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AWS

Miro Optimizes Bug Routing with Amazon Bedrock for Faster Resolution

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Miro leverages Amazon Bedrock to automate software bug triaging, significantly reducing time-to-resolution and eliminating redundant team reassignments. This architecture demonstrates how AI-driven routing can solve operational bottlenecks relevant for professionals preparing for AWS ML Specialty or AIF-C01 certifications.

At Miro, an AI-powered innovation workspace serving over 95 million users globally, the developer experience team faced a critical operational challenge: efficiently routing software bugs to the correct internal teams. Misrouting caused significant delays, with a substantial percentage of bugs missing internal resolution SLAs due to repeated reassignments. This inefficiency resulted in an estimated 42 years of cumulative lost productivity annually. To address this, the team partnered with the AWS Prototyping and Cloud Engineering (PACE) team to build BugManager, an AI-powered solution for automated bug triaging powered by Amazon Bedrock.

Architecting Automated Bug Triage with LLMs

The core of the solution involves using large language models to analyze incoming bug reports and determine the appropriate team for resolution. The architecture relies on Amazon Bedrock to provide the necessary compute power and model access without requiring Miro to train proprietary models from scratch. This approach allows teams to focus on prompt engineering and data preparation rather than infrastructure management. For engineers studying for AWS certifications, this highlights the shift from managing infrastructure to managing AI workflows. The system processes unstructured text from bug reports, extracting key entities such as error codes, affected modules, and user impact to match them against a knowledge base of known issues.

By integrating this AI layer into their existing workflow, Miro achieved six times fewer team reassignments and five times shorter time-to-resolution. The technical implementation involves a pipeline where bug reports are ingested, analyzed by the LLM, and then routed via API calls to the relevant development squads. This reduces the cognitive load on developers, who no longer need to manually categorize every incoming ticket. The result is a more streamlined development lifecycle where engineers can focus on fixing issues rather than administrative routing tasks.

Optimizing Data Pipelines for AI Workloads

Building a robust data pipeline is essential for the success of any AI-driven solution. Miro's implementation required careful consideration of how data is stored, retrieved, and presented to the model. The system utilizes a vector database to store historical bug data, enabling semantic search capabilities that allow the LLM to find similar past issues. This retrieval-augmented generation (RAG) pattern is a standard technique in modern AI architecture, often covered in advanced cloud engineering curricula. Engineers must ensure that the data pipeline handles high volumes of incoming requests without introducing latency that could degrade the user experience.

The configuration details involve setting up appropriate security controls to ensure that sensitive bug data is not exposed during the inference process. Amazon Bedrock provides managed endpoints that handle these security requirements, allowing Miro to maintain compliance while scaling their operations. For professionals preparing for the AWS ML Specialty certification, understanding how to secure and manage data pipelines for generative AI is a critical skill. The architecture also includes fallback mechanisms to handle cases where the AI model is uncertain, ensuring that critical bugs are never left unassigned.

Measuring Impact on Operational Efficiency

The impact of this initiative extends beyond simple metrics. By automating the routing process, Miro has created a more responsive environment where developers can resolve issues faster. The reduction in time-to-resolution directly correlates to higher customer satisfaction and a more stable product. This case study serves as a practical example of how AI can be applied to solve real-world operational problems in a cloud-native environment. It demonstrates that AI is not just a buzzword but a tangible tool for improving developer productivity and system reliability.

For cloud engineers and DevOps professionals, the lessons from Miro's implementation are clear. Investing in AI capabilities can yield significant returns in terms of efficiency and developer happiness. The use of managed services like Amazon Bedrock allows teams to innovate quickly without being bogged down by the complexities of model training and deployment. This approach is particularly relevant for those pursuing certifications in cloud architecture and AI engineering, as it showcases best practices for integrating AI into existing cloud workflows.

What This Means For You

Implementing AI-driven solutions like BugManager requires a strategic approach to architecture and data management. By leveraging managed AI services, organizations can accelerate their digital transformation while maintaining control over their data and security posture. Whether you are preparing for the AWS ML Specialty or focusing on general cloud architecture, understanding how to integrate AI into your operations is essential. The key takeaway is that AI can be a powerful ally in solving complex routing and triage problems, leading to measurable improvements in time-to-resolution and overall team productivity.

To deepen your understanding of these concepts, explore our AWS certifications resources to learn more about the skills needed to build and manage such systems effectively.

Originally published atAWSML