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Scaling Agentic Intelligence for Complex Work

Original: Apodex 1.1: Scaling Agentic Intelligence for Complex Work

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Key Takeaways

  • Apodex 1.1 achieves leading performance in professional work, finance, scientific research, mathematics, and coding.
  • The 35B-parameter Apodex 1.1 Mini model provides a locally deployable version of the system with strong capabilities.
  • The system uses a managed engineering loop for evolution, distinct from unconstrained model self-modification.
  • The Agent Team architecture hits the strongest performance values on the FrontierFinance and FrontierScience-Research benchmarks.

Summary & Methodology Analysis

Apodex 1.1 functions as a general-purpose model and execution system designed to scale agentic intelligence for long-horizon tasks. The architecture utilizes a combination of environment scaling, which expands available file, search, and code tools to improve trajectory fidelity, and agentic coordination scaling, where agents are trained to decompose complex tasks, delegate work, and manage replanning. The system relies on a shared execution harness managed by an AgentOS that maintains state across interactions through a runtime contract, enabling persistent workspaces and provenance for multi-step workflows. Training involves supervised fine-tuning to align reasoning and coordination behaviors, supplemented by agentic reinforcement learning, a technique that uses feedback on successful task trajectories to improve decision-making over time. The full Apodex 1.1 Agent Team system demonstrates leading performance in FrontierFinance and FrontierScience-Research benchmarks, proving that high capability is achievable with a smaller model than many other frontier systems. For local deployment, the authors offer a 35B-parameter Apodex 1.1 Mini model that retains strong working functionality despite its smaller footprint. System mechanisms are limited by a run-scoped coordination plane, meaning the architecture does not utilize a durable distributed database for state management. Furthermore, the runtime contract provides no guarantee that retrieved sources, computations, or final conclusions are objectively correct. While the system incorporates a managed engineering loop, it does not support unconstrained model self-modification, ensuring that architectural evolution remains within defined constraints.

Interactive System Flowchart

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Cross-Examination & FAQs

A deeper dive clarifying mechanics, constraints, and baseline evaluations.

Q1. What is the core purpose of Apodex 1.1?

Apodex 1.1 is a general-purpose model and execution system designed to scale agentic intelligence for complex professional work.

Q2. Can I run this model on local hardware?

Yes, the 35B-parameter Apodex 1.1 Mini model is designed to be locally deployable while retaining strong working capabilities.

Q3. Is the system capable of modifying its own code or logic?

No, the system does not perform unconstrained model self-modification; it uses a managed engineering loop instead.

Q4. Does the system guarantee the accuracy of its results?

No, the runtime contract does not guarantee that retrieved sources, scientific methods, or final conclusions are correct.

Q5. What is the nature of the coordination plane in Apodex 1.1?

The coordination plane is run-scoped rather than a durable distributed database.

Q6. What benchmarks were used to evaluate the system?

The system was evaluated against FrontierFinance and FrontierScience-Research comparisons.

Q7. How does the system handle complex, long-horizon tasks?

It uses agentic coordination scaling to decompose tasks, delegate parallel work, integrate results, and replan as needed.

Q8. How does the training process inform model behavior?

The system uses supervised fine-tuning for common reasoning and reinforcement learning with hindsight-guided trajectory localization to improve long-horizon decisions.

Q9. Does the paper specify the exact memory or latency requirements for the 35B-parameter model?

The paper does not specify precise memory or latency figures for the model.

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