Abstract

Due to the increasing success of machine learning techniques , nowadays, thay have been widely utilized in almost every domain such as financial applications, marketing, recommender systems and user behavior analytics, just to name a few. In practice, the machine learning model creation process is a highly iterative exploratory process. In particular, an effective machine learning modeling process requires solid knowledge and understanding of the different types of machine learning algorithms. In addition, all machine learning algorithms require user-defined inputs to achieve a balance between accuracy and generalizability. This task is referred to as Hyperparameter Tuning. Thus, in practice, data scientists work hard to find the best model or algorithm that meets the specifications of their problem. Such iterative and explorative nature of the modeling process is commonly tedious and time-consuming. We demonstrate SmartML, a meta learning-based framework for automated selection and hyperparameter tuning for machine learning algorithms. Being meta learning-based, the framework is able to simulate the role of the machine learning expert. In particular, the framework is equipped with a continuously updated knowledge base that stores information about the meta-features of all processed datasets along with the associated performance of the different classifiers and their tuned parameters. Thus, for any new dataset, SmartML automatically extracts its meta features and searches its knowledge base for the best performing algorithm to start its optimization process. In addition, SmartML makes use of the new runs to continuously enrich its knowledge base to improve its performance and robustness for future runs. We will show how our approach outperforms the-state-of-the-art techniques in the domain of automated machine learning frameworks.

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