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How Many Solar Panels And Batteries To Power A House?

Do you wish to know the number of solar panels and batteries sufficient for a house? Well, this is a frequently asked question in the solar world which would be very difficult to provide an accurate answer. This is basically down to the fact that all homes are unique with different sizes as well as amount of daily energy requirements. As a result, the number of solar panels and batteries needed would be unique to the house in question. However, we’ll consider the varying influencing factors that will go a long way to help calculate the number of panels and batteries needed to power a house.

First and foremost, let’s take a look at the solar panels. You’d have to start here by putting into consideration all household appliances that makes use of power in the house to get a good idea of how many that’ll be needed.

• How Many Watts Is Being Used In The House On A Daily Basis?

To determine this, simply go through your utility bill for kilowatt-hours (kWh). This varies amongst homes and being able to identify your daily average energy usage will assist you in getting your solar needs.

• What Is The Number Of The Peak Sunlight Hours At The House’s Location?

Having in mind that the solar panels only work when under direct sunlight, the first step to determine the peak sunlight hours. Once determined, you can then multiply the figure in hours by the house’s hourly energy usage and divide by the solar panel’s wattage.

Overall for a 1500 square foot house, the number of solar panels that’ll be required should fall around 15 to 18.

Meanwhile for batteries, there are also some factors to be considered to determine the number of batteries that is required to power a house. These factors include the house’s power or electricity usage, the period of time in which the battery will be used as well as the battery’ specifications.

Periodic testing and inspections should be completed: Every 10 years for your home, Every five years for rented accommodation, Every three years for a caravan, Every year for a swimming pool.Electrical inspections are also carried out when buying, selling or renting a property.

Is Electric Heating Expensive?

Well, electric heating being termed as “expensive is relative to your budget. But we can tell you making use of electric heating will cost you within the range of an additional £300 to £400 per year more than the conventional gas powered systems. Meanwhile the average UK home making use of heating has been found to incur around £550 on an annual basis while those using electric storage heaters will spend almost £900 every year, according to OVO Energy.

However, there are numerous benefits of using electric heating and some of which can contribute to give a lower cost. If you’re considering the installation of an electric heating, here are some of the benefits you’ll derive.

• Safety. The several risks that comes with traditional systems are greatly reduced with an electric heating system. For instance, there’s no risk of carbon monoxide emissions or potential explosions since there’s no use of fuel to run the system.

• Installation. When compared to traditional systems, electric heating quite inexpensive to fit. This is due to the fact that minimal hardware are needed in the installation - no pipes, no flues, no vents and no ducts to be used. As a result, electric heating systems can also be installed within a shorter period of time.

• Environment. Generally, electricity has a positive impact on the environment especially due to the fact that there are no gasses or heavy metals incorporated in the system’s make up.

• Control. Electric heating offers a more convenient and controllable system. What’s more? This does not only make life easier, but can also help save as much as 30 percent on yearly cost of heating as well as helping to minimize toxic carbon emission. Furthermore, there’s a built in Wi-Fi that usually comes with electric heating systems while same can not be said of traditional gas systems.

If you’re thinking about installing a solar thermal system in your house, it’s always important to put into consideration numerous factors before you proceed. While some solar thermal systems are suitable for use at home, there are also some that are suitable for businesses or organizations which normally requires a big amount of hot water like hotels, restaurants, schools, hospitals and many more. You’ll also find some types available in the market that are suitable for communities to satisfy communal hot water demands.

It should, however, be noted that solar thermal systems do not have the capacity to produce all the hot water demand of a house. In the UK, an average household will need an annual water heating of between 3000kWh to 5000kWh. Whereas, a solar thermal system is only able to meet about 40 percent to 60 percent of this demand.

With that in mind, it’s also worth noting that during the summer months when the solar radiation is at its peak and hot water demand is relatively lower when compared to other seasons, a solar thermal system may be able to provide all of your household’s hot water needs. This implies that during this period you may not find the need to operate your boiler at all. However, during winter or colder months, when you have a higher hot water demands in contrary to a lower solar radiation, a solar thermal system will only be able to take care of about 20 percent of your household’s hot water needs. And that ultimately implies that during this period, you’ll need to rely more on a alternative or backup source of heat like gas, coal, electricity, oil or LPG.

The importance of selecting the right size battery for your home simply cannot be overemphasized. A lot of home and property owners are facing this challenge and understandably so. Selecting the right battery size for your needs depend on a number of factors which includes your motive for adding a battery, your electricity usage, your budget as well as your panel array size, be it new or existing. In this post, we’re going to take you through some of these factors to help you determine the right battery size for your home or property. Let’s take a look!

• Your motive for getting a battery. While most people purchase a battery to wipe out their need to purchase electricity from the grid with the hope of making some savings, others add a battery so as to enjoy backup power. There are also some who just needs it to power their home with solar energy. It’ll not be economical to size a battery to effectively take you off the grid, but if your motive is to make savings, then you’ll should expect to purchase some electricity from the grid during the year.
• Electricity usage. The average household uses about 16kWh of electricity on a daily basis. During the daylight hours, most of these household will use a third of their electricity when the solar panels are still generating electricity, while the remaining two third are purchased from the grid. In other words, you’ll require a minimum of 10kWh battery capacity if you were to use a battery to power the electricity you purchase from the grid.

For a typical British household, you’ll most likely need a 5kWh solar power system which normally generates about 17 to 21 kWh on a daily basis depending on your location in the UK.

When the wiring on your property becomes dated, dangerous or non functional, then rewiring of your house becomes a necessity. If you’re thinking about rewiring your house, one of the first few things you’d have to put into consideration is the cost of completing the project in order to help you set a budget and start to plan. In this post, we seek to provide you with the most accurate cost possible for your project to help you get started as soon as possible.

In general, the average cost to rewire a house can vary from £2000 to about £10,000, which includes the prices for both material and labour. Factors that can have a great influence on the final price includes the type of your property, the quality of the existing wiring as well as the complexity of the installation needed. The most important determinants are probably the type of rewiring task you go for (whether for the whole house or some specific parts ) as well as the size of the house. The qualification of the electrician hired and the labour costs will also influence the final budget required to a great extent. Overall, the average cost of rewiring a house stands at £4000 and it will usually take up to 7 days for a complete rewire to be done. For older properties, you may need completely rewire the property in order to enhance the energy efficiency. However, this may not be required the your home was just recently built.

Being a messy and disruptive task which can also be very dangerous especially when handled by a inexperienced individual, we’d strongly recommend that house rewiring is carried out by a qualified and registered electrician who is well trained to perform this task to perfection.

If you possess an electric vehicle, then you should be well aware of how expensive the cost of getting electric vehicle chargers can be. The portable charger happens to be one of the most costly chargers that’s present in the market today. As a result, many individuals wonder exactly why ev chargers cost so much. After all, its just a little box with some wiring, so why should it cost up to hundreds of pound or a grand plus another grand or thereabouts for installation. In this post, we’ll give you insights to some of the primary reasons why ev chargers are relatively expensive when compared to other charges. Let’s take a look!

• Production factors. The manufacturing and testing phase alone is actually one of the costliest aspects in building a high quality and reliable charger. As stated by one manufacturer, the cost required to make metallic materials to trip switches to the testing phase and the marketing efforts, can all run up to over £30,000. As a result of this high production cost, the average of a new ev charger can be between  £125 to about £300 depending on whether you need a type 1 or type 2 charger as well as the size required.
• Specific design. If you own an ev, you’d know that there’s a standard charging port which allows for easy charging just like in petrol or diesel powered vehicles. The goal is to design a universal charging port whereby all electric vehicles can charge sufficiently.
• Safety. The development of a electrical design involves a lot of engineering which are quite pricey. However, this is a top priority to ensure the safety of both the user and car.

Are you thinking about installing a solar thermal system in your home? If yes, the you’d most likely be wondering the exact amount the system is going to cost. Well, you’re not alone. This is one of the most common question when it comes to solar thermal systems and we aim to answer that in this article. So let’s get started!

Unfortunately, the cost of a solar thermal system can’t be given in a single, accurate answer as they vary widely. However, when getting a new solar thermal system, you can expect to pay a sum within the range of £3000 to £6000 ( this includes a lowered VAT rate of 5 percent). The figures provided takes into account the installation costs as well as all the parts ( such as control panel, solar collectors, hot water tank and pipes).

To determine the price of your system, the quality and type of the panels matter. For instance, according to the Solar Trade Association, a properly insulated twin coil cylinder system would be priced at around £4500. in the same tone, it’s also possible to get DIY solar thermal kits that includes all the required hardware which will cost within the range of £1500 to £250. This however, may not be eligible for government support. In order to benefit from the RHI, your system must be fitted by a MCS accredited installer.

The varying prices of the solar thermal system’s initial cost is based on the specification of each individual house. For example, in situations where the building is having complicated water system, the plumbing cost is expected to increase which will have a serious impact on the overall cost of the solar thermal power system.