Only Two Transistors High Amp Voltage Booster Circuit.Diy DC Voltage Booster Circuit.Boost Converter
Welcome to my channel "Tech help" here you will learn how electronics is work..Here you will also learn to make diy electronics circuits, handmade crafts, new inventions, mechanical, computer software..Here you will find lots of electronics projects and handmade circuits..
Friends in this video we will learn how to make dc to dc boost converter circuit..It is a high amp dc to dc voltage booster circuit..It will easily boost 3.7v dc to 9v dc..Diy Boost converter circuit..
Imagine you want to increase the DC voltage. For example, you have a voltage 5V to 12V, or from 12V to 16V. We have many ways. In this article. Let’s try using the LM2577 IC. Let’s try using the LM2577 IC.
It is easier than other methods. It can greatly reduce your time. Of course, using IC is surely reliable, suitable for the present.
A boost converter (step-up converter) is a DC-to-DC power converter that steps up voltage (while stepping down current) from its input (supply) to its output (load). It is a class of switched-mode power supply (SMPS) containing at least two semiconductors (a diode and a transistor) and at least one energy storage element: a capacitor, inductor, or the two in combination. To reduce voltage ripple, filters made of capacitors (sometimes in combination with inductors) are normally here are only a few parts required to make a boost converter. It is less cumbersome than an AC transformer or inductor.
There are only a few parts required to make a boost converter. It is less cumbersome than an AC transformer or inductor.
They’re so simple because they were originally developed in the 1960s to power the electronics systems on aircraft. It was a requirement that these converters be as compact and as efficient as possible.
The biggest advantage boost converters offer is their high efficiency – some of them can even go up to 99%! In other words, 99% of the input energy is converted to useful output energy, only 1% is wasted.
The input could up to 12 volts. Don't apply a higher voltage or you could burn the LM2577-ADJ component. In this case, we need no external switch since the LM2577-ADJ already has it inside it. With the feedback pin connected to the output voltage divider, the LM2577-ADJ will change the width of the pulse depending on the output in order to keep it constant. In this case, use a Schottky Barrier Rectifier diode because it has a low forward voltage. This diode will live the current flow when the switch is open.
In order to study how it works, we will divide it into two states.
The ON and OFF states. In the ON part, the switch is closed as we can see in the next figure where the diode is open because the cathode voltage is higher than the anode. The key principle that drives the boost converter is the tendency of an inductor to resist changes in current by creating and destroying a magnetic field. In a boost converter, the output voltage is always higher than the input voltage. When the switch is closed, current flows through the inductor in the clockwise direction, and the inductor stores some energy by generating a magnetic field. The polarity of the left side of the inductor is positive. So in this case we obtain the current through the inductor using the next formulas.
When the switch is opened, the current will be reduced as the impedance is higher. The magnetic field previously created will be destroyed to maintain the current towards the load. Thus the polarity will be reversed (means left side of inductor will be negative now). As a result, two sources will be in series causing a higher voltage to charge the capacitor through the diode D.
In this case, the voltage across the inductor is the difference between the output voltage and the input. So once again using the next figure formulas we obtain the current of the OFF part depending on the duty cycle.
Ok, now if we want to obtain the output depending on the input and the duty cycle of the PWM all we have to do is to make the sum of the On and Off current equal to 0. That means that the On current is equal to the Off current. So that will give us the equation (ref. 3rd image).
With this component we have feedback and the output will stay the same using different loads. Just make the connections, add the input capacitor to have a steady input and you're done.
The input could up to 12 volts. Don't apply a higher voltage or you could burn the LM2577-ADJ component. In this case, we need no external switch since the LM2577-ADJ already has it inside it. With the feedback pin connected to the output voltage divider, the LM2577-ADJ will change the width of the pulse depending on the output in order to keep it constant. In this case, use a Schottky Barrier Rectifier diode because it has a low forward voltage. This diode will live the current flow n the switch is open.
Follow the below steps to assemble the device at home easily:
Download the Gerber files for the PCB from the next step in the resource section.
Go to PCBWay.com and upload the files to get your PCBs at home at a very low price. Also, you can get a $5 Welcome Bonus. They are the most cost-effective and quality-oriented PCB manufacturers. You can order your prototype PCBs in a small quantity, as small as 5 pcs of PCB. In addition to the standard PCBs, we could also support advanced PCBs, FPC/rigid-flex PCBs, and other related services.
Solder the components on the PCB as per the schematic and design shown below.
Connect the input power supply (DC) in the input terminals and using a multimeter, adjust the output voltage by adjusting the screw on the potentiometer.
Only Two Transistors High Amp Voltage Booster Circuit.Diy DC Voltage Booster Circuit.Boost Converter
Welcome to my channel "Tech help" here you will learn how electronics is work..Here you will also learn to make diy electronics circuits, handmade crafts, new inventions, mechanical, computer software..Here you will find lots of electronics projects and handmade circuits..
Friends in this video we will learn how to make dc to dc boost converter circuit..It is a high amp dc to dc voltage booster circuit..It will easily boost 3.7v dc to 9v dc..Diy Boost converter circuit..
Imagine you want to increase the DC voltage. For example, you have a voltage 5V to 12V, or from 12V to 16V. We have many ways. In this article. Let’s try using the LM2577 IC. Let’s try using the LM2577 IC.
It is easier than other methods. It can greatly reduce your time. Of course, using IC is surely reliable, suitable for the present.
A boost converter (step-up converter) is a DC-to-DC power converter that steps up voltage (while stepping down current) from its input (supply) to its output (load). It is a class of switched-mode power supply (SMPS) containing at least two semiconductors (a diode and a transistor) and at least one energy storage element: a capacitor, inductor, or the two in combination. To reduce voltage ripple, filters made of capacitors (sometimes in combination with inductors) are normally here are only a few parts required to make a boost converter. It is less cumbersome than an AC transformer or inductor.
There are only a few parts required to make a boost converter. It is less cumbersome than an AC transformer or inductor.
They’re so simple because they were originally developed in the 1960s to power the electronics systems on aircraft. It was a requirement that these converters be as compact and as efficient as possible.
The biggest advantage boost converters offer is their high efficiency – some of them can even go up to 99%! In other words, 99% of the input energy is converted to useful output energy, only 1% is wasted.
The input could up to 12 volts. Don't apply a higher voltage or you could burn the LM2577-ADJ component. In this case, we need no external switch since the LM2577-ADJ already has it inside it. With the feedback pin connected to the output voltage divider, the LM2577-ADJ will change the width of the pulse depending on the output in order to keep it constant. In this case, use a Schottky Barrier Rectifier diode because it has a low forward voltage. This diode will live the current flow when the switch is open.
In order to study how it works, we will divide it into two states.
The ON and OFF states. In the ON part, the switch is closed as we can see in the next figure where the diode is open because the cathode voltage is higher than the anode. The key principle that drives the boost converter is the tendency of an inductor to resist changes in current by creating and destroying a magnetic field. In a boost converter, the output voltage is always higher than the input voltage. When the switch is closed, current flows through the inductor in the clockwise direction, and the inductor stores some energy by generating a magnetic field. The polarity of the left side of the inductor is positive. So in this case we obtain the current through the inductor using the next formulas.
When the switch is opened, the current will be reduced as the impedance is higher. The magnetic field previously created will be destroyed to maintain the current towards the load. Thus the polarity will be reversed (means left side of inductor will be negative now). As a result, two sources will be in series causing a higher voltage to charge the capacitor through the diode D.
In this case, the voltage across the inductor is the difference between the output voltage and the input. So once again using the next figure formulas we obtain the current of the OFF part depending on the duty cycle.
Ok, now if we want to obtain the output depending on the input and the duty cycle of the PWM all we have to do is to make the sum of the On and Off current equal to 0. That means that the On current is equal to the Off current. So that will give us the equation (ref. 3rd image).
With this component we have feedback and the output will stay the same using different loads. Just make the connections, add the input capacitor to have a steady input and you're done.
The input could up to 12 volts. Don't apply a higher voltage or you could burn the LM2577-ADJ component. In this case, we need no external switch since the LM2577-ADJ already has it inside it. With the feedback pin connected to the output voltage divider, the LM2577-ADJ will change the width of the pulse depending on the output in order to keep it constant. In this case, use a Schottky Barrier Rectifier diode because it has a low forward voltage. This diode will live the current flow n the switch is open.
Follow the below steps to assemble the device at home easily:
Download the Gerber files for the PCB from the next step in the resource section.
Go to PCBWay.com and upload the files to get your PCBs at home at a very low price. Also, you can get a $5 Welcome Bonus. They are the most cost-effective and quality-oriented PCB manufacturers. You can order your prototype PCBs in a small quantity, as small as 5 pcs of PCB. In addition to the standard PCBs, we could also support advanced PCBs, FPC/rigid-flex PCBs, and other related services.
Solder the components on the PCB as per the schematic and design shown below.
Connect the input power supply (DC) in the input terminals and using a multimeter, adjust the output voltage by adjusting the screw on the potentiometer.
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