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Multi-Tenant Cost Tracking Model Inference on Amazon Bedrock

Optimizing Multi-Tenant AI Applications with Amazon Bedrock’s Converse API

Effective Tracking and Cost Management for AI Inference

Leveraging Request Metadata for Enhanced Analytics

Building a Scalable Data Pipeline for Tenant-Specific Insights

Customizing Your Analytics Solution for Multi-Tenant Environments

Conclusion: Transforming AI Invocation Logs into Strategic Business Assets

About the Authors

Optimizing Multi-Tenant AI Applications with Amazon Bedrock: A Comprehensive Guide

In the evolving landscape of AI applications, organizations that serve multiple tenants grapple with critical challenges. Notably, understanding how to effectively track, analyze, and optimize model usage across diverse customer segments is paramount for delivering value. Amazon Bedrock’s powerful foundation models (FMs), accessed through its Converse API, offer immense potential. However, to truly unlock business value, one must connect model interactions with specific tenants, users, and use cases.

The Power of Request Metadata in the Converse API

A pivotal solution to managing the multi-tenant landscape is utilizing the Converse API’s requestMetadata parameter. By incorporating tenant-specific identifiers and contextual information in every request, standard invocation logs can be transformed into a wealth of analytical datasets. This enhancement enables organizations to measure model performance, track usage patterns, and allocate costs with precision—without altering core application logic.

Tracking and Managing Costs through Application Inference Profiles

Managing expenses linked to generative AI workloads is a daily challenge. Organizations utilizing on-demand FMs without cost-allocation tagging face inefficiencies, often leading to overspending. Reliance on manual monitoring increases these risks.

Application Inference Profiles emerge as a solution, allowing custom tags (e.g., tenant, project, department) to be directly applied to on-demand models. This granular cost tracking, when combined with AWS Budgets and governance tools, offers organizations automated budget alerts, prioritization of essential workloads, and expenditure guardrails at scale. Thus, businesses move from manual oversight to a systematic approach, minimizing financial risks while enhancing visibility into AI spending across teams.

When navigating the complexities of tracking costs across numerous application inference profiles, consult the blog post "Manage multi-tenant Amazon Bedrock costs using application inference profiles" on the AWS Artificial Intelligence Blog for further insights.

Navigating Lifecycle Management Challenges

The intricacies of managing costs and resources in large-scale multi-tenant environments are amplified when employing application inference profiles. Operational hurdles arise, especially when handling hundreds of thousands or even millions of tenants. This requires automatic profile creation, updates, and deletions, accompanied by robust error handling and AWS Identity and Access Management (IAM) policy updates to maintain secure access.

Moreover, organizations may face constraints with cost allocation tagging. While multiple tags can be applied per application inference profile, companies with extensive tracking needs might find these limitations restrictive. This challenge may prompt the consideration of a consumer-side tracking approach where metadata-driven tagging could prove advantageous.

Leveraging the Converse API with Request Metadata

Implementing request metadata when invoking FMs via Amazon Bedrock enables organizations to track and log interactions effectively. The metadata—typically not returned in API responses—serves your tracking and logging needs.

Common uses for request metadata include:

  • Unique identifiers for tracking requests
  • Timestamp information
  • Application-specific tagging of requests
  • Contextual data like version numbers

When making a Converse API request, your integration could look something like this using the AWS SDK for Python (Boto3):

response = bedrock_runtime.converse(
    modelId='your-model-id',
    messages=[...],
    requestMetadata={
        "requestId": 'unique-request-id',
        "timestamp": 'unix-timestamp',
        "tenantId": 'your-tenant-id',
        "departmentId": 'your-department-id'
    },
    # other parameters
)

Solution Overview: From Logs to Actionable Insights

Visualizing model performance through comprehensive log processing and analytics architecture involves critical components. It starts with capturing Amazon Bedrock invocation logs in your customer’s virtual private cloud (VPC), which are processed through an ETL pipeline managed by AWS Glue. The logs go through scheduling, transformation, and cataloging processes, with any failed logs routed for troubleshooting.

On the AWS Service Account side, Amazon QuickSight serves as the analytics engine, transforming tenant data into actionable insights through intuitive dashboards. These dashboards offer visibility into usage patterns, popular queries, and model performance metrics, enabling stakeholders to make data-driven decisions.

Monitoring and Analyzing Amazon Bedrock Performance

An effective dashboard presents metrics such as token usage trends and departmental consumption, empowering organizations to drill down into specific usage scenarios. Filters for year, month, tenant, and model selection allow detailed analysis of Amazon Bedrock consumption patterns.

For example, the following visualizations provide insight into AWS Amazon Bedrock usage data:

  1. Bedrock Usage Summary: Vertical bar chart comparing token usage across tenant groups.
  2. Token Usage by Company: Pie chart illustrating token usage distribution among organizations.
  3. Token Usage by Department: Horizontal bar chart breaking down usage by business functions.
  4. Model Distribution: Circular gauge showing model distribution metrics.

Access to these insights is controlled via AWS IAM roles, ensuring data security while enabling powerful analytics capabilities.

Customizing Your Solution

The Converse metadata cost reporting solution offers multiple customization options tailored to your specific multi-tenant requirements. Organizations can modify ETL processes, update schema definitions, and maintain accurate pricing models, ensuring adaptability to evolving business needs.

Additionally, QuickSight dashboards allow stakeholders to create custom reports focusing on specific metrics or insights that align with their organizational objectives.

Conclusion

Incorporating tenant-specific metadata via the Amazon Bedrock Converse API significantly enhances your AI application analytics. This strategy transforms basic invocation logs into key business assets, enabling organizations to discern detailed tenant behavior, optimize model performance, and inform strategic decisions.

The architecture we’ve outlined allows for immediate visibility into usage patterns and accurate cost allocation, facilitating informed choices about future AI application development. By implementing the requestMetadata parameter in your Amazon Bedrock API calls today, you pave the way toward a robust analytics foundation for your AI strategy, positioning your business for success in a rapidly evolving environment.

Start small by identifying key metadata tags that reflect your business needs, before scaling up your analytics capabilities. As you gather more insights, the architecture will support deeper understanding of tenant behavior, driving increasingly personalized AI experiences.


About the Authors: This guide is brought to you by a team of dedicated professionals at AWS, each specializing in AI/ML technologies, helping enterprises leverage cutting-edge solutions to enhance their operational capabilities.

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