How Toys Testing Labs Assess Magnet Safety in Children’s Toys?

 Magnets in children’s toys add interactive, educational, and engaging elements—but they also pose serious safety risks when not properly designed or securely enclosed. Small, powerful magnets can cause severe internal injuries if swallowed, making magnet safety one of the most critical areas of toy compliance testing worldwide. A certified Toys Testing Lab plays a central role in evaluating magnet strength, size, retention, and accessibility to ensure toys meet global safety standards before reaching consumers.

This blog explains why magnet safety matters, the tests performed, relevant international regulations, and how a Toys Testing Lab helps manufacturers produce safer magnetic toys for children.


Why Magnet Safety Is a Major Concern in Children's Toys

Magnets are commonly used in building blocks, puzzles, STEM kits, dolls, action figures, and novelty toys. While these elements boost educational value, they come with significant hazards:

1. Risk of Ingestion

Children—especially those under 3 years old—may swallow loose magnets. If two or more strong magnets attract across intestinal walls, they can cause:

  • internal perforations

  • intestinal blockage

  • internal bleeding

  • infection or sepsis

These complications require emergency surgery, making magnet safety testing essential.

2. Strong Magnetic Force

Neodymium magnets, now popular in toys, are incredibly powerful even at small sizes. Strong attraction force increases injury risks if magnets escape their housing.

3. Poor Magnet Retention in Low-Quality Toys

Inadequate adhesives or weak casing materials can cause magnets to fall out during routine play, leading to accidental ingestion or choking hazards.

Because of these dangers, accredited Toys Testing Labs follow strict protocols to ensure toys with magnets comply with global safety requirements.


Key Safety Standards Governing Magnets in Toys

To ensure safe use, magnet-containing toys must comply with several international standards:

✔ EN 71-1 (Europe)

Specifies safety requirements for magnet size, accessibility, and magnetic flux index.

✔ ASTM F963 (United States)

Regulates accessible magnets in toys and sets limits for magnetic flux strength.

✔ ISO 8124 (International)

Covers mechanical and physical requirements for magnet safety.

✔ CPSIA (Consumer Product Safety Improvement Act)

Includes mandatory safety rules for small magnets in children’s products.

A certified Toys Testing Lab uses advanced equipment and testing methods to verify that toys meet these regulatory benchmarks.


How Toys Testing Labs Assess Magnet Safety

Toys Testing Labs use a combination of mechanical, physical, and technical assessments to ensure magnets do not pose hazards to children. Below are the major evaluations performed:


1. Magnet Size and Shape Assessment

Small magnets pose much higher choking and ingestion risks. Toy laboratories measure:

  • diameter

  • thickness

  • shape

  • cross-sectional area

Magnets smaller than the regulatory threshold require special testing to determine accessibility and risk. Labs use small parts cylinders (SPC) to verify whether loose magnets fall into the category of hazardous small parts.


2. Magnetic Flux Index Testing

One of the most critical components of magnet safety assessment is measuring magnetic strength.

What Is Magnetic Flux Index?

It is a measurement of a magnet’s pull strength, given in kG²·mm². Toys Testing Labs use flux meters to measure:

  • maximum attraction force

  • field strength

  • magnetic pull behavior

According to EN 71-1 and ASTM F963, a toy magnet’s flux index must not exceed set safety limits. Excessively strong magnets are more likely to cause intestinal injury when swallowed.


3. Abuse Testing to Evaluate Magnet Retention

Toys Testing Labs simulate real-world play and misuse scenarios to determine whether magnets can become loose. These include:

Impact Test

The toy is dropped repeatedly to see if magnets detach.

Torque Test

Lab experts apply twisting force to components containing magnets.

Tension Test

Pulling force is applied to check if magnets are securely enclosed.

Compression Test

Pressure is applied to determine if casings crack or deform under stress.

These tests replicate actions such as throwing, biting, bending, or stepping on toys—common behaviors among children. If a magnet comes loose during testing, the toy fails safety standards.


4. Accessibility Testing

The goal is to verify whether magnets are reachable during normal or foreseeable use. Labs examine both:

  • Normal use: how a child is expected to play with the toy

  • Abuse conditions: twisting, dropping, bending, pulling

Toys Testing Labs use specialized probes (like accessibility probes and small parts gauges) to check:

  • openings

  • seams

  • joints

  • attachments

  • casings

If the magnet is accessible or can become accessible, the toy is classified as hazardous.


5. Chemical and Coating Safety Assessment

Magnets are often coated with nickel or other metals to prevent rust. However, coatings can contain:

  • heavy metals

  • allergens

  • toxic chemicals

A Toys Testing Lab performs chemical analysis to ensure coatings meet EN 71-3 and REACH chemical safety standards. Tests include:

  • heavy metal migration

  • nickel release testing

  • chemical composition analysis

This ensures that if a child mouths or chews the toy, they are not exposed to harmful substances.


6. Sharp Edges and Small Parts Testing

If magnets fall out, the remaining cavity may create sharp edges or small parts hazards. Labs inspect toys for:

  • burrs

  • sharp metal edges

  • broken components

  • exposed internal surfaces

Small parts testing ensures that broken components do not pose additional risks.


7. Durability and Wear Testing

Over time, adhesives can degrade and plastic housings can weaken. To simulate long-term play, Toys Testing Labs perform:

  • fatigue testing

  • repeated drop tests

  • flex testing

  • accelerated aging tests

This ensures magnets remain secure throughout the toy’s lifespan.


Why Magnet Testing Matters: Benefits for Manufacturers

✔ Reduced Risk of Recalls

Magnetic toy recalls are costly and damage brand reputation. Proper testing minimizes recalls.

✔ Compliance with Global Regulations

With testing, manufacturers confidently access international markets.

✔ Enhanced Consumer Trust

Parents prefer brands that provide safe, thoroughly tested products.

✔ Prevention of Life-Threatening Injuries

Magnet safety testing helps safeguard children from severe internal damage.


How Toys Testing Labs Support Manufacturers

A certified Toys Testing Lab provides end-to-end support:

  • Pre-compliance product evaluation

  • Guidance on design improvements

  • Safety assessments based on target market

  • Detailed test reports for certification authorities

  • Ongoing compliance support for mass production

This partnership ensures magnetic toys are safe, durable, and globally compliant.


Conclusion

Magnet safety is one of the most crucial aspects of toy evaluation due to the severe risks associated with swallowing strong magnets. A modern Toys Testing Lab uses advanced testing methods to assess magnet strength, retention, accessibility, durability, and chemical safety—ensuring every magnetic toy meets strict global safety standards. Through comprehensive testing, manufacturers can minimize hazards, reduce recalls, and provide children with enjoyable, safe, and compliant magnetic toys.

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