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Welcome Inkling by Thinking Machines

Welcome Inkling by Thinking Machines

What makes Inkling special? Overall Capabilities and Architecture Inference Support Transformers SGLang vLLM Remote Inference with Hugging Face Inference Providers Local Inference with llama.cpp and Unsloth Use Cases Agentic coding with Pi Multi Token Prediction Drafters Multimodal Vision Multimodal Audio Post-training SLURM Scripts Benchmark Results Inkling is a large (1T params!) open model to natively accept image, text, and audio inputs.

TLDR; Inkling by Thinking Machines is out on Hugging Face. Inkling is a huge multimodal LLM that understands all modalities (image, audio, text), has agentic capabilities, and supports 1M context. It comes in full BF16 and a well-calibrated NVFP4 variant, and includes speculative MTP layers for faster inference. There’s day-0 support in transformers, SGLang, and llama.cpp. Inkling is the first large open model with ~1T parameters and 1M context window to natively receive image, text, and audio inputs, trained on 45 trillion tokens of text, images, audio and video. It’s focused on reasoning across modalities such as audio, images, and text; and is intended for domain adaptation via fine-tuning. We’ve tinkered with this model to build some demos and explore the architecture, and we think it’s great for building a new wave of multimodal reasoning apps. Inkling is a decoder-only multimodal Mixture-of-Experts model with 975B total and 41B active parameters. There are a lot of things going on, so let’s break each part down: Relative attention: Instead of RoPE, which is the usual method to inject positional information in transformers models, Inkling uses relative attention to encode position information. Each attention layer learns position directly in the attention logits. Aside from key-query-values, there’s a fourth projection producing a per-token, per-head relative feature R. This projection tensor is then tweaked with distance information (distance between the key and the query vector) and propagated into the attention module. Hybrid attention: The decoder layers alternate between global attention (attending to the full context length at once) and sliding window attention (attending to a fixed context window in a sliding fashion). The architecture has a pattern of 5:1 sliding window to global attention layers. This hybrid attention scheme provides efficiency in computation.