Convert Ampere Turn to Kiloampere Turn and more • 5 conversions
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The ampere turn (At) is a unit of magnetomotive force (MMF) defined as the product of the electric current in amperes (A) flowing through a coil and the number of turns (N) of the coil. Therefore, 1 ampere turn is equal to 1 ampere of current multiplied by 1 turn of wire. This unit is significant in the field of electromagnetism, as it helps quantify the magnetic field strength created by a coil or solenoid. It is crucial for understanding the operation of inductors and transformers and is used in calculations involving magnetic circuits.
The ampere turn is commonly used in electrical engineering and physics for designing inductors, transformers, and magnetic circuits. It helps engineers determine the necessary current and turns for coils to achieve specific magnetic fields. Industries such as electronics, automotive, and energy utilize this unit in applications like magnetic sensors, electric motors, and power distribution systems. The ampere turn is essential for ensuring efficiency and effectiveness in devices that rely on magnetism.
The concept of magnetomotive force was first introduced by André-Marie Ampère in the 1820s.
The kiloampere turn (kAt) is a derived unit of magnetomotive force, representing the product of electric current in kiloamperes and the number of turns of wire through which the current flows. It quantifies the strength of the magnetic field generated in a magnetic circuit. The unit is crucial in electromagnetic applications, providing a direct measure of the magnetomotive force (MMF) produced by coils of wire when an electric current passes through them. One kiloampere turn signifies a current of one kiloampere flowing through a coil with one turn of wire.
Today, the kiloampere turn is commonly used in electrical engineering, particularly in the design and analysis of transformers, inductors, and magnetic coils. It serves as a standard measure for assessing the magnetic field strength generated by coils in various applications, including power generation, telecommunications, and medical imaging. The use of this unit helps engineers specify the required current and turns to achieve desired magnetic properties in devices.
The kiloampere turn is often used in high-power applications, highlighting the importance of managing large currents in engineering.
= × 1.00000To convert to , multiply the value by 1.00000. This conversion factor represents the ratio between these two units.
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magnetomotive • Non-SI
The ampere turn (At) is a unit of magnetomotive force (MMF) defined as the product of the electric current in amperes (A) flowing through a coil and the number of turns (N) of the coil. Therefore, 1 ampere turn is equal to 1 ampere of current multiplied by 1 turn of wire. This unit is significant in the field of electromagnetism, as it helps quantify the magnetic field strength created by a coil or solenoid. It is crucial for understanding the operation of inductors and transformers and is used in calculations involving magnetic circuits.
The concept of magnetomotive force was developed in the 19th century, coinciding with the rise of electromagnetism as a discipline. The ampere turn unit emerged as electrical engineering expanded, providing a means to quantify the magnetic field generated by coils. Pioneering scientists like André-Marie Ampère, after whom the unit is named, contributed to the foundational principles of electromagnetism, linking electric current to magnetic fields.
Etymology: The term 'ampere' is derived from André-Marie Ampère, a French physicist and mathematician credited with formulating the laws of electromagnetism, while 'turn' refers to the winding of a wire, representing a complete loop around a core.
The ampere turn is commonly used in electrical engineering and physics for designing inductors, transformers, and magnetic circuits. It helps engineers determine the necessary current and turns for coils to achieve specific magnetic fields. Industries such as electronics, automotive, and energy utilize this unit in applications like magnetic sensors, electric motors, and power distribution systems. The ampere turn is essential for ensuring efficiency and effectiveness in devices that rely on magnetism.
magnetomotive • Non-SI
The kiloampere turn (kAt) is a derived unit of magnetomotive force, representing the product of electric current in kiloamperes and the number of turns of wire through which the current flows. It quantifies the strength of the magnetic field generated in a magnetic circuit. The unit is crucial in electromagnetic applications, providing a direct measure of the magnetomotive force (MMF) produced by coils of wire when an electric current passes through them. One kiloampere turn signifies a current of one kiloampere flowing through a coil with one turn of wire.
The kiloampere turn emerged from the need to quantify electromagnetic phenomena in electrical engineering and physics. Its roots are found in the early studies of electromagnetism in the 19th century, particularly with the works of André-Marie Ampère, who formulated the laws governing electric currents and their magnetic effects. The unit was formalized as part of the International System of Units (SI) to standardize measurements across various fields.
Etymology: The term 'kiloampere' derives from the metric prefix 'kilo-' meaning a thousand, combined with 'ampere', which honors André-Marie Ampère, a pioneer in electromagnetism. The 'turn' refers to the complete loop made by the wire in a coil.
Today, the kiloampere turn is commonly used in electrical engineering, particularly in the design and analysis of transformers, inductors, and magnetic coils. It serves as a standard measure for assessing the magnetic field strength generated by coils in various applications, including power generation, telecommunications, and medical imaging. The use of this unit helps engineers specify the required current and turns to achieve desired magnetic properties in devices.
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