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MW 12x6 / N38 - cylindrical magnet

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

cylindrical magnet

Catalog no 010021

GTIN/EAN: 5906301810209

5.00

Diameter Ø

12 mm [±0,1 mm]

Height

6 mm [±0,1 mm]

Weight

5.09 g

Magnetization Direction

↑ axial

Load capacity

4.60 kg / 45.09 N

Magnetic Induction

437.99 mT / 4380 Gs

Coating

[NiCuNi] Nickel

see technical specifications »

1.882 ZŁ with VAT / pcs + price for transport

1.530 ZŁ net + 23% VAT / pcs

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Technical of the product - MW 12x6 / N38 - cylindrical magnet

Specification / characteristics - MW 12x6 / N38 - cylindrical magnet

properties

properties	values
Cat. no.	010021
GTIN/EAN	5906301810209
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	12 mm [±0,1 mm]
Height	6 mm [±0,1 mm]
Weight	5.09 g
Magnetization Direction	↑ axial
Load capacity ~ ?	4.60 kg / 45.09 N
Magnetic Induction ~ ?	437.99 mT / 4380 Gs
Coating	[NiCuNi] Nickel
Manufacturing Tolerance	±0.1 mm

Magnetic properties of material N38

Specification / characteristics MW 12x6 / 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 simulation of the assembly - report

Presented information represent the outcome of a mathematical simulation. Results were calculated on algorithms for the material Nd₂Fe₁₄B. Real-world parameters might slightly deviate from the simulation results. Treat these data as a preliminary roadmap during assembly planning.

Table 1: Static pull force (pull vs distance) - interaction chart
MW 12x6 / N38

Distance (mm)	Induction (Gauss) / mT	Pull Force (kg/lbs/g/N)	Risk Status
0 mm	4377 Gs 437.7 mT	4.60 kg / 10.14 lbs 4600.0 g / 45.1 N	warning
1 mm	3688 Gs 368.8 mT	3.27 kg / 7.20 lbs 3265.4 g / 32.0 N	warning
2 mm	2999 Gs 299.9 mT	2.16 kg / 4.76 lbs 2159.7 g / 21.2 N	warning
3 mm	2386 Gs 238.6 mT	1.37 kg / 3.01 lbs 1366.7 g / 13.4 N	safe
5 mm	1474 Gs 147.4 mT	0.52 kg / 1.15 lbs 521.4 g / 5.1 N	safe
10 mm	489 Gs 48.9 mT	0.06 kg / 0.13 lbs 57.4 g / 0.6 N	safe
15 mm	205 Gs 20.5 mT	0.01 kg / 0.02 lbs 10.1 g / 0.1 N	safe
20 mm	103 Gs 10.3 mT	0.00 kg / 0.01 lbs 2.5 g / 0.0 N	safe
30 mm	36 Gs 3.6 mT	0.00 kg / 0.00 lbs 0.3 g / 0.0 N	safe
50 mm	9 Gs 0.9 mT	0.00 kg / 0.00 lbs 0.0 g / 0.0 N	safe

Pulling power decreases sharply per each millimeter of distance. Note that even a microscopic distance (e.g., dirt, varnish, veneer) significantly reduces the pull force. Neodymiums work optimally during direct contact; gap kills the power. Notice how flashily the load capacity plummet, when the product does not touch flatly to the steel surface. When designing the arrangement, discard redundant distances.

Table 2: Shear load (vertical surface)
MW 12x6 / N38

Distance (mm)	Friction coefficient	Pull Force (kg/lbs/g/N)
0 mm	Stal (~0.2)	0.92 kg / 2.03 lbs 920.0 g / 9.0 N
1 mm	Stal (~0.2)	0.65 kg / 1.44 lbs 654.0 g / 6.4 N
2 mm	Stal (~0.2)	0.43 kg / 0.95 lbs 432.0 g / 4.2 N
3 mm	Stal (~0.2)	0.27 kg / 0.60 lbs 274.0 g / 2.7 N
5 mm	Stal (~0.2)	0.10 kg / 0.23 lbs 104.0 g / 1.0 N
10 mm	Stal (~0.2)	0.01 kg / 0.03 lbs 12.0 g / 0.1 N
15 mm	Stal (~0.2)	0.00 kg / 0.00 lbs 2.0 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 defines the estimated holding capacity needed to cause the shifting of the magnet downwards against a vertical steel wall (assuming typical friction coefficient). This value varies with the distance between the magnet and the metal.

Table 3: Wall mounting (sliding) - behavior on slippery surfaces
MW 12x6 / N38

Surface type	Friction coefficient / % Mocy	Max load (kg/lbs/g/N)
Raw steel	µ = 0.3 30% Nominalnej Siły	1.38 kg / 3.04 lbs 1380.0 g / 13.5 N
Painted steel (standard)	µ = 0.2 20% Nominalnej Siły	0.92 kg / 2.03 lbs 920.0 g / 9.0 N
Oily/slippery steel	µ = 0.1 10% Nominalnej Siły	0.46 kg / 1.01 lbs 460.0 g / 4.5 N
Magnet with anti-slip rubber	µ = 0.5 50% Nominalnej Siły	2.30 kg / 5.07 lbs 2300.0 g / 22.6 N

When placing a element on a upright plane (e.g., a fridge), it will maintain barely about 20%-30% of its nominal power. Gravity as well as a low friction coefficient mean that magnets slide down easier than they detach. Planning a vertical fastening? Remember that the sliding force is noticeably lower than the perpendicular breakaway force. On a painted metal, the holder will slip down under a significantly smaller load. Using a rubber layer can effectively increase the grip.

Table 4: Material efficiency (substrate influence) - power losses
MW 12x6 / N38

Steel thickness (mm)	% power	Real pull force (kg/lbs/g/N)
0.5 mm	10%	0.46 kg / 1.01 lbs 460.0 g / 4.5 N
1 mm	25%	1.15 kg / 2.54 lbs 1150.0 g / 11.3 N
2 mm	50%	2.30 kg / 5.07 lbs 2300.0 g / 22.6 N
3 mm	75%	3.45 kg / 7.61 lbs 3450.0 g / 33.8 N
5 mm	100%	4.60 kg / 10.14 lbs 4600.0 g / 45.1 N
10 mm	100%	4.60 kg / 10.14 lbs 4600.0 g / 45.1 N
11 mm	100%	4.60 kg / 10.14 lbs 4600.0 g / 45.1 N
12 mm	100%	4.60 kg / 10.14 lbs 4600.0 g / 45.1 N

A thin metal plate is not enough to conduct the entire magnetic field, which squanders power of the magnet. Should you attach a powerful product to a too thin substrate, the flux will penetrate right through and the holding will be smaller. To utilize 100% of this neodymium's power, you need a suitably thick element of metal. The material oversaturation means that on delicate walls (e.g., car bodies), the holder works worse. We recommend selecting the steel cross-section based on the following data.

Table 5: Thermal resistance (material behavior) - thermal limit
MW 12x6 / N38

Ambient temp. (°C)	Power loss	Remaining pull (kg/lbs/g/N)	Status
20 °C	0.0%	4.60 kg / 10.14 lbs 4600.0 g / 45.1 N	OK
40 °C	-2.2%	4.50 kg / 9.92 lbs 4498.8 g / 44.1 N	OK
60 °C	-4.4%	4.40 kg / 9.70 lbs 4397.6 g / 43.1 N
80 °C	-6.6%	4.30 kg / 9.47 lbs 4296.4 g / 42.1 N
100 °C	-28.8%	3.28 kg / 7.22 lbs 3275.2 g / 32.1 N

Classic neodymiums lose power after exceeding the maximum temperature. Watch out for overheating – heat can irreversibly demagnetize this magnet. With increasing heat, the neodymium's power temporarily lowers. Do not use this product close to ovens exceeding its operating temperature limit. Ignoring the limit will cause destruction of magnetic properties.

*Important note: Thermal stability is determined by both grade, and the Permeance Coefficient Pc. Thin magnets (pancake types) risk losing magnetic properties at lower temperatures than taller cylinders. Red status in the table points to permanent field degradation for this specific geometry.

Table 6: Two magnets (repulsion) - field range
MW 12x6 / N38

Gap (mm)	Attraction (kg/lbs) (N-S)	Shear Strength (kg/lbs/g/N)	Repulsion (kg/lbs) (N-N)
0 mm	13.36 kg / 29.45 lbs 5 536 Gs	2.00 kg / 4.42 lbs 2004 g / 19.7 N	N/A
1 mm	11.39 kg / 25.10 lbs 8 082 Gs	1.71 kg / 3.77 lbs 1708 g / 16.8 N	10.25 kg / 22.59 lbs ~0 Gs
2 mm	9.48 kg / 20.91 lbs 7 376 Gs	1.42 kg / 3.14 lbs 1423 g / 14.0 N	8.54 kg / 18.82 lbs ~0 Gs
3 mm	7.77 kg / 17.12 lbs 6 675 Gs	1.17 kg / 2.57 lbs 1165 g / 11.4 N	6.99 kg / 15.41 lbs ~0 Gs
5 mm	5.01 kg / 11.05 lbs 5 361 Gs	0.75 kg / 1.66 lbs 752 g / 7.4 N	4.51 kg / 9.94 lbs ~0 Gs
10 mm	1.51 kg / 3.34 lbs 2 948 Gs	0.23 kg / 0.50 lbs 227 g / 2.2 N	1.36 kg / 3.01 lbs ~0 Gs
20 mm	0.17 kg / 0.37 lbs 978 Gs	0.02 kg / 0.06 lbs 25 g / 0.2 N	0.15 kg / 0.33 lbs ~0 Gs
50 mm	0.00 kg / 0.01 lbs 116 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 72 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 48 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 33 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 24 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 18 Gs	0.00 kg / 0.00 lbs 0 g / 0.0 N	0.00 kg / 0.00 lbs ~0 Gs

Two magnets attract each other from a significantly greater distance than a magnet and sheet setup. The connection of magnet-to-magnet generates a stronger field and a further horizon of performance. Want to build a solid fastener? Apply two magnets instead of a neodymium and a steel. Remember that when bringing together two magnets, the pinch force is huge. The repulsion force is marginally weaker than the attraction, but still large.
*Flux density in repulsion mode is approximately ~0 Gs at the midpoint between the magnets (caused by magnetic field nullification).
Important: Calculations apply to friction force of two same magnets (friction coefficient ~0.15 for Ni-Ni plating).

Table 7: Protective zones (electronics) - precautionary measures
MW 12x6 / N38

Object / Device	Limit (Gauss) / mT	Safe distance
Pacemaker	5 Gs (0.5 mT)	6.5 cm
Hearing aid	10 Gs (1.0 mT)	5.0 cm
Timepiece	20 Gs (2.0 mT)	4.0 cm
Phone / Smartphone	40 Gs (4.0 mT)	3.0 cm
Car key	50 Gs (5.0 mT)	3.0 cm
Payment card	400 Gs (40.0 mT)	1.5 cm
HDD hard drive	600 Gs (60.0 mT)	1.0 cm

A strong magnetic field is a real danger to electronics and medical implants. These neodymiums produce a flux that prevents correct functioning of digital equipment. Be aware: the unseen radiation passes through tissues and glass. Increased vigilance must be taken by people with cochlear implants and drug dispensers. Also at risk are: mechanical watches, car keys, speakers, and screens. Do not place the magnet near cards, HDD media, or precise measuring instruments.

Table 8: Impact energy (kinetic energy) - warning
MW 12x6 / N38

Start from (mm)	Speed (km/h)	Energy (J)
10 mm	30.55 km/h (8.49 m/s)	0.18 J
30 mm	52.51 km/h (14.59 m/s)	0.54 J
50 mm	67.79 km/h (18.83 m/s)	0.90 J
100 mm	95.87 km/h (26.63 m/s)	1.81 J

Magnetic elements are delicate – a collision with steel can result in shattering. Control the attraction moment – a magnet released freely speeds with massive force. Kinetic force can cause material chips or dangerous crushing to skin. Be sure to control the product during bringing near metal so it doesn't slam with momentum against the metal. A collision at high speed means shattering of the magnet. Wear eye protection when working with large magnets.

Table 9: Corrosion resistance
MW 12x6 / 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)

The following table defines the conditions under which this product can be safely used. The silver nickel coating also serves an aesthetic function but is not fully waterproof.

Table 10: Electrical data (Flux)
MW 12x6 / N38

Parameter	Value	SI Unit / Description
Magnetic Flux	5 024 Mx	50.2 µWb
P_c Coefficient	0.59	Low (Flat)

Total magnetic flux passing through the pole surface. Key data when building generators and motors. P_c value determines the magnet's operating point.

Table 11: Submerged application
MW 12x6 / N38

Environment	Effective steel pull	Effect
Air (land)	4.60 kg	Standard
Water (riverbed)	5.27 kg (+0.67 kg buoyancy gain)	+14.5%

Warning: This magnet has a standard nickel coating. After use in water, it must be dried and maintained immediately, otherwise it will rust!

Contrary to myths, water does not block the magnetic field. Note: for permanent underwater work, we recommend magnets with an anti-corrosive (epoxy) coating.

1. Shear force

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

2. Steel saturation

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

3. Thermal stability

*For N38 grade, the safety limit is 80°C.

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

chart generated for the permeance coefficient P_c (Permeance Coefficient) = 0.59

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 and environmental data

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%

Environmental data

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: 010021-2026

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The offered product is an exceptionally strong cylindrical magnet, manufactured from advanced NdFeB material, which, at dimensions of Ø12x6 mm, guarantees optimal power. This specific item is characterized by a tolerance of ±0.1mm and industrial build quality, making it an excellent solution for the most demanding engineers and designers. As a magnetic rod with significant force (approx. 4.60 kg), this product is available off-the-shelf from our European logistics center, ensuring lightning-fast order fulfillment. Moreover, its triple-layer Ni-Cu-Ni coating shields it against corrosion in typical operating conditions, ensuring an aesthetic appearance and durability for years.

This model is created for building generators, advanced sensors, and efficient filters, where field concentration on a small surface counts. Thanks to the high power of 45.09 N with a weight of only 5.09 g, this cylindrical magnet is indispensable in miniature devices and wherever every gram matters.

Since our magnets have a tolerance of ±0.1mm, the best method is to glue them into holes with a slightly larger diameter (e.g., 12.1 mm) using epoxy glues. To ensure stability in automation, anaerobic resins are used, which do not react with the nickel coating and fill the gap, guaranteeing high repeatability of the connection.

Magnets N38 are strong enough for the majority of applications in modeling and machine building, where extreme miniaturization with maximum force is not required. If you need even stronger magnets in the same volume (Ø12x6), contact us regarding higher grades (e.g., N50, N52), however, N38 is the standard available off-the-shelf in our store.

This model is characterized by dimensions Ø12x6 mm, which, at a weight of 5.09 g, makes it an element with high magnetic energy density. The value of 45.09 N means that the magnet is capable of holding a weight many times exceeding its own mass of 5.09 g. The product has a [NiCuNi] coating, which protects the surface against external factors, giving it an aesthetic, silvery shine.

Standardly, the magnetic axis runs through the center of the cylinder, causing the greatest attraction force to occur on the bases with a diameter of 12 mm. Thanks to this, the magnet can be easily glued into a hole and achieve a strong field on the front surface. On request, we can also produce versions magnetized diametrically if your project requires it.

Advantages as well as disadvantages of rare earth magnets.

Benefits

In addition to their pulling strength, neodymium magnets provide the following advantages:

Their power is maintained, and after around 10 years it drops only by ~1% (according to research),
They do not lose their magnetic properties even under external field action,
A magnet with a shiny gold surface has an effective appearance,
Magnetic induction on the working part of the magnet remains impressive,
Through (adequate) combination of ingredients, they can achieve high thermal resistance, enabling operation at temperatures approaching 230°C and above...
In view of the possibility of accurate shaping and customization to unique requirements, magnetic components can be manufactured in a wide range of shapes and sizes, which increases their versatility,
Universal use in high-tech industry – they are utilized in magnetic memories, electric drive systems, advanced medical instruments, as well as modern systems.
Compactness – despite small sizes they provide effective action, making them ideal for precision applications

Cons

Disadvantages of neodymium magnets:

To avoid cracks upon strong impacts, we suggest using special steel housings. Such a solution protects the magnet and simultaneously increases its durability.
When exposed to high temperature, neodymium magnets suffer a drop in force. Often, when the temperature exceeds 80°C, their power decreases (depending on the size and shape of the magnet). For those who need magnets for extreme conditions, we offer [AH] versions withstanding up to 230°C
They rust in a humid environment - during use outdoors we suggest using waterproof magnets e.g. in rubber, plastic
Due to limitations in realizing threads and complicated forms in magnets, we recommend using a housing - magnetic holder.
Potential hazard to health – tiny shards of magnets are risky, when accidentally swallowed, which is particularly important in the aspect of protecting the youngest. Additionally, tiny parts of these products are able to complicate diagnosis medical after entering the body.
High unit price – neodymium magnets have a higher price than other types of magnets (e.g. ferrite), which increases costs of application in large quantities

Lifting parameters

Maximum magnetic pulling force – what affects it?

The specified lifting capacity represents the peak performance, measured under optimal environment, specifically:

on a base made of mild steel, perfectly concentrating the magnetic field
possessing a massiveness of min. 10 mm to ensure full flux closure
with a surface perfectly flat
under conditions of ideal adhesion (surface-to-surface)
during detachment in a direction vertical to the plane
at ambient temperature room level

Determinants of practical lifting force of a magnet

Holding efficiency is affected by working environment parameters, mainly (from most important):

Distance (betwixt the magnet and the plate), as even a very small distance (e.g. 0.5 mm) results in a decrease in force by up to 50% (this also applies to varnish, rust or dirt).
Direction of force – highest force is reached only during pulling at a 90° angle. The force required to slide of the magnet along the surface is usually many times lower (approx. 1/5 of the lifting capacity).
Metal thickness – the thinner the sheet, the weaker the hold. Magnetic flux penetrates through instead of converting into lifting capacity.
Material type – ideal substrate is high-permeability steel. Cast iron may attract less.
Surface condition – ground elements guarantee perfect abutment, which improves field saturation. Uneven metal reduce efficiency.
Temperature – heating the magnet results in weakening of induction. It is worth remembering the maximum operating temperature for a given model.

Lifting capacity was assessed using a steel plate with a smooth surface of optimal thickness (min. 20 mm), under vertically applied force, however under parallel forces the load capacity is reduced by as much as 75%. Additionally, even a small distance between the magnet’s surface and the plate reduces the load capacity.

Precautions when working with neodymium magnets

Bone fractures

Mind your fingers. Two large magnets will join immediately with a force of massive weight, destroying anything in their path. Be careful!

Risk of cracking

Beware of splinters. Magnets can fracture upon violent connection, ejecting shards into the air. Eye protection is mandatory.

Protect data

Equipment safety: Strong magnets can ruin payment cards and sensitive devices (heart implants, medical aids, mechanical watches).

Handling guide

Be careful. Rare earth magnets act from a long distance and connect with massive power, often faster than you can react.

Nickel coating and allergies

Some people suffer from a contact allergy to nickel, which is the common plating for neodymium magnets. Prolonged contact might lead to skin redness. We strongly advise use protective gloves.

ICD Warning

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

Fire risk

Drilling and cutting of NdFeB material carries a risk of fire risk. Neodymium dust oxidizes rapidly with oxygen and is hard to extinguish.

Do not overheat magnets

Regular neodymium magnets (grade N) undergo demagnetization when the temperature exceeds 80°C. The loss of strength is permanent.

GPS Danger

GPS units and smartphones are highly susceptible to magnetic fields. Close proximity with a powerful NdFeB magnet can ruin the sensors in your phone.

Danger to the youngest

Always keep magnets out of reach of children. Ingestion danger is significant, and the effects of magnets clamping inside the body are fatal.

Security! More info about hazards in the article: Magnet Safety Guide.

MW 12x6 / N38 - cylindrical magnet

Technical of the product - MW 12x6 / N38 - cylindrical magnet

Magnetic properties of material N38

Physical properties of sintered neodymium magnets Nd2Fe14B at 20°C

Physical simulation of the assembly - report

Table 1: Static pull force (pull vs distance) - interaction chart MW 12x6 / N38

Table 2: Shear load (vertical surface) MW 12x6 / N38

Table 3: Wall mounting (sliding) - behavior on slippery surfaces MW 12x6 / N38

Table 4: Material efficiency (substrate influence) - power losses MW 12x6 / N38

Table 5: Thermal resistance (material behavior) - thermal limit MW 12x6 / N38

Table 6: Two magnets (repulsion) - field range MW 12x6 / N38

Table 7: Protective zones (electronics) - precautionary measures MW 12x6 / N38

Table 8: Impact energy (kinetic energy) - warning MW 12x6 / N38

Table 9: Corrosion resistance MW 12x6 / N38

Table 10: Electrical data (Flux) MW 12x6 / N38

Table 11: Submerged application MW 12x6 / N38

1. Shear force

2. Steel saturation

3. Thermal stability

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

Material specification

Environmental data

Magnet pull force

Field Strength

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Advantages as well as disadvantages of rare earth magnets.

Benefits

Cons

Lifting parameters

Maximum magnetic pulling force – what affects it?

Determinants of practical lifting force of a magnet

Precautions when working with neodymium magnets

Bone fractures

Risk of cracking

Protect data

Handling guide

Nickel coating and allergies

ICD Warning

Fire risk

Do not overheat magnets

GPS Danger

Danger to the youngest

Physical properties of sintered neodymium magnets Nd₂Fe₁₄B at 20°C

Table 1: Static pull force (pull vs distance) - interaction chart
MW 12x6 / N38

Table 2: Shear load (vertical surface)
MW 12x6 / N38

Table 3: Wall mounting (sliding) - behavior on slippery surfaces
MW 12x6 / N38

Table 4: Material efficiency (substrate influence) - power losses
MW 12x6 / N38

Table 5: Thermal resistance (material behavior) - thermal limit
MW 12x6 / N38

Table 6: Two magnets (repulsion) - field range
MW 12x6 / N38

Table 7: Protective zones (electronics) - precautionary measures
MW 12x6 / N38

Table 8: Impact energy (kinetic energy) - warning
MW 12x6 / N38

Table 9: Corrosion resistance
MW 12x6 / N38

Table 10: Electrical data (Flux)
MW 12x6 / N38

Table 11: Submerged application
MW 12x6 / N38