Breakthrough in Z-Image Base Training: Working Solution Confirmed by AI Community
A detailed guide has emerged from the Stable Diffusion community offering a proven method to successfully train LoRAs on Z-Image Base, resolving long-standing convergence issues. The solution combines specialized training configurations with distilled model compatibility, marking a pivotal advancement in AI image generation workflows.

Revolutionizing Z-Image Base Training: A Community-Validated Breakthrough
In a significant development for the AI image generation community, a comprehensive training protocol for Z-Image Base (ZiB) has been validated by multiple practitioners, resolving persistent convergence and compatibility issues that had hindered LoRA training for months. The solution, detailed in a now-viral Reddit post by user EribusYT, outlines a reproducible methodology combining optimizer adjustments, quantization safeguards, and critical model distillation practices that have yielded consistent, high-quality results across diverse hardware configurations.
Central to the breakthrough is the use of the OneTrainer fork by gesen2egee, which introduces the Min_SNR_Gamma = 5 parameter — a configuration absent in the standard OneTrainer branch. This setting mitigates the notorious convergence instability that plagued ZiB training attempts. Coupled with the Prodigy_adv optimizer and Stochastic Rounding enabled, the method effectively counteracts the sensitivity of ZiB to fp8 quantization and numerical rounding errors, which previously led to degraded outputs or training failure. The user’s shared configuration file, available via Pastebin, has been adopted by dozens of trainers who report success where standard setups failed.
Perhaps even more impactful than the training adjustments is the clarification surrounding model compatibility. Contrary to prior assumptions, LoRAs trained on Z-Image Base are fundamentally incompatible with the original ZiB checkpoint. Instead, users must rely on distilled versions of ZiB — models retrained from the base to preserve functionality while reducing computational overhead. The RedCraft ZiB Distill has emerged as the de facto standard, but the guide emphasizes that any distill derived from the current ZiB checkpoint will function. This revelation has shifted the community’s focus from trying to force LoRAs onto the base model toward refining high-fidelity distillations, a strategy now seen as essential for professional-grade results.
Generation settings have also been optimized: users report superior outcomes at 2048x2048 resolution using Euler Simple as the sampling scheduler, with CFG scales between 1.2–1.8 and shift values around 7. While higher resolutions demand more VRAM, the fidelity gains are substantial, demonstrating ZiB’s exceptional scalability. Additionally, the use of Random Weighted Dropout on training prompts — particularly with 10–12 textual variations — has improved generalization and reduced overfitting, especially on larger datasets.
Limitations remain, however. Texture-based learning — such as brush strokes, film grain, or fabric detail — continues to pose challenges, likely due to current distillations not fully capturing fine-grained visual features. Experts speculate that future distills trained on higher-resolution, texture-rich datasets may resolve this. Character and style LoRAs, by contrast, have shown remarkable success, as evidenced by multiple Civitai models posted by EribusYT and corroborated by other community members.
This breakthrough underscores the power of open-source collaboration in AI development. What began as a troubleshooting thread has evolved into a standardized workflow, validated through empirical replication. As distill models improve and training tools evolve, the Z-Image Base ecosystem is poised to become one of the most robust and artistically flexible platforms for personalized AI image generation.


