Findings of EMNLP 2026

SALUTE Benchmarking and Adapting LLMsfor the Defense Domain

  • Hyeongcheol Park1
  • Sumin In1
  • Suyeon Myeong1
  • Hogun Park2
  • Sangmin Kim3
  • Moonhyun Lee3
  • Daekyeong Park3
  • Sangpil Kim1
  • 1Korea University
  • 2Sungkyunkwan University
  • 3Hanwha Systems

arXiv:2609.15022v1 September 2026

01 / The framework

From domain knowledge
to domain capability.

SALUTE connects data construction, model adaptation, and evaluation for defense-domain language models. Military doctrine and defense news provide the foundation for a curated corpus, grounded instructions, preference pairs, and a held-out benchmark.

Starting from Qwen3-8B-Base, continual pretraining, two-stage supervised fine-tuning, and preference alignment produce Salute-LLM.

Corpus tokens
107M
Instruction pairs
255K
Preference pairs
19K

Approximate training-resource sizes · Sections 3.1–3.3

Read the methodology
Original SALUTE overview: military doctrine and news feed corpus and instruction construction, followed by preference alignment and evaluation on open-ended and multiple-choice questions.
Figure 1 The SALUTE framework.

Inside the method

A connected adaptation pipeline.

Click any figure to explore
Original detailed pipeline: source parsing, section-aware chunking, quality scoring and filtering for CPT; task planning and retrieval-augmented instruction generation for SFT; rejected-response generation and pair filtering for DPO.
Figure 2 Resource construction and the CPT → SFT → DPO training sequence.
Follow the training flow

Qwen3-8B-Base → Salute-LLM

Salute-Base

Continual pretraining combines Salute-Corpus with 10.2M general replay tokens to build a defense-domain knowledge foundation.

Explore each stage. Evaluation uses held-out data and does not update the model.

02 / Experimental results

Specialized knowledge.
Measurable gains.

Salute-LLM leads the compared 8B-scale models on Salute-Bench while retaining competitive general capabilities. All scores below are reported in the paper.

Salute-Bench · MCQ accuracy

86.02%+8.22 percentage points

over Ministral-3-8B-Instruct, the strongest non-SALUTE 8B MCQ baseline.

Table 4 ↗

Salute-Bench · Open-ended average

64.51/100+3.68 points

over Tulu-3-8B, the strongest non-SALUTE 8B open-ended baseline.

Table 4 ↗

General benchmarks · Mean

64.69/100+1.16 points vs. Qwen3-8B

Across MMLU, TruthfulQA, ARC, IFEval, GSM8K, and GPQA.

Table 5 ↗

Table 4 · Performance on Salute-Bench

View in paper ↗
Table 4 · Performance on Salute-Bench
ModelCorrectnessCompletenessRelevanceOverallOE avg.MCQ acc. (%)
Open-weight baselines
Qwen3-8B-Base55.3547.7370.2750.7456.0272.04
Qwen3-8B54.7046.9569.3449.8555.2177.28
Llama-3.1-8B-Instruct47.2945.7759.1145.7249.4770.20
Ministral-3-8B-Instruct53.1448.2463.6448.9453.4977.80
Tulu-3-8B58.5956.3171.9056.5260.8363.00
Granite-3.3-8B-Instruct54.4850.8568.6752.0356.5171.63
SALUTE variants
Salute-8B-Base58.8954.6073.2056.0260.6878.52
Salute-8B-Instruct60.6256.7178.4758.1763.4985.09
Salute-LLM60.9159.8777.7159.5364.5186.02
Strong reference models
Qwen3-30B61.8256.3075.9157.3062.8378.11
GPT-572.8565.2084.2366.8872.2992.18

MCQ reports accuracy (%). GPT-OSS-120B scores open-ended answers on correctness, completeness, relevance, and overall quality; raw 1–5 scores are rescaled to 0–100. OE avg. is their mean.

Salute-LLM achieves the highest MCQ accuracy and OE average among the compared 8B-scale models. Qwen3-30B and GPT-5 are stronger reference models and are shown separately.

Table 5 · General capability retention

View in paper ↗
Table 5 · General capability retention
ModelMeanMMLUTruthfulQAARCIFEvalGSM8KGPQA
Open-weight baselines
Qwen3-8B-Base63.9576.9450.9964.4185.6741.74
Qwen3-8B63.5372.0453.1657.1676.3485.4437.05
Llama-3.1-8B-Instruct62.7268.6655.0460.4973.7583.1635.26
Ministral-3-8B-Instruct62.1676.4463.8863.0552.1279.7537.72
Tulu-3-8B62.5662.2260.3455.2076.3488.7032.58
Granite-3.3-8B-Instruct60.8665.1666.6460.2364.5176.7231.91
SALUTE variants
Salute-8B-Base62.9676.9648.6163.8284.8340.62
Salute-8B-Instruct61.7274.6948.9059.4764.8781.5740.84
Salute-LLM64.6975.3552.3161.0070.9786.3542.19
Strong reference models
Qwen3-30B69.1081.0060.0459.9873.7594.7645.08
GPT-582.3985.9781.7295.9084.4794.3152.00

Mean is the macro-average over applicable benchmarks. IFEval is not evaluated for base models (—), so their means cover five tasks; instruction-model means cover six.

Salute-LLM has the highest reported general mean among the compared 8B-scale models. Individual-task results vary; its GPQA score is 42.19.

Table 6 · What does each stage contribute?

View in paper ↗
Table 6 · Training-stage ablation
VariantCPTSFTDPOOE avg.MCQ acc. (%)General mean
Base56.0272.0463.95
CPT-only60.6878.5262.96
SFT-only62.1280.2661.14
CPT → SFT63.4985.0961.72
SFT → DPO63.5484.5864.58
Full64.5186.0264.69
+6.48 ppMCQ accuracy from continual pretraining alone, relative to the base model.
+4.83 ppMCQ accuracy for CPT → SFT compared with SFT alone.
+2.97 pointsGeneral mean after adding DPO to CPT → SFT.

All variants start from Qwen3-8B-Base. The full pipeline scores highest across all three reported metrics. General means use applicable tasks, excluding IFEval for base variants.

03 / Salute-Bench

Two formats. A broader perspective.

Evaluate understanding across doctrine and defense news with eight task categories.

MULTIPLE CHOICE

SALUTE-MCQ

Four choices. One correct answer. Assess domain knowledge with exact-match accuracy.

973evaluation questions

Doctrine 648News 325
OPEN ENDED

SALUTE-OE

Questions with reference answers. Assess correctness, completeness, relevance, and overall quality.

2,638evaluation questions

Doctrine 1,479News 1,159

04 / A closer look

Inside the benchmark.

A real record from each downloadable dataset.

05 / Citation

Build on SALUTE.

If you use SALUTE in your research,
please cite our paper.

Download BibTeX
BibTeX
@misc{park2026salute,
  title = {SALUTE: Benchmarking and Adapting LLMs
           for the Defense Domain},
  author = {Hyeongcheol Park and Sumin In and
            Suyeon Myeong and Hogun Park and
            Sangmin Kim and Moonhyun Lee and
            Daekyeong Park and Sangpil Kim},
  year = {2026},
  eprint = {2609.15022},
  archivePrefix = {arXiv},
  primaryClass = {cs.CL},
  url = {https://arxiv.org/abs/2609.15022v1}
}

Paper figure