In the realm of Green AutoML, we are dedicated to advancing the sustainability of automated machine learning. Our commitment lies in progressively automating the optimization of machine learning pipelines to enhance algorithm performance efficiently, even for individuals without extensive machine learning expertise. By automating tasks such as preprocessing, algorithm selection, hyperparameter configuration, neural architecture search, and postprocessing, Green AutoML aims to streamline and expedite the model design process for practitioners and researchers alike.
In contrast to traditional AutoML approaches, Green AutoML places a strong emphasis on sustainability, aiming to reduce the environmental impact associated with automated machine learning processes. At its core, Green AutoML seeks to minimize energy consumption, carbon emissions, and resource usage throughout the AutoML lifecycle.
Key features of Green AutoML include:
Through its focus on sustainability, Green AutoML not only delivers state-of-the-art machine learning solutions but also contributes to a greener and more environmentally responsible future. By embracing energy-efficient algorithms, optimizing resource usage, and promoting transparency, Green AutoML sets a new standard for sustainable AutoML practices.
In the domain of Green AutoML, the focus shifts towards sustainability, recognizing the imperative to reduce the environmental impact associated with automated machine learning processes. While automation expedites the development of ML applications, it often comes at a significant cost to energy consumption, carbon emissions, and resource usage. Green AutoML seeks to mitigate these environmental burdens by implementing energy-efficient algorithms, optimizing resource utilization, and promoting eco-friendly practices across the AutoML lifecycle.
Software
Our library SMAC offers a robust and flexible framework for multi-objective optimization that supports users to figure out a Pareto-optimal machine learning hyperparameter configuration considering more than one objective at the same time, like performance and emissions. With our DeepCAVE package, one can further investigate possible tradeoffs between several objectives and study which hyperparameters are important, e.g., for energy consumption.