Automated MNLP evaluation report (2026-06-11)

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+ # Automated MNLP evaluation report
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+
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+ - **Model repo:** [`cs-552-2026-llmfao/general_knowledge_model`](https://huggingface.co/cs-552-2026-llmfao/general_knowledge_model)
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+ - **Owner(s):** group **llmfao**
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+ - **Generated at:** 2026-06-11T06:23:10+00:00 (UTC)
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+ - **Pipeline:** [mnlp-project-ci](https://github.com/eric11eca/mnlp-project-ci)
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+
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+ _This PR is opened automatically by the course CI. It is **non-blocking** — you do not need to merge it. The next nightly run will refresh this file._
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+
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+ ## Evaluated checkpoint
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+
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+ - **Commit:** [`a2d1d7f`](https://huggingface.co/cs-552-2026-llmfao/general_knowledge_model/commit/a2d1d7fe9856a5ed5ba10b6fb98d305d77ca0456)
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+ - **Message:** Upload ./general_knowledge/model/qwen-GN-model-08_06_20h_15/merged
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+ - **Committed:** 2026-06-09T20:48:33+00:00
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+
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+ ## Summary
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+
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+ | Benchmark | Accuracy | Status |
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+ |---|---:|---|
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+ | Math | — | not run |
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+ | Knowledge | 0.2300 | ok |
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+ | Multilingual | — | not run |
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+ | Safety | — | not run |
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+
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+ ## Sample completions
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+
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+ _Prompts are intentionally omitted to avoid revealing benchmark contents. For multi-completion problems, only one completion is shown per sample._
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+
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+ ### Knowledge
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+
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+ **Correct** (1 shown)
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+
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+ - **reference**: `B`
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+ - **overall** (1/1 completions correct)
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+ - **extracted** (✓): `B`
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+ - **completion**:
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+
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+ ```text
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+ <think>
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+ ['The Hamiltonian operator is given by $H = \\varepsilon \\vec{\\sigma} \\cdot \\vec{n}$.', 'The Pauli matrices have eigenvalues 1 and -1.', 'So, the Hamiltonian has eigenvalues $\\varepsilon (1 \\cdot \\vec{n}) = \\varepsilon$ and $\\varepsilon (-1 \\cdot \\vec{n}) = -\\varepsilon$.', 'The answer is (B).']
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+ </think>
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+
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+ \boxed{B}
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+ ```
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+
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+ **Incorrect** (1 shown)
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+
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+ - **reference**: `A`
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+ - **overall** (0/1 completions correct)
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+ - **extracted** (✗): `<no answer>`
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+ - **completion**:
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+
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+ ```text
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+ <think>
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+ ['The speed of light in a medium is given by $v_{glass} = \n\\frac{c}{n}$.', 'The velocity of the glass in the laboratory frame is $v$.', 'Since the velocity of the glass is $v$, the velocity of the light in the glass is $v_{glass} = \n\\frac{c}{n} = \n\\frac{v}{1+v/v_glass}$.', 'However, since the glass is moving with velocity $v$ in the laboratory frame, the velocity of the light in the
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+
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+ ... [truncated 812 chars] ...
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+
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+ ab} = \n\\frac{c}{n} + \n\\frac{vn}{v+n}
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+ $$
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+
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+ $$
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+ v_{lab} = \n\\frac{c}{n} + \n\\frac{v}{1+v/n}
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+ $$
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+
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+ $$
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+ v_{lab} = \n\\frac{c}{n} + \n\\frac{vn}{v+n}
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+ $$
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+
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+ $$
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+ v_{lab} = \n\\frac{c}{n} + \n\\frac{v}{1+v/n}
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+ $$
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+
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+ $$
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+ v_{lab} = \n\\frac{c}{n} + \n\\frac{vn}{v+n}
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+ $$
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+
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+ $$
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+ v_{lab} = \n\\frac{c}{n} + \n\\frac{v}{1+v/n}
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+ $$
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+
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+ $$
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+ v_{lab} = \n\\frac{c}{n} + \n\\frac{vn}{v+n}
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+ $$
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+
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+ $$
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+ v_{lab} = \n\\frac{c}{n} + \n\\frac{v}{1+v/n}
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+ $$
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+
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+ $$
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+ v_{lab} = \n\\frac{c}{n} + \n\\frac{vn}{v+n}
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+ $$
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+
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+ $$
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+ v_{lab} = \n\\frac{c}{n} + \n\\frac{v}{1+v/n}
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+ $$
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+
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+ $$
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+ v_{lab} = \n\\frac{c}{n} + \n\\frac{vn}{v+n}
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+ $$
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+
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+ $$
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+ v_{lab} = \n\\frac{c}{n} + \n\\frac{v}{1+v/n}
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+ $$
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+
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+ $$
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+ v_{lab} = \n\\frac{c}{n} + \n\\frac{vn}{v+n}
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+ $$
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+
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+ $$
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+ v_{lab} = \n\\frac{c}{n} + \n\\frac{v}{1+v/n}
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+ $$
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+
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+ $$
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+ v_{lab} = \n\\frac{c}{n} + \n\\frac{vn}{v+n}
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+ $$
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+
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+ $$
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+ v_{lab} = \n\\frac{c}{n} + \n\\frac{v}{1+v/n}
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+ $$
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+
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+ $$
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+ v_{lab} = \n\\frac{c}{n} + \n\\frac{vn}{v+n}
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+ $$
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+
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+ $$
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+ v_{lab} = \n\\frac{c}{n} + \n\\frac{v}{1+v/n}
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+ $$
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+
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+ $$
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+ v_{lab} = \n\\frac{c}{n} + \n\\frac{vn}{v+n}
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+ $$
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+
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+ $$
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+ v_{lab} = \n\\frac{c}{n} + \n\\frac{v}{1+v/n}
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+ $$
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+
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+ $$
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+ v_{lab} = \n\\frac{c}{n} + \n\\frac{vn}{v+n}
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+ $$
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+
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+ $$
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+ v_{lab} = \n\\frac{c}{n} + \n\\frac{v}{1+v/n}
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+ $$
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+
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+ $$
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+ v_{lab} = \n\\frac{c}{n} + \n\\frac{vn}{v+n}
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+ $$
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+ ```