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Q-ANALOGUES / THREE GROUPS

Gaussian Multinomial Coefficient Calculator

Evaluate a three-group Gaussian multinomial coefficient for nonnegative group sizes and positive integer q.

  • 01 Calculated in this tab
  • 02 Values stay in this browser tab
  • 03 Use boundary

Conversion input

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METHOD / WORKED EXAMPLE

Audit the Gaussian Multinomial Coefficient result step by step

Evaluate a three-group Gaussian multinomial coefficient for nonnegative group sizes and positive integer q. The result panel keeps the defining recurrence or counting identity visible so the output can be checked independently.

WORKED DEFAULT

Check the calculation with the default inputs

For group sizes 1, 2, 1 and q = 2, [4 choose 1]_2 times [3 choose 2]_2 equals 15 x 7 = 105.

  1. First q-binomial[4;1]2=15
  2. Second q-binomial[3;2]2=7
  3. Multiply105

READ THE RESULT

Interpret the output in context

The ordered group dimensions and q weighting distinguish this from an ordinary multinomial count.

ASSUMPTIONS AND LIMITS

Know where the model stops

  • Group sizes are nonnegative integers and q is positive.
  • The three-group factorization shown on the page is used.

The finite-field interpretation requires prime-power q, while integer polynomial evaluation remains defined more broadly.

COMMON QUESTIONS

Gaussian Multinomial Coefficient Calculator FAQs

What definition does Gaussian Multinomial Coefficient Calculator use?

Factor the three-group q-multinomial into two exact Gaussian binomial coefficients and multiply their integer values. The indexing, equivalence relation, and counted objects are stated in the method and worked example. Inputs must be whole numbers inside the displayed domain; the page never rounds a decimal into an accepted index. This ties the answer to one explicit convention instead of silently mixing sequence offsets or combinatorial interpretations.

How can I verify the Gaussian Multinomial Coefficient output?

The ordered group dimensions and q weighting distinguish this from an ordinary multinomial count. Small boundary cases and the displayed recurrence or identity provide useful independent checks. Recompute the displayed recurrence or closed form with the same inputs and compare its previous terms or counting factors. That check supports this bounded result, but it does not transfer the interpretation to a different sequence or counting object.

Why is the Gaussian Multinomial Coefficient input bounded?

The finite-field interpretation requires prime-power q, while integer polynomial evaluation remains defined more broadly. The implementation uses integer arithmetic internally and refuses results beyond the safe display boundary. Combinatorial and recurrence values can grow rapidly even when the inputs look small. The conservative cap prevents browser stalls and avoids presenting an unsafe floating-point integer as exact; larger work needs arbitrary-precision software and independent resource controls.

Use boundary

Calculation path

Factor the three-group q-multinomial into two exact Gaussian binomial coefficients and multiply their integer values.

Calculation path

[a+b+c;a,b,c]_q=[a+b+c;a]_q[b+c;b]_q.