Drug Price Calculation: Difference between revisions

No edit summary
No edit summary
Line 4: Line 4:
<blockquote>After inserting the general values it may look like this (retrieved on November 26, 2025):</blockquote><math display="block">P_{total}=N\times I_{Inflation}\times \left( M_{ItemPrice}+\sum_{i=1}^{n}\left[(500+10e^{L_{i}}+\frac{t_{i}}{20}\cdot 1)\cdot f_{i}\right] \right)</math>
<blockquote>After inserting the general values it may look like this (retrieved on November 26, 2025):</blockquote><math display="block">P_{total}=N\times I_{Inflation}\times \left( M_{ItemPrice}+\sum_{i=1}^{n}\left[(500+10e^{L_{i}}+\frac{t_{i}}{20}\cdot 1)\cdot f_{i}\right] \right)</math>
* <math>N</math> = Number of items
* <math>N</math> = Number of items
* I_{Inflation} = The Inflation Factor (Stays at 1.0 for now)
* <math>I_{Inflation}</math> = The Inflation Factor (Stays at 1.0 for now)
* M_{ItemPrice} = Item Price in the Shop
* <math>M_{ItemPrice}</math> = Item Price in the Shop
* n = Number of effects
* <math>n</math> = Number of effects
* L_{i} = Level of effect i (converted from NBT byte)
* <math>L_{i}</math> = Level of effect i (converted from NBT byte)
* t_{i} = Duration of effect i in ticks
* <math>t_{i}</math> = Duration of effect i in ticks
* f_{i} = Effect multiplier (2.0 for good effects, 1.0 for others)
* <math>f_{i}</math> = Effect multiplier (2.0 for good effects, 1.0 for others)


====== General Values ======
====== General Values ======