Din 5482 Spline Dimensions Calculator

Manufacturers need to know how to inspect the part. A reliable calculator provides the Measurement over Pins (or balls) for both the shaft and the sleeve. This bridges the gap between the design engineer and the QA department.

| Parameter | Options / Range | |-----------|----------------| | Module (m) | 0.5, 0.75, 1.0, 1.25, 1.5, 1.75, 2.0, 2.5, 3.0, 4.0, 5.0 mm | | Number of teeth (z) | 10 to 100 (integer) | | Duty series | Light (L), Medium (M), Heavy (H) | | Component type | Internal spline (hub) / External spline (shaft) | | Tolerance class | 7H / 8H / 9H (hub), 7h / 8h / 9h / 10h (shaft) | | Form clearance (optional) | Yes / No (default = with clearance) |


While the user interface of a calculator simplifies the process, the underlying mathematics relies on standard involute gear geometry. For a DIN 5482 spline, the base circle is calculated using the cosine of the 30-degree pressure angle. din 5482 spline dimensions calculator

$$d_b = z \cdot m \cdot \cos(30^\circ)$$

Furthermore, the calculator must account for tooth depth ($h$). In DIN 5482, the tooth depth is typically defined as $h = 2 \cdot m$. This is different from the standard gear tooth depth (which is usually $2.25 \cdot m$) because splines generally have shorter teeth to maximize shear strength and minimize stress concentrations. Manufacturers need to know how to inspect the part

DIN 5482 provides multi-page tables of tolerance grades. A calculator instantly applies the correct deviations without table interpolation.

Precision is the backbone of mechanical power transmission. While DIN 5482 may be an older standard, it remains a critical specification for maintenance and repair operations. Utilizing a DIN 5482 spline dimensions calculator eliminates manual math errors, speeds up the design process, and ensures that your shaft and hub will mate perfectly the first time. While the user interface of a calculator simplifies


Because DIN 5482 was withdrawn in favor of DIN 5480 (involute) for new designs, its primary use today is reverse engineering, repair, and manufacturing of legacy components.