Designer tools for stamping and blanking dies

Paste a competitor code (KALLER, AZOLGAS, DADCO, Bordignon, ...) and get the exact NITROGAS counterpart in 200 ms.

Input

SKU code from any of 37 brands

Output

NITROGAS counterpart + confidence + full comparison sheet

Enter required clamping force and working stroke - we calculate the spring count with a safety margin and suggest concrete catalogue codes.

Input

force [kN], stroke [mm], safety factor

Output

spring count + suggested series from catalogue

Visualiser for force build-up along the stroke - interactive slider, F(s) = F0 · (1 + K2 · s/Smax), with per-family K2 constants.

Input

F0 [daN], Smax [mm], family (G/K/HD/T/CN/A)

Output

F(s) chart + force at the selected point

Check the spring force at process temperature. +0.34%/K coefficient, NBR limits -10 °C to +80 °C, LT/HT variant proposals outside the range.

Input

F(20°C) [daN], ambient temperature [°C]

Output

force at temperature + warnings + variant pick

Check whether the planned press cycle rate will overheat the springs. Per-family and per-stroke limit scaling, burst-mode recommendations.

Input

cycle rate [strokes/min], working stroke, family

Output

continuous limit + burst window + cooling recommendation

Accumulator volume and hydraulic ΔP between manifold-mounted springs - 5 bar safety limit. Darcy-Weisbach model + peak v_return = 1.5 m/s.

Input

spring count, pipe length, pipe bore diameter

Output

accumulator volume + ΔP + recommended bore

Determine the PED category for a set or single spring (Art. 4(3) ↔ Cat. I/II/III/IV) along with the required conformity-assessment module and documentation checklist.

Input

spring count, gas volume [L], max pressure [bar]

Output

category + module + required documentation list

Pick a NITROGAS Cam Unit family (Aerial / Die-mounted / Roller / Punching) - ranking of 4 families per operation, parameters, available envelope.

Input

operation, force [kN], angle, stroke, available envelope

Output

family ranking + RFQ CTA with parameters

For signed-in customers: spring regeneration interval prediction based on stroke, cycle rate and shift schedule (N₀·(S/Smax)⁻³ fatigue model).

Input

stroke, cycle rate, shifts/days, commissioning date

Output

useful life + regeneration date + schedule