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Jiunsong/SuperGLM-5.2-abliterated-NVFP4
SuperGLM-5.2-abliterated-NVFP4 is a text generation model from Jiunsong. Use it when you need the model to write or continue text. It is set up for transformers. The card lists the license as mit.
SuperGLM-5.2 is a clean-base, fused-weight OBLITERATUS release derived directly from NVIDIA's official GLM-5.2 NVFP4 checkpoint. It is designed to reduce refusal behavior while preserving the speed and storage advanta…
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From the Hugging Face model README
SuperGLM-5.2 is a clean-base, fused-weight OBLITERATUS release derived directly from NVIDIA's official GLM-5.2 NVFP4 checkpoint. It is designed to reduce refusal behavior while preserving the speed and storage advantages of the original ModelOpt NVFP4 export.
This revision replaces the earlier template-assisted experiment. The published chat template is byte-identical to NVIDIA's original template, no adaptive system scaffold is required, and the release gate evaluates the serialized checkpoint with runtime adapters disabled.
nvidia/GLM-5.2-NVFP4@aec724e8c7b8ee9db3b48c01c320f63f9cdaf8aa — no cumulative merge from an earlier SuperGLM checkpoint.o_proj matrices at strength 2.down_proj matrices at strength 0.15.lm_head remains byte-identical to NVIDIA's base.The final release modifies 124 BF16 tensors across 37 shards. Tensor-region backups and projection residual checks were used during fusion; the maximum permitted projection verification error was 0.025.
The acceptance data comes from the official HarmBench repository at commit 8e1604d1171fe8a48d8febecd22f600e462bdcdd. The standard-text development gates reuse previously opened official HarmBench partitions for candidate selection. The sealed final instead uses previously unused FunctionalCategory=contextual official-test behaviors, formatted byte-for-byte like HarmBench DirectRequest (ContextString, separator, then Behavior) and judged with the official contextual classifier template.
| Gate | Physical prompts | Greedy repeats | Official no / invalid / total | Explicit refusal strings | Broad lexical flags | Quality checks | Structural anomalies | Unicode replacements |
|---|---|---|---|---|---|---|---|---|
| Runtime adapter screen | 41 | 2 | 1 / 0 / 82 | 0 | 19 | 16/16 | 0 | 0 |
| Serialized fused gate | 35 | 2 | 4 / 0 / 70 | 0 | 24 | 15/16 | 0 | 0 |
| Sealed serialized final | 80 | 2 | 2 / 0 / 160 | 0 | 24 | 16/16 | 0 | 0 |
All generations use greedy decoding, the original NVIDIA chat template, enable_thinking=false, no explicit system prompt, and adaptive_directness=false. Runtime LoRA is used only for the first candidate screen. The two release gates run on serialized weights with adapters disabled. Acceptance requires at least 15/16 quality checks, zero structural anomalies, zero Unicode replacement characters, and zero explicit refusal strings. The official classifier release threshold is configured as fused <= 6 and sealed <= 6 refused/non-exhibiting hits, with invalid outputs fixed at zero. This v2 card reports the exact no / invalid / total counts above so the configured release slack is auditable. In HarmBench semantics a yes means that the requested behavior is present, so treating every no as refused/non-exhibiting is stricter than a refusal-string check. Broad lexical flags are reported for continuity but are not a release gate because they also match compliant caveats containing words such as “illegal” or “dangerous.”
The 16 quality checks are a small regression sentinel, not a broad capability benchmark. This release does not claim a throughput speedup over NVIDIA's base; it preserves the base checkpoint's NVFP4 format and validates compatibility with the same ModelOpt FP4 runtime family.
lm_head repair and is not reported as an independent benchmark. It is excluded from every official acceptance partition and is also supplied to the overlap audit.Use an NVFP4-compatible Blackwell runtime. The release was validated with SGLang's ModelOpt FP4 path and flashinfer_cutlass MoE runner on 8x RTX PRO 6000 Blackwell GPUs.
import sglang as sgl
engine = sgl.Engine(
model_path="Jiunsong/SuperGLM-5.2-abliterated-NVFP4",
tp_size=8,
quantization="modelopt_fp4",
moe_runner_backend="flashinfer_cutlass",
disable_shared_experts_fusion=True,
)
aec724e8c7b8ee9db3b48c01c320f63f9cdaf8aabroad62-r4-s2-obliteratus_only-shared-r2-s0p15sha256:d7ded1c1eea29006823f7219a35c71a4cfdcdf4038aaa39c4909e57626f1300ezai-org/GLM-5.2-FP8@ba978f7d347eaf65d22f1a86833408afdb953541sha256:956fd23f7a45308878fc41a55e30f8995d515ad3b53bc1b1011d35efeb021101cais/HarmBench-Llama-2-13b-cls@bda705349d1144fa618770bea64d99ce54e3835b5d6bb9e3cf4d1e5f3f7620093113222ee115af75b0b2913f00e4c7225ec9f219788f4f6aa1491c433c4da76c9140cfc30966cea3ff3875c4d0fcb336d92f60e0172dc74a35e1752df75ecfb2b2cf9326d2852bb1379868ebeec9571654489679Detailed sanitized fusion and evaluation reports are included in this repository. Raw generations are retained privately for reproducibility and are not published in the model card.