Electric Potential Converter - Convert Volts, kV, mV & More Units

Result:

1 V = 1000 mV

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How Electric Potential Conversion Works

1

Input Value

Enter voltage value

2

Select Units

Choose from and to units

3

Convert

Apply conversion formula

V₂ = V₁ × (f₁/f₂)
Conversion formula

Electric Potential Formulas

Volts to Millivolts

mV = V × 1000

Example: 5 V = 5 × 1000 = 5000 mV

Kilovolts to Volts

V = kV × 1000

Example: 2.5 kV = 2.5 × 1000 = 2500 V

Microvolts to Volts

V = μV ÷ 1,000,000

Example: 500 μV = 500 ÷ 1,000,000 = 0.0005 V

Megavolts to Kilovolts

kV = MV × 1000

Example: 0.1 MV = 0.1 × 1000 = 100 kV

Electric Potential Conversion Table

VkVmVμVnVMV
0.0000010.0000000.001110000.000000000
0.0010.0000011.000100010000000.000000001
0.10.000100100.0001000001000000000.000000100
10.0010001000.000100000010000000000.000001000
50.0050005000.000500000050000000000.000005000
100.01000010000.00010000000100000000000.000010000
500.05000050000.00050000000500000000000.000050000
1000.100000100000.0001000000001000000000000.000100000
5000.500000500000.0005000000005000000000000.000500000
10001.0000001000000.000100000000010000000000000.001000000
50005.0000005000000.000500000000050000000000000.005000000
1000010.00000010000000.00010000000000100000000000000.010000000
5000050.00000050000000.00050000000000500000000000000.050000000
100000100.000000100000000.0001000000000001000000000000000.100000000
10000001000.0000001000000000.000100000000000010000000000000001.000000000

Electric Potential Units Progression Chart

1 μV

V:0.000001
mV:0.001

1 mV

V:0.001000
mV:1.000

1 V

V:1.000000
mV:1000.000

1 kV

V:1000.000000
mV:1000000.000

10 kV

V:10000.000000
mV:10000000.000

100 kV

V:100000.000000
mV:100000000.000

Practice Problems

Problem 1:

Convert 12 V to millivolts

Solution: 12 × 1000 = 12,000 mV

Problem 2:

Convert 2.5 kV to volts

Solution: 2.5 × 1000 = 2500 V

Problem 3:

Convert 750 mV to volts

Solution: 750 × 0.001 = 0.75 V

Problem 4:

Convert 500 μV to millivolts

Solution: 500 × 0.000001 ÷ 0.001 = 0.5 mV

Problem 5:

Convert 0.1 MV to kilovolts

Solution: 0.1 × 1000000 ÷ 1000 = 100 kV

Daily Uses of Electric Potential

Household electrical outlets provide 120V or 240V power

Car batteries operate at 12V for starting engines

Power transmission lines carry electricity at high kilovolts

Electronic devices use millivolts for signal processing

Medical equipment measures bioelectric signals in microvolts

What is Electric Potential?

Electric potential is the amount of electric potential energy per unit charge at a specific point in an electric field. Our electric potential converter helps you easily convert between different voltage units like volts, kilovolts, millivolts, and microvolts.

The volt (V) is the standard unit for measuring electric potential. When you use a voltage converter, you're converting between different scales of this same measurement. For example, 1 kilovolt equals 1,000 volts, while 1 millivolt equals 0.001 volts.

Understanding electric potential is important in many fields. Engineers use voltage calculators daily to design circuits. Electricians need to know voltage levels for safety. Students learning about electricity benefit from using an electric potential calculator to practice conversions and understand the relationships between different units.

How to Use This Electric Potential Converter

Using our electrical unit converter is simple and fast. First, enter the voltage value you want to convert. Then select the unit you're converting from (like volts or kilovolts). Next, choose the unit you want to convert to (such as millivolts or microvolts). The converter instantly shows your result.

This voltage calculator works with all common electric potential units. You can convert volts to kilovolts for power transmission calculations. Use it to convert millivolts to volts for electronic circuit work. The tool also handles microvolts conversion for sensitive measurement applications.

Our electric potential calculator is perfect for students, engineers, and technicians. It saves time compared to manual calculations and reduces errors. The tool shows conversion formulas so you can learn while you convert.

Common Electric Potential Applications

Household and Commercial Use

• Home outlets provide 120V or 240V power for appliances

• LED lights operate at low voltages, often 12V or 24V

• Electric vehicle charging uses 240V to 800V systems

• Solar panels generate DC voltage that varies with sunlight

• Battery systems store energy at specific voltage levels

Industrial and Scientific Use

• Power transmission lines carry electricity at high kilovolts

• Electronic circuits use millivolts for signal processing

• Medical devices measure bioelectric signals in microvolts

• Laboratory equipment requires precise voltage control

• Manufacturing processes depend on stable voltage supply

Understanding Voltage Units

The volt is named after Alessandro Volta, who invented the first battery. When using a voltage converter, you work with different scales of volts. Each unit represents a different magnitude of electric potential.

Large Units

Megavolt (MV): Used for very high voltage applications like lightning or particle accelerators

Kilovolt (kV): Common in power transmission and distribution systems

Small Units

Millivolt (mV): Used in electronic circuits and sensor measurements

Microvolt (μV): Important for very sensitive measurements and biological signals

Safety and Electric Potential

Understanding voltage levels is crucial for electrical safety. Our electric potential converter helps you understand the scale of different voltages and their potential dangers or applications.

Safety Guidelines

• Voltages above 50V can be dangerous to humans

• Always use proper safety equipment when working with electricity

• High voltage systems require special training and certification

• Even low voltages can be harmful under certain conditions

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Quick Reference

📏1 meter
3.28 feet
⚖️1 kilogram
2.2 pounds
🌡️0°C
32°F
🥤1 liter
0.26 gallon