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Sun-In-One™
What is CRI?
CRI is a measure of a lights sources ability to show objects colors “realistically or naturally” compared with their true color or Sunlight. High CRI lights also put off professional level of color all the time, this used to be reserved just for professional photographers or Art galleries. Whether you’re an artistic person or not, our eyes are sensitive to light quality and color. A red shirt lit directly with noontime sunlight will render much different than if lit under a fluorescent bathroom light. The High CRI of our LED will help identify objects with the better light. Why is the Sun-In-One LED with a 95+ CRI important to you? – Displays all colors in almost natural light, making it easier to distinguish slight shades of colors and tones – See the true color of meats, fruits, and vegetables in the grocery display case – Enhances skin tone, hues, and textures, making rooms and products in them look their best – converting foot traffic into sales – Reduces eye strain in the office, workplace or at school, increasing productivity, advertising signage and safety – Easier to distinguish colors in security cameras – Less light distortion at night when driving and the colors you are seeing a closer to real colors that could decrease your reaction time while driving. What is CRI and why you want an LED with a high CRI? Color Rendering Index, commonly referred to as CRI, is a method we can use to measure how color looks to the human eyes, depending on the light source as compared to the sun. The CRI provides a scale of values up to 100, with 100 being the best color rendering light quality and a value below zero representing very poor color rendering. When a light has a CRI of 100, it means that there is no difference in color rendition between the light and the reference light (the sun). Likewise, a CRI of 75 means that the light bulb renders a 75% replication of the visible colors that the sun shows, given that both lights have the same color temperature. That is the cri of the average streetlight. Our eyes are sensitive to light quality and color. The higher the CRI value, the more accurate the colors will be.
How to pick a solar power kit for a security camera
First, you need to know how much power your camera communications and switching consumes and how long it needs to run per day. You need to know three things in determining this power you need to know the voltage of each devise, the Wattage and the amperage. If you have two of the three you can determine the third with Oms law calculator. What size solar kit do you need? This is determined by your usage. To figure out is add the following information together so that you know your usage at each voltage. 12,24 or 48 volts. All of these are used to come up with the voltage of each device and the wattage and amperage. Second, you need to know where you will install the solar panel and how much sunlight it will receive. Where is in the country is your installation, this helps to determine the size and capacity of the solar panel and battery. Southern Florida ( zone 5) does not get the same power from the sun than Seattle ( Zone 1) This will affect the efficiency and performance of the solar power kit. Third, you need to know what kind of weather conditions your solar power kit will face and how durable it is. This will ensure that your solar power kit can withstand rain, snow, wind, dust and other elements. Also, your battery is sensitive to temperature so if you are in zone 1 or 2 you need to make sure that your battery box is insulated to extend the life of your batteries. By knowing these factors, you can pick a solar power kit that suits your security camera needs.
what to know in purchasing a shipping-container lighting kit
What people need to know in purchasing a Shipping Container lighting Kit? Solar shipping container lighting kits are a convenient and cost-effective way to provide illumination for off-grid applications. These kits include solar panels, batteries, charge controllers, LED lights, wiring, and mounting hardware. Some of the information people need to know when looking for a solar shipping container lighting kits are: The power output and efficiency of the solar panels: (21% is Best in the Market) The battery capacity and lifespan of the batteries. 5 year warranty on AGM battery’s and 7 years on Lithium and you need to have at least 3 days storage of your loads if you only use the system every few days you can get away with 2 days of storage this reduces the cost but shortens the life of some the batteries. The features and functions of the charge controllers. An MPPT controller that saves up to 30 % more energy than that of a PMW controller and stores the history of the solar and usage production for up to 30 days easier understanding of the system if there is a future issue. The brightness and color temperature of the LED lights.High CRI over 90 and 4000K are best for light quality and lumen output. The length and quality of the wiring One size does not fit all Custom is best or standard layout all prewired. The longer the run or higher the amps the larger the wire size needs to be The ease and security of the mounting hardware 2 – 100 pounds of magnetic force on each 10 pound fixture gives you more than enough strength for a ballasted system but pole mounted solar panels need to be mounted higher that the shipping container) The battery box can be mounted in a shipping container but putting two 2X4 from floor to ceiling and mounting the box to them The warranty and customer service of the kit provider. 5 years on Parts and Labor if the system is one year you get what you pay for because if they will not stand behind it for more than a year you have to ask why? Can you add AC to the kit to charge battery’s or Cell phone and other electronic devices. Yes, but that Is not just a lighting kit and it is lighting and power kit is sized based on estimated usage. Shading on the solar panel. If you have any shading of the solar panel you need to add more solar panels to help cover this limiting of production. The Best solar window is from 9am to 4 PM. To the south in the northern hemisphere and north in the southern hemisphere.
Are you looking for a way to illuminate your gazebo with solar power?
we have many options to choose from. Solar gazebo lights are a great solution for outdoor lighting that is eco-friendly, energy-efficient and cost-effective. Here are some information of gazebo solar lighting that you might find useful. Solar gazebo lights are LED lights that are powered by a solar panel with a battery and solar and lighting controls attached to them or placed nearby. The solar panel collects sunlight duringthe day and converts it into electricity that is stored in a battery. At night, the battery provides power to the lights, which can be turned on and off by a switch, a remote control or a timer. There are different types of solar gazebo lights available, depending on your needs and preferences. Some of them are: Solar string lights: These are strings of small LED bulbs that can be hung around the gazebo or draped over its roof. They create a festive and romantic atmosphere with their warm and colorful glow. Some solar string lights have different lighting modes, such as steady, flashing or fading. Solar vapor tight lights: These are hanging lights that can be suspended from the gazebo ceiling or hooks. They provide more focused and bright illumination for reading, dining or playing games. Some lights can have motion sensors that activate them when someone approaches. Solar chandelier lights: These are elegant and decorative lights that resemble a chandelier. They can add a touch of sophistication andstyle to your gazebo with their intricate designs and shapes. Some solar chandelier lights have multiple light sources that can be adjusted individually. They light bulbs should be 12 or 24 volt but if you ready want AC bulbs there will be added expense for an inverter and a larger system needed for the inverter. Solar flood lights: These are powerful and wide-angle lights that can illuminate a large area around your gazebo. They are ideal for security and safety purposes, as they can deter intruders and animals. Some solar flood lights have adjustable brightness and sensitivity settings if you order the dimming function. When choosing solar gazebo lights, you should consider some factors, such as: The size and shape of your gazebo: You should measureyour gazebo and choose solar lights that fit its dimensions and style. You should also consider how much light you need and where you want to place the lights. The quality and durability of the solar lights: Our solar lighting kits are made of weather-resistant and sturdy materials, such as fiberglass,metal or glass. Your battery capacity and lifespan is based on the amount of usage and the daily run time of the solar lights, as well as their 5-yearwarranty and customer service. The installation and maintenance of the solar lights: You should choose solar lights that are easy to install and operate, without requiring any wiring or tools. All of our lighting kits are close to plug and play with some small assembly. You should also follow the instructions and tips provided by the our manual on how to care for and clean the solar lights and panels. Solar gazebo lighting is a smart and convenient way to enhance your outdoor living space with renewable energy. By choosing the right solar lights for your gazebo, you can enjoy a cozy and inviting ambiance at night, without worrying about electricity bills or environmental impact.
How to know of you have enough solar panel to completely off grid?
Are you considering making the leap to a completely off-grid solar power system? It’s an exciting step toward energy independence and sustainability. However, to ensure your transition is successful, it’s crucial to determine whether you have the right number of solar panels to meet your energy needs. Let’s dive into the key factors you need to consider. The foundation of determining your solar needs begins with understanding your energy consumption. Review your past electricity bills to find your average monthly or annual usage, measured in kilowatt-hours (kWh). Include all the energy-consuming devices and appliances in your household to get an accurate picture of your needs. Analyze Your Energy Bills: Start by reviewing your past electricity bills. Most utility companies provide a detailed breakdown of your energy consumption, typically measured in kilowatt-hours (kWh). Look at both peak and off-peak usage, as this will give you a more accurate picture of your energy demands. List Your Appliances and Devices: Make a comprehensive list of all the appliances and devices you use daily, including their wattage. This should include everything from refrigerators, heating and cooling systems, lights, and kitchen appliances to smaller devices like laptops, phones, and televisions. Estimate Daily Usage: To get an estimate of your daily energy usage, multiply the wattage of each device by the number of hours you use it per day. Factor in Seasonal Variations: Remember that energy consumption can vary seasonally. For example, heating systems may consume more energy in the winter, while air conditioning units may drive up consumption in the summer. Understand Solar Panel Output Each solar panel has a specific output rating, typically measured in watts (W). To estimate how much energy your panels will produce, you need to know the average sunlight hours in your area. This information helps you determine the daily energy production of each panel. Sunlight Hours: The amount of sunlight your location receives is critical in determining how much energy your solar panels can produce. This is measured in “peak sun hours,” which represents the equivalent number of hours per day when solar radiance averages 1,000 watts per square meter. System Design and Installation: The orientation and tilt of your solar panels can also impact their efficiency. Panels should be oriented to maximize exposure to sunlight throughout the day. Additionally, avoiding shading from trees, buildings, or other obstacles is crucial to maintaining optimal performance. Account for System Efficiency Solar panel systems are not 100% efficient due to factors such as shading, dirt, and inverter losses. A practical approach is to consider an overall efficiency factor of around 75-80% when calculating usable energy. Even with a well-sized solar panel system, it’s essential to plan for energy efficiency and redundancy to ensure your off-grid system operates smoothly. Energy Efficiency: Reducing your energy consumption through energy-efficient appliances, LED lighting, and smart energy management can help lower the number of panels and battery capacity needed. Redundancy: Consider adding a backup generator or additional battery storage as a safety net. This can provide extra power during extended periods of low sunlight or in case of system failures. Maintenance: Regular maintenance of your solar panels, batteries, and other system components is crucial to ensure they operate efficiently. This includes cleaning the panels, checking battery health, and inspecting wiring and connections. Determine Battery Storage Needs Since an off-grid system requires reliable battery storage, calculate the battery capacity needed to cover periods without sunlight, such as cloudy days or nighttime. This will ensure you have a consistent power supply when solar energy isn’t available. Battery Capacity: The capacity of your battery storage system is measured in kilowatt-hours (kWh). It should be sufficient to store enough energy to cover your usage during periods when solar production is not possible. Battery Type: There are different types of batteries available for solar systems, including lead-acid and lithium-ion batteries. Lithium-ion batteries are more efficient, have a longer lifespan, and require less maintenance, making them a popular choice for off-grid systems. Charge Controllers and Inverters: These components manage the flow of electricity from the solar panels to the batteries and from the batteries to your home. Calculating Daily Energy Production: To estimate the daily energy output of your solar panels, Determining the Number of Panels Needed Now that you have an estimate of both your energy consumption and the output of your solar panels, you can calculate the number of panels required to meet your energy needs. Consult with Solar Experts While these calculations provide a useful estimate, consulting with a solar energy expert is always a good idea. Our team can help you design a customised solar system that fits your specific needs and ensures optimal performance. Determining if you have enough solar panels to go completely off-grid involves evaluating your energy consumption, understanding solar panel output, considering system efficiency, and planning for battery storage. By following these steps and consulting with experts, you can confidently move toward a sustainable and self-sufficient energy future. For more information reach out to SunInOne and let us help you achieve your off-grid solar goals.
How Much Solar Do I Need to Take My Home or Business to Zero?
As the world increasingly shifts towards renewable energy, many homeowners and businesses are exploring how to reduce or even eliminate their dependence on traditional energy sources. One of the most effective ways to achieve this is by installing solar panels to power your property. But the question remains: How much solar do you need to take your home or business to zero? In other words, how can you generate as much energy as you consume, leading to a net-zero energy balance? Understanding Net-Zero Energy Before diving into calculations, it’s important to understand what net-zero energy means. A net-zero energy home or business is one that produces as much energy as it consumes over the course of a year. This doesn’t necessarily mean you’ll be off the grid, but rather that the energy you generate through solar panels will offset the energy you consume from the grid, resulting in a zero or near-zero energy bill. Assess Your Energy Consumption The first step in determining how much solar you need is to assess your current energy consumption. This is typically measured in kilowatt-hours (kWh). Your electricity bill will provide you with this information. For Homeowners Review your monthly electricity bills and calculate the total kWh used over the past year. Divide this number by 12 to determine your average monthly consumption. For a more detailed analysis, break it down by day or week if possible. Determine the Solar Panel Output Once you have a clear picture of your energy consumption, the next step is to determine how much energy your solar panels can produce. This depends on several factors: Solar Panel Efficiency: Solar panels are available in a range of efficiencies, typically between 15% and 22%. Higher efficiency panels will produce more electricity from the same amount of sunlight. Sunlight Hours: The amount of sunlight your location receives is crucial. Solar panels produce electricity when exposed to sunlight, and different regions receive varying amounts of sunlight throughout the year. Calculate the Number of Solar Panels Needed With your energy consumption and potential solar output in mind, you can now calculate the number of solar panels required to reach net-zero energy. Daily Energy Needs: Divide your average daily energy consumption by the daily output of one solar panel. Example Calculation: If your home uses 1,200 kWh per month, that’s approximately 40 kWh per day. If each 300-watt solar panel generates 1.5 kWh per day, you would need around 27 panels to meet your daily energy needs (40 kWh / 1.5 kWh = 26.67 panels). However, this is a simplified calculation. You should also consider system losses, efficiency reductions, and other factors which may increase the number of panels required. Account for System Losses and Efficiency No solar system is 100% efficient. There are always losses due to factors such as shading, dust, inverter inefficiencies, and temperature fluctuations. Typically, these losses can range from 10% to 25%. System Losses: To account for these losses, increase the number of panels by 10-25% depending on your system’s specific conditions. Consider Future Growth and Energy Needs If you plan to purchase an electric vehicle, add an extension to your home, or increase your use of energy-intensive appliances, your energy consumption will rise.Expanding operations, adding more equipment, or extending operating hours will increase energy demand. Evaluate Roof or Ground Space The amount of space available on your roof or property is another crucial factor. Solar panels require a significant amount of space, and not all roofs are suitable for installation. Roof Space: Ensure you have enough unobstructed space to install the number of panels you need. Ground-Mounted Systems: If roof space is limited, consider a ground-mounted system, which offers more flexibility in terms of placement and orientation. Consider Battery Storage If you want to maximise your energy independence, consider adding battery storage to your solar system. Batteries store excess energy generated during the day for use at night or during cloudy periods, reducing your reliance on the grid. Battery Sizing:– The size of the battery system depends on your energy consumption patterns and how much autonomy you want. Backup Power:- Batteries can also provide backup power during outages, offering additional security and peace of mind. Consult with a Solar Professional Finally, while these calculations provide a good starting point, it’s essential to consult with a solar professional who can assess your specific needs and location. They can provide a detailed proposal, including a site assessment, system design, and an estimate of costs and savings. They can also help you navigate incentives, rebates, and financing options. Taking your home or business to zero energy with solar power is an achievable goal with careful planning and consideration. By understanding your energy consumption, calculating the right amount of solar capacity, and accounting for potential losses and future growth, you can design a system that meets your needs and helps you achieve energy independence.
