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AI Reasoning Agents Reshape Research and Development Workflows

Startups Reporter
2 min read

Eric Jang's latest analysis reveals how modern AI systems have evolved into automated scientists capable of designing experiments, optimizing code, and solving complex problems independently, signaling a fundamental shift in software engineering and research methodologies.

The rapid evolution of AI reasoning capabilities is transforming how technologists approach research and development. In a comprehensive analysis titled As Rocks May Think, Eric Jang details how systems like DeepSeek-R1 have transitioned from simple coding assistants to autonomous research agents capable of designing and executing complex experimental workflows.

From Prompt Engineering to Autonomous Reasoning

Early attempts to improve AI reasoning through techniques like chain-of-thought prompting proved limited, as they merely activated existing patterns learned during pretraining without fundamentally enhancing logical capabilities. The breakthrough came with approaches like DeepSeek-R1, which combines a strong base model with outcome-focused reinforcement learning. This method trains models to generate valid reasoning traces by rewarding correct solutions to math problems, coding challenges, and logic puzzles, rather than relying on human annotations of intermediate steps.

Jang's implementation exemplifies this shift: His AlphaGo research project uses AI agents that autonomously design experiments, execute parallel training runs with tools like MuP for hyperparameter optimization, analyze results, and generate detailed reports. Unlike traditional systems like Google's Vizier, these agents dynamically rewrite code and adjust hypotheses based on experimental outcomes.

Computational Implications and Workflow Transformation

This capability fundamentally alters research economics. Where previously researchers manually submitted batch jobs to systems like Slurm, AI agents can now persistently explore solution spaces. Jang describes running overnight 'research jobs' where agents pursue high-level objectives, returning with analyzed findings and new research directions by morning. This creates exponential gains in information-per-FLOP compared to traditional methods.

The demand for inference compute will likely surge as these workflows proliferate. Analogous to how air conditioning enabled productivity in tropical climates, AI reasoning agents could increase global compute demand by orders of magnitude. Corporations may deploy 'ambient thinkers' for continuous optimization tasks, while militaries could use them for predictive wargaming scenarios.

Emerging Architectural Possibilities

Current reasoning occurs through sequential token generation, but future architectures might distribute reasoning across model layers within single forward passes. Research from Anthropic shows early evidence of situational awareness emerging during training, suggesting potential for more efficient reasoning mechanisms. The distinction between forward passes, backward passes, and decoding steps may blur as models develop integrated reasoning pathways.

Practical Guidance for Technologists

Jang urges organizations to immediately adapt infrastructure for AI agent collaboration. Teams should structure repositories apporpriately to leverage what he calls 'a datacenter of geniuses.' Researchers are advised to focus on meta-skills: directing agent teams, judging results, and defining high-value objectives. For robotics, the balance between simulation and real-world data shifts significantly toward simulation due to improved reasoning capabilities.

The pace of change suggests that software development and computer science fundamentals will look radically different by 2026. As Jang concludes: 'Stockpile your thinking tokens, for thinking begets better thinking.'

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