both of which can cause significant—yet often hidden—damage to your roof. While everything may seem fine from the ground, ignoring potential issues could lead to expensive repairs, structural problems, and even health hazards down the road. Right now, SunSent is offering no-cost inspections to help homeowners assess the damage before it’s too late. What Storm Damage Looks Like (Even When You Can’t See It) Storms can harm your roof in ways that aren’t immediately obvious. Some of the most common types of damage include: 1. Shingle Damage High winds can lift or tear off shingles, while hail can create cracks and dents. These weakened areas expose your home to leaks and can lead to mold growth over time. Even a small puncture in a shingle can allow water to seep in, which may not become noticeable until serious damage has already occurred. 2. Flashing and Sealant Damage Roof flashing (the metal around vents, chimneys, and skylights) is particularly vulnerable in storms. If wind or hail loosens it, water can leak into your home, leading to costly interior damage. In many cases, this type of issue isn’t discovered until water stains appear on ceilings and walls. 3. Structural Weakness When wind-driven rain gets beneath shingles or into cracks, it can weaken the underlying structure of your roof. Over time, this can lead to sagging areas or, in severe cases, collapse. Ignoring even minor storm damage can make your roof more vulnerable to future storms. 4. Debris Impact Falling branches or flying debris can cause punctures in your roof that may go unnoticed at first. Even if the puncture doesn’t immediately cause a leak, it can weaken the roofing materials, making your home more susceptible to water damage and insulation loss. Why You Shouldn’t Wait to Get an Inspection Many homeowners make the mistake of assuming that if there are no visible leaks, their roof is fine. However, the long-term effects of untreated storm damage can be devastating: Water Intrusion & Mold Growth – Hidden leaks can lead to mold and mildew, which not only damage your home but also pose health risks. Decreased Energy Efficiency – A compromised roof can allow air to escape, making your HVAC system work harder and increasing energy bills. Weakened Roof Structure – Over time, minor damage can grow into major structural issues, leading to costly repairs or even premature roof replacement. Pest Infestations – Gaps and cracks in the roof create entry points for rodents and insects. Once inside, they can cause even more damage to your home. Take Action Today – Get a No-Cost Inspection If your home was hit by the recent storms, don’t wait until it’s too late to address potential roof damage. SunSent Solar is currently offering no-cost roof inspections to help homeowners identify issues before they become expensive problems. Schedule your free inspection today and protect your home before the next storm hits. Call 636-757-3083.

How Much Money Can You Save with Solar Energy?

By Jack Casey • March 18, 2025

Lowering electricity bills is one of the biggest reasons homeowners switch to solar. But how much can you actually save? The answer depends on several factors, including your energy consumption, roof suitability, financing options, and available incentives . Let’s break it down, using insights from the U.S. Department of Energy (DOE) to help you understand your potential savings. How Solar Savings Work 1. How Much Electricity Can You Produce? Your home’s ability to generate solar power depends on your roof’s size, shape, slope, and shading. South-facing roofs with a tilt of 15 to 40 degrees generally perform best. If your roof isn’t ideal, community solar programs can be a great alternative. 2. How Much Electricity Do You Use? Your utility bill shows your monthly electricity usage. The more energy you consume, the greater the potential savings. Some utilities also offer net metering , which credits you for excess solar power sent back to the grid, further reducing costs. 3. How You Pay for Solar Matters Solar panels can be financed in several ways: Cash Purchase – Highest upfront cost but delivers the most savings over time. Solar Loans – Spread out payments while still owning your system. Power Purchase Agreements (PPA) – No ownership, but you pay a lower rate for electricity from solar panels installed on your home. Each option affects how quickly you’ll break even on your investment. 4. Taking Advantage of Incentives The Federal Solar Tax Credit allows homeowners to deduct 30% of their solar installation costs from their federal taxes. Many states and utilities also offer rebates and incentives. You can check DSIRE (Database of State Incentives for Renewables & Efficiency) for local programs.

Metal Roof vs. Shingles: Which One is Right for You?

By Jack Casey • March 13, 2025

When it comes to roofing, the battle between metal and asphalt shingles has been going on for years. Shingles are the go-to for many homeowners due to their lower upfront cost, but metal roofing is gaining traction thanks to its durability and long-term benefits. So, which is the better choice for your home? Let’s break it down. What Are Asphalt Shingles? Asphalt shingles are the most common roofing material , mainly because they’re affordable and easy to install. Made with a fiberglass base and coated with asphalt and ceramic granules, they come in sheets or rolls and are layered in a staggered pattern for coverage. While cost-effective, they have a shorter lifespan and require more maintenance over time. What is Metal Roofing? Metal roofs come in materials like steel, aluminum, tin, and even copper. These roofs consist of large, interlocking panels that create a strong, weather-resistant barrier. Metal roofing has a higher upfront cost, but its longevity and energy efficiency make it a popular option for homeowners looking for a long-term investment. Cost Comparison Asphalt Shingles: Generally cost between $3.50–$5.50 per square foot . More budget-friendly upfront but will likely need to be replaced within 20-30 years. Metal Roofing: Costs range from $4 to $30 per square foot , depending on the material. Higher initial investment but lasts 40-70 years, making it more cost-effective over time. Pros & Cons of Metal Roofing ✅ Durability: Can last over 60 years with minimal maintenance. ✅ Weather Resistance: Withstands wind, hail, and fire better than shingles. ✅ Energy Efficiency: Reflects heat, keeping homes cooler in warm climates. ✅ Eco-Friendly: Often made from recycled materials and fully recyclable. ❌ Higher Upfront Cost: More expensive initially compared to shingles. ❌ Potential Noise: Can be louder during heavy rain or hail without proper insulation. Pros & Cons of Asphalt Shingles ✅ Lower Initial Cost: One of the most affordable roofing options. ✅ Easier Installation: Widely used, so most roofers are experienced with them. ✅ Better for Colder Climates: Provides insulation and warmth in winter months. ❌ Shorter Lifespan: Typically lasts 20-30 years and may require multiple replacements. ❌ More Maintenance: Prone to weather damage, cracking, and leaks. ❌ Less Energy Efficient: Absorbs heat, making homes hotter in summer. Which Roof is Right for You? If you’re looking for a long-term, durable, and eco-friendly option, metal roofing is the way to go. If budget and ease of installation are your main concerns, asphalt shingles are a solid choice. Either way, regular maintenance and quality installation are key to ensuring your roof lasts as long as possible. At SunSent , we work with homeowners to ensure their roofing choices complement their solar investment. Contact us today to learn more about how the right roof can maximize your solar savings!

Solar Sheep: How Grazing Livestock is Revolutionizing Solar Farms

By Jack Casey • March 12, 2025

When you think of a solar farm, you probably picture rows of sleek, high-tech panels harnessing the sun’s energy. But there’s another key player in the future of sustainable energy—sheep. According to EnergySage , these woolly workers are proving to be an essential part of solar farms across the country , providing an innovative solution that benefits both the environment and the agricultural community. The Rise of Agrivoltaics Agrivoltaics, the practice of combining agriculture with solar energy production, is gaining traction as a way to maximize land use. Instead of choosing between farmland and solar power, agrivoltaics allows both to coexist. One of the most effective forms of agrivoltaics is solar grazing—using sheep to maintain the vegetation around solar panels. More than 100,000 acres of solar farms in the U.S. now utilize over 80,000 sheep for this purpose, according to the American Solar Grazing Association (ASGA) . Companies like Dominion Energy and SB Energy have embraced solar grazing, recognizing the environmental and economic benefits.

The Future of Roofing: How Fluorescent Materials Could Keep Your Home Cooler in Summer & Warmer in Winter

By Jack Casey • March 11, 2025

Your roof does more than just protect your home from the elements—it plays a crucial role in energy efficiency , indoor comfort, and electricity costs . In fact, the materials and color of your roof directly impact how much heat your home absorbs or reflects, which can mean the difference between sky-high energy bills and a comfortable, cost-effective living space . For decades, homeowners have faced a tough decision: Darker roofs absorb heat, which is great in the winter but can make summer unbearable. Lighter roofs reflect heat, keeping homes cooler in summer but making heating more difficult in colder months. But what if there was a way to have the best of both worlds —a roof that stays cool in the summer and retains warmth in the winter ? Thanks to recent scientific advancements, we may be closer to that reality than ever before. Fluorescent Roofing: A Game-Changer for Home Energy Efficiency Researchers have been studying a new category of roofing material called passive-colored radiative coolers (PCRCs), which use fluorescent dyes to regulate temperature year-round. Unlike traditional “cool roofs” that rely solely on white or silver reflective coatings, these fluorescent materials can be various colors while still offering cooling properties. Here’s how it works: ✅ Fluorescent coatings absorb and re-emit infrared light —keeping homes warmer in the winter while still reflecting heat in the summer. ✅ They can be used in multiple colors (like red, orange, and green) instead of just bright white, which can cause glare issues in neighborhoods. ✅ They help lower energy bills by reducing reliance on air conditioning and heating. The Science Behind It The key to these materials is a phenomenon called passive daytime radiative cooling (PDRC) . This means that instead of just reflecting sunlight, these materials emit excess heat back into the sky and even beyond the Earth's atmosphere . Traditional “cool roofs” work by reflecting about 80% of sunlight, but newer PDRC materials can reflect up to 98% —which can actually make a surface cooler than the surrounding air temperature . But one of the biggest challenges with traditional PDRC materials has been their effectiveness in winter —they cool surfaces so well that they can make homes too cold in colder months . That’s where the fluorescent dye comes in. By absorbing and re-emitting specific wavelengths of light , these new coatings can help retain some warmth in the winter while still reflecting excess heat in the summer. In studies, homes with these coatings were found to be up to 5.5°F warmer than traditional white reflective roofs in the winter while still maintaining excellent cooling effects in the summer. What This Means for Homeowners While fluorescent roofing materials are still being developed, they represent an exciting new frontier in home energy efficiency . In the meantime, there are already plenty of ways to make your roof more energy-efficient today . At SunSent , we specialize in high-performance roofing solutions that help homeowners in the Midwest cut energy costs, increase property value, and improve year-round comfort . Whether you’re looking for a roof repair , replacement , or a full solar + roofing upgrade , we’ll help you choose the best materials and solutions for your home’s unique needs. Why Now is the Perfect Time to Upgrade Your Roof With rising energy costs, increased awareness of sustainable building materials, and potential innovations like fluorescent roofing on the horizon, now is the ideal time to assess your roof’s condition. Plus, when you sign a roofing job with SunSent Solar, you’ll be entered into our Blues Tickets Raffle! 🎟️ 🔗 Schedule Your Roof Inspection Today and start saving energy while preparing for the future of roofing! Want to learn more? Read our latest blog on the hidden dangers of neglecting your roof repairs.

The Best Solar Panels of 2025: Which One is Right for You?

By Jack Casey • March 7, 2025

Choosing the best solar panels for your home can feel overwhelming, but it doesn't have to be. At SunSent Solar , we believe that working with a trusted solar installer is just as important—if not more—than picking the best panel brand. However, if you're in the market for high-quality solar panels, it's worth knowing which ones stand out in 2025. Top 5 Solar Panel Brands in 2025 After reviewing thousands of solar panel models, experts have determined that the top five brands this year are Maxeon, REC, Panasonic, Canadian Solar, and Jinko. These brands were ranked based on efficiency, power output, durability, and warranty coverage.