Multiset Complete Kit Count
Count complete typed kits consumable from an explicit inventory using the limiting required multiplicity; empty kit requirements are rejected.
Description
Count complete typed kits consumable from an explicit inventory using the limiting required multiplicity; empty kit requirements are rejected.
The maximum number of identical complete kits is limited by the scarcest required value relative to its per-kit count.
When to use this tool
Count complete typed kits consumable from an explicit inventory using the limiting required multiplicity; empty kit requirements are rejected.
- Prepare the supplied inventoryJson, kitJson fields for this operation.
- Compare the complete example with the representation used by your own input before carrying the result into another step.
How to use the tool and how it works
- Enter inventoryJson, kitJson. Use the exact text syntax, units and index conventions explained below.
- Run the tool. If input validation fails, correct the supplied fields before interpreting any result.
- Read result.kits. Interpret false, null and empty lists using the distinctions below; they can be valid outputs.
Normalize inventoryJson and a nonempty positive kitJson. For each required value floor-divide available count by needed count, then return the minimum as kits.1
| Input field | Meaning and representation | Accepted input |
|---|---|---|
| inventoryJson | JSON text, entered as one text field. The decoded structure is illustrated below; it is not a separate file. | Text |
| kitJson | JSON text, entered as one text field. The decoded structure is illustrated below; it is not a separate file. | Text |
For the JSON text fields, the following decoded structures show the example records before they are serialized into input strings. Keep field names, list nesting and value types as shown.
[
{
"field": "inventoryJson",
"decoded": [
{
"value": "a",
"count": 3
},
{
"value": "b",
"count": 1
}
]
},
{
"field": "kitJson",
"decoded": [
{
"value": "a",
"count": 2
},
{
"value": "b",
"count": 1
}
]
}
]| Output field | Interpretation |
|---|---|
| result | Object containing the named outputs below. |
| result.kits | The kits value under the stated formula or text convention. |
{
"input": {
"inventoryJson": "[{\"value\":\"a\",\"count\":3},{\"value\":\"b\",\"count\":1}]",
"kitJson": "[{\"value\":\"a\",\"count\":2},{\"value\":\"b\",\"count\":1}]"
},
"output": {
"result": {
"kits": 1
}
}
}Limitations and assumptions
- Missing required values contribute zero. No inventory is consumed and no alternate recipe or shared-resource optimization is performed.
- All declared input fields are required and unexpected top-level fields are rejected. Numbers must be finite; lists are limited to 128 entries and ordinary text fields to 8,192 UTF-16 code units, with tighter limits where stated.
- JSON text inputs must parse within bounded nesting and size limits. Numeric outputs outside the safe finite range are rejected; large exact integer results use decimal strings. Indexes and half-open spans are zero-based unless a rank is explicitly described as one-based.
Alternative or Complementary methods
Keep occurrence sequences separate from count tables. Choose maximum union, additive concatenation or allocation deliberately, and apply any real inventory changes through a system that controls concurrent updates.
References
Similar or alternative tools
- Multiset One Kit Consumption
Apply one all-or-nothing typed kit consumption; insufficient inventory remains unchanged rather than partially consumed.
- Multiset Capped Count Table
Cap each normalized typed multiplicity at an explicit nonnegative integer and omit resulting zeros; no proportional redistribution.