The digital era has seen a marked increase in financial fraud. edge ML emerged as a promising solution for smartphone payment services fraud detection, enabling the deployment of ML models directly on edge devices. This approach enables a more personalized real-time fraud detection. However, a significant gap in current research is the lack of a robust system for monitoring data distribution shifts in these distributed edge ML applications. Our work bridges this gap by introducing a novel open-source framework designed for continuous monitoring of data distribution shifts on a network of edge devices. Our system includes an innovative calculation of the Kolmogorov-Smirnov (KS) test over a distributed network of edge devices, enabling efficient and accurate monitoring of users behavior shifts. We comprehensively evaluate the proposed framework employing both real-world and synthetic financial transaction datasets and demonstrate the framework's effectiveness.

The union of Edge Computing (EC) and Artificial Intelligence (AI) has brought forward the Edge AI concept to provide intelligent solutions close to the end-user environment, for privacy preservation, low latency to real-time performance, and resource optimization. Machine Learning (ML), as the most advanced branch of AI in the past few years, has shown encouraging results and applications in the edge environment. Nevertheless, edge-powered ML solutions are more complex to realize due to the joint constraints from both edge computing and AI domains, and the corresponding solutions are expected to be efficient and adapted in technologies such as data processing, model compression, distributed inference, and advanced learning paradigms for Edge ML requirements. Despite the fact that a great deal of the attention garnered by Edge ML is gained in both the academic and industrial communities, we noticed the lack of a complete survey on existing Edge ML technologies to provide a common understanding of this concept. To tackle this, this paper aims at providing a comprehensive taxonomy and a systematic review of Edge ML techniques, focusing on the soft computing aspects of existing paradigms and techniques. We start by identifying the Edge ML requirements driven by the joint constraints. We then extensively survey more than twenty paradigms and techniques along with their representative work, covering two main parts: edge inference, and edge learning. In particular, we analyze how each technique fits into Edge ML by meeting a subset of the identified requirements. We also summarize Edge ML frameworks and open issues to shed light on future directions for Edge ML.

An on-device embedding based search package is been introduced by Tensorflow which could be run on android, ios and web applications. It runs with help of the Edge ML technique. This on-device package could help the user to search images, text or audio in just a snap of time. In this article, we would learn the implementation of on-device text-to-image search with TensorflowLite. Following are the topics to be covered.

Artificial intelligence (AI) has made tremendous strides over the recent years and in a wide range of applications and the benefits of AI stem from rapid growth of data and upsurge of mobile devices. Artificial intelligence is a computational model that enables computer to learn from data and create solutions for complex functions. AI has been extensively applied in large scale fields from robotics to airplane flight control. Artificial intelligence (AI) generally refers to the stimulation of human intelligence in machines which are programmed to have a thinking process similar to humans and mimic their actions. AI-based applications are developing rapidly in terms of deployment, adaptation, computing speed, and capabilities.

Are you looking to tighten security, lower costs, and make faster data-driven decisions? Then you might want to consider edge machine learning (edge ML). In brief, edge ML is machine learning applied on or close to the device that captures the data. Cloud ML typically comes with large cloud computing costs, whereas edge ML can save you both bandwidth and expenses. Your weakest point in any edge ML setup will typically be your data endpoints.

Edge Machine Learning (Edge ML) is one of the most talked-about tech advancements since the Internet of Things (IoT), and for a good reason. With the rise of IoT came an explosion of Smart Devices connected to the Cloud, but the network was not yet ready to support this surge in demand. Cloud networks were congested, and companies overlooked key issues with Cloud computing, such as security. So, what is Edge ML anyway? Edge ML is a technique by which Smart Devices can process data locally (either using local servers or at the device-level) using machine and deep learning algorithms, reducing reliance on Cloud networks.