Powder Metallurgy & Sintered Parts worked example
Powder Fill Weight with die cavity fill volume of 250 cm³: a worked example
Push die cavity fill volume up to 250 cm³ and the picture changes. This example computes every intermediate figure at that operating point. Use it when powder fill weight in powder metallurgy and sintered parts needs a few factors combined into one defensible number for powder metallurgy and sintered parts.
The inputs for this scenario
- Die cavity fill volume: 250 cm³ (raised for this scenario; the documented default is 100)
- Fill density factor: 4 g/cm³ (unchanged)
- Grams-to-pounds conversion: 0.01 x (unchanged)
- Fill efficiency multiplier: 1 x (unchanged)
Working through the calculation
- Applying the documented formula (Powder Fill Weight = first factor × second factor × conversion factor × process multiplier) to the inputs above produces each figure below.
- At this operating point the engine returns 5 lb for result, the number this scenario is built around.
- At this operating point the engine returns 5 value for base product.
- At this operating point the engine returns 1 x for multiplier.
- At this operating point the engine returns 1,000 value for factor a x b.
How this compares with the baseline
- Against the tool's baseline example, where die cavity fill volume sits at 100 cm³ and the headline result is 2 lb, this scenario comes in 150% above the baseline at 5 lb.
- It computes the powder charge weight per part by multiplying fill volume, fill density, a unit conversion, and a fill efficiency factor. The value of this scenario is the size of the gap it exposes: that gap, priced out over a year, is the budget you can justify spending to close it.
Results at a glance
- Result: 5 lb (headline result)
- Base product: 5 value
- Multiplier: 1 x
- Factor A x B: 1,000 value
Run it with your numbers
- Every input above is editable in the live Powder Fill Weight calculator, which recalculates instantly and can be shared with the inputs intact.
Last reviewed 2026-05-12.