Permanent magnets - release the magnetic moment (2023)

Introduction: Permanent magnets play a vital role in numerous technological achievements and everyday applications. Their magnetism enables efficient energy conversion and storage in everything from electric motors and generators to magnetic data storage devices. This article delves into the fascinating world of permanent magnets, discussing their different types, properties and wide range of applications.


Learn about permanent magnets

A permanent magnet is a fundamental element with the unique ability to generate a magnetic field without relying on an external power source. They play a vital role in various industries including electronics, automotive and renewable energy. In this article we will explore what permanent magnets are, their main properties and what they mean in different applications.

Definition and main characteristics

A permanent magnet is a material that retains its magnetic properties for a long time without the need for an external electric current. Unlike electromagnets, which require electric current to create a magnetic field, permanent magnets exhibit inherent magnetism due to the arrangement of their atomic or molecular magnetic moments.

Key properties of permanent magnets include:

  1. magnetic field: A permanent magnet creates a magnetic field that surrounds the environment. This field has an attractive or repulsive effect on other magnetic materials or charged particles.
  2. Magnetic power: The magnetic field strength of a permanent magnet depends on factors such as material composition, magnetizing process and geometry. It is usually measured in terms of magnetic flux density or magnetic field strength.
  3. remain magnetic: Permanent magnets retain their magnetic properties after magnetization unless subjected to significant demagnetizing factors such as high temperatures or strong opposing magnetic fields.
  4. Stabilize: Permanent magnets exhibit stability, maintaining their magnetic field strength and orientation over time. They can withstand external forces and remain magnetized, making them reliable for long-term applications.

Significance in various industries

Permanent magnets have become indispensable materials in many industries due to their unique characteristics and practical applications. Here are some key areas where permanent magnets play an important role:

  1. Electronics: Permanent magnets are essential in electronic devices such as speakers, headphones and microphones. They convert electrical energy into sound waves, enabling sound reproduction in a compact and efficient system.
  2. Automotive: In the automotive industry, permanent magnets are critical for electric motors, hybrid drivetrains, and regenerative braking systems. They enable efficient energy conversion, increase performance and reduce emissions.
  3. Renewable Energy: Permanent magnets are important components of wind turbines and generators used in renewable energy systems. They convert the mechanical energy of wind or water into electricity, promoting the development of clean and sustainable electricity production.
  4. Medical equipment: Magnetic resonance imaging (MRI) machines rely heavily on powerful permanent magnets to create detailed images of structures inside the body. A strong magnetic field aligns the nuclei, enabling precise imaging and diagnosis.
  5. Energy Storage: Permanent magnets are used in various energy storage systems such as flywheel energy storage and magnetic cooling. They enable efficient conversion and storage of energy, contributing to progress in energy management and sustainability.

Understanding permanent magnets and their unique ability to generate a magnetic field without the need for an external power source is essential to understanding their importance in various industries. From electronics and automobiles to renewable energy sources and medical devices, permanent magnets are driving technological advances, improving energy efficiency and fueling innovation. Their reliability, stability and magnetic properties make them invaluable in the many applications that shape our modern world.

Types of permanent magnets

Magnets made of neodymium iron and boron (NdFeB):

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Neodymium Iron Boron (NdFeB) magnets are known for their extraordinary strength, making them one of the most popular types of permanent magnets. They consist of neodymium, iron and boron, which contributes to their extraordinary magnetic properties.

The main characteristics of NdFeB magnets include:

  1. Strength: NdFeB magnets have an incredibly high magnetic energy product, which allows them to create strong magnetic fields. They are considered the strongest commercially available magnets.
  2. Wide application: Due to its superior strength, NdFeB magnets are used in a wide range of industries. They are commonly used in electric vehicles, wind turbines, computer hard drives, audio equipment, and magnetic separators, among others.
  3. Compact size: NdFeB magnets have a high power-to-size ratio, enabling smaller, more efficient designs in a variety of applications. Their compact size makes them ideal for small electronic devices.

Samarium cobalt (SmCo) magnets:

Samarium cobalt (SmCo) magnetsis another type of permanent magnet known for its excellent performance in harsh conditions. They consist of samarium and cobalt, which contribute to their unique magnetic properties.

Key properties of samarium cobalt magnets include:

  1. Resistance to demagnetization: Samarium Cobalt magnets exhibit high resistance to demagnetization, making them suitable for applications that require stable and long-lasting magnetic properties.
  2. Thermal stability: SmCo magnets have excellent thermal stability, which allows them to work at high temperatures without significant loss of magnetic properties. They can withstand extreme temperature conditions better than many other types of magnets.
  3. Applications: SmCo magnets are commonly used in aerospace and defense applications, high performance electric motors, sensors, magnetic couplings and medical devices. Their ability to operate in challenging environments makes them ideal for critical and precision systems.

Alnico magnets:

Alnico magnetsTheir name comes from their composition, which includes aluminum (Al), nickel (Ni) and cobalt (Co). They were one of the first types of permanent magnets developed and have a long history in magnetic technology.

Key features of Alnico magnets include:

  1. Strong magnetic field: Alnico magnets create a strong magnetic field and exhibit excellent magnetic properties. They have a large coercive force, which allows them to remain magnetic in the presence of an external magnetic field.
  2. Temperature stability: AlNiCo magnets exhibit good temperature stability, making them suitable for applications that require consistent magnetic properties over a wide temperature range.
  3. Corrosion Resistance: Alnico magnets are inherently corrosion resistant, reducing the need for additional protective coatings in some applications.

Ceramic (ferrite) magnets:

Ceramic magnets, also known as ferrite magnets, are cost effective and widely used. They consist of iron oxide (Fe2O3) and other elements, usually strontium or barium.

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Key properties of ceramic magnets include:

  1. Affordable: Ceramic magnets are one of the most economical options among permanent magnets, making them popular in a variety of industries.
  2. Resistance to demagnetization: Ceramic magnets have excellent resistance to demagnetization, ensuring long life and stable magnetic performance in most applications.
  3. Application: Ceramic magnets are widely used in speakers, microwave ovens, refrigerator magnets, magnetic separators and various motors because of their low cost and good magnetic properties.

Understanding the different types of permanent magnets allows us to understand their unique properties and applications. Neodymium iron boron magnets have excellent strength and versatility, while samarium cobalt magnets have high resistance to demagnetization and thermal stability. Alnico magnets have a history of strong magnetic fields and temperature stability, while ceramic magnets are affordable and widely available, making them suitable for a range of applications. Each type of permanent magnet offers unique advantages that enable innovative solutions in various industries.

Characteristics and performance of permanent magnets:

Permanent magnets have specific properties that determine their effectiveness and suitability for various applications. Understanding these properties is key to selecting the right magnet for a specific application. This section explores the key properties that define the effectiveness of magnets.

Strength and magnitude of the magnetic field:

The field strength of a permanent magnet is a measure of its ability to create a magnetic field. It is usually measured in units of magnetic flux density, such as Tesla (T) or Gauss (G). The strength of the magnetic field is affected by the physical size of the magnet and the magnetic material used. In general, larger magnets tend to have stronger magnetic fields. However, the relationship between size and strength can vary depending on the composition and manufacturing process of the magnet.

Remanence (No):

Remanence, also known as residual induction or magnetic flux density, refers to the residual magnetic field strength of a magnet after it has been magnetized. It expresses the ability of a magnet to retain its magnetic properties. The higher the remanence value, the stronger the magnetic field and the ability of the magnet to remain magnetized even in the absence of an external magnetic field.

Coercivity (Hc):

Coercive force is an index to measure a magnet's ability to resist demagnetization. It quantifies the strength of the opposing magnetic field required to demagnetize the magnet. High coercivity magnets are more resistant to demagnetization and provide greater stability in a variety of applications. Coercive force is usually expressed in units of Oersteds (Oe) or ampere-turns per meter (A/m).

Energy product (BHmax):

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The energy product is an important property that represents the maximum magnetic energy that can be stored in a magnet. It is calculated by multiplying the remanence of the magnet (Br) and the coercive force (Hc). The energy product represents the strength of the magnetic field that a magnet can produce in a certain volume. Higher values ​​of energy products indicate stronger magnets with better performance.

Curiejeva temperature (Tc):

The Curie temperature is the temperature at which a permanent magnet loses its magnetism and becomes paramagnetic. At temperatures above the Curie temperature, the atomic or molecular arrangement of the magnet is disrupted, resulting in a significant reduction in the strength of its magnetic field. The Curie temperature varies depending on the type of magnet material. This is a critical consideration for applications where the magnets may be exposed to high temperatures. Selecting a magnet with a Curie temperature appropriate for the expected operating conditions ensures its ability to retain its magnetism without significant loss.

Understanding and considering these characteristics can help determine the best magnet for a particular application. Whether they increase magnetic field strength, ensure stability, or withstand extreme temperatures, these features play a key role in magnet selection and performance optimization.

Magnetic field strength, remanence, coercive force, energy product and Curie temperature are key properties that define the efficiency and function of permanent magnets. Their interaction determines a magnet's ability to create a strong magnetic field, maintain magnetization, resist demagnetization, store magnetic energy, and withstand temperature changes. By evaluating these characteristics, engineers and designers can select the appropriate magnet for a specific application, ensuring optimal performance and reliability.

Application of permanent magnets:

Motors and generators:

Permanent magnets play a vital role in electric motors and generators, helping to increase their efficiency and performance. In electric motors, permanent magnets are typically used in the rotor where they generate a magnetic field that interacts with the stator field. This interaction produces rotational motion, converting electrical energy into mechanical energy.

The use of permanent magnets in electric motors can eliminate the need for additional energy to generate the magnetic field, increasing efficiency. These motors are used in a variety of applications, including electric vehicles, industrial machinery, home appliances, and robotics.

In generators, permanent magnets are used for energy conversion in power plants and renewable energy systems. Electricity is generated by electromagnetic induction by rotating magnets inside the coil. Permanent magnet generators are efficient, compact and reliable for use in wind turbines, hydroelectric plants and other renewable energy installations.

Magnetic data storage:

(Video) Magnetic Dipole Moment

Permanent magnets have revolutionized the field of magnetic data storage, especially in hard disk drives (HDD). In an HDD, a magnetic read/write head interacts with a rotating platter coated with magnetic recording media. The read and write head uses a magnetic field that generates a permanent magnet to read and write data by changing the magnetization of a microscopic area on the surface of the disk.

Advances in magnetic recording technology have resulted in increased data storage capacity and improved performance. Technologies such as vertical magnetic recording and shingle magnetic recording have expanded the capabilities of HDDs. In addition, research and development efforts are focused on new magnetic materials and recording methods to increase storage density and meet future data storage needs.

magnetic separation:

Permanent magnets are widely used in magnetic separation processes where they are used to separate ferrous materials from non-ferrous materials. Industries such as mining, recycling and food processing rely on magnetic separation to separate valuable materials, remove contaminants and purify products.

In a magnetic separation system, permanent magnets create a magnetic field that attracts and retains ferrous materials. This enables efficient separation of iron or steel particles from bulk materials such as ore, recycled material and food. Magnetic separators are available in different configurations and strengths to suit different applications and material properties.

Magnetic resonance imaging (MRI):

Permanent magnets are crucial in magnetic resonance imaging (MRI) machines, an important medical imaging tool. MRI scanners use strong magnetic fields created by powerful permanent magnets to produce detailed images of structures inside the body. The patient is placed in a magnetic field, and the interaction between the magnetic field and hydrogen atoms in the body creates signals that are processed into high-resolution images.

The use of permanent magnets in MRI devices ensures a stable and uniform magnetic field, which is essential for an accurate image. MRI technology has revolutionized medical diagnostics, providing non-invasive imaging for a variety of diseases, including cancer, neurological disorders and musculoskeletal injuries.

Speakers and audio system:

Permanent magnets are an integral part of speakers and audio systems that generate sound waves. In these systems, an electric current through a coil (called a voice coil) interacts with the magnetic field of a permanent magnet. This interaction creates a force that moves the diaphragm or cone to produce sound.

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The size and strength of permanent magnets can affect the sound quality, response and overall performance of speakers and audio systems. High-quality permanent magnets contribute to precise sound reproduction, clarity and enhanced bass.

Permanent magnets have various applications in various industries. From electric motors and generators to magnetic data storage, magnetic separation, MRI machines and audio systems, they provide essential functions and drive technological progress. The unique properties of permanent magnets, such as stability, efficiency and the ability to generate a magnetic field without the need for an external power source, have made them an integral part of the many applications that shape our modern world.

in conclusion

Permanent magnets have revolutionized various industries and enabled technological advances that affect our daily lives. Knowing the different types, properties and applications of permanent magnets allows us to understand their enormous importance. From energy conversion to data storage and medical imaging, these magnets continue to drive innovation and increase the efficiency of countless devices and systems.


What is the magnetic moment of a permanent magnet? ›

The magnetic moment m is the product of magnet volume V and the magnetic polarization J of the magnet: m = J ∙ V .

Are all magnets permanent magnets explain your answer? ›

Magnets made of Neodymium Magnets (NdFeB), Samarium Cobalt (SmCo), AlNiCo, and Ferrite are generally referred to as permanent magnets, whereas electromagnets are commonly classed as non-permanent magnets.

Does a permanent magnet lose its magnetism quickly? ›

The magnetic field in a permanent magnet does tend to decay over time, but not with a predictable half-life as with radioactivity.

How do permanent magnets lose their magnetism? ›

Permanent magnets can lose their magnetism if they are dropped or banged on enough to bump their domains out of alignment. Heating a magnet above the Curie temperature causes the magnetic domains to be disrupted permanently. Mild heating causes a reduction in the magnetism.

What is the magnetic moment of each in a permanent magnet at room temperature? ›

magnetic moment of each molecule is zero.

How do you find the magnetic moment of a magnet? ›

  1. μ s = n ( n + 2 )
  2. Here, n is the number of unpaired electrons.
  3. The unit for a spin-only magnetic moment is the Bohr magneton (BM).

What is a permanent magnet very short answer? ›

Permanent magnets are those magnets that are commonly used. They are known as permanent magnets because they do not lose their magnetic property once they are magnetized.

How do permanent magnets work? ›

A permanent magnet is called a permanent magnet because its magnetism is 'always on', it generates its own persistent magnetic field unlike an electromagnet which is made from a coil of wire wrapped around a steel core and requires an electric current to generate a magnetic field.

What is a permanent magnet short answer? ›

Permanent magnets are artificial magnets that retain their magnetic property even in the absence of an external magnetic field. These magnets are produced from substances like hardened steel and some alloys.

Why are permanent magnets weak? ›

The magnetic field of permanent magnets is not so permanent. Materials that are known as permanent magnets consist of magnetic domains, where electrons are aligned in pairs within atoms. Magnetism is weakened as a result of damage to this alignment caused by heat and electromagnetic fields.

Is permanent magnets get easily demagnetized True or false? ›

Permanent magnets are made from materials like steel, which are resistant to becoming demagnetized easily. Therefore, the given statement is false.

Does a permanent magnet run out? ›

Your permanent magnet should lose no more than 1% of its magnetic strength over a period of 100 years provided it is specified and cared for properly. There are a few things that may cause your magnet to lose its strength: HEAT.

Are permanent magnets infinite? ›

Magnetic force cannot be infinite energy from the general definition of energy, force, and work.

Does a permanent magnet retains its magnetism? ›

Permanent magnets are materials that generate a persistent magnetic field owing to the internal structure of the materials themselves. These materials retain their ferromagnetic property for a long period of time, which is why they are called permanent magnets.

What is one disadvantage of a permanent magnet? ›

On the other hand, the disadvantages of permanent magnets are also caused by its material property. Since these magnets keep their magnetic properties, they can never be turned off or control the force when their relative positions are fixed. Which makes them hard to apply to applications that require changing forces.

What will happen if a permanent magnet is dropped or heated? ›

If a magnet is exposed to high temperatures, the delicate balance between temperature and the domains in a magnet are destabilized. At around 80 °C, a magnet will lose its magnetic force and it will become demagnetized permanently if exposed to this temperature for a period, or if heated above its Curie temperature.

What happens when you heat a permanent magnet? ›

A magnet subjected to heat experiences a reduction in its magnetic field as the particles within the magnet are moving at an increasingly faster and more sporadic rate. This jumbling confuses and misaligns the magnetic domains, causing the magnetism to decrease.

Which material has permanent magnetic moment? ›

This mechanism of the ferromagnetic material is ferromagnetism. It can be defined as some materials (cobalt, gadolinium, iron etc) that will become permanent magnets with the use of a magnetic field.

What creates a magnetic moment? ›

The magnetic moment is generated by the following two methods: The motion of Electric Charge. Spin Angular Momentum.

What is an example of a magnetic moment? ›

Examples of objects that have magnetic moments include loops of electric current (such as electromagnets), permanent magnets, elementary particles (such as electrons), various molecules, and many astronomical objects (such as many planets, some moons, stars, etc).

What is the formula for the total magnetic moment? ›

Solution. The magnitude of the magnetic moment is given in Equation 8.20: μ = ( e 2 m e ) L = ( e 2 m e ) l ( l + 1 ) ℏ = μ B l ( l + 1 ) .

What is a fact about permanent magnet? ›

Some of the most basic permanent magnets are made of ceramic or ferrite. Other permanent magnets are made of samarium cobalt or neodymium. Those made of neodymium are known as rare-earth magnets. Originally pioneered in the 1970s, they are among the strongest magnets on the planet.

What are the properties of a permanent magnet? ›

Permanent magnets should have high coercivity so that external magnetic fields in opposite directions cannot easily demagnetize the magnet. Hence, the materials suitable for permanent magnets must have high retentivity, high coercivity, and high permeability.

How does a permanent magnet differ from temporary magnet? ›

Distinguish between permanent and temporary magnets.
Permanent magnetsTemporary magnets permanent
Permanent magnets are those magnets that retain their magnetism for a long period of time.Temporary magnets are those magnets that lose their magnetism as soon as the cause producing their magnetism is removed.
3 more rows

What causes magnetism in a permanent magnet? ›

Answer and Explanation: Permanent magnets, whether natural or fabricated, are caused by a magnetic field passing through the material as it cools from a melted state. This causes the atoms in the substance to align and their electrons to spin in the same direction which causes the object to develop a magnetic field.

How do you know if a magnet is permanent? ›

Permanent magnets emit a magnetic field without the need for any external source of magnetism or electrical power. Temporary magnets behave as magnets while attached to or close to something that emits a magnetic field, but lose this characteristic when the source of the magnetic field is removed.

Why permanent magnet has magnetic properties? ›

A permanent magnet continually creates a magnetic field without the assistance of an external agent. This type of magnet consists of a magnetic material that has been permanently magnetized; that is, the magnetic dipoles of the material's atoms are aligned with each other.

Where the permanent magnet is used? ›

Electromagnets are used in Electric bell and Electric motors. Permanent magnets are used in Refrigerators doors and Toys.

How does a magnet work? ›

All magnets have north and south poles. Opposite poles are attracted to each other, while the same poles repel each other. When you rub a piece of iron along a magnet, the north-seeking poles of the atoms in the iron line up in the same direction. The force generated by the aligned atoms creates a magnetic field.

What is a permanent magnet definition for kids? ›

Permanent magnets always have an active magnetic field. This means that they are always able to attract certain metals with their magnetic power. Temporary magnets can be turned on and off. Magnets also come in different shapes. For instance, this is called a horseshoe magnet, because it's shaped like a horseshoe.

Can you make a permanent magnet stronger? ›

Expose it to Cold

By exposing the weakened magnet to freezing temperatures, the molecules in the magnet will have less kinetic energy and will slow down. This decreased movement will allow the atoms to line up better creating a more concentrated magnetic field which will result in a stronger magnet.

How strong can a permanent magnet be? ›

Residual field strength of the strongest permanent magnet material is at a level of 1.3 Tesla. And in most cases, the magnetic field strength made by these materials is half of the residual field. But using the permanent magnet is still attractive as it provides us almost eternal field without energy consumption.

What is the most powerful permanent magnet? ›

The strongest permanent magnets in the world are neodymium (Nd) magnets, they are made from magnetic material made from an alloy of neodymium, iron and boron to form the Nd2Fe14B structure.

Does dropping a permanent magnet weaken it? ›

Permanent magnets can lose their magnetism if they are dropped or banged on enough to bump their domains out of alignment.

What will a permanent magnet not attract? ›

The correct answer is Bronze. An ordinary magnet does not attract Bronze. Bronze is a metal alloy, it primarily consists of Copper and other metals and sometimes non-metals like zinc, phosphorus, silicon, etc.

What is the magnetic moment in MRI? ›

The magnetic moment (µ) is a vector quantity used to measure the tendency of an object to interact with an external magnetic field. In NMR, the object of interest is typically a molecule, atom, nucleus, or subatomic particle.

What is the magnetic moment of a magnetic atom? ›

The magnetic momentum of a diamagnetic atom is equal to zero.

What is the value of moment of magnet? ›

The value of the electron magnetic moment (symbol μe) is −9.2847647043(28)×1024 J⋅T1.

What is the magnetic moment of a neodymium magnet? ›

A Neodymium Iron Boron (strongest grade) disc the same size as a US Penny would have a magnetic moment of 0.4824 Ampere-meter. A Neodymium Iron Boron disc in a typical mobile phone has a magnetic moment of 0.007909 Ampere-meter.

What is the purpose of magnetic moment? ›

Magnetic moments are often used in conjunction with electronic spectra to gain information about the oxidation number and stereochemistry of the central metal ion in coordination complexes.

Why do we need magnetic moment? ›

The magnetic moment of a magnet is a quantity that determines the force that the magnet can exert on electric currents and the torque that a magnetic field will exert on it. A loop of electric current, a bar magnet, an electron, a molecule, and a planet all have magnetic moments.

What are the two types of magnetic moment? ›

Magnetic moment (μ) of a system arises from spin unbalance between spin-up and -down levels. In general, the magnetism can be divided into five kinds: (1) diamagnetism, (2) paramagnetism, (3) antiferromagnetism, (4) ferromagnetism, and (5) ferrimagnetism.

What is an example of magnetic moment? ›

Examples of objects that have magnetic moments include loops of electric current (such as electromagnets), permanent magnets, elementary particles (such as electrons), various molecules, and many astronomical objects (such as many planets, some moons, stars, etc).

Does everything have a magnetic moment? ›

Anything that is magnetic, like a bar magnet or a loop of electric current, has a magnetic moment. A magnetic moment is a vector quantity, with a magnitude and a direction. An electron has an electron magnetic dipole moment, generated by the electron's intrinsic spin property, making it an electric charge in motion.

What is the total magnetic moment? ›

Total magnetic moment is the sum of the moments of all the magnetic dipoles and the atomic magnetic moments due to orbital motion of electrons. Total magnetic moment depends on the number of magnetic dipoles per unit volume, the instant electric current and the area of the current loop.

How is magnetic moment produced? ›

The magnetic moment is generated by the following two methods: The motion of Electric Charge. Spin Angular Momentum.

What is the origin of the magnetic moment? ›

Magnetism originates from the spin and orbital magnetic moment of an electron. The orbital motion of an electron around the nucleus is analogous to the current in a loop of wire. µ = I.A where I is the current in A and A is the area in m2.

What is the torque of a magnetic moment? ›

When a magnetic dipole moment µ is positioned into a magnetic field B it experiences a torque τ = µ × B. The torque is an agent of reorientation just as the force is an agent of relocation.

What is the most powerful magnetic object in the universe? ›

Young, spinning neutron stars, known as magnetars, can have magnetic fields 1,000 trillion times stronger than Earth's.

What is the most powerful magnet in the world? ›


The strongest permanent magnets in the world are neodymium (Nd) magnets, they are made from magnetic material made from an alloy of neodymium, iron and boron to form the Nd2Fe14B structure.

What happens to magnetic moment when magnet is broken? ›

Reason (R) :The magnetic moment will be reduced to half when a magnet is broken into two equal pieces.


1. Magnetic dipoles & dipole moment | Moving charges & magnetism | Physics | Khan Academy
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3. Magnetic Spins
4. Magnetic Dipole Moment Using Halbach Arrays
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5. World's Strongest Magnet!
6. Permanent Magnetism Lecture
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