Cloud-Oriented Data Lake Architectures for AI-Driven Salesforce Business Intelligence Systems
DOI:
https://doi.org/10.63282/3050-922X.IJERET-V7I1P125Keywords:
Cloud Computing, Data Lake Architecture, AI-Driven Business Intelligence, Salesforce Crm, Distributed Analytics, Lakehouse Model, Metadata Management, Cloud Security, Predictive Analytics, Multi-Tenant SystemsAbstract
The blistering digital transformation of businesses has seen the creation of structured and unstructured business information in customer relationship management (CRM), enterprise resource planning (ERP), marketing automation, and external digital ecosystems increasing with a rapid rate. Modern companies using Salesforce platforms are accumulating enormous amounts of transactional, behavioral and customer contact data which needs to be processed and analyzed in order to permit real-time business intelligence (BI)-driven and artificial intelligence (AI)-driven decision-making. Conventional data warehouses, which are mainly built to accomplish admirable batch analytics, are becoming inadequate to serve changing AI workloads, predictive modeling, and elastic multi-tenant cloud environments. A new paradigm cloud-oriented data lake architectures has come out to overcome these obstacles. Data lakes are flexible in their schema-on-read, have object storage that scales, are distributed, and are specifically integrated to machine learning frameworks. Data lakes provide the ability to scale compute, use serverless analytics, and orchestrate AI services when deployed on the hyperscale cloud platforms Amazon Web Services, Microsoft Azure, and Google Cloud Platform. The features allow business to combine Salesforce CRM data with IoT feeds, social media feeds, financial systems and third-party APIs to create cohesive business intelligence dashboards, and AI-generated insights. The paper introduces a detailed research on Cloud-Oriented Data Lake Architectures adapted to AI-questions Salesforce Business Intelligence Systems based on the IEEE standard. The analysis covers design principles of architecture, data ingestion pipeline, governance framework, security control, AI model integration, and performance optimization. It is a suggestion of a layer-based reference architecture that includes a data ingestion layer, data storage layer, data processing join with AI analytics layer, semantic modeling, and BI visualization layers. The methodology uses the distributed computing paradigms, metadata management, role based access control (RBAC), encryption mechanism and automated model retraining processes. A quantitative appraisal model is presented to judge scalability, decrease in latency, model precision, increase in data quality and cost reduction. Experimental study shows that experimental analysis has enhanced query performance, predictive analytics accuracy and operational efficiency compared with the traditional enterprise data warehouse methods. The findings suggest that cloud-based data lake systems can potentially improve the performance of AI models because they make it possible to engage in real-time streaming ingestion, distribute feature engineering, and create scalable training systems. Moreover, when Salesforce CRM information is unified with the model of unified lakehouses, customer segmentation, prediction of churn, sales, and optimized campaigns can be implemented. The paper ends with determining the research gaps in the field of governance automation, multi-cloud interoperability, and AI ethics in enterprise CRM systems. It stresses the importance of standard cloud-native architectures to facilitate business intelligence transformation sustainably with AI-driven transformation in large-scale companies.
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