Streaming Feature Stores and Real-Time ML Inference on Cloud-Native Infrastructure
DOI:
https://doi.org/10.63282/3050-922X.IJERET-V6I1P119Keywords:
Streaming Feature Store, Real-Time Machine Learning, Online Inference, Cloud-Native, Kubernetes, Kafka, Flink, Feature Engineering, MLOps, Low-Latency ML, Serverless MLAbstract
In the present day's fast-changing digital world, actual time machine learning (ML) is essential for making smart, responsive apps like fraud detection, recommendation systems, dynamic pricing & personalized user experiences. The feature store is the most important part of this change. It makes sure that ML models get the information that is timely, consistent & of high quality. This study investigates the evolution of feature stores from traditional batch pipelines to modern streaming architectures that provide real-time inference. As businesses increasingly embrace low-latency decision-making, the need for streaming feature storage has surged, facilitating the rapid production, modification, and transmission of features within milliseconds. We look at how cloud-native technology, such as Kubernetes, serverless platforms, and event-driven architectures, makes it possible to build real-time machine learning systems that can handle a lot of data, are reliable, and don't cost a lot of money. We want to provide a complete picture of how streaming feature stores function in practice, the architectural frameworks that support them, and the trade-offs that come with them. We demonstrate, via a practical case study, the use of a cloud-native stack to develop a real-time machine learning pipeline capable of ingesting and transforming substantial streaming data for low-latency inference. The case study clarifies the challenges faced, the implemented solutions, and the key performance outcomes. This article offers insights & practical guidance for data & ML engineers seeking to improve their machine learning workflows with streaming their capabilities, illustrating how the amalgamation of streaming data processing, feature engineering & cloud-native principles can enable the creation of sophisticated, actual time applications.
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