orangefabercastell/fine-tuning-agent-on-traces-v2

TEXT GENERATIONPricing:Input $0.32 / Cached $0.064 / Output $1.6Concurrent Unit Cost:1Model Size:2.6BQuant:BF16Context Size:8kPublished:Sep 2, 2026Architecture:Transformer Featherless Exclusive Cold

The orangefabercastell/fine-tuning-agent-on-traces-v2 is a 2.6 billion parameter language model developed by orangefabercastell. This model is designed for fine-tuning agent behaviors based on execution traces, offering a specialized approach to agent development. With a context length of 8192 tokens, it is optimized for processing and learning from detailed interaction sequences. Its primary strength lies in enabling more nuanced and context-aware agent responses through trace-based learning.

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Model Overview

The orangefabercastell/fine-tuning-agent-on-traces-v2 is a 2.6 billion parameter language model developed by orangefabercastell. It features a substantial context length of 8192 tokens, making it suitable for processing detailed and extensive input sequences. This model is specifically designed for fine-tuning agents, leveraging execution traces to refine their behavior and decision-making processes.

Key Capabilities

  • Trace-based Agent Fine-tuning: Specializes in learning from detailed interaction traces to improve agent performance.
  • Contextual Understanding: Benefits from an 8192-token context window, allowing for deep understanding of complex scenarios and long-form interactions.
  • Specialized Agent Development: Tailored for developers working on sophisticated AI agents that require nuanced behavioral adjustments based on past experiences.

Good For

  • Developing Intelligent Agents: Ideal for creating agents that can learn and adapt from specific operational histories.
  • Enhancing Agent Autonomy: Useful for improving the autonomy and decision-making quality of AI agents through fine-grained behavioral adjustments.
  • Research in Agent Learning: Provides a foundation for exploring advanced techniques in agent training and adaptation using trace data.