“What’s an inverter and how do they work?”
This is a common question one asks when installing a PV system.
If you’re planning a PV installation for your home or business, and trying to understand the role inverters play in PV systems, read on…
In this article, we’ll uncover:
What an inverter is
How inverters work
The main components of an inverter
Where inverters are used
The different types of inverters
The benefits of having an inverter
Inverters are highly complex and powerful structures which are used in all solar systems.
But what exactly is an inverter and how does an inverter work?
An inverter is an electrical device that converts direct current (DC) to alternating current (AC).
The main difference between DC and AC is the direction of the current’s flow. DC current flows in 1 direction, while alternating current changes direction periodically.
Inverters do not provide any power, but rather convert existing DC to AC.
Inverters work by performing electrical conversions from direct current to alternating voltage by switching the voltage of the direct current input back and forth at a rapid speed.
In doing so, the inverter creates an AC output.
Solar panels are an example of a source which uses direct current.
By converting this direct current into alternating current, the electrical energy can be used to power appliances and electronic devices.
Inverters are made up of 6 major components, including:
Oscillators
Control circuits
Driver circuits
Switching devices
Transformers
Inverters use this collection of parts to convert DC current to alternating voltage.
Below is a breakdown of the different components of an inverter:
An oscillator is an electrical circuit which produces a periodic, back-and-forth signal.
The signal is commonly in the form of a sin wave, square wave, or triangle wave.
The oscillator is the most crucial component of any inverter system, as its main objective in the circuit is to convert the direct current into alternating current.
Control circuits are used as a safety device to ensure that a motor stops and starts in a safe manner for both the electric system, as well as the operator.
There are 2 main types of control circuit: 2-wire control circuits, and 3-wire control circuits.
A 2-wire control circuit is a switch which operates in 2 directions. A common example of this is a light switch.
3-wire control circuits, on the other hand, have 3 operations:
A closed-stop button (STOP)
A normally open start button (START)
Sealing contact (M)
Once the START button has been pressed, current is fed through the motor.
Driver circuits are used to control separate circuits.
Ultimately, driver circuits are used to regulate current flow, and are commonly used to control switching devices.
A common example of a driver circuit is an amplifier found in loudspeakers.
Switching devices are used to divert electrical current from one conductor to another.
Switching devices are known as binary devices, as they can either be ON or OFF.
Switches are mechanical devices, and rely on external forces to change electrical signal.
Transformers are passive electrical components which transfer electrical energy from one electrical circuit to another circuit.
Transformers are also able to transfer current from one circuit to multiple circuits if need be.
Inverters are used in many electronic systems, as they are very powerful and versatile devices.
Some common uses of inverters include:
Solar power systems
Uninterrupted power supplies (UPS)
Fans
Pumps
Fluorescent lights
Most household appliances use alternating current in order to function, which is why inverters are so useful.
Any kind of device which needs to generate alternating current from direct current needs an inverter.
The opposite of an inverter is called a rectifier, which transfers current from AC to DC.
The types of inverters found in solar systems include:
String inverters
Micro inverters
Power optimisers
But what’s the difference between these inverter types and how do they function?
String inverters are inverters which are connected to a group of solar panels which are aligned in a string formation.
String inverters are the original inverter types, and have been used for decades.
The major pitfall of a string inverter is that if 1 panel in the string is negatively affected, the efficiency of the entire system is reduced.
Micro inverters are a collection of smaller inverter systems which are individually connected to each solar panel.
The major benefit of a micro inverter system is that when one panel is damaged or in shade, the entire system is not affected.
This benefit makes micro inverters more common in residential solar systems.
Micro Inverters have the following benefits:
The performance of individual panels can be measured
More panels can be fitted in the system
Micro inverters produce more energy
While these inverter types have many benefits when compared to string inverters, they are more expensive, making them better-suited for projects with a higher budget.
Power optimisers are a hybridised version of string inverters and micro inverters.
These inverter types are also connected to each panel, and work by moving the DC current from the solar panel to individual string converters.
Power optimisers offer the same benefits as micro inverter systems, however they are commonly less expensive.
Hybrid inverters are complex inverter types which allow the system to either sell excess electricity back into the grid, or store electricity in a battery.
By powering a battery, hybrid inverter systems can power your home or business, even when the solar panels are receiving little or no sunshine.
Hybrid inverters are a fairly new piece of technology, however they are becoming a far more common option for home and business owners looking to install solar systems.
Inverters are critical components to any solar panel installation.
Without an inverter, your solar system will only be able to generate direct current, a far less common current type than alternating current.
While a system can still run with direct current, without a converter, it will not be able to power the devices in your home or business.
A 756-1000W inverter is commonly needed to run a house.
An inverter of this size should be enough to protect against overload and short circuits.
Yes, solar inverters turn off at night.
This is due to the fact that the panels are not receiving any current from the Sun.
The main disadvantage of using a solar inverter is that they’re expensive.
Solar inverters last between 10-15 years.
This is, however, depending on the quality of your inverter.
Yes, you can add more batteries to your solar inverter.
This is done by using a process called AC coupling.
Solar panels and PV systems all need inverters to power AC devices for homes and businesses.
There are 3 major types of inverter. The inverter type you use depends on the specifications of your installation.
If you’re thinking of installing a PV system, but not sure where to start, call Urban Eden today for a free consultation!
“What’s an inverter and how do they work?”
This is a common question one asks when installing a PV system.
If you’re planning a PV installation for your home or business, and trying to understand the role inverters play in PV systems, read on…
In this article, we’ll uncover:
What an inverter is
How inverters work
The main components of an inverter
Where inverters are used
The different types of inverters
The benefits of having an inverter
Inverters are highly complex and powerful structures which are used in all solar systems.
But what exactly is an inverter and how does an inverter work?
An inverter is an electrical device that converts direct current (DC) to alternating current (AC).
The main difference between DC and AC is the direction of the current’s flow. DC current flows in 1 direction, while alternating current changes direction periodically.
Inverters do not provide any power, but rather convert existing DC to AC.
Inverters work by performing electrical conversions from direct current to alternating voltage by switching the voltage of the direct current input back and forth at a rapid speed.
In doing so, the inverter creates an AC output.
Solar panels are an example of a source which uses direct current.
By converting this direct current into alternating current, the electrical energy can be used to power appliances and electronic devices.
Inverters are made up of 6 major components, including:
Oscillators
Control circuits
Driver circuits
Switching devices
Transformers
Inverters use this collection of parts to convert DC current to alternating voltage.
Below is a breakdown of the different components of an inverter:
An oscillator is an electrical circuit which produces a periodic, back-and-forth signal.
The signal is commonly in the form of a sin wave, square wave, or triangle wave.
The oscillator is the most crucial component of any inverter system, as its main objective in the circuit is to convert the direct current into alternating current.
Control circuits are used as a safety device to ensure that a motor stops and starts in a safe manner for both the electric system, as well as the operator.
There are 2 main types of control circuit: 2-wire control circuits, and 3-wire control circuits.
A 2-wire control circuit is a switch which operates in 2 directions. A common example of this is a light switch.
3-wire control circuits, on the other hand, have 3 operations:
A closed-stop button (STOP)
A normally open start button (START)
Sealing contact (M)
Once the START button has been pressed, current is fed through the motor.
Driver circuits are used to control separate circuits.
Ultimately, driver circuits are used to regulate current flow, and are commonly used to control switching devices.
A common example of a driver circuit is an amplifier found in loudspeakers.
Switching devices are used to divert electrical current from one conductor to another.
Switching devices are known as binary devices, as they can either be ON or OFF.
Switches are mechanical devices, and rely on external forces to change electrical signal.
Transformers are passive electrical components which transfer electrical energy from one electrical circuit to another circuit.
Transformers are also able to transfer current from one circuit to multiple circuits if need be.
Inverters are used in many electronic systems, as they are very powerful and versatile devices.
Some common uses of inverters include:
Solar power systems
Uninterrupted power supplies (UPS)
Fans
Pumps
Fluorescent lights
Most household appliances use alternating current in order to function, which is why inverters are so useful.
Any kind of device which needs to generate alternating current from direct current needs an inverter.
The opposite of an inverter is called a rectifier, which transfers current from AC to DC.
The types of inverters found in solar systems include:
String inverters
Micro inverters
Power optimisers
But what’s the difference between these inverter types and how do they function?
String inverters are inverters which are connected to a group of solar panels which are aligned in a string formation.
String inverters are the original inverter types, and have been used for decades.
The major pitfall of a string inverter is that if 1 panel in the string is negatively affected, the efficiency of the entire system is reduced.
Micro inverters are a collection of smaller inverter systems which are individually connected to each solar panel.
The major benefit of a micro inverter system is that when one panel is damaged or in shade, the entire system is not affected.
This benefit makes micro inverters more common in residential solar systems.
Micro Inverters have the following benefits:
The performance of individual panels can be measured
More panels can be fitted in the system
Micro inverters produce more energy
While these inverter types have many benefits when compared to string inverters, they are more expensive, making them better-suited for projects with a higher budget.
Power optimisers are a hybridised version of string inverters and micro inverters.
These inverter types are also connected to each panel, and work by moving the DC current from the solar panel to individual string converters.
Power optimisers offer the same benefits as micro inverter systems, however they are commonly less expensive.
Hybrid inverters are complex inverter types which allow the system to either sell excess electricity back into the grid, or store electricity in a battery.
By powering a battery, hybrid inverter systems can power your home or business, even when the solar panels are receiving little or no sunshine.
Hybrid inverters are a fairly new piece of technology, however they are becoming a far more common option for home and business owners looking to install solar systems.
Inverters are critical components to any solar panel installation.
Without an inverter, your solar system will only be able to generate direct current, a far less common current type than alternating current.
While a system can still run with direct current, without a converter, it will not be able to power the devices in your home or business.
A 756-1000W inverter is commonly needed to run a house.
An inverter of this size should be enough to protect against overload and short circuits.
Yes, solar inverters turn off at night.
This is due to the fact that the panels are not receiving any current from the Sun.
The main disadvantage of using a solar inverter is that they’re expensive.
Solar inverters last between 10-15 years.
This is, however, depending on the quality of your inverter.
Yes, you can add more batteries to your solar inverter.
This is done by using a process called AC coupling.
Solar panels and PV systems all need inverters to power AC devices for homes and businesses.
There are 3 major types of inverter. The inverter type you use depends on the specifications of your installation.
If you’re thinking of installing a PV system, but not sure where to start, call Urban Eden today for a free consultation!
“What’s an inverter and how do they work?”
This is a common question one asks when installing a PV system.
If you’re planning a PV installation for your home or business, and trying to understand the role inverters play in PV systems, read on…
In this article, we’ll uncover:
What an inverter is
How inverters work
The main components of an inverter
Where inverters are used
The different types of inverters
The benefits of having an inverter
Inverters are highly complex and powerful structures which are used in all solar systems.
But what exactly is an inverter and how does an inverter work?
An inverter is an electrical device that converts direct current (DC) to alternating current (AC).
The main difference between DC and AC is the direction of the current’s flow. DC current flows in 1 direction, while alternating current changes direction periodically.
Inverters do not provide any power, but rather convert existing DC to AC.
Inverters work by performing electrical conversions from direct current to alternating voltage by switching the voltage of the direct current input back and forth at a rapid speed.
In doing so, the inverter creates an AC output.
Solar panels are an example of a source which uses direct current.
By converting this direct current into alternating current, the electrical energy can be used to power appliances and electronic devices.
Inverters are made up of 6 major components, including:
Oscillators
Control circuits
Driver circuits
Switching devices
Transformers
Inverters use this collection of parts to convert DC current to alternating voltage.
Below is a breakdown of the different components of an inverter:
An oscillator is an electrical circuit which produces a periodic, back-and-forth signal.
The signal is commonly in the form of a sin wave, square wave, or triangle wave.
The oscillator is the most crucial component of any inverter system, as its main objective in the circuit is to convert the direct current into alternating current.
Control circuits are used as a safety device to ensure that a motor stops and starts in a safe manner for both the electric system, as well as the operator.
There are 2 main types of control circuit: 2-wire control circuits, and 3-wire control circuits.
A 2-wire control circuit is a switch which operates in 2 directions. A common example of this is a light switch.
3-wire control circuits, on the other hand, have 3 operations:
A closed-stop button (STOP)
A normally open start button (START)
Sealing contact (M)
Once the START button has been pressed, current is fed through the motor.
Driver circuits are used to control separate circuits.
Ultimately, driver circuits are used to regulate current flow, and are commonly used to control switching devices.
A common example of a driver circuit is an amplifier found in loudspeakers.
Switching devices are used to divert electrical current from one conductor to another.
Switching devices are known as binary devices, as they can either be ON or OFF.
Switches are mechanical devices, and rely on external forces to change electrical signal.
Transformers are passive electrical components which transfer electrical energy from one electrical circuit to another circuit.
Transformers are also able to transfer current from one circuit to multiple circuits if need be.
Inverters are used in many electronic systems, as they are very powerful and versatile devices.
Some common uses of inverters include:
Solar power systems
Uninterrupted power supplies (UPS)
Fans
Pumps
Fluorescent lights
Most household appliances use alternating current in order to function, which is why inverters are so useful.
Any kind of device which needs to generate alternating current from direct current needs an inverter.
The opposite of an inverter is called a rectifier, which transfers current from AC to DC.
The types of inverters found in solar systems include:
String inverters
Micro inverters
Power optimisers
But what’s the difference between these inverter types and how do they function?
String inverters are inverters which are connected to a group of solar panels which are aligned in a string formation.
String inverters are the original inverter types, and have been used for decades.
The major pitfall of a string inverter is that if 1 panel in the string is negatively affected, the efficiency of the entire system is reduced.
Micro inverters are a collection of smaller inverter systems which are individually connected to each solar panel.
The major benefit of a micro inverter system is that when one panel is damaged or in shade, the entire system is not affected.
This benefit makes micro inverters more common in residential solar systems.
Micro Inverters have the following benefits:
The performance of individual panels can be measured
More panels can be fitted in the system
Micro inverters produce more energy
While these inverter types have many benefits when compared to string inverters, they are more expensive, making them better-suited for projects with a higher budget.
Power optimisers are a hybridised version of string inverters and micro inverters.
These inverter types are also connected to each panel, and work by moving the DC current from the solar panel to individual string converters.
Power optimisers offer the same benefits as micro inverter systems, however they are commonly less expensive.
Hybrid inverters are complex inverter types which allow the system to either sell excess electricity back into the grid, or store electricity in a battery.
By powering a battery, hybrid inverter systems can power your home or business, even when the solar panels are receiving little or no sunshine.
Hybrid inverters are a fairly new piece of technology, however they are becoming a far more common option for home and business owners looking to install solar systems.
Inverters are critical components to any solar panel installation.
Without an inverter, your solar system will only be able to generate direct current, a far less common current type than alternating current.
While a system can still run with direct current, without a converter, it will not be able to power the devices in your home or business.
A 756-1000W inverter is commonly needed to run a house.
An inverter of this size should be enough to protect against overload and short circuits.
Yes, solar inverters turn off at night.
This is due to the fact that the panels are not receiving any current from the Sun.
The main disadvantage of using a solar inverter is that they’re expensive.
Solar inverters last between 10-15 years.
This is, however, depending on the quality of your inverter.
Yes, you can add more batteries to your solar inverter.
This is done by using a process called AC coupling.
Solar panels and PV systems all need inverters to power AC devices for homes and businesses.
There are 3 major types of inverter. The inverter type you use depends on the specifications of your installation.
If you’re thinking of installing a PV system, but not sure where to start, call Urban Eden today for a free consultation!
“What’s an inverter and how do they work?”
This is a common question one asks when installing a PV system.
If you’re planning a PV installation for your home or business, and trying to understand the role inverters play in PV systems, read on…
In this article, we’ll uncover:
What an inverter is
How inverters work
The main components of an inverter
Where inverters are used
The different types of inverters
The benefits of having an inverter
Inverters are highly complex and powerful structures which are used in all solar systems.
But what exactly is an inverter and how does an inverter work?
An inverter is an electrical device that converts direct current (DC) to alternating current (AC).
The main difference between DC and AC is the direction of the current’s flow. DC current flows in 1 direction, while alternating current changes direction periodically.
Inverters do not provide any power, but rather convert existing DC to AC.
Inverters work by performing electrical conversions from direct current to alternating voltage by switching the voltage of the direct current input back and forth at a rapid speed.
In doing so, the inverter creates an AC output.
Solar panels are an example of a source which uses direct current.
By converting this direct current into alternating current, the electrical energy can be used to power appliances and electronic devices.
Inverters are made up of 6 major components, including:
Oscillators
Control circuits
Driver circuits
Switching devices
Transformers
Inverters use this collection of parts to convert DC current to alternating voltage.
Below is a breakdown of the different components of an inverter:
An oscillator is an electrical circuit which produces a periodic, back-and-forth signal.
The signal is commonly in the form of a sin wave, square wave, or triangle wave.
The oscillator is the most crucial component of any inverter system, as its main objective in the circuit is to convert the direct current into alternating current.
Control circuits are used as a safety device to ensure that a motor stops and starts in a safe manner for both the electric system, as well as the operator.
There are 2 main types of control circuit: 2-wire control circuits, and 3-wire control circuits.
A 2-wire control circuit is a switch which operates in 2 directions. A common example of this is a light switch.
3-wire control circuits, on the other hand, have 3 operations:
A closed-stop button (STOP)
A normally open start button (START)
Sealing contact (M)
Once the START button has been pressed, current is fed through the motor.
Driver circuits are used to control separate circuits.
Ultimately, driver circuits are used to regulate current flow, and are commonly used to control switching devices.
A common example of a driver circuit is an amplifier found in loudspeakers.
Switching devices are used to divert electrical current from one conductor to another.
Switching devices are known as binary devices, as they can either be ON or OFF.
Switches are mechanical devices, and rely on external forces to change electrical signal.
Transformers are passive electrical components which transfer electrical energy from one electrical circuit to another circuit.
Transformers are also able to transfer current from one circuit to multiple circuits if need be.
Inverters are used in many electronic systems, as they are very powerful and versatile devices.
Some common uses of inverters include:
Solar power systems
Uninterrupted power supplies (UPS)
Fans
Pumps
Fluorescent lights
Most household appliances use alternating current in order to function, which is why inverters are so useful.
Any kind of device which needs to generate alternating current from direct current needs an inverter.
The opposite of an inverter is called a rectifier, which transfers current from AC to DC.
The types of inverters found in solar systems include:
String inverters
Micro inverters
Power optimisers
But what’s the difference between these inverter types and how do they function?
String inverters are inverters which are connected to a group of solar panels which are aligned in a string formation.
String inverters are the original inverter types, and have been used for decades.
The major pitfall of a string inverter is that if 1 panel in the string is negatively affected, the efficiency of the entire system is reduced.
Micro inverters are a collection of smaller inverter systems which are individually connected to each solar panel.
The major benefit of a micro inverter system is that when one panel is damaged or in shade, the entire system is not affected.
This benefit makes micro inverters more common in residential solar systems.
Micro Inverters have the following benefits:
The performance of individual panels can be measured
More panels can be fitted in the system
Micro inverters produce more energy
While these inverter types have many benefits when compared to string inverters, they are more expensive, making them better-suited for projects with a higher budget.
Power optimisers are a hybridised version of string inverters and micro inverters.
These inverter types are also connected to each panel, and work by moving the DC current from the solar panel to individual string converters.
Power optimisers offer the same benefits as micro inverter systems, however they are commonly less expensive.
Hybrid inverters are complex inverter types which allow the system to either sell excess electricity back into the grid, or store electricity in a battery.
By powering a battery, hybrid inverter systems can power your home or business, even when the solar panels are receiving little or no sunshine.
Hybrid inverters are a fairly new piece of technology, however they are becoming a far more common option for home and business owners looking to install solar systems.
Inverters are critical components to any solar panel installation.
Without an inverter, your solar system will only be able to generate direct current, a far less common current type than alternating current.
While a system can still run with direct current, without a converter, it will not be able to power the devices in your home or business.
A 756-1000W inverter is commonly needed to run a house.
An inverter of this size should be enough to protect against overload and short circuits.
Yes, solar inverters turn off at night.
This is due to the fact that the panels are not receiving any current from the Sun.
The main disadvantage of using a solar inverter is that they’re expensive.
Solar inverters last between 10-15 years.
This is, however, depending on the quality of your inverter.
Yes, you can add more batteries to your solar inverter.
This is done by using a process called AC coupling.
Solar panels and PV systems all need inverters to power AC devices for homes and businesses.
There are 3 major types of inverter. The inverter type you use depends on the specifications of your installation.
If you’re thinking of installing a PV system, but not sure where to start, call Urban Eden today for a free consultation!
“What’s an inverter and how do they work?”
This is a common question one asks when installing a PV system.
If you’re planning a PV installation for your home or business, and trying to understand the role inverters play in PV systems, read on…
In this article, we’ll uncover:
What an inverter is
How inverters work
The main components of an inverter
Where inverters are used
The different types of inverters
The benefits of having an inverter
Inverters are highly complex and powerful structures which are used in all solar systems.
But what exactly is an inverter and how does an inverter work?
An inverter is an electrical device that converts direct current (DC) to alternating current (AC).
The main difference between DC and AC is the direction of the current’s flow. DC current flows in 1 direction, while alternating current changes direction periodically.
Inverters do not provide any power, but rather convert existing DC to AC.
Inverters work by performing electrical conversions from direct current to alternating voltage by switching the voltage of the direct current input back and forth at a rapid speed.
In doing so, the inverter creates an AC output.
Solar panels are an example of a source which uses direct current.
By converting this direct current into alternating current, the electrical energy can be used to power appliances and electronic devices.
Inverters are made up of 6 major components, including:
Oscillators
Control circuits
Driver circuits
Switching devices
Transformers
Inverters use this collection of parts to convert DC current to alternating voltage.
Below is a breakdown of the different components of an inverter:
An oscillator is an electrical circuit which produces a periodic, back-and-forth signal.
The signal is commonly in the form of a sin wave, square wave, or triangle wave.
The oscillator is the most crucial component of any inverter system, as its main objective in the circuit is to convert the direct current into alternating current.
Control circuits are used as a safety device to ensure that a motor stops and starts in a safe manner for both the electric system, as well as the operator.
There are 2 main types of control circuit: 2-wire control circuits, and 3-wire control circuits.
A 2-wire control circuit is a switch which operates in 2 directions. A common example of this is a light switch.
3-wire control circuits, on the other hand, have 3 operations:
A closed-stop button (STOP)
A normally open start button (START)
Sealing contact (M)
Once the START button has been pressed, current is fed through the motor.
Driver circuits are used to control separate circuits.
Ultimately, driver circuits are used to regulate current flow, and are commonly used to control switching devices.
A common example of a driver circuit is an amplifier found in loudspeakers.
Switching devices are used to divert electrical current from one conductor to another.
Switching devices are known as binary devices, as they can either be ON or OFF.
Switches are mechanical devices, and rely on external forces to change electrical signal.
Transformers are passive electrical components which transfer electrical energy from one electrical circuit to another circuit.
Transformers are also able to transfer current from one circuit to multiple circuits if need be.
Inverters are used in many electronic systems, as they are very powerful and versatile devices.
Some common uses of inverters include:
Solar power systems
Uninterrupted power supplies (UPS)
Fans
Pumps
Fluorescent lights
Most household appliances use alternating current in order to function, which is why inverters are so useful.
Any kind of device which needs to generate alternating current from direct current needs an inverter.
The opposite of an inverter is called a rectifier, which transfers current from AC to DC.
The types of inverters found in solar systems include:
String inverters
Micro inverters
Power optimisers
But what’s the difference between these inverter types and how do they function?
String inverters are inverters which are connected to a group of solar panels which are aligned in a string formation.
String inverters are the original inverter types, and have been used for decades.
The major pitfall of a string inverter is that if 1 panel in the string is negatively affected, the efficiency of the entire system is reduced.
Micro inverters are a collection of smaller inverter systems which are individually connected to each solar panel.
The major benefit of a micro inverter system is that when one panel is damaged or in shade, the entire system is not affected.
This benefit makes micro inverters more common in residential solar systems.
Micro Inverters have the following benefits:
The performance of individual panels can be measured
More panels can be fitted in the system
Micro inverters produce more energy
While these inverter types have many benefits when compared to string inverters, they are more expensive, making them better-suited for projects with a higher budget.
Power optimisers are a hybridised version of string inverters and micro inverters.
These inverter types are also connected to each panel, and work by moving the DC current from the solar panel to individual string converters.
Power optimisers offer the same benefits as micro inverter systems, however they are commonly less expensive.
Hybrid inverters are complex inverter types which allow the system to either sell excess electricity back into the grid, or store electricity in a battery.
By powering a battery, hybrid inverter systems can power your home or business, even when the solar panels are receiving little or no sunshine.
Hybrid inverters are a fairly new piece of technology, however they are becoming a far more common option for home and business owners looking to install solar systems.
Inverters are critical components to any solar panel installation.
Without an inverter, your solar system will only be able to generate direct current, a far less common current type than alternating current.
While a system can still run with direct current, without a converter, it will not be able to power the devices in your home or business.
A 756-1000W inverter is commonly needed to run a house.
An inverter of this size should be enough to protect against overload and short circuits.
Yes, solar inverters turn off at night.
This is due to the fact that the panels are not receiving any current from the Sun.
The main disadvantage of using a solar inverter is that they’re expensive.
Solar inverters last between 10-15 years.
This is, however, depending on the quality of your inverter.
Yes, you can add more batteries to your solar inverter.
This is done by using a process called AC coupling.
Solar panels and PV systems all need inverters to power AC devices for homes and businesses.
There are 3 major types of inverter. The inverter type you use depends on the specifications of your installation.
If you’re thinking of installing a PV system, but not sure where to start, call Urban Eden today for a free consultation!
“What’s an inverter and how do they work?”
This is a common question one asks when installing a PV system.
If you’re planning a PV installation for your home or business, and trying to understand the role inverters play in PV systems, read on…
In this article, we’ll uncover:
What an inverter is
How inverters work
The main components of an inverter
Where inverters are used
The different types of inverters
The benefits of having an inverter
Inverters are highly complex and powerful structures which are used in all solar systems.
But what exactly is an inverter and how does an inverter work?
An inverter is an electrical device that converts direct current (DC) to alternating current (AC).
The main difference between DC and AC is the direction of the current’s flow. DC current flows in 1 direction, while alternating current changes direction periodically.
Inverters do not provide any power, but rather convert existing DC to AC.
Inverters work by performing electrical conversions from direct current to alternating voltage by switching the voltage of the direct current input back and forth at a rapid speed.
In doing so, the inverter creates an AC output.
Solar panels are an example of a source which uses direct current.
By converting this direct current into alternating current, the electrical energy can be used to power appliances and electronic devices.
Inverters are made up of 6 major components, including:
Oscillators
Control circuits
Driver circuits
Switching devices
Transformers
Inverters use this collection of parts to convert DC current to alternating voltage.
Below is a breakdown of the different components of an inverter:
An oscillator is an electrical circuit which produces a periodic, back-and-forth signal.
The signal is commonly in the form of a sin wave, square wave, or triangle wave.
The oscillator is the most crucial component of any inverter system, as its main objective in the circuit is to convert the direct current into alternating current.
Control circuits are used as a safety device to ensure that a motor stops and starts in a safe manner for both the electric system, as well as the operator.
There are 2 main types of control circuit: 2-wire control circuits, and 3-wire control circuits.
A 2-wire control circuit is a switch which operates in 2 directions. A common example of this is a light switch.
3-wire control circuits, on the other hand, have 3 operations:
A closed-stop button (STOP)
A normally open start button (START)
Sealing contact (M)
Once the START button has been pressed, current is fed through the motor.
Driver circuits are used to control separate circuits.
Ultimately, driver circuits are used to regulate current flow, and are commonly used to control switching devices.
A common example of a driver circuit is an amplifier found in loudspeakers.
Switching devices are used to divert electrical current from one conductor to another.
Switching devices are known as binary devices, as they can either be ON or OFF.
Switches are mechanical devices, and rely on external forces to change electrical signal.
Transformers are passive electrical components which transfer electrical energy from one electrical circuit to another circuit.
Transformers are also able to transfer current from one circuit to multiple circuits if need be.
Inverters are used in many electronic systems, as they are very powerful and versatile devices.
Some common uses of inverters include:
Solar power systems
Uninterrupted power supplies (UPS)
Fans
Pumps
Fluorescent lights
Most household appliances use alternating current in order to function, which is why inverters are so useful.
Any kind of device which needs to generate alternating current from direct current needs an inverter.
The opposite of an inverter is called a rectifier, which transfers current from AC to DC.
The types of inverters found in solar systems include:
String inverters
Micro inverters
Power optimisers
But what’s the difference between these inverter types and how do they function?
String inverters are inverters which are connected to a group of solar panels which are aligned in a string formation.
String inverters are the original inverter types, and have been used for decades.
The major pitfall of a string inverter is that if 1 panel in the string is negatively affected, the efficiency of the entire system is reduced.
Micro inverters are a collection of smaller inverter systems which are individually connected to each solar panel.
The major benefit of a micro inverter system is that when one panel is damaged or in shade, the entire system is not affected.
This benefit makes micro inverters more common in residential solar systems.
Micro Inverters have the following benefits:
The performance of individual panels can be measured
More panels can be fitted in the system
Micro inverters produce more energy
While these inverter types have many benefits when compared to string inverters, they are more expensive, making them better-suited for projects with a higher budget.
Power optimisers are a hybridised version of string inverters and micro inverters.
These inverter types are also connected to each panel, and work by moving the DC current from the solar panel to individual string converters.
Power optimisers offer the same benefits as micro inverter systems, however they are commonly less expensive.
Hybrid inverters are complex inverter types which allow the system to either sell excess electricity back into the grid, or store electricity in a battery.
By powering a battery, hybrid inverter systems can power your home or business, even when the solar panels are receiving little or no sunshine.
Hybrid inverters are a fairly new piece of technology, however they are becoming a far more common option for home and business owners looking to install solar systems.
Inverters are critical components to any solar panel installation.
Without an inverter, your solar system will only be able to generate direct current, a far less common current type than alternating current.
While a system can still run with direct current, without a converter, it will not be able to power the devices in your home or business.
A 756-1000W inverter is commonly needed to run a house.
An inverter of this size should be enough to protect against overload and short circuits.
Yes, solar inverters turn off at night.
This is due to the fact that the panels are not receiving any current from the Sun.
The main disadvantage of using a solar inverter is that they’re expensive.
Solar inverters last between 10-15 years.
This is, however, depending on the quality of your inverter.
Yes, you can add more batteries to your solar inverter.
This is done by using a process called AC coupling.
Solar panels and PV systems all need inverters to power AC devices for homes and businesses.
There are 3 major types of inverter. The inverter type you use depends on the specifications of your installation.
If you’re thinking of installing a PV system, but not sure where to start, call Urban Eden today for a free consultation!
“What’s an inverter and how do they work?”
This is a common question one asks when installing a PV system.
If you’re planning a PV installation for your home or business, and trying to understand the role inverters play in PV systems, read on…
In this article, we’ll uncover:
What an inverter is
How inverters work
The main components of an inverter
Where inverters are used
The different types of inverters
The benefits of having an inverter
Inverters are highly complex and powerful structures which are used in all solar systems.
But what exactly is an inverter and how does an inverter work?
An inverter is an electrical device that converts direct current (DC) to alternating current (AC).
The main difference between DC and AC is the direction of the current’s flow. DC current flows in 1 direction, while alternating current changes direction periodically.
Inverters do not provide any power, but rather convert existing DC to AC.
Inverters work by performing electrical conversions from direct current to alternating voltage by switching the voltage of the direct current input back and forth at a rapid speed.
In doing so, the inverter creates an AC output.
Solar panels are an example of a source which uses direct current.
By converting this direct current into alternating current, the electrical energy can be used to power appliances and electronic devices.
Inverters are made up of 6 major components, including:
Oscillators
Control circuits
Driver circuits
Switching devices
Transformers
Inverters use this collection of parts to convert DC current to alternating voltage.
Below is a breakdown of the different components of an inverter:
An oscillator is an electrical circuit which produces a periodic, back-and-forth signal.
The signal is commonly in the form of a sin wave, square wave, or triangle wave.
The oscillator is the most crucial component of any inverter system, as its main objective in the circuit is to convert the direct current into alternating current.
Control circuits are used as a safety device to ensure that a motor stops and starts in a safe manner for both the electric system, as well as the operator.
There are 2 main types of control circuit: 2-wire control circuits, and 3-wire control circuits.
A 2-wire control circuit is a switch which operates in 2 directions. A common example of this is a light switch.
3-wire control circuits, on the other hand, have 3 operations:
A closed-stop button (STOP)
A normally open start button (START)
Sealing contact (M)
Once the START button has been pressed, current is fed through the motor.
Driver circuits are used to control separate circuits.
Ultimately, driver circuits are used to regulate current flow, and are commonly used to control switching devices.
A common example of a driver circuit is an amplifier found in loudspeakers.
Switching devices are used to divert electrical current from one conductor to another.
Switching devices are known as binary devices, as they can either be ON or OFF.
Switches are mechanical devices, and rely on external forces to change electrical signal.
Transformers are passive electrical components which transfer electrical energy from one electrical circuit to another circuit.
Transformers are also able to transfer current from one circuit to multiple circuits if need be.
Inverters are used in many electronic systems, as they are very powerful and versatile devices.
Some common uses of inverters include:
Solar power systems
Uninterrupted power supplies (UPS)
Fans
Pumps
Fluorescent lights
Most household appliances use alternating current in order to function, which is why inverters are so useful.
Any kind of device which needs to generate alternating current from direct current needs an inverter.
The opposite of an inverter is called a rectifier, which transfers current from AC to DC.
The types of inverters found in solar systems include:
String inverters
Micro inverters
Power optimisers
But what’s the difference between these inverter types and how do they function?
String inverters are inverters which are connected to a group of solar panels which are aligned in a string formation.
String inverters are the original inverter types, and have been used for decades.
The major pitfall of a string inverter is that if 1 panel in the string is negatively affected, the efficiency of the entire system is reduced.
Micro inverters are a collection of smaller inverter systems which are individually connected to each solar panel.
The major benefit of a micro inverter system is that when one panel is damaged or in shade, the entire system is not affected.
This benefit makes micro inverters more common in residential solar systems.
Micro Inverters have the following benefits:
The performance of individual panels can be measured
More panels can be fitted in the system
Micro inverters produce more energy
While these inverter types have many benefits when compared to string inverters, they are more expensive, making them better-suited for projects with a higher budget.
Power optimisers are a hybridised version of string inverters and micro inverters.
These inverter types are also connected to each panel, and work by moving the DC current from the solar panel to individual string converters.
Power optimisers offer the same benefits as micro inverter systems, however they are commonly less expensive.
Hybrid inverters are complex inverter types which allow the system to either sell excess electricity back into the grid, or store electricity in a battery.
By powering a battery, hybrid inverter systems can power your home or business, even when the solar panels are receiving little or no sunshine.
Hybrid inverters are a fairly new piece of technology, however they are becoming a far more common option for home and business owners looking to install solar systems.
Inverters are critical components to any solar panel installation.
Without an inverter, your solar system will only be able to generate direct current, a far less common current type than alternating current.
While a system can still run with direct current, without a converter, it will not be able to power the devices in your home or business.
A 756-1000W inverter is commonly needed to run a house.
An inverter of this size should be enough to protect against overload and short circuits.
Yes, solar inverters turn off at night.
This is due to the fact that the panels are not receiving any current from the Sun.
The main disadvantage of using a solar inverter is that they’re expensive.
Solar inverters last between 10-15 years.
This is, however, depending on the quality of your inverter.
Yes, you can add more batteries to your solar inverter.
This is done by using a process called AC coupling.
Solar panels and PV systems all need inverters to power AC devices for homes and businesses.
There are 3 major types of inverter. The inverter type you use depends on the specifications of your installation.
If you’re thinking of installing a PV system, but not sure where to start, call Urban Eden today for a free consultation!
“What’s an inverter and how do they work?”
This is a common question one asks when installing a PV system.
If you’re planning a PV installation for your home or business, and trying to understand the role inverters play in PV systems, read on…
In this article, we’ll uncover:
What an inverter is
How inverters work
The main components of an inverter
Where inverters are used
The different types of inverters
The benefits of having an inverter
Inverters are highly complex and powerful structures which are used in all solar systems.
But what exactly is an inverter and how does an inverter work?
An inverter is an electrical device that converts direct current (DC) to alternating current (AC).
The main difference between DC and AC is the direction of the current’s flow. DC current flows in 1 direction, while alternating current changes direction periodically.
Inverters do not provide any power, but rather convert existing DC to AC.
Inverters work by performing electrical conversions from direct current to alternating voltage by switching the voltage of the direct current input back and forth at a rapid speed.
In doing so, the inverter creates an AC output.
Solar panels are an example of a source which uses direct current.
By converting this direct current into alternating current, the electrical energy can be used to power appliances and electronic devices.
Inverters are made up of 6 major components, including:
Oscillators
Control circuits
Driver circuits
Switching devices
Transformers
Inverters use this collection of parts to convert DC current to alternating voltage.
Below is a breakdown of the different components of an inverter:
An oscillator is an electrical circuit which produces a periodic, back-and-forth signal.
The signal is commonly in the form of a sin wave, square wave, or triangle wave.
The oscillator is the most crucial component of any inverter system, as its main objective in the circuit is to convert the direct current into alternating current.
Control circuits are used as a safety device to ensure that a motor stops and starts in a safe manner for both the electric system, as well as the operator.
There are 2 main types of control circuit: 2-wire control circuits, and 3-wire control circuits.
A 2-wire control circuit is a switch which operates in 2 directions. A common example of this is a light switch.
3-wire control circuits, on the other hand, have 3 operations:
A closed-stop button (STOP)
A normally open start button (START)
Sealing contact (M)
Once the START button has been pressed, current is fed through the motor.
Driver circuits are used to control separate circuits.
Ultimately, driver circuits are used to regulate current flow, and are commonly used to control switching devices.
A common example of a driver circuit is an amplifier found in loudspeakers.
Switching devices are used to divert electrical current from one conductor to another.
Switching devices are known as binary devices, as they can either be ON or OFF.
Switches are mechanical devices, and rely on external forces to change electrical signal.
Transformers are passive electrical components which transfer electrical energy from one electrical circuit to another circuit.
Transformers are also able to transfer current from one circuit to multiple circuits if need be.
Inverters are used in many electronic systems, as they are very powerful and versatile devices.
Some common uses of inverters include:
Solar power systems
Uninterrupted power supplies (UPS)
Fans
Pumps
Fluorescent lights
Most household appliances use alternating current in order to function, which is why inverters are so useful.
Any kind of device which needs to generate alternating current from direct current needs an inverter.
The opposite of an inverter is called a rectifier, which transfers current from AC to DC.
The types of inverters found in solar systems include:
String inverters
Micro inverters
Power optimisers
But what’s the difference between these inverter types and how do they function?
String inverters are inverters which are connected to a group of solar panels which are aligned in a string formation.
String inverters are the original inverter types, and have been used for decades.
The major pitfall of a string inverter is that if 1 panel in the string is negatively affected, the efficiency of the entire system is reduced.
Micro inverters are a collection of smaller inverter systems which are individually connected to each solar panel.
The major benefit of a micro inverter system is that when one panel is damaged or in shade, the entire system is not affected.
This benefit makes micro inverters more common in residential solar systems.
Micro Inverters have the following benefits:
The performance of individual panels can be measured
More panels can be fitted in the system
Micro inverters produce more energy
While these inverter types have many benefits when compared to string inverters, they are more expensive, making them better-suited for projects with a higher budget.
Power optimisers are a hybridised version of string inverters and micro inverters.
These inverter types are also connected to each panel, and work by moving the DC current from the solar panel to individual string converters.
Power optimisers offer the same benefits as micro inverter systems, however they are commonly less expensive.
Hybrid inverters are complex inverter types which allow the system to either sell excess electricity back into the grid, or store electricity in a battery.
By powering a battery, hybrid inverter systems can power your home or business, even when the solar panels are receiving little or no sunshine.
Hybrid inverters are a fairly new piece of technology, however they are becoming a far more common option for home and business owners looking to install solar systems.
Inverters are critical components to any solar panel installation.
Without an inverter, your solar system will only be able to generate direct current, a far less common current type than alternating current.
While a system can still run with direct current, without a converter, it will not be able to power the devices in your home or business.
A 756-1000W inverter is commonly needed to run a house.
An inverter of this size should be enough to protect against overload and short circuits.
Yes, solar inverters turn off at night.
This is due to the fact that the panels are not receiving any current from the Sun.
The main disadvantage of using a solar inverter is that they’re expensive.
Solar inverters last between 10-15 years.
This is, however, depending on the quality of your inverter.
Yes, you can add more batteries to your solar inverter.
This is done by using a process called AC coupling.
Solar panels and PV systems all need inverters to power AC devices for homes and businesses.
There are 3 major types of inverter. The inverter type you use depends on the specifications of your installation.
If you’re thinking of installing a PV system, but not sure where to start, call Urban Eden today for a free consultation!
“What’s an inverter and how do they work?”
This is a common question one asks when installing a PV system.
If you’re planning a PV installation for your home or business, and trying to understand the role inverters play in PV systems, read on…
In this article, we’ll uncover:
What an inverter is
How inverters work
The main components of an inverter
Where inverters are used
The different types of inverters
The benefits of having an inverter
Inverters are highly complex and powerful structures which are used in all solar systems.
But what exactly is an inverter and how does an inverter work?
An inverter is an electrical device that converts direct current (DC) to alternating current (AC).
The main difference between DC and AC is the direction of the current’s flow. DC current flows in 1 direction, while alternating current changes direction periodically.
Inverters do not provide any power, but rather convert existing DC to AC.
Inverters work by performing electrical conversions from direct current to alternating voltage by switching the voltage of the direct current input back and forth at a rapid speed.
In doing so, the inverter creates an AC output.
Solar panels are an example of a source which uses direct current.
By converting this direct current into alternating current, the electrical energy can be used to power appliances and electronic devices.
Inverters are made up of 6 major components, including:
Oscillators
Control circuits
Driver circuits
Switching devices
Transformers
Inverters use this collection of parts to convert DC current to alternating voltage.
Below is a breakdown of the different components of an inverter:
An oscillator is an electrical circuit which produces a periodic, back-and-forth signal.
The signal is commonly in the form of a sin wave, square wave, or triangle wave.
The oscillator is the most crucial component of any inverter system, as its main objective in the circuit is to convert the direct current into alternating current.
Control circuits are used as a safety device to ensure that a motor stops and starts in a safe manner for both the electric system, as well as the operator.
There are 2 main types of control circuit: 2-wire control circuits, and 3-wire control circuits.
A 2-wire control circuit is a switch which operates in 2 directions. A common example of this is a light switch.
3-wire control circuits, on the other hand, have 3 operations:
A closed-stop button (STOP)
A normally open start button (START)
Sealing contact (M)
Once the START button has been pressed, current is fed through the motor.
Driver circuits are used to control separate circuits.
Ultimately, driver circuits are used to regulate current flow, and are commonly used to control switching devices.
A common example of a driver circuit is an amplifier found in loudspeakers.
Switching devices are used to divert electrical current from one conductor to another.
Switching devices are known as binary devices, as they can either be ON or OFF.
Switches are mechanical devices, and rely on external forces to change electrical signal.
Transformers are passive electrical components which transfer electrical energy from one electrical circuit to another circuit.
Transformers are also able to transfer current from one circuit to multiple circuits if need be.
Inverters are used in many electronic systems, as they are very powerful and versatile devices.
Some common uses of inverters include:
Solar power systems
Uninterrupted power supplies (UPS)
Fans
Pumps
Fluorescent lights
Most household appliances use alternating current in order to function, which is why inverters are so useful.
Any kind of device which needs to generate alternating current from direct current needs an inverter.
The opposite of an inverter is called a rectifier, which transfers current from AC to DC.
The types of inverters found in solar systems include:
String inverters
Micro inverters
Power optimisers
But what’s the difference between these inverter types and how do they function?
String inverters are inverters which are connected to a group of solar panels which are aligned in a string formation.
String inverters are the original inverter types, and have been used for decades.
The major pitfall of a string inverter is that if 1 panel in the string is negatively affected, the efficiency of the entire system is reduced.
Micro inverters are a collection of smaller inverter systems which are individually connected to each solar panel.
The major benefit of a micro inverter system is that when one panel is damaged or in shade, the entire system is not affected.
This benefit makes micro inverters more common in residential solar systems.
Micro Inverters have the following benefits:
The performance of individual panels can be measured
More panels can be fitted in the system
Micro inverters produce more energy
While these inverter types have many benefits when compared to string inverters, they are more expensive, making them better-suited for projects with a higher budget.
Power optimisers are a hybridised version of string inverters and micro inverters.
These inverter types are also connected to each panel, and work by moving the DC current from the solar panel to individual string converters.
Power optimisers offer the same benefits as micro inverter systems, however they are commonly less expensive.
Hybrid inverters are complex inverter types which allow the system to either sell excess electricity back into the grid, or store electricity in a battery.
By powering a battery, hybrid inverter systems can power your home or business, even when the solar panels are receiving little or no sunshine.
Hybrid inverters are a fairly new piece of technology, however they are becoming a far more common option for home and business owners looking to install solar systems.
Inverters are critical components to any solar panel installation.
Without an inverter, your solar system will only be able to generate direct current, a far less common current type than alternating current.
While a system can still run with direct current, without a converter, it will not be able to power the devices in your home or business.
A 756-1000W inverter is commonly needed to run a house.
An inverter of this size should be enough to protect against overload and short circuits.
Yes, solar inverters turn off at night.
This is due to the fact that the panels are not receiving any current from the Sun.
The main disadvantage of using a solar inverter is that they’re expensive.
Solar inverters last between 10-15 years.
This is, however, depending on the quality of your inverter.
Yes, you can add more batteries to your solar inverter.
This is done by using a process called AC coupling.
Solar panels and PV systems all need inverters to power AC devices for homes and businesses.
There are 3 major types of inverter. The inverter type you use depends on the specifications of your installation.
If you’re thinking of installing a PV system, but not sure where to start, call Urban Eden today for a free consultation!
“What’s an inverter and how do they work?”
This is a common question one asks when installing a PV system.
If you’re planning a PV installation for your home or business, and trying to understand the role inverters play in PV systems, read on…
In this article, we’ll uncover:
What an inverter is
How inverters work
The main components of an inverter
Where inverters are used
The different types of inverters
The benefits of having an inverter
Inverters are highly complex and powerful structures which are used in all solar systems.
But what exactly is an inverter and how does an inverter work?
An inverter is an electrical device that converts direct current (DC) to alternating current (AC).
The main difference between DC and AC is the direction of the current’s flow. DC current flows in 1 direction, while alternating current changes direction periodically.
Inverters do not provide any power, but rather convert existing DC to AC.
Inverters work by performing electrical conversions from direct current to alternating voltage by switching the voltage of the direct current input back and forth at a rapid speed.
In doing so, the inverter creates an AC output.
Solar panels are an example of a source which uses direct current.
By converting this direct current into alternating current, the electrical energy can be used to power appliances and electronic devices.
Inverters are made up of 6 major components, including:
Oscillators
Control circuits
Driver circuits
Switching devices
Transformers
Inverters use this collection of parts to convert DC current to alternating voltage.
Below is a breakdown of the different components of an inverter:
An oscillator is an electrical circuit which produces a periodic, back-and-forth signal.
The signal is commonly in the form of a sin wave, square wave, or triangle wave.
The oscillator is the most crucial component of any inverter system, as its main objective in the circuit is to convert the direct current into alternating current.
Control circuits are used as a safety device to ensure that a motor stops and starts in a safe manner for both the electric system, as well as the operator.
There are 2 main types of control circuit: 2-wire control circuits, and 3-wire control circuits.
A 2-wire control circuit is a switch which operates in 2 directions. A common example of this is a light switch.
3-wire control circuits, on the other hand, have 3 operations:
A closed-stop button (STOP)
A normally open start button (START)
Sealing contact (M)
Once the START button has been pressed, current is fed through the motor.
Driver circuits are used to control separate circuits.
Ultimately, driver circuits are used to regulate current flow, and are commonly used to control switching devices.
A common example of a driver circuit is an amplifier found in loudspeakers.
Switching devices are used to divert electrical current from one conductor to another.
Switching devices are known as binary devices, as they can either be ON or OFF.
Switches are mechanical devices, and rely on external forces to change electrical signal.
Transformers are passive electrical components which transfer electrical energy from one electrical circuit to another circuit.
Transformers are also able to transfer current from one circuit to multiple circuits if need be.
Inverters are used in many electronic systems, as they are very powerful and versatile devices.
Some common uses of inverters include:
Solar power systems
Uninterrupted power supplies (UPS)
Fans
Pumps
Fluorescent lights
Most household appliances use alternating current in order to function, which is why inverters are so useful.
Any kind of device which needs to generate alternating current from direct current needs an inverter.
The opposite of an inverter is called a rectifier, which transfers current from AC to DC.
The types of inverters found in solar systems include:
String inverters
Micro inverters
Power optimisers
But what’s the difference between these inverter types and how do they function?
String inverters are inverters which are connected to a group of solar panels which are aligned in a string formation.
String inverters are the original inverter types, and have been used for decades.
The major pitfall of a string inverter is that if 1 panel in the string is negatively affected, the efficiency of the entire system is reduced.
Micro inverters are a collection of smaller inverter systems which are individually connected to each solar panel.
The major benefit of a micro inverter system is that when one panel is damaged or in shade, the entire system is not affected.
This benefit makes micro inverters more common in residential solar systems.
Micro Inverters have the following benefits:
The performance of individual panels can be measured
More panels can be fitted in the system
Micro inverters produce more energy
While these inverter types have many benefits when compared to string inverters, they are more expensive, making them better-suited for projects with a higher budget.
Power optimisers are a hybridised version of string inverters and micro inverters.
These inverter types are also connected to each panel, and work by moving the DC current from the solar panel to individual string converters.
Power optimisers offer the same benefits as micro inverter systems, however they are commonly less expensive.
Hybrid inverters are complex inverter types which allow the system to either sell excess electricity back into the grid, or store electricity in a battery.
By powering a battery, hybrid inverter systems can power your home or business, even when the solar panels are receiving little or no sunshine.
Hybrid inverters are a fairly new piece of technology, however they are becoming a far more common option for home and business owners looking to install solar systems.
Inverters are critical components to any solar panel installation.
Without an inverter, your solar system will only be able to generate direct current, a far less common current type than alternating current.
While a system can still run with direct current, without a converter, it will not be able to power the devices in your home or business.
A 756-1000W inverter is commonly needed to run a house.
An inverter of this size should be enough to protect against overload and short circuits.
Yes, solar inverters turn off at night.
This is due to the fact that the panels are not receiving any current from the Sun.
The main disadvantage of using a solar inverter is that they’re expensive.
Solar inverters last between 10-15 years.
This is, however, depending on the quality of your inverter.
Yes, you can add more batteries to your solar inverter.
This is done by using a process called AC coupling.
Solar panels and PV systems all need inverters to power AC devices for homes and businesses.
There are 3 major types of inverter. The inverter type you use depends on the specifications of your installation.
If you’re thinking of installing a PV system, but not sure where to start, call Urban Eden today for a free consultation!
“What’s an inverter and how do they work?”
This is a common question one asks when installing a PV system.
If you’re planning a PV installation for your home or business, and trying to understand the role inverters play in PV systems, read on…
In this article, we’ll uncover:
What an inverter is
How inverters work
The main components of an inverter
Where inverters are used
The different types of inverters
The benefits of having an inverter
Inverters are highly complex and powerful structures which are used in all solar systems.
But what exactly is an inverter and how does an inverter work?
An inverter is an electrical device that converts direct current (DC) to alternating current (AC).
The main difference between DC and AC is the direction of the current’s flow. DC current flows in 1 direction, while alternating current changes direction periodically.
Inverters do not provide any power, but rather convert existing DC to AC.
Inverters work by performing electrical conversions from direct current to alternating voltage by switching the voltage of the direct current input back and forth at a rapid speed.
In doing so, the inverter creates an AC output.
Solar panels are an example of a source which uses direct current.
By converting this direct current into alternating current, the electrical energy can be used to power appliances and electronic devices.
Inverters are made up of 6 major components, including:
Oscillators
Control circuits
Driver circuits
Switching devices
Transformers
Inverters use this collection of parts to convert DC current to alternating voltage.
Below is a breakdown of the different components of an inverter:
An oscillator is an electrical circuit which produces a periodic, back-and-forth signal.
The signal is commonly in the form of a sin wave, square wave, or triangle wave.
The oscillator is the most crucial component of any inverter system, as its main objective in the circuit is to convert the direct current into alternating current.
Control circuits are used as a safety device to ensure that a motor stops and starts in a safe manner for both the electric system, as well as the operator.
There are 2 main types of control circuit: 2-wire control circuits, and 3-wire control circuits.
A 2-wire control circuit is a switch which operates in 2 directions. A common example of this is a light switch.
3-wire control circuits, on the other hand, have 3 operations:
A closed-stop button (STOP)
A normally open start button (START)
Sealing contact (M)
Once the START button has been pressed, current is fed through the motor.
Driver circuits are used to control separate circuits.
Ultimately, driver circuits are used to regulate current flow, and are commonly used to control switching devices.
A common example of a driver circuit is an amplifier found in loudspeakers.
Switching devices are used to divert electrical current from one conductor to another.
Switching devices are known as binary devices, as they can either be ON or OFF.
Switches are mechanical devices, and rely on external forces to change electrical signal.
Transformers are passive electrical components which transfer electrical energy from one electrical circuit to another circuit.
Transformers are also able to transfer current from one circuit to multiple circuits if need be.
Inverters are used in many electronic systems, as they are very powerful and versatile devices.
Some common uses of inverters include:
Solar power systems
Uninterrupted power supplies (UPS)
Fans
Pumps
Fluorescent lights
Most household appliances use alternating current in order to function, which is why inverters are so useful.
Any kind of device which needs to generate alternating current from direct current needs an inverter.
The opposite of an inverter is called a rectifier, which transfers current from AC to DC.
The types of inverters found in solar systems include:
String inverters
Micro inverters
Power optimisers
But what’s the difference between these inverter types and how do they function?
String inverters are inverters which are connected to a group of solar panels which are aligned in a string formation.
String inverters are the original inverter types, and have been used for decades.
The major pitfall of a string inverter is that if 1 panel in the string is negatively affected, the efficiency of the entire system is reduced.
Micro inverters are a collection of smaller inverter systems which are individually connected to each solar panel.
The major benefit of a micro inverter system is that when one panel is damaged or in shade, the entire system is not affected.
This benefit makes micro inverters more common in residential solar systems.
Micro Inverters have the following benefits:
The performance of individual panels can be measured
More panels can be fitted in the system
Micro inverters produce more energy
While these inverter types have many benefits when compared to string inverters, they are more expensive, making them better-suited for projects with a higher budget.
Power optimisers are a hybridised version of string inverters and micro inverters.
These inverter types are also connected to each panel, and work by moving the DC current from the solar panel to individual string converters.
Power optimisers offer the same benefits as micro inverter systems, however they are commonly less expensive.
Hybrid inverters are complex inverter types which allow the system to either sell excess electricity back into the grid, or store electricity in a battery.
By powering a battery, hybrid inverter systems can power your home or business, even when the solar panels are receiving little or no sunshine.
Hybrid inverters are a fairly new piece of technology, however they are becoming a far more common option for home and business owners looking to install solar systems.
Inverters are critical components to any solar panel installation.
Without an inverter, your solar system will only be able to generate direct current, a far less common current type than alternating current.
While a system can still run with direct current, without a converter, it will not be able to power the devices in your home or business.
A 756-1000W inverter is commonly needed to run a house.
An inverter of this size should be enough to protect against overload and short circuits.
Yes, solar inverters turn off at night.
This is due to the fact that the panels are not receiving any current from the Sun.
The main disadvantage of using a solar inverter is that they’re expensive.
Solar inverters last between 10-15 years.
This is, however, depending on the quality of your inverter.
Yes, you can add more batteries to your solar inverter.
This is done by using a process called AC coupling.
Solar panels and PV systems all need inverters to power AC devices for homes and businesses.
There are 3 major types of inverter. The inverter type you use depends on the specifications of your installation.
If you’re thinking of installing a PV system, but not sure where to start, call Urban Eden today for a free consultation!
“What’s an inverter and how do they work?”
This is a common question one asks when installing a PV system.
If you’re planning a PV installation for your home or business, and trying to understand the role inverters play in PV systems, read on…
In this article, we’ll uncover:
What an inverter is
How inverters work
The main components of an inverter
Where inverters are used
The different types of inverters
The benefits of having an inverter
Inverters are highly complex and powerful structures which are used in all solar systems.
But what exactly is an inverter and how does an inverter work?
An inverter is an electrical device that converts direct current (DC) to alternating current (AC).
The main difference between DC and AC is the direction of the current’s flow. DC current flows in 1 direction, while alternating current changes direction periodically.
Inverters do not provide any power, but rather convert existing DC to AC.
Inverters work by performing electrical conversions from direct current to alternating voltage by switching the voltage of the direct current input back and forth at a rapid speed.
In doing so, the inverter creates an AC output.
Solar panels are an example of a source which uses direct current.
By converting this direct current into alternating current, the electrical energy can be used to power appliances and electronic devices.
Inverters are made up of 6 major components, including:
Oscillators
Control circuits
Driver circuits
Switching devices
Transformers
Inverters use this collection of parts to convert DC current to alternating voltage.
Below is a breakdown of the different components of an inverter:
An oscillator is an electrical circuit which produces a periodic, back-and-forth signal.
The signal is commonly in the form of a sin wave, square wave, or triangle wave.
The oscillator is the most crucial component of any inverter system, as its main objective in the circuit is to convert the direct current into alternating current.
Control circuits are used as a safety device to ensure that a motor stops and starts in a safe manner for both the electric system, as well as the operator.
There are 2 main types of control circuit: 2-wire control circuits, and 3-wire control circuits.
A 2-wire control circuit is a switch which operates in 2 directions. A common example of this is a light switch.
3-wire control circuits, on the other hand, have 3 operations:
A closed-stop button (STOP)
A normally open start button (START)
Sealing contact (M)
Once the START button has been pressed, current is fed through the motor.
Driver circuits are used to control separate circuits.
Ultimately, driver circuits are used to regulate current flow, and are commonly used to control switching devices.
A common example of a driver circuit is an amplifier found in loudspeakers.
Switching devices are used to divert electrical current from one conductor to another.
Switching devices are known as binary devices, as they can either be ON or OFF.
Switches are mechanical devices, and rely on external forces to change electrical signal.
Transformers are passive electrical components which transfer electrical energy from one electrical circuit to another circuit.
Transformers are also able to transfer current from one circuit to multiple circuits if need be.
Inverters are used in many electronic systems, as they are very powerful and versatile devices.
Some common uses of inverters include:
Solar power systems
Uninterrupted power supplies (UPS)
Fans
Pumps
Fluorescent lights
Most household appliances use alternating current in order to function, which is why inverters are so useful.
Any kind of device which needs to generate alternating current from direct current needs an inverter.
The opposite of an inverter is called a rectifier, which transfers current from AC to DC.
The types of inverters found in solar systems include:
String inverters
Micro inverters
Power optimisers
But what’s the difference between these inverter types and how do they function?
String inverters are inverters which are connected to a group of solar panels which are aligned in a string formation.
String inverters are the original inverter types, and have been used for decades.
The major pitfall of a string inverter is that if 1 panel in the string is negatively affected, the efficiency of the entire system is reduced.
Micro inverters are a collection of smaller inverter systems which are individually connected to each solar panel.
The major benefit of a micro inverter system is that when one panel is damaged or in shade, the entire system is not affected.
This benefit makes micro inverters more common in residential solar systems.
Micro Inverters have the following benefits:
The performance of individual panels can be measured
More panels can be fitted in the system
Micro inverters produce more energy
While these inverter types have many benefits when compared to string inverters, they are more expensive, making them better-suited for projects with a higher budget.
Power optimisers are a hybridised version of string inverters and micro inverters.
These inverter types are also connected to each panel, and work by moving the DC current from the solar panel to individual string converters.
Power optimisers offer the same benefits as micro inverter systems, however they are commonly less expensive.
Hybrid inverters are complex inverter types which allow the system to either sell excess electricity back into the grid, or store electricity in a battery.
By powering a battery, hybrid inverter systems can power your home or business, even when the solar panels are receiving little or no sunshine.
Hybrid inverters are a fairly new piece of technology, however they are becoming a far more common option for home and business owners looking to install solar systems.
Inverters are critical components to any solar panel installation.
Without an inverter, your solar system will only be able to generate direct current, a far less common current type than alternating current.
While a system can still run with direct current, without a converter, it will not be able to power the devices in your home or business.
A 756-1000W inverter is commonly needed to run a house.
An inverter of this size should be enough to protect against overload and short circuits.
Yes, solar inverters turn off at night.
This is due to the fact that the panels are not receiving any current from the Sun.
The main disadvantage of using a solar inverter is that they’re expensive.
Solar inverters last between 10-15 years.
This is, however, depending on the quality of your inverter.
Yes, you can add more batteries to your solar inverter.
This is done by using a process called AC coupling.
Solar panels and PV systems all need inverters to power AC devices for homes and businesses.
There are 3 major types of inverter. The inverter type you use depends on the specifications of your installation.
If you’re thinking of installing a PV system, but not sure where to start, call Urban Eden today for a free consultation!
“What’s an inverter and how do they work?”
This is a common question one asks when installing a PV system.
If you’re planning a PV installation for your home or business, and trying to understand the role inverters play in PV systems, read on…
In this article, we’ll uncover:
What an inverter is
How inverters work
The main components of an inverter
Where inverters are used
The different types of inverters
The benefits of having an inverter
Inverters are highly complex and powerful structures which are used in all solar systems.
But what exactly is an inverter and how does an inverter work?
An inverter is an electrical device that converts direct current (DC) to alternating current (AC).
The main difference between DC and AC is the direction of the current’s flow. DC current flows in 1 direction, while alternating current changes direction periodically.
Inverters do not provide any power, but rather convert existing DC to AC.
Inverters work by performing electrical conversions from direct current to alternating voltage by switching the voltage of the direct current input back and forth at a rapid speed.
In doing so, the inverter creates an AC output.
Solar panels are an example of a source which uses direct current.
By converting this direct current into alternating current, the electrical energy can be used to power appliances and electronic devices.
Inverters are made up of 6 major components, including:
Oscillators
Control circuits
Driver circuits
Switching devices
Transformers
Inverters use this collection of parts to convert DC current to alternating voltage.
Below is a breakdown of the different components of an inverter:
An oscillator is an electrical circuit which produces a periodic, back-and-forth signal.
The signal is commonly in the form of a sin wave, square wave, or triangle wave.
The oscillator is the most crucial component of any inverter system, as its main objective in the circuit is to convert the direct current into alternating current.
Control circuits are used as a safety device to ensure that a motor stops and starts in a safe manner for both the electric system, as well as the operator.
There are 2 main types of control circuit: 2-wire control circuits, and 3-wire control circuits.
A 2-wire control circuit is a switch which operates in 2 directions. A common example of this is a light switch.
3-wire control circuits, on the other hand, have 3 operations:
A closed-stop button (STOP)
A normally open start button (START)
Sealing contact (M)
Once the START button has been pressed, current is fed through the motor.
Driver circuits are used to control separate circuits.
Ultimately, driver circuits are used to regulate current flow, and are commonly used to control switching devices.
A common example of a driver circuit is an amplifier found in loudspeakers.
Switching devices are used to divert electrical current from one conductor to another.
Switching devices are known as binary devices, as they can either be ON or OFF.
Switches are mechanical devices, and rely on external forces to change electrical signal.
Transformers are passive electrical components which transfer electrical energy from one electrical circuit to another circuit.
Transformers are also able to transfer current from one circuit to multiple circuits if need be.
Inverters are used in many electronic systems, as they are very powerful and versatile devices.
Some common uses of inverters include:
Solar power systems
Uninterrupted power supplies (UPS)
Fans
Pumps
Fluorescent lights
Most household appliances use alternating current in order to function, which is why inverters are so useful.
Any kind of device which needs to generate alternating current from direct current needs an inverter.
The opposite of an inverter is called a rectifier, which transfers current from AC to DC.
The types of inverters found in solar systems include:
String inverters
Micro inverters
Power optimisers
But what’s the difference between these inverter types and how do they function?
String inverters are inverters which are connected to a group of solar panels which are aligned in a string formation.
String inverters are the original inverter types, and have been used for decades.
The major pitfall of a string inverter is that if 1 panel in the string is negatively affected, the efficiency of the entire system is reduced.
Micro inverters are a collection of smaller inverter systems which are individually connected to each solar panel.
The major benefit of a micro inverter system is that when one panel is damaged or in shade, the entire system is not affected.
This benefit makes micro inverters more common in residential solar systems.
Micro Inverters have the following benefits:
The performance of individual panels can be measured
More panels can be fitted in the system
Micro inverters produce more energy
While these inverter types have many benefits when compared to string inverters, they are more expensive, making them better-suited for projects with a higher budget.
Power optimisers are a hybridised version of string inverters and micro inverters.
These inverter types are also connected to each panel, and work by moving the DC current from the solar panel to individual string converters.
Power optimisers offer the same benefits as micro inverter systems, however they are commonly less expensive.
Hybrid inverters are complex inverter types which allow the system to either sell excess electricity back into the grid, or store electricity in a battery.
By powering a battery, hybrid inverter systems can power your home or business, even when the solar panels are receiving little or no sunshine.
Hybrid inverters are a fairly new piece of technology, however they are becoming a far more common option for home and business owners looking to install solar systems.
Inverters are critical components to any solar panel installation.
Without an inverter, your solar system will only be able to generate direct current, a far less common current type than alternating current.
While a system can still run with direct current, without a converter, it will not be able to power the devices in your home or business.
A 756-1000W inverter is commonly needed to run a house.
An inverter of this size should be enough to protect against overload and short circuits.
Yes, solar inverters turn off at night.
This is due to the fact that the panels are not receiving any current from the Sun.
The main disadvantage of using a solar inverter is that they’re expensive.
Solar inverters last between 10-15 years.
This is, however, depending on the quality of your inverter.
Yes, you can add more batteries to your solar inverter.
This is done by using a process called AC coupling.
Solar panels and PV systems all need inverters to power AC devices for homes and businesses.
There are 3 major types of inverter. The inverter type you use depends on the specifications of your installation.
If you’re thinking of installing a PV system, but not sure where to start, call Urban Eden today for a free consultation!
“What’s an inverter and how do they work?”
This is a common question one asks when installing a PV system.
If you’re planning a PV installation for your home or business, and trying to understand the role inverters play in PV systems, read on…
In this article, we’ll uncover:
What an inverter is
How inverters work
The main components of an inverter
Where inverters are used
The different types of inverters
The benefits of having an inverter
Inverters are highly complex and powerful structures which are used in all solar systems.
But what exactly is an inverter and how does an inverter work?
An inverter is an electrical device that converts direct current (DC) to alternating current (AC).
The main difference between DC and AC is the direction of the current’s flow. DC current flows in 1 direction, while alternating current changes direction periodically.
Inverters do not provide any power, but rather convert existing DC to AC.
Inverters work by performing electrical conversions from direct current to alternating voltage by switching the voltage of the direct current input back and forth at a rapid speed.
In doing so, the inverter creates an AC output.
Solar panels are an example of a source which uses direct current.
By converting this direct current into alternating current, the electrical energy can be used to power appliances and electronic devices.
Inverters are made up of 6 major components, including:
Oscillators
Control circuits
Driver circuits
Switching devices
Transformers
Inverters use this collection of parts to convert DC current to alternating voltage.
Below is a breakdown of the different components of an inverter:
An oscillator is an electrical circuit which produces a periodic, back-and-forth signal.
The signal is commonly in the form of a sin wave, square wave, or triangle wave.
The oscillator is the most crucial component of any inverter system, as its main objective in the circuit is to convert the direct current into alternating current.
Control circuits are used as a safety device to ensure that a motor stops and starts in a safe manner for both the electric system, as well as the operator.
There are 2 main types of control circuit: 2-wire control circuits, and 3-wire control circuits.
A 2-wire control circuit is a switch which operates in 2 directions. A common example of this is a light switch.
3-wire control circuits, on the other hand, have 3 operations:
A closed-stop button (STOP)
A normally open start button (START)
Sealing contact (M)
Once the START button has been pressed, current is fed through the motor.
Driver circuits are used to control separate circuits.
Ultimately, driver circuits are used to regulate current flow, and are commonly used to control switching devices.
A common example of a driver circuit is an amplifier found in loudspeakers.
Switching devices are used to divert electrical current from one conductor to another.
Switching devices are known as binary devices, as they can either be ON or OFF.
Switches are mechanical devices, and rely on external forces to change electrical signal.
Transformers are passive electrical components which transfer electrical energy from one electrical circuit to another circuit.
Transformers are also able to transfer current from one circuit to multiple circuits if need be.
Inverters are used in many electronic systems, as they are very powerful and versatile devices.
Some common uses of inverters include:
Solar power systems
Uninterrupted power supplies (UPS)
Fans
Pumps
Fluorescent lights
Most household appliances use alternating current in order to function, which is why inverters are so useful.
Any kind of device which needs to generate alternating current from direct current needs an inverter.
The opposite of an inverter is called a rectifier, which transfers current from AC to DC.
The types of inverters found in solar systems include:
String inverters
Micro inverters
Power optimisers
But what’s the difference between these inverter types and how do they function?
String inverters are inverters which are connected to a group of solar panels which are aligned in a string formation.
String inverters are the original inverter types, and have been used for decades.
The major pitfall of a string inverter is that if 1 panel in the string is negatively affected, the efficiency of the entire system is reduced.
Micro inverters are a collection of smaller inverter systems which are individually connected to each solar panel.
The major benefit of a micro inverter system is that when one panel is damaged or in shade, the entire system is not affected.
This benefit makes micro inverters more common in residential solar systems.
Micro Inverters have the following benefits:
The performance of individual panels can be measured
More panels can be fitted in the system
Micro inverters produce more energy
While these inverter types have many benefits when compared to string inverters, they are more expensive, making them better-suited for projects with a higher budget.
Power optimisers are a hybridised version of string inverters and micro inverters.
These inverter types are also connected to each panel, and work by moving the DC current from the solar panel to individual string converters.
Power optimisers offer the same benefits as micro inverter systems, however they are commonly less expensive.
Hybrid inverters are complex inverter types which allow the system to either sell excess electricity back into the grid, or store electricity in a battery.
By powering a battery, hybrid inverter systems can power your home or business, even when the solar panels are receiving little or no sunshine.
Hybrid inverters are a fairly new piece of technology, however they are becoming a far more common option for home and business owners looking to install solar systems.
Inverters are critical components to any solar panel installation.
Without an inverter, your solar system will only be able to generate direct current, a far less common current type than alternating current.
While a system can still run with direct current, without a converter, it will not be able to power the devices in your home or business.
A 756-1000W inverter is commonly needed to run a house.
An inverter of this size should be enough to protect against overload and short circuits.
Yes, solar inverters turn off at night.
This is due to the fact that the panels are not receiving any current from the Sun.
The main disadvantage of using a solar inverter is that they’re expensive.
Solar inverters last between 10-15 years.
This is, however, depending on the quality of your inverter.
Yes, you can add more batteries to your solar inverter.
This is done by using a process called AC coupling.
Solar panels and PV systems all need inverters to power AC devices for homes and businesses.
There are 3 major types of inverter. The inverter type you use depends on the specifications of your installation.
If you’re thinking of installing a PV system, but not sure where to start, call Urban Eden today for a free consultation!
“What’s an inverter and how do they work?”
This is a common question one asks when installing a PV system.
If you’re planning a PV installation for your home or business, and trying to understand the role inverters play in PV systems, read on…
In this article, we’ll uncover:
What an inverter is
How inverters work
The main components of an inverter
Where inverters are used
The different types of inverters
The benefits of having an inverter
Inverters are highly complex and powerful structures which are used in all solar systems.
But what exactly is an inverter and how does an inverter work?
An inverter is an electrical device that converts direct current (DC) to alternating current (AC).
The main difference between DC and AC is the direction of the current’s flow. DC current flows in 1 direction, while alternating current changes direction periodically.
Inverters do not provide any power, but rather convert existing DC to AC.
Inverters work by performing electrical conversions from direct current to alternating voltage by switching the voltage of the direct current input back and forth at a rapid speed.
In doing so, the inverter creates an AC output.
Solar panels are an example of a source which uses direct current.
By converting this direct current into alternating current, the electrical energy can be used to power appliances and electronic devices.
Inverters are made up of 6 major components, including:
Oscillators
Control circuits
Driver circuits
Switching devices
Transformers
Inverters use this collection of parts to convert DC current to alternating voltage.
Below is a breakdown of the different components of an inverter:
An oscillator is an electrical circuit which produces a periodic, back-and-forth signal.
The signal is commonly in the form of a sin wave, square wave, or triangle wave.
The oscillator is the most crucial component of any inverter system, as its main objective in the circuit is to convert the direct current into alternating current.
Control circuits are used as a safety device to ensure that a motor stops and starts in a safe manner for both the electric system, as well as the operator.
There are 2 main types of control circuit: 2-wire control circuits, and 3-wire control circuits.
A 2-wire control circuit is a switch which operates in 2 directions. A common example of this is a light switch.
3-wire control circuits, on the other hand, have 3 operations:
A closed-stop button (STOP)
A normally open start button (START)
Sealing contact (M)
Once the START button has been pressed, current is fed through the motor.
Driver circuits are used to control separate circuits.
Ultimately, driver circuits are used to regulate current flow, and are commonly used to control switching devices.
A common example of a driver circuit is an amplifier found in loudspeakers.
Switching devices are used to divert electrical current from one conductor to another.
Switching devices are known as binary devices, as they can either be ON or OFF.
Switches are mechanical devices, and rely on external forces to change electrical signal.
Transformers are passive electrical components which transfer electrical energy from one electrical circuit to another circuit.
Transformers are also able to transfer current from one circuit to multiple circuits if need be.
Inverters are used in many electronic systems, as they are very powerful and versatile devices.
Some common uses of inverters include:
Solar power systems
Uninterrupted power supplies (UPS)
Fans
Pumps
Fluorescent lights
Most household appliances use alternating current in order to function, which is why inverters are so useful.
Any kind of device which needs to generate alternating current from direct current needs an inverter.
The opposite of an inverter is called a rectifier, which transfers current from AC to DC.
The types of inverters found in solar systems include:
String inverters
Micro inverters
Power optimisers
But what’s the difference between these inverter types and how do they function?
String inverters are inverters which are connected to a group of solar panels which are aligned in a string formation.
String inverters are the original inverter types, and have been used for decades.
The major pitfall of a string inverter is that if 1 panel in the string is negatively affected, the efficiency of the entire system is reduced.
Micro inverters are a collection of smaller inverter systems which are individually connected to each solar panel.
The major benefit of a micro inverter system is that when one panel is damaged or in shade, the entire system is not affected.
This benefit makes micro inverters more common in residential solar systems.
Micro Inverters have the following benefits:
The performance of individual panels can be measured
More panels can be fitted in the system
Micro inverters produce more energy
While these inverter types have many benefits when compared to string inverters, they are more expensive, making them better-suited for projects with a higher budget.
Power optimisers are a hybridised version of string inverters and micro inverters.
These inverter types are also connected to each panel, and work by moving the DC current from the solar panel to individual string converters.
Power optimisers offer the same benefits as micro inverter systems, however they are commonly less expensive.
Hybrid inverters are complex inverter types which allow the system to either sell excess electricity back into the grid, or store electricity in a battery.
By powering a battery, hybrid inverter systems can power your home or business, even when the solar panels are receiving little or no sunshine.
Hybrid inverters are a fairly new piece of technology, however they are becoming a far more common option for home and business owners looking to install solar systems.
Inverters are critical components to any solar panel installation.
Without an inverter, your solar system will only be able to generate direct current, a far less common current type than alternating current.
While a system can still run with direct current, without a converter, it will not be able to power the devices in your home or business.
A 756-1000W inverter is commonly needed to run a house.
An inverter of this size should be enough to protect against overload and short circuits.
Yes, solar inverters turn off at night.
This is due to the fact that the panels are not receiving any current from the Sun.
The main disadvantage of using a solar inverter is that they’re expensive.
Solar inverters last between 10-15 years.
This is, however, depending on the quality of your inverter.
Yes, you can add more batteries to your solar inverter.
This is done by using a process called AC coupling.
Solar panels and PV systems all need inverters to power AC devices for homes and businesses.
There are 3 major types of inverter. The inverter type you use depends on the specifications of your installation.
If you’re thinking of installing a PV system, but not sure where to start, call Urban Eden today for a free consultation!
“What’s an inverter and how do they work?”
This is a common question one asks when installing a PV system.
If you’re planning a PV installation for your home or business, and trying to understand the role inverters play in PV systems, read on…
In this article, we’ll uncover:
What an inverter is
How inverters work
The main components of an inverter
Where inverters are used
The different types of inverters
The benefits of having an inverter
Inverters are highly complex and powerful structures which are used in all solar systems.
But what exactly is an inverter and how does an inverter work?
An inverter is an electrical device that converts direct current (DC) to alternating current (AC).
The main difference between DC and AC is the direction of the current’s flow. DC current flows in 1 direction, while alternating current changes direction periodically.
Inverters do not provide any power, but rather convert existing DC to AC.
Inverters work by performing electrical conversions from direct current to alternating voltage by switching the voltage of the direct current input back and forth at a rapid speed.
In doing so, the inverter creates an AC output.
Solar panels are an example of a source which uses direct current.
By converting this direct current into alternating current, the electrical energy can be used to power appliances and electronic devices.
Inverters are made up of 6 major components, including:
Oscillators
Control circuits
Driver circuits
Switching devices
Transformers
Inverters use this collection of parts to convert DC current to alternating voltage.
Below is a breakdown of the different components of an inverter:
An oscillator is an electrical circuit which produces a periodic, back-and-forth signal.
The signal is commonly in the form of a sin wave, square wave, or triangle wave.
The oscillator is the most crucial component of any inverter system, as its main objective in the circuit is to convert the direct current into alternating current.
Control circuits are used as a safety device to ensure that a motor stops and starts in a safe manner for both the electric system, as well as the operator.
There are 2 main types of control circuit: 2-wire control circuits, and 3-wire control circuits.
A 2-wire control circuit is a switch which operates in 2 directions. A common example of this is a light switch.
3-wire control circuits, on the other hand, have 3 operations:
A closed-stop button (STOP)
A normally open start button (START)
Sealing contact (M)
Once the START button has been pressed, current is fed through the motor.
Driver circuits are used to control separate circuits.
Ultimately, driver circuits are used to regulate current flow, and are commonly used to control switching devices.
A common example of a driver circuit is an amplifier found in loudspeakers.
Switching devices are used to divert electrical current from one conductor to another.
Switching devices are known as binary devices, as they can either be ON or OFF.
Switches are mechanical devices, and rely on external forces to change electrical signal.
Transformers are passive electrical components which transfer electrical energy from one electrical circuit to another circuit.
Transformers are also able to transfer current from one circuit to multiple circuits if need be.
Inverters are used in many electronic systems, as they are very powerful and versatile devices.
Some common uses of inverters include:
Solar power systems
Uninterrupted power supplies (UPS)
Fans
Pumps
Fluorescent lights
Most household appliances use alternating current in order to function, which is why inverters are so useful.
Any kind of device which needs to generate alternating current from direct current needs an inverter.
The opposite of an inverter is called a rectifier, which transfers current from AC to DC.
The types of inverters found in solar systems include:
String inverters
Micro inverters
Power optimisers
But what’s the difference between these inverter types and how do they function?
String inverters are inverters which are connected to a group of solar panels which are aligned in a string formation.
String inverters are the original inverter types, and have been used for decades.
The major pitfall of a string inverter is that if 1 panel in the string is negatively affected, the efficiency of the entire system is reduced.
Micro inverters are a collection of smaller inverter systems which are individually connected to each solar panel.
The major benefit of a micro inverter system is that when one panel is damaged or in shade, the entire system is not affected.
This benefit makes micro inverters more common in residential solar systems.
Micro Inverters have the following benefits:
The performance of individual panels can be measured
More panels can be fitted in the system
Micro inverters produce more energy
While these inverter types have many benefits when compared to string inverters, they are more expensive, making them better-suited for projects with a higher budget.
Power optimisers are a hybridised version of string inverters and micro inverters.
These inverter types are also connected to each panel, and work by moving the DC current from the solar panel to individual string converters.
Power optimisers offer the same benefits as micro inverter systems, however they are commonly less expensive.
Hybrid inverters are complex inverter types which allow the system to either sell excess electricity back into the grid, or store electricity in a battery.
By powering a battery, hybrid inverter systems can power your home or business, even when the solar panels are receiving little or no sunshine.
Hybrid inverters are a fairly new piece of technology, however they are becoming a far more common option for home and business owners looking to install solar systems.
Inverters are critical components to any solar panel installation.
Without an inverter, your solar system will only be able to generate direct current, a far less common current type than alternating current.
While a system can still run with direct current, without a converter, it will not be able to power the devices in your home or business.
A 756-1000W inverter is commonly needed to run a house.
An inverter of this size should be enough to protect against overload and short circuits.
Yes, solar inverters turn off at night.
This is due to the fact that the panels are not receiving any current from the Sun.
The main disadvantage of using a solar inverter is that they’re expensive.
Solar inverters last between 10-15 years.
This is, however, depending on the quality of your inverter.
Yes, you can add more batteries to your solar inverter.
This is done by using a process called AC coupling.
Solar panels and PV systems all need inverters to power AC devices for homes and businesses.
There are 3 major types of inverter. The inverter type you use depends on the specifications of your installation.
If you’re thinking of installing a PV system, but not sure where to start, call Urban Eden today for a free consultation!
“What’s an inverter and how do they work?”
This is a common question one asks when installing a PV system.