Electric current is a scalar quantity, but it possesses magnitude and direction. Why?

When 2 currents meet at a connection in the context of electric current, the resultant current is an algebraic sum, not just a vector sum. As a result, an electric current is indeed a scalar value despite having magnitude and direction. 

It reflects the positive charge flow direction, but it is considered a scalar quantity since it currently uses scalar addition laws rather than vector addition laws. The relationship between the cables carrying current does not affect the overall power in the circuit.

The pace at which electrons travel through a conductor is known as electric current. The ampere is the SI unit for electric current. A scalar quantity is an electric current. A vector quantity is a measurement that has equal magnitude and direction. Other factors, however, determine if a number is a vector or a scalar.

The physical quantity is considered a vector quantity if it upholds the rules of vector addition, such as the triangle law for vector addition and the parallelogram law for vector addition.

A flow of energetic particles, including electrons or ions, traveling across a conductive material or area is known as an electric current. The net rate of electric charge flow over a surface and then into a control container is monitored. Charge carriers, which can be one of several particles based on the conductors, are the traveling particles. 

Electrons flowing through a cable are commonly used as conduction electrons in electric circuits. These could be electrons or holes in semiconductors. Ions carry charge in an electrolyte, whereas ions and electrons carry charge in plasma, an ionized gas.