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MW 6x2 / N38 - cylindrical magnet

Name: Dhit sp. z o.o.
Address: Kościuszki 6A, Ożarów Mazowiecki, mazowieckie, 05-850, PL
Telephone: +48 22 499 98 98
Price range: 1-6500 PLN
Rating: 5

cylindrical magnet

Catalog no 010092

GTIN/EAN: 5906301810919

5.00

Diameter Ø

6 mm [±0,1 mm]

Height

2 mm [±0,1 mm]

Weight

0.42 g

Magnetization Direction

↑ axial

Load capacity

0.86 kg / 8.43 N

Magnetic Induction

343.37 mT / 3434 Gs

Coating

[NiCuNi] Nickel

check technical specifications »

0.246 ZŁ with VAT / pcs + price for transport

0.200 ZŁ net + 23% VAT / pcs

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Technical - MW 6x2 / N38 - cylindrical magnet

Specification / characteristics - MW 6x2 / N38 - cylindrical magnet

properties

properties	values
Cat. no.	010092
GTIN/EAN	5906301810919
Production/Distribution	Dhit sp. z o.o. ul. Zielona 14 05-850 Ożarów Mazowiecki PL
Country of origin	Poland / China / Germany
Customs code	85059029
Diameter Ø	6 mm [±0,1 mm]
Height	2 mm [±0,1 mm]
Weight	0.42 g
Magnetization Direction	↑ axial
Load capacity ~ ?	0.86 kg / 8.43 N
Magnetic Induction ~ ?	343.37 mT / 3434 Gs
Coating	[NiCuNi] Nickel
Manufacturing Tolerance	±0.1 mm

Magnetic properties of material N38

Specification / characteristics MW 6x2 / N38 - cylindrical magnet

properties	values	units
remenance Br [min. - max.] ?	12.2-12.6	kGs
remenance Br [min. - max.] ?	1220-1260	mT
coercivity bHc ?	10.8-11.5	kOe
coercivity bHc ?	860-915	kA/m
actual internal force iHc	≥ 12	kOe
actual internal force iHc	≥ 955	kA/m
energy density [min. - max.] ?	36-38	BH max MGOe
energy density [min. - max.] ?	287-303	BH max KJ/m
max. temperature ?	≤ 80	°C

Physical properties of sintered neodymium magnets Nd₂Fe₁₄B at 20°C

properties	values	units
Vickers hardness	≥550	Hv
Density	≥7.4	g/cm³
Curie Temperature TC	312 - 380	°C
Curie Temperature TF	593 - 716	°F
Specific resistance	150	μΩ⋅cm
Bending strength	250	MPa
Compressive strength	1000~1100	MPa
Thermal expansion parallel (∥) to orientation (M)	(3-4) x 10^-6	°C^-1
Thermal expansion perpendicular (⊥) to orientation (M)	-(1-3) x 10^-6	°C^-1
Young's modulus	1.7 x 10⁴	kg/mm²

Physical modeling of the product - data

The following data constitute the outcome of a physical simulation. Results were calculated on algorithms for the material Nd₂Fe₁₄B. Actual performance might slightly deviate from the simulation results. Use these data as a reference point during assembly planning.

Table 1: Static pull force (pull vs distance) - interaction chart
MW 6x2 / N38

Distance (mm)	Induction (Gauss) / mT	Pull Force (kg/lbs/g/N)	Risk Status
0 mm	3430 Gs 343.0 mT	0.86 kg / 1.90 LBS 860.0 g / 8.4 N	weak grip
1 mm	2423 Gs 242.3 mT	0.43 kg / 0.95 LBS 429.2 g / 4.2 N	weak grip
2 mm	1521 Gs 152.1 mT	0.17 kg / 0.37 LBS 169.0 g / 1.7 N	weak grip
3 mm	932 Gs 93.2 mT	0.06 kg / 0.14 LBS 63.5 g / 0.6 N	weak grip
5 mm	382 Gs 38.2 mT	0.01 kg / 0.02 LBS 10.7 g / 0.1 N	weak grip
10 mm	76 Gs 7.6 mT	0.00 kg / 0.00 LBS 0.4 g / 0.0 N	weak grip
15 mm	26 Gs 2.6 mT	0.00 kg / 0.00 LBS 0.0 g / 0.0 N	weak grip
20 mm	12 Gs 1.2 mT	0.00 kg / 0.00 LBS 0.0 g / 0.0 N	weak grip
30 mm	4 Gs 0.4 mT	0.00 kg / 0.00 LBS 0.0 g / 0.0 N	weak grip
50 mm	1 Gs 0.1 mT	0.00 kg / 0.00 LBS 0.0 g / 0.0 N	weak grip

Grip strength decreases sharply with every mm of distance. Note that even a microscopic distance (e.g., contamination, varnish, dust) strongly weakens the grip. Magnets work strongest during direct contact; distance weakens the force. Analyze how quickly the pull force fall, when the magnet does not adhere flatly to the metal substrate. When calculating the arrangement, discard unnecessary gaps.

Table 2: Slippage hold (vertical surface)
MW 6x2 / N38

Distance (mm)	Friction coefficient	Pull Force (kg/lbs/g/N)
0 mm	Stal (~0.2)	0.17 kg / 0.38 LBS 172.0 g / 1.7 N
1 mm	Stal (~0.2)	0.09 kg / 0.19 LBS 86.0 g / 0.8 N
2 mm	Stal (~0.2)	0.03 kg / 0.07 LBS 34.0 g / 0.3 N
3 mm	Stal (~0.2)	0.01 kg / 0.03 LBS 12.0 g / 0.1 N
5 mm	Stal (~0.2)	0.00 kg / 0.00 LBS 2.0 g / 0.0 N
10 mm	Stal (~0.2)	0.00 kg / 0.00 LBS 0.0 g / 0.0 N
15 mm	Stal (~0.2)	0.00 kg / 0.00 LBS 0.0 g / 0.0 N
20 mm	Stal (~0.2)	0.00 kg / 0.00 LBS 0.0 g / 0.0 N
30 mm	Stal (~0.2)	0.00 kg / 0.00 LBS 0.0 g / 0.0 N
50 mm	Stal (~0.2)	0.00 kg / 0.00 LBS 0.0 g / 0.0 N

This section indicates the approximate weight limit necessary to start the sliding of the magnet downwards along a vertical steel wall (considering typical friction). This value depends on the separation distance between the magnet and the metal.

Table 3: Vertical assembly (sliding) - vertical pull
MW 6x2 / N38

Surface type	Friction coefficient / % Mocy	Max load (kg/lbs/g/N)
Raw steel	µ = 0.3 30% Nominalnej Siły	0.26 kg / 0.57 LBS 258.0 g / 2.5 N
Painted steel (standard)	µ = 0.2 20% Nominalnej Siły	0.17 kg / 0.38 LBS 172.0 g / 1.7 N
Oily/slippery steel	µ = 0.1 10% Nominalnej Siły	0.09 kg / 0.19 LBS 86.0 g / 0.8 N
Magnet with anti-slip rubber	µ = 0.5 50% Nominalnej Siły	0.43 kg / 0.95 LBS 430.0 g / 4.2 N

When hanging a magnet on a upright surface (e.g., a fridge), it will maintain barely approx. 1/5 of its nominal power. Gravity as well as a weak degree of grip mean that magnets slip faster than they pop off the substrate. Want to create a hanger? Note that the sliding force is much weaker than the maximum static pull force. On a smooth steel, the magnet will slide down under a significantly smaller weight. Application of an anti-slip coating can drastically increase the grip.

Table 4: Material efficiency (saturation) - power losses
MW 6x2 / N38

Steel thickness (mm)	% power	Real pull force (kg/lbs/g/N)
0.5 mm	10%	0.09 kg / 0.19 LBS 86.0 g / 0.8 N
1 mm	25%	0.22 kg / 0.47 LBS 215.0 g / 2.1 N
2 mm	50%	0.43 kg / 0.95 LBS 430.0 g / 4.2 N
3 mm	75%	0.65 kg / 1.42 LBS 645.0 g / 6.3 N
5 mm	100%	0.86 kg / 1.90 LBS 860.0 g / 8.4 N
10 mm	100%	0.86 kg / 1.90 LBS 860.0 g / 8.4 N
11 mm	100%	0.86 kg / 1.90 LBS 860.0 g / 8.4 N
12 mm	100%	0.86 kg / 1.90 LBS 860.0 g / 8.4 N

A thin sheet is unable to conduct the entire magnetic field, which squanders power of the magnet. Should you attach a powerful product to a thin surface, the flux will pass right through and the pull force will drop sharply. To squeeze the maximum of this magnet's potential, you require a sufficiently solid backing of steel. The saturation phenomenon causes that on delicate walls (e.g., car bodies), the magnet shows lower pull force. We suggest choosing the steel thickness based on the following data.

Table 5: Thermal stability (material behavior) - resistance threshold
MW 6x2 / N38

Ambient temp. (°C)	Power loss	Remaining pull (kg/lbs/g/N)	Status
20 °C	0.0%	0.86 kg / 1.90 LBS 860.0 g / 8.4 N	OK
40 °C	-2.2%	0.84 kg / 1.85 LBS 841.1 g / 8.3 N	OK
60 °C	-4.4%	0.82 kg / 1.81 LBS 822.2 g / 8.1 N
80 °C	-6.6%	0.80 kg / 1.77 LBS 803.2 g / 7.9 N
100 °C	-28.8%	0.61 kg / 1.35 LBS 612.3 g / 6.0 N

Standard neodymium magnets lose power after exceeding the maximum temperature. Protect against heat – excessive heat can permanently destroy this product. As the temperature rises, the neodymium's capacity momentarily lowers. Avoid using this product close to ovens higher than its operating temperature limit. Exceeding the critical threshold will cause permanent loss of magnetism.

*Engineering note: Heat tolerance depends not only on the material grade, and the Permeance Coefficient Pc. Low-profile magnets (pancake types) may lose charge permanently sooner compared to rod magnets. Warning indicator in the table indicates a risk of irreversible loss for this specific geometry.

Table 6: Magnet-Magnet interaction (repulsion) - field range
MW 6x2 / N38

Gap (mm)	Attraction (kg/lbs) (N-S)	Sliding Force (kg/lbs/g/N)	Repulsion (kg/lbs) (N-N)
0 mm	2.05 kg / 4.52 LBS 4 944 Gs	0.31 kg / 0.68 LBS 308 g / 3.0 N	N/A
1 mm	1.52 kg / 3.34 LBS 5 900 Gs	0.23 kg / 0.50 LBS 228 g / 2.2 N	1.37 kg / 3.01 LBS ~0 Gs
2 mm	1.02 kg / 2.26 LBS 4 847 Gs	0.15 kg / 0.34 LBS 154 g / 1.5 N	0.92 kg / 2.03 LBS ~0 Gs
3 mm	0.65 kg / 1.44 LBS 3 869 Gs	0.10 kg / 0.22 LBS 98 g / 1.0 N	0.59 kg / 1.29 LBS ~0 Gs
5 mm	0.25 kg / 0.54 LBS 2 379 Gs	0.04 kg / 0.08 LBS 37 g / 0.4 N	0.22 kg / 0.49 LBS ~0 Gs
10 mm	0.03 kg / 0.06 LBS 764 Gs	0.00 kg / 0.01 LBS 4 g / 0.0 N	0.02 kg / 0.05 LBS ~0 Gs
20 mm	0.00 kg / 0.00 LBS 153 Gs	0.00 kg / 0.00 LBS 0 g / 0.0 N	0.00 kg / 0.00 LBS ~0 Gs
50 mm	0.00 kg / 0.00 LBS 12 Gs	0.00 kg / 0.00 LBS 0 g / 0.0 N	0.00 kg / 0.00 LBS ~0 Gs
60 mm	0.00 kg / 0.00 LBS 7 Gs	0.00 kg / 0.00 LBS 0 g / 0.0 N	0.00 kg / 0.00 LBS ~0 Gs
70 mm	0.00 kg / 0.00 LBS 5 Gs	0.00 kg / 0.00 LBS 0 g / 0.0 N	0.00 kg / 0.00 LBS ~0 Gs
80 mm	0.00 kg / 0.00 LBS 3 Gs	0.00 kg / 0.00 LBS 0 g / 0.0 N	0.00 kg / 0.00 LBS ~0 Gs
90 mm	0.00 kg / 0.00 LBS 2 Gs	0.00 kg / 0.00 LBS 0 g / 0.0 N	0.00 kg / 0.00 LBS ~0 Gs
100 mm	0.00 kg / 0.00 LBS 2 Gs	0.00 kg / 0.00 LBS 0 g / 0.0 N	0.00 kg / 0.00 LBS ~0 Gs

Two magnetic products attract each other from a wider radius than a magnet and steel combination. The connection of two magnets generates a stronger field and a further horizon of action. Want to build a strong closure? Use a pair of magnets instead of a neodymium and a steel. Remember that when connecting a pair of magnets, the pinch force is massive. The levitation is marginally weaker than the connection force, but still significant.
*Flux density for N-N configuration reaches ~0 Gs at the midpoint between the magnets (due to field cancellation).
Attention: Results refer to friction force of a pair of matching magnets (friction coefficient ~0.15 for Ni-Ni coating).

Table 7: Protective zones (electronics) - precautionary measures
MW 6x2 / N38

Object / Device	Limit (Gauss) / mT	Safe distance
Pacemaker	5 Gs (0.5 mT)	3.0 cm
Hearing aid	10 Gs (1.0 mT)	2.5 cm
Timepiece	20 Gs (2.0 mT)	2.0 cm
Mobile device	40 Gs (4.0 mT)	1.5 cm
Remote	50 Gs (5.0 mT)	1.5 cm
Payment card	400 Gs (40.0 mT)	0.5 cm
HDD hard drive	600 Gs (60.0 mT)	0.5 cm

Powerful magnet radiation is a real danger to electronic devices and medical implants. These neodymiums produce a flux that disrupts operation of sensitive medical devices. Be aware: the unseen radiation penetrates the body and glass. Exceptional care must be taken by people with cochlear implants and drug dispensers. Also at risk are: automatic timepieces, remotes, membranes, and screens. Avoid contact with magnetic cards, hard drives, or precise measuring instruments.

Table 8: Dynamics (kinetic energy) - collision effects
MW 6x2 / N38

Start from (mm)	Speed (km/h)	Energy (J)
10 mm	45.65 km/h (12.68 m/s)	0.03 J
30 mm	79.04 km/h (21.96 m/s)	0.10 J
50 mm	102.04 km/h (28.35 m/s)	0.17 J
100 mm	144.31 km/h (40.09 m/s)	0.34 J

Magnetic elements are prone to chipping – a collision with steel can result in shattering. Watch the impact speed – a neodymium left loose turns into a projectile. Striking energy can trigger coating fragments or dangerous crushing to skin. Hold the magnet firmly during installation so it doesn't slam with momentum against the metal. A contact at a velocity of dozens of km/h means shattering of the magnet. Wear eye protection when playing with large magnets.

Table 9: Corrosion resistance
MW 6x2 / N38

Technical parameter	Value / Description
Coating type	[NiCuNi] Nickel
Layer structure	Nickel - Copper - Nickel
Layer thickness	10-20 µm
Salt spray test (SST) ?	24 h
Recommended environment	Indoors only (dry)

For outdoor applications, an epoxy coating is required; standard nickel is intended for indoor use. Improper coating selection is the most common cause of magnet failure over time.

Table 10: Construction data (Flux)
MW 6x2 / N38

Parameter	Value	SI Unit / Description
Magnetic Flux	1 029 Mx	10.3 µWb
P_c Coefficient	0.44	Low (Flat)

Total magnetic flux passing through the pole surface. Key data for generator designers as well as sensors. The P_c coefficient determines the magnet's operating point.

Table 11: Physics of underwater searching
MW 6x2 / N38

Environment	Effective steel pull	Effect
Air (land)	0.86 kg	Standard
Water (riverbed)	0.98 kg (+0.12 kg buoyancy gain)	+14.5%

Warning: Remember to wipe the magnet thoroughly after removing it from water and apply a protective layer (e.g., oil) to avoid corrosion.

In water, the magnet feels stronger thanks to Archimedes' principle. As a result, your magnet will pull a heavier object from the bottom than if you lifted it in the air.

1. Shear force

*Warning: On a vertical wall, the magnet retains just approx. 20-30% of its max power.

2. Efficiency vs thickness

*Thin metal sheet (e.g. 0.5mm PC case) severely limits the holding force.

3. Temperature resistance

*For N38 material, the critical limit is 80°C.

4. Demagnetization curve and operating point (B-H)

chart generated for the permeance coefficient P_c (Permeance Coefficient) = 0.44

The chart above illustrates the magnetic characteristics of the material within the second quadrant of the hysteresis loop. The solid red line represents the demagnetization curve (material potential), while the dashed blue line is the load line based on the magnet's geometry. The P_c (Permeance Coefficient), also known as the load line slope, is a dimensionless value that describes the relationship between the magnet's shape and its magnetic stability. The intersection of these two lines (the black dot) is the operating point — it determines the actual magnetic flux density generated by the magnet in this specific configuration. A higher P_c value means the magnet is more 'slender' (tall relative to its area), resulting in a higher operating point and better resistance to irreversible demagnetization caused by external fields or temperature. A value of 0.42 is relatively low (typical for flat magnets), meaning the operating point is closer to the 'knee' of the curve — caution is advised when operating at temperatures near the maximum limit to avoid strength loss.

Technical specification and ecology

Material specification

iron (Fe)	64% – 68%
neodymium (Nd)	29% – 32%
boron (B)	1.1% – 1.2%
dysprosium (Dy)	0.5% – 2.0%
coating (Ni-Cu-Ni)	< 0.05%

Sustainability

recyclability (EoL)	100%
recycled raw materials	~10% (pre-cons)
carbon footprint	low / zredukowany
waste code (EWC)	16 02 16

Safety card (GPSR)

responsible entity

Dhit sp. z o.o.

ul. Kościuszki 6A, 05-850 Ożarów Mazowiecki

tel: +48 22 499 98 98 | e-mail: bok@dhit.pl

batch number/type

id: 010092-2026

Measurement Calculator

Magnet pull force

Newtons (N)

Pounds (lbs)

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Simply fill in a single box, to let the converter calculate everything else automatically.

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10.23 ZŁ brutto / pcs

The presented product is an incredibly powerful cylindrical magnet, manufactured from modern NdFeB material, which, at dimensions of Ø6x2 mm, guarantees optimal power. This specific item boasts high dimensional repeatability and industrial build quality, making it an ideal solution for the most demanding engineers and designers. As a magnetic rod with significant force (approx. 0.86 kg), this product is available off-the-shelf from our European logistics center, ensuring rapid order fulfillment. Moreover, its triple-layer Ni-Cu-Ni coating effectively protects it against corrosion in standard operating conditions, ensuring an aesthetic appearance and durability for years.

This model is ideal for building electric motors, advanced Hall effect sensors, and efficient filters, where maximum induction on a small surface counts. Thanks to the high power of 8.43 N with a weight of only 0.42 g, this cylindrical magnet is indispensable in electronics and wherever every gram matters.

Due to the brittleness of the NdFeB material, you must not use force-fitting (so-called press-fit), as this risks chipping the coating of this precision component. To ensure stability in industry, anaerobic resins are used, which do not react with the nickel coating and fill the gap, guaranteeing high repeatability of the connection.

Grade N38 is the most popular standard for industrial neodymium magnets, offering an optimal price-to-power ratio and operational stability. If you need the strongest magnets in the same volume (Ø6x2), contact us regarding higher grades (e.g., N50, N52), however, N38 is the standard in continuous sale in our store.

The presented product is a neodymium magnet with precisely defined parameters: diameter 6 mm and height 2 mm. The value of 8.43 N means that the magnet is capable of holding a weight many times exceeding its own mass of 0.42 g. The product has a [NiCuNi] coating, which protects the surface against external factors, giving it an aesthetic, silvery shine.

This rod magnet is magnetized axially (along the height of 2 mm), which means that the N and S poles are located on the flat, circular surfaces. Such an arrangement is most desirable when connecting magnets in stacks (e.g., in filters) or when mounting in sockets at the bottom of a hole. On request, we can also produce versions magnetized through the diameter if your project requires it.

Advantages as well as disadvantages of rare earth magnets.

Pros

Apart from their notable magnetism, neodymium magnets have these key benefits:

They virtually do not lose power, because even after ten years the performance loss is only ~1% (in laboratory conditions),
They possess excellent resistance to magnetic field loss as a result of external magnetic sources,
In other words, due to the smooth surface of silver, the element becomes visually attractive,
They show high magnetic induction at the operating surface, which improves attraction properties,
Neodymium magnets are characterized by extremely high magnetic induction on the magnet surface and can function (depending on the form) even at a temperature of 230°C or more...
Thanks to versatility in forming and the capacity to customize to client solutions,
Universal use in modern industrial fields – they find application in data components, brushless drives, medical equipment, as well as technologically advanced constructions.
Compactness – despite small sizes they generate large force, making them ideal for precision applications

Limitations

Drawbacks and weaknesses of neodymium magnets and ways of using them

They are fragile upon heavy impacts. To avoid cracks, it is worth securing magnets using a steel holder. Such protection not only shields the magnet but also increases its resistance to damage
We warn that neodymium magnets can reduce their strength at high temperatures. To prevent this, we advise our specialized [AH] magnets, which work effectively even at 230°C.
When exposed to humidity, magnets usually rust. To use them in conditions outside, it is recommended to use protective magnets, such as those in rubber or plastics, which secure oxidation and corrosion.
Limited ability of producing threads in the magnet and complicated forms - preferred is casing - magnetic holder.
Possible danger related to microscopic parts of magnets can be dangerous, when accidentally swallowed, which is particularly important in the context of child safety. Furthermore, small components of these devices can be problematic in diagnostics medical in case of swallowing.
High unit price – neodymium magnets are more expensive than other types of magnets (e.g. ferrite), which hinders application in large quantities

Holding force characteristics

Maximum magnetic pulling force – what contributes to it?

The declared magnet strength concerns the maximum value, measured under ideal test conditions, namely:

with the application of a yoke made of low-carbon steel, guaranteeing maximum field concentration
possessing a massiveness of at least 10 mm to avoid saturation
with a surface free of scratches
under conditions of gap-free contact (surface-to-surface)
for force acting at a right angle (in the magnet axis)
in temp. approx. 20°C

Lifting capacity in practice – influencing factors

It is worth knowing that the application force may be lower subject to the following factors, in order of importance:

Distance – the presence of foreign body (rust, tape, air) interrupts the magnetic circuit, which lowers capacity rapidly (even by 50% at 0.5 mm).
Angle of force application – maximum parameter is reached only during perpendicular pulling. The force required to slide of the magnet along the surface is standardly many times smaller (approx. 1/5 of the lifting capacity).
Plate thickness – too thin plate does not accept the full field, causing part of the power to be escaped into the air.
Metal type – different alloys reacts the same. Alloy additives weaken the interaction with the magnet.
Base smoothness – the smoother and more polished the plate, the better the adhesion and higher the lifting capacity. Unevenness acts like micro-gaps.
Operating temperature – neodymium magnets have a sensitivity to temperature. When it is hot they are weaker, and in frost gain strength (up to a certain limit).

Lifting capacity testing was performed on a smooth plate of suitable thickness, under perpendicular forces, whereas under attempts to slide the magnet the load capacity is reduced by as much as fivefold. In addition, even a minimal clearance between the magnet’s surface and the plate decreases the holding force.

Safety rules for work with neodymium magnets

Dust explosion hazard

Powder produced during grinding of magnets is flammable. Avoid drilling into magnets unless you are an expert.

Magnet fragility

Watch out for shards. Magnets can explode upon uncontrolled impact, ejecting sharp fragments into the air. Wear goggles.

Protect data

Data protection: Strong magnets can damage payment cards and delicate electronics (pacemakers, medical aids, mechanical watches).

Heat warning

Monitor thermal conditions. Exposing the magnet to high heat will destroy its magnetic structure and strength.

Life threat

For implant holders: Strong magnetic fields disrupt electronics. Maintain at least 30 cm distance or request help to work with the magnets.

Serious injuries

Large magnets can smash fingers in a fraction of a second. Never place your hand betwixt two strong magnets.

Do not give to children

Only for adults. Tiny parts pose a choking risk, causing severe trauma. Keep away from children and animals.

Handling guide

Before starting, check safety instructions. Sudden snapping can destroy the magnet or hurt your hand. Be predictive.

Compass and GPS

An intense magnetic field interferes with the functioning of compasses in smartphones and navigation systems. Keep magnets close to a device to avoid damaging the sensors.

Skin irritation risks

Certain individuals have a contact allergy to nickel, which is the typical protective layer for neodymium magnets. Prolonged contact might lead to an allergic reaction. We recommend wear safety gloves.

Attention! Learn more about hazards in the article: Safety of working with magnets.

MW 6x2 / N38 - cylindrical magnet

Technical - MW 6x2 / N38 - cylindrical magnet

Magnetic properties of material N38

Physical properties of sintered neodymium magnets Nd2Fe14B at 20°C

Physical modeling of the product - data

Table 1: Static pull force (pull vs distance) - interaction chart MW 6x2 / N38

Table 2: Slippage hold (vertical surface) MW 6x2 / N38

Table 3: Vertical assembly (sliding) - vertical pull MW 6x2 / N38

Table 4: Material efficiency (saturation) - power losses MW 6x2 / N38

Table 5: Thermal stability (material behavior) - resistance threshold MW 6x2 / N38

Table 6: Magnet-Magnet interaction (repulsion) - field range MW 6x2 / N38

Table 7: Protective zones (electronics) - precautionary measures MW 6x2 / N38

Table 8: Dynamics (kinetic energy) - collision effects MW 6x2 / N38

Table 9: Corrosion resistance MW 6x2 / N38

Table 10: Construction data (Flux) MW 6x2 / N38

Table 11: Physics of underwater searching MW 6x2 / N38

1. Shear force

2. Efficiency vs thickness

3. Temperature resistance

4. Demagnetization curve and operating point (B-H)

Material specification

Sustainability

Magnet pull force

Magnetic Field

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MPL 30x20x4 / N38 - lamellar magnet

Advantages as well as disadvantages of rare earth magnets.

Pros

Limitations

Holding force characteristics

Maximum magnetic pulling force – what contributes to it?

Lifting capacity in practice – influencing factors

Safety rules for work with neodymium magnets

Dust explosion hazard

Magnet fragility

Protect data

Heat warning

Life threat

Serious injuries

Do not give to children

Handling guide

Compass and GPS

Skin irritation risks

Physical properties of sintered neodymium magnets Nd₂Fe₁₄B at 20°C

Table 1: Static pull force (pull vs distance) - interaction chart
MW 6x2 / N38

Table 2: Slippage hold (vertical surface)
MW 6x2 / N38

Table 3: Vertical assembly (sliding) - vertical pull
MW 6x2 / N38

Table 4: Material efficiency (saturation) - power losses
MW 6x2 / N38

Table 5: Thermal stability (material behavior) - resistance threshold
MW 6x2 / N38

Table 6: Magnet-Magnet interaction (repulsion) - field range
MW 6x2 / N38

Table 7: Protective zones (electronics) - precautionary measures
MW 6x2 / N38

Table 8: Dynamics (kinetic energy) - collision effects
MW 6x2 / N38

Table 9: Corrosion resistance
MW 6x2 / N38

Table 10: Construction data (Flux)
MW 6x2 / N38

Table 11: Physics of underwater searching
MW 6x2 / N38