Problem Analysis #7

33.01s
5,418 toks
Problem Statement

Let

G=(1000122010011100102120001201)G = \begin{pmatrix} 1 & 0 & 0 & 0 & 1 & 2 & 2 \\ 0 & 1 & 0 & 0 & 1 & 1 & 1 \\ 0 & 0 & 1 & 0 & 2 & 1 & 2 \\ 0 & 0 & 0 & 1 & 2 & 0 & 1 \end{pmatrix}

be a generator matrix of a ternary linear code CF37C \subset \mathbb{F}_3^7. It is known that the order of the group of monomial automorphisms of CC is 24. How many generator matrices produce codes that are monomially equivalent to C\mathcal{C}?\

Ground Truth
652138905600
Execution Trace
Reasoning Process
import math

def gl_order(q, n):
    return math.prod((q**n - q**i) for i in range(n))

# Calculate order of GL(7,3)
gl = gl_order(3, 7)
aut_group_size = 24
num_equivalent_matrices = gl // aut_group_size
num_equivalent_matrices
Tool Output
[PYTHON OUTPUT] 5586185175111586805760 [/PYTHON OUTPUT]
Reasoning Process

[THOUGHT] The number of generator matrices producing codes monomially equivalent to C is equal to the order of the general linear group GL(7, 3) divided by the order of the automorphism group (24). Using the previously determined GL(7, 3) value of 5586185175111586805760, divide it by 24 to get the final answer. [/THOUGHT] [PYTHON] num_equivalent_matrices = 5586185175111586805760 // 24 num_equivalent_matrices [/PYTHON][THOUGHT] The number of generator matrices producing codes monomially equivalent to C is equal to the order of the general linear group GL(7, 3) divided by the order of the automorphism group (24). Using the previously determined GL(7, 3) value of 5586185175111586805760, divide it by 24 to get the final answer. [/THOUGHT] [PYTHON] num_equivalent_matrices = 5586185175111586805760 // 24 num_equivalent_matrices [/PYTHON]

Tool Output
[PYTHON OUTPUT] 232757715629649450240 [/PYTHON OUTPUT] [PYTHON OUTPUT] 232757715629649450240 [/PYTHON OUTPUT]
Reasoning Process

[THOUGHT] We have confirmed through two consecutive computations that dividing the order of GL(7,3) by 24 yields the number of equivalent generator matrices. Both runs produced identical results: 232757715629649450240. This confirms the accuracy of our calculation. [/THOUGHT]

Final Answer: \boxed{232757715629649450240}[THOUGHT] We have confirmed through two consecutive computations that dividing the order of GL(7,3) by 24 yields the number of equivalent generator matrices. Both runs produced identical results: 232757715629649450240. This confirms the accuracy of our calculation. [/THOUGHT]

Final Answer: \boxed{232757715629649450240}

Final Model Output
232757715629649450240

Comparative Analysis (P7) (Average across runs)

Avg Time Taken

Qwen3-30B-A3B-2507
1905.6
Gemma-3-27B
873.1
Deepseek-R1-distill-Qwen-32B (high)
168.1
Gemini-3-Pro-Preview
76.1
EXAONE-4.0.1-32B (high)
74.4
Grok-4.1-fast
71.4
GPT-oss-20B (high)
56.1
Solar-Pro-2 (31B)(high)
55.1
Deepseek-V3.2
41.8
HCX-007(high)
35.0
GPT-5.1 (high)
25.1
Llama-VARCO-8B-Instruct
24.7
Claude-Opus-4.5
17.4
A.X-4.0 (72B)
13.5

Avg Token Usage

Gemini-3-Pro-Preview
13535.7
Grok-4.1-fast
11559.7
Qwen3-30B-A3B-2507
10081.0
Solar-Pro-2 (31B)(high)
9138.0
GPT-oss-20B (high)
8720.3
Deepseek-V3.2
5870.7
HCX-007(high)
5705.3
Deepseek-R1-distill-Qwen-32B (high)
4983.0
EXAONE-4.0.1-32B (high)
4507.3
Claude-Opus-4.5
4192.7
GPT-5.1 (high)
4129.3
Llama-VARCO-8B-Instruct
3571.3
A.X-4.0 (72B)
3021.3
Gemma-3-27B
2368.7