A Beginner's Guide:Ampere, Watt, and Volt

A Beginner's Guide:Ampere, Watt, and Volt

An article published by Fortune magazine points out that approximately two-thirds of the population in the United States is currently at risk of power outages. Faced with such challenges, Americans did not choose to sit idly by. They chose to invest in the construction of solar power plants because electricity plays a crucial role in our lives and its existence enables us to operate normally. However, sudden power outages and power grid failures often disrupt this tranquility and plunge our lives into chaos. At the same time, solar power stations are safer, cleaner, and more reliable than traditional power grid systems. The most important thing is that as long as there is the sun, electricity can be maintained smoothly.

 

However, to ensure the stable operation of solar power plants, it is necessary for us to understand and calculate key parameters such as amperes, watts, and voltage of the power plant. The accurate grasp of these parameters is crucial for the stable operation of the equipment. This article will provide a detailed explanation of these important parameters and recommend high-performance portable power stations for everyone.

 

The connection between amperes, watts, and volts:

Ampere, watt, and volt are not directly related, but can be converted to each other based on formulas in physics.

Ampere (A) is the unit of current, watt (W) is the unit of electrical power, and volt (V) is the unit of voltage. According to the formula: Wattage=Ampere × The volt number can reveal the relationship between the three.

Wattage represents the rate of energy conversion per unit time and is a measure of the work done by the current passing through a circuit; Ampere is a measure of current that represents the amount of charge passing through a certain point per unit time; The volt number represents the work done by a charge per unit time and is a measure of voltage.

 

What is ampere?

Ampere: Ampere is the unit of current, which represents the amount of charge passing through a certain point per unit of time.

The commonly used calculation method Amps=Watts/Volts

Amps=1200W/240V=5A, the higher the value, the greater the current.

 

What is Watt?

Watt: Watt is a unit of electrical power that represents the rate of energy conversion per unit of time.

The commonly used formula Watts=Amps ×  Volts

Watts=12A ×  240V=2880W

 

What is voltage?

Volt: Volt is the unit of voltage, which represents the work done by a unit charge passing through a certain point.

The commonly used calculation method Volts=Watts/Amps

Volts=1000W/25A=40V

 

What is Ohm?

Ohm: Ohm is the unit of resistance, which represents the resistance of a unit charge passing through a certain point

Common calculation method Ohm=Volts/Amps

Ω=240V/12A=20 Ω

 

There are two standards for unidirectional voltage in American households. One is AC240V, 50HZ, which is commonly used in large household appliances such as air conditioners and refrigerators; The other type is AC120V 50HZ, usually used for small household appliances such as lighting.

 

Niuess-700Pro Portable Power Staion

 

With 720Wh Capacity and 700W inverter, the NE-700Pro weighing only 17.5lbs can power most of your outdoor essentials and home electronics such as phones, projectors, mini frees, etc.

 

With the build in MPPT controller, NE-700Pro can be charged from 0 to 80% within 1 hr by AC input It can also get fully recovered from 400W solar max or a 12V or 24V cargo.

 

The portable power station supports 10A max DC output and 1800W max AC output Built in lithium ion battery with a safe system (BMS) provides over temperature protection, short circuit protection, over power protection, over load protection, over charge protection, and over current protection LCD display shows the remaining power, and the rated power during charging, which is conservative for you to understand the condition of the machine and make a charging plan.

 

Speaking of the end:

The battery capacity, charging rate, and discharge rate of portable energy storage devices are closely related to amperes, while the power and energy of the device are closely related to watts. The voltage level of the device is closely related to volts. By using formulas for amperes, watts, voltage, and resistance, we can calculate the power consumption of electrical appliances. A backup battery with stronger power can keep our equipment working for longer periods of time, while a battery with stronger current can recharge our equipment more quickly. Once we have a clear understanding of the power required for the equipment, we can easily determine the scale of the portable power station required.