AWS for Industries

Revolutionizing telecom revenue assurance: the AWS AI-driven framework for next-generation solutions

Revenue assurance (RA) is critical in the telecom industry, traditionally monitoring financial transactions such as CDR validation, billing verification, and settlement reconciliation to make sure of accurate revenue streams. Despite these practices, telecom operators face significant operational inefficiencies, with traditional RA processes limited to sampling small portions of transactions and achieving partial recovery rates due to detection delays. These challenges result in 1–3% revenue loss annually—amounting to billions—and intensify as operators expand 5G services and introduce new technologies. The following are some of the key challenges that traditional RA systems fail to overcome.

Figure 1 Traditional Revenue Assurance challengesFigure 1 Traditional Revenue Assurance challenges

For operators expanding their service portfolios, this becomes a strategic challenge that directly impacts profitability and market position. Carriers with modern RA can confidently launch competitive pricing while protecting margins, while those with legacy systems must choose between risking revenue leakage or delaying innovation. As business models evolve and new service offerings emerge, traditional RA systems increasingly struggle to keep pace with these changes. The impact varies by network type, geography, and maturity level, necessitating a more sophisticated approach to RA.

RA encompasses critical functions across the revenue chain: usage (CDR monitoring), billing validation, service activation, payment tracking, partner settlements, and product configuration. These components work together to protect revenue streams throughout the order-to-cash process. However, traditional RA systems face significant limitations. Manual reconciliation processes struggle with processing over one billion CDRs daily for large operators, while rule-based systems fail to catch new fraud patterns. Sample-based approaches miss significant revenue leakage, and reactive detection leads to costly delays—often taking weeks to identify and resolve issues, thus directly impacting recovery rates.

The emergence of generative AI offers a transformative solution. Combining AI, machine learning (ML), and advanced analytics, telecom operators can evolve from reactive detection to proactive prevention. This modern approach enables real-time anomaly detection across all transactions, with automated pattern recognition that adapts to new threats.

In this post, we explore how the AWS comprehensive generative AI framework and data analytics capabilities help telecom operators modernize their RA operations. We examine the building blocks needed to create a proactive, AI-powered RA capability that scales with your business needs.

Figure 2 Transitioning to AI powered Next-gen RA SystemsFigure 2 Transitioning to AI powered Next-gen RA Systems

The AWS AI/ML framework

Modernizing RA necessitates a technology foundation that can handle massive data volumes, detect subtle anomalies, and enable proactive intervention. AWS provides a comprehensive three-tier AI/ML architecture that specifically addresses these RA challenges:

Figure 3 AWS GenAI & AI/ML StackFigure 3 AWS GenAI & AI/ML Stack

Foundation layer: Amazon SageMaker provides the core ML infrastructure with specialized hardware and comprehensive development tools. It delivers essential building blocks—specialized chips, advanced virtualization, and petabyte-scale networking—alongside extensive Foundation Model (FM) selection. This enables teams to build, train, and deploy custom models with predictable scaling and costs.

The practical impact of SageMaker in RA is demonstrated through multiple successful implementations. One European telecom provider used the platform to detect and block complex fraud patterns, such as SIM boxing and wangiri fraud, achieving results within days despite limited ML expertise. In another case, ML models trained on historical audit data uncovered hundreds of billing disputes, which led to significant cost recoveries.

Middle layer: Amazon Bedrock offers managed access to high-performing FMs through fine-tuning and Retrieval-Augmented Generation (RAG) techniques. Its serverless architecture eliminates infrastructure management while maintaining strict data privacy. Enterprise-grade features include data encryption, secure VPC connections, and customizable access controls.

To show the capabilities of Amazon Bedrock in practice, analysts can investigate complex CDR scenarios using natural language queries, thus eliminating the need for complex SQL coding. Teams can use historical billing data to automatically generate corrective actions for newly identified revenue leakage patterns, streamlining the entire investigation and resolution process.

Top layer: Amazon Q serves as an AI-powered assistant for business operations. To show this, in billing cycle validation RA teams can use Amazon Q to automatically cross-check service configurations, generate comprehensive leakage reports, and identify the root causes of billing errors across multiple systems.

AWS enhances this framework with zero-ETL capabilities for seamless data integration. Aurora zero-ETL integration enables real-time insights, while AWS Glue handles secure data integration where necessary. This allows organizations to unify data across operational systems while maintaining strict governance standards.

Generative AI methodologies for RA

Implementing generative AI in RA follows three key methodological approaches that enhance rather than replace existing systems, each addressing specific revenue management challenges.

Figure 4 Generative AI Methodologies in Revenue AssuranceFigure 4 Generative AI Methodologies in Revenue Assurance

Automated pattern recognition: Generative AI models revolutionize how operators detect revenue anomalies. Unlike traditional rule-based systems that rely on predefined thresholds, these models analyze complex patterns across billing systems, usage data, and user interactions simultaneously. For example, the system can automatically identify revenue leakage in new 5G services by correlating usage patterns, billing records, and partner settlement data without explicit programming.

Predictive modeling: FMs transform RA from reactive to predictive operations. Analyzing historical billing patterns, service usage trends, and past leakage incidents allows the system to forecast potential issues before they impact revenue. This capability is particularly valuable for new service launches or partner integrations, where traditional rules haven’t yet been established. The models continuously learn from new data, creating an evolving understanding of revenue risks.

Intelligent process automation: Generative AI streamlines RA workflows through an agentic AI approach, where autonomous AI agents handle automated validation and reconciliation. These agents work collaboratively to process complex billing scenarios across multiple services and partners, automatically flagging anomalies for review. When potential issues are detected, the system’s agents can suggest or initiate corrective actions based on learned patterns, orchestrating end-to-end resolution workflows and reducing resolution time from days to hours.

These methodologies work together to democratize RA insights across organizations while maintaining strict security and compliance controls. The result is a more agile, efficient RA operation that scales with growing business complexity.

Use cases and business benefits

Generative AI transforms key areas of RA through an ‘alarm, analyze, remediate’ pattern. The following examples show some critical processes revolutionized by generative AI:

5G monetization and network slicing

The challenge: Traditional RA systems cannot adapt to dynamic 5G charging models and struggle to track SLAs across multi-layer network slices.

The generative AI solution: Generative AI technologies interpret complex 5G SLA documents and correlate events across all network layers—from RAN through core to billing systems—through automated pattern recognition.

Business impact: Early implementations show up to 30% improvement in SLA-based billing accuracy and 65% faster assurance cycles for enterprise users.

AWS enablers: Amazon Bedrock for document interpretation, SageMaker for custom model development, AWS Lambda for event correlation, and Amazon EventBridge for orchestrating remediation workflows.

Partner environment assurance

The challenge: Rules-based systems struggle with diverse partner agreements and complex revenue-share logic, creating substantial delays in settlements.

The generative solution: Generative AI automatically analyzes contracts, extracts revenue-share rules, and identifies settlement anomalies through pattern recognition and predictive modeling.

Business impact: Prevents approximately 3% revenue leakage from partnerships, accelerates partner onboarding by 40%, and improves settlement accuracy by 25%.

AWS enablers: Amazon Textract and Amazon Comprehend for document processing, Amazon Bedrock for natural language understanding, Amazon Redshift for settlement analysis, and AWS Step Functions for reconciliation workflows.

Real-time usage reconciliation

The challenge: Legacy systems cannot process high-frequency internet of things (IoT) or 5G usage data in real-time, missing subtle event loss patterns.

The generative AI solution: Enables continuous pattern analysis of event streams, detecting subtle anomalies in high-volume data through automated recognition.

Business impact: Organizations report up to 70% reduction in CDR-to-bill lag time and improved detection of micro-leakage in real-time services.

AWS enablers: Amazon Kinesis Data Streams and Amazon Managed Streaming for Apache Kafka (Amazon MSK) for real-time data streaming, SageMaker for anomaly detection, Lambda for event correlation, and Amazon DynamoDB for pattern data.

Dynamic pricing and product catalog assurance

The challenge: Static systems cannot effectively handle frequent catalog changes and complex product configurations, elevating leakage risk during new product launches.

The generative AI solution: Generative AI systems interpret complex catalog logic, automatically validate pricing structures, and simulate potential leakage scenarios before launch.

Business impact: Organizations report reducing launch-related revenue leakage by approximately 35% while accelerating time-to-market for new service offerings.

AWS enablers: Amazon Aurora for catalog management, Amazon Neptune for product relationship modeling, SageMaker for pricing validation, and Step Functions for validation workflows.

AI/ML-based anomaly detection with explainability

The challenge: Traditional approaches provide no contextual narrative around identified anomalies, making it difficult for analysts to interpret and act on machine learning outputs.

The generative AI solution: Converts ML results into business language, offering suggestions for likely remediation actions based on historical patterns.

Business impact: Organizations report 40% improvement in analyst productivity and up to 60% reduction in detection-to-resolution cycle time.

AWS enablers: Amazon Bedrock for natural language generation, SageMaker for model deployment, Amazon Q for analyst assistance, and Amazon OpenSearch Service for pattern identification.

These AI-powered solutions automate the entire process from anomaly detection to implementing corrective actions. Although these examples represent primary use cases, generative AI’s adaptability enables broader applications across the RA lifecycle, from contract management to dispute resolution. As the technology evolves, new implementation patterns continue to emerge.

The AWS generative AI framework provides the underlying capabilities, while ISVs and CSPs maintain full control of their RA business logic and workflows. This approach enables telecom providers to use cutting-edge technology while protecting their intellectual property and competitive advantage.

Implementation considerations and AWS services stack

Implementing generative AI for RA necessitates a comprehensive architecture that integrates with systems such as billing, CRM, mediation, and settlement systems. The solution uses AWS services to enable AI-powered capabilities while maintaining secure integration with these systems. The following is a high-level view of how AWS native services align with RA functional requirements.

Figure 5 Recommended AWS Services for Building the Proposed SolutionFigure 5 Recommended AWS Services for Building the Proposed Solution

Data collection and ingestion

RA data flows from multiple sources such as billing systems, provisioning systems, network elements, and user interactions. Amazon MSK handles real-time data streaming, while AWS Database Migration Service (AWS DMS) supports continuous data capture. Kinesis Data Streams enables real-time collection of network logs and usage records. AWS Transfer for SFTP provides secure file transfer capabilities for handling sensitive billing and user data. CSPs can also use AWS services such as Amazon Elastic Compute Cloud (Amazon EC2), Amazon Elastic Kubernetes Service (Amazon EKS), and Amazon Elastic Container Service (Amazon ECS) to run custom collection engines based on specific requirements. These AWS managed services reduce operational overhead and make sure of scalable, secure data ingestion without infrastructure management complexity.

Data processing and feature engineering for RA

Raw data from RA systems necessitates preprocessing for generative AI applications. AWS Glue provides server-less ETL capabilities and automated data discovery through AWS Glue Crawlers. It creates structured catalogs of billing, usage, and revenue data. The AWS zero-ETL capabilities minimize pipeline complexity and enable real-time analysis. Amazon EMR handles large-scale data processing for complex revenue analytics. Lambda enables real-time transformation of revenue streams. SageMaker Feature Store maintains consistent feature sets for ML models across training and inference, making sure of reliable revenue pattern detection in both batch and real-time scenarios. For SQL-based analysis, Amazon Athena allows teams to query data directly from Amazon S3. Together, these services automate data preparation while maintaining governance standards for RA.

Data storage and vector databases

RA data necessitates diverse storage solutions to support generative AI applications. Amazon S3 serves as the central data lake, storing raw and processed data with lifecycle management. Amazon Relational Database Service (Amazon RDS) and Aurora handle transactional data for billing and revenue systems. Amazon Redshift enables complex analytics through columnar storage and parallel query processing. For generative AI applications, Amazon OpenSearch Vector Engine and Neptune enable semantic search across billing patterns and customer behaviors. Amazon MemoryDB and DynamoDB support high-performance caching and real-time data access due to low latency performance. Amazon Aurora with pg-vector provides vector search while maintaining familiar SQL interfaces, which is ideal for revenue pattern analysis. Together, these services create a scalable storage foundation that balances performance, cost, and accessibility for RA workloads.

Data chunking and analysis

RA data necessitates intelligent segmentation for effective generative AI processing. Amazon Bedrock supports multiple chunking strategies: standard, hierarchical, and semantic. These make sure of optimal context preservation for revenue data. Fixed-size chunking maintains consistent token lengths across billing records, while semantic chunking preserves natural boundaries in complex revenue documents. For custom requirements, Lambda enables flexible document splitting based on specific RA rules. These capabilities ensure precise data segmentation while maintaining semantic relevance for revenue pattern analysis.

Analytics and visualization for RA

RA insights demand effective visualization and reporting capabilities. The Amazon Q in QuickSight feature enables natural language querying of revenue data, while its ML Insights automatically detect patterns and anomalies in billing trends. The service’s generative AI integration helps create narrative explanations of complex revenue metrics. Amazon QuickSight seamlessly integrates with Amazon Redshift and Amazon S3 through Athena, enabling comprehensive analysis across all revenue data sources. Amazon OpenSearch Dashboards provide real-time monitoring of revenue patterns through interactive visualizations. These tools support both embedded analytics and custom reporting needs, while maintaining compatibility with existing reporting systems through standard SQL interfaces.

Consumption and automation layer

RA teams can build sophisticated applications using the AWS generative AI and ML capabilities. The Amazon Bedrock FMs power natural language interactions and insights generation, while Amazon SageMaker AI endpoints enable real-time inference for revenue pattern detection. Using EventBridge and Step Functions, teams can create automated workflows that trigger corrective actions based on detected anomalies. Amazon API Gateway provides secure REST interfaces for custom RA applications.

The solution supports continuous improvement through feedback loops. Amazon CloudWatch enables comprehensive monitoring of applications and model performance. Teams can build self-improving systems where human validations enhance model accuracy over time. The AWS partner environment offers specialized RA expertise, while AWS SDKs and AWS Cloud Development Kit (AWS CDK) make sure of consistent deployment of solutions with proper governance controls.

This architecture makes sure of scalability, security, and performance while maintaining flexibility for future enhancements. The modular nature of AWS services allows organizations to start with essential components and expand as their generative AI capabilities mature.

Example

Although previous sections discussed conceptual capabilities and potential use cases of generative AI in RA, we can examine a basic implementation example. The following high-level process and data flow diagram shows a clear yet practical RA solution using AWS services. This example demonstrates core concepts while actual implementations may vary based on specific requirements and complexity.

Figure 6 High-Level Process and Data Flow Diagram

Figure 6 High-Level Process and Data Flow Diagram

  1. Business and operational data, such as network logs, usage records, billing, and CRM data, is ingested into Amazon S3, which serves as the data lake for the ingestion stage.
  2. When EventBridge notifications are enabled for the S3 bucket, Amazon S3 automatically triggers an EventBridge event whenever a new batch of files is uploaded.
  3. EventBridge processes the event and triggers an AWS Glue ETL job.
  4. AWS Glue ETL job processes, cleans, and analyzes the data, extracts suspected anomalies, and loads them into a staging bucket in Amazon S3 for AI/ML-based processing. It also loads structured results into Amazon Redshift for analytics and reporting.
  5. When the AWS Glue ETL job completes successfully, it generates an event notification to EventBridge, which triggers a Step Functions workflow.
  6. Step Functions orchestrates the running of Lambda functions iteratively.
  7. The Lambda functions retrieve anomaly data from Amazon Redshift (for structured rule-based processing) and apply deterministic rule-based checks to detect revenue leaks. The detected leaks are stored back in Amazon Redshift for further evaluation and reporting.
  8. Step Functions triggers SageMaker AI/ML jobs, which now read anomaly data from the S3 staging bucket instead of Amazon Redshift.
  9. The SageMaker ML job analyzes the anomaly data using a custom-trained model built on historical anomaly data and revenue leakage patterns. It applies ML-based inference to detect new revenue leaks and generate contextual recommendations. Both of the detected anomalies and recommended actions are stored in Amazon Redshift for further processing and reporting.
  10. The SageMaker generative AI job uses a trained FM to analyze historical patterns, recognize complex revenue leakage behaviors, and generate contextual recommendations. The results are also stored in Amazon Redshift.
  11. Step Functions triggers a final workflow to send notifications and alerts based on the findings, informing relevant stakeholders.
  12. Amazon Redshift and QuickSight fetch structured data from Amazon Redshift for analytics and visualization. Furthermore, Amazon Bedrock powers chat-bots (Amazon Lex) and contact center solutions (Amazon Connect) to provide automated insights through web and mobile applications.

Conclusion and future outlook

The transformation of RA through generative AI represents a significant evolution in telecom operations. Traditional approaches have focused on reactive measures, while generative AI enables proactive, data-driven solutions. This evolution addresses the industry’s critical challenge of revenue leakage, which currently impacts up to 10% of telecom revenue worldwide. The integration of generative AI capabilities unlocks substantial cost savings and operational efficiencies while enhancing user satisfaction.

The AWS comprehensive stack provides the foundation that telecom operators need for this transformation journey. Data ingestion solutions such as Amazon MSK, Kinesis Data Streams, and AWS DMS enable real-time and batch data collection from diverse revenue sources. The Amazon Bedrock FMs power intelligent analysis of billing patterns and anomaly detection. Vector-enabled databases such as Amazon OpenSearch, Neptune, and Amazon RDS with pg-vector support sophisticated pattern recognition across complex service offerings. The serverless infrastructure eliminates operational overhead, while built-in security features make sure of data privacy and compliance. Starting with focused RA use cases, these same architectural approaches extend to broader telecom operations, from user support to service management. Through AWS continuous innovation of AWS in AI and data services, telecom providers can build comprehensive generative AI-enabled operations that demonstrate immediate ROI while preparing for future challenges in the evolving telecom landscape.

Visu Sontam

Visu Sontam

Visu Sontam serves as a Principal Solutions Architect in AWS's Worldwide Telecom Business Unit, specializing in telecom technologies with focus on BSS, OSS, AI, ML, and Analytics. He collaborates with global telecom carriers and partners to support Communication Service Providers' (CSPs) cloud migration to AWS, advising on modernization strategies and developing architecture reference patterns that accelerate customers' cloud journey.

Deva Suresh Bellary

Deva Suresh Bellary

Deva Suresh Bellary is a telecom industry SME and Enterprise Solutions Architect at AWS, with over 18 years of experience across EMEA, Europe, and Asia. He specializes in architecting and transforming mission-critical BSS (Business Support Systems) platforms for major telecom operators, with deep expertise in charging, billing, and revenue management solutions. At AWS, he helps enterprises modernize their technology landscape using cloud-native services, micro services architectures, and server-less technologies. He focuses on building innovative solutions that leverage AWS's analytics and AI/ML capabilities to drive business transformation. His expertise encompasses solution architecture, enterprise cloud transformation, modern data architectures, and advanced analytics with machine learning across industries.