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Scientific Computing Accelerated by 90%: How AI Agents Transform Genomics and Other Industries

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ASCN Team
31 July 2026
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Where months once went into modernizing scientific software, now only a few days are needed. AI agents have demonstrated the ability to cut scientific computing times by 90%, transforming entire industries. In genomics, for example, tasks that previously took 18 months are now completed in about a week, reshaping the very process of scientific discovery.

Scientific laboratories and research institutions have accumulated technical debt for decades: software written by scientists for themselves was functional but inflexible, requiring rare specialists for modernization. This slowed progress, increased research costs, and created a bottleneck. Falling behind is no longer an option, as a solution is already available and working.

The Reality of the Problem: Legacy Code and Skill Shortages

Many scientific disciplines, including genomics, computational chemistry, climate modeling, and astrophysics, still rely on outdated software. This "legacy code" is often written in languages like Fortran or C, has complex architecture, and is poorly documented. Modernizing such software is not just an update; it's a deep dive into the code, understanding scientific concepts laid down decades ago, and adapting them to modern standards.

The problem is exacerbated by a shortage of specialists. Modernizing a genomic pipeline requires an engineer who understands both molecular biology and high-performance computing architecture. Such experts are rare, expensive, and their recruitment and training take years. As a result, modernization projects drag on for months and even years, hindering scientific discoveries and the adoption of innovations.

The Path to AI Agents: From Assistant to Executor

Previously, attempts to speed up the process involved using programming assistants who could suggest the next line of code or generate simple functions. However, this was insufficient. Scientific computing requires not just writing code, but a deep understanding of context, analysis of existing solutions, and independent adaptation to new tasks. What was needed was not just a "hint provider," but a full-fledged executor.

Thus, the need for an AI agent became clear – a system capable of not just executing individual commands, but planning multi-step tasks, implementing them autonomously, controlling the quality of results, and correcting its actions when necessary. This radically changed the work model: scientists could set high-level goals for the agent rather than detailed instructions for each step.

How the AI Agent for Scientific Computing Was Designed

The AI agent for scientific computing was conceived as an autonomous system capable of working with existing codebases. Its core functionalities included:

  • Code Reading and Analysis. The agent had to understand various programming languages (Fortran, C, Python, and others), grasp project structures, and interpret scientific comments embedded in old code.
  • Identification of Obsolete Sections. The system would identify code fragments requiring modernization or optimization, based on modern standards and performance.
  • New Code Generation. The agent would propose and create modern equivalents of outdated functions, while preserving their scientific accuracy and functionality.
  • Testing and Validation. Automated test execution, result analysis, and code correction until specified quality metrics were met.
  • Iterative Cycle. The ability to autonomously repeat the "analysis-generation-testing" cycle until full compliance with requirements, minimizing human intervention.

A key principle was to minimize human involvement. Scientists formulated high-level goals, and the agent autonomously worked out the implementation details, significantly reducing the burden on specialists.

Implementation: From Experiment to Infrastructure

The implementation of AI agents began with pilot projects in genomics, where technical debt was particularly high. Initial results showed that agents could modernize software systems requiring 18 months of engineering work in just one week. This success allowed the application of agents to be scaled to other tasks.

Employees quickly adapted to the new paradigm: instead of routine coding and debugging, they focused on formulating "correct goals" for the agents and verifying their results. AI agents did not replace scientists; they freed them from routine, allowing them to concentrate on fundamental research and data analysis. This approach quickly transformed agents from an experimental tool into a key element of scientific infrastructure.

Results

Metric Before AI Agent Implementation After AI Agent Implementation
Software Modernization Time 18 months 1 week
Time Reduction 0% 90%
Need for Specialized Experts High Significantly reduced
Speed of Scientific Discoveries Baseline Accelerated

In addition to the impressive time savings, the implementation of AI agents led to a significant acceleration of the entire scientific discovery cycle. Faster code, cleaner pipelines, and the ability to process large datasets allow for quicker identification of genetic variants, accelerated validation of drug targets, and reduced time from hypothesis to experimental confirmation.

How to Implement This in Your Company

The case of using AI agents in genomics is not unique and scales to other resource-intensive scientific disciplines and even to businesses with a large amount of legacy code or routine computational tasks. Here's how to get started:

  • Conduct a "Technical Debt" Audit. Identify areas of code or computational processes that have not been updated for a long time, require significant manual labor, or slow down operations.
  • Define High-Level Goals. Instead of detailed instructions, formulate precisely what you want from the agent: "modernize module X in language Y," "optimize algorithm Z for performance."
  • Start with a Pilot Project. Choose one, yet illustrative task where the potential benefit is obvious and risks are manageable. This will allow the team to get comfortable with the new tool and see its value.
  • Integrate Agents into Existing Processes. Do not create a separate "AI island," but embed agents into the familiar development and data analysis environment to minimize resistance and accelerate adoption.
  • Focus on Team Training. Retrain specialists from routine execution to supervising and tasking AI agents, developing skills in formulating queries and verifying results.

If this case sounds like what's happening in your company, our manager can help: he'll analyze your business and niche for free and point out where an AI agent would bring a real result in your case. Message the manager

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Scientific Computing Accelerated by 90%: How AI Agents Transform Genomics and Other Industries
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