| michael.bkhani@uni-goettingen.de | |
| Address | RZGö, Burckhardtweg 4, Georg-August Universität Göttingen, room 2.102 |
Michael Bidollahkhani, under the supervision of Prof. Dr. Julian Martin Kunkel, is a dedicated computer engineer and machine intelligence researcher. His expertise in software engineering and automated systems is recognized by his Young Scientist award from the YSF of Iran in 2017 and 2023. As a member of the National Elites Foundation and the ACM, Michael is actively engaged in the development of advanced intelligent systems.
ORCID: 0000-0001-8122-4441
Google Scholar: https://scholar.google.com/citations?user=_rLezLYAAAAJ
This thesis addresses the need for transparency in the energy and resource consumption of AI services by proposing a standardized environmental sustainability labeling system. The project analyzes the energy consumption and computational load of different AI tasks—such as classification, generation, and scheduling—and translates them into simple, interpretable labels similar to those used for home appliances (e.g., A++ to E). The student will collect runtime and resource usage data for AI models, evaluate their environmental impact, and propose a standardized method to present this information to users and developers.
This project investigates how context-sensitive AI models can improve early fault detection in high-performance computing (HPC) environments. The objective is to implement an adaptive mechanism that selects among pre-trained machine learning models based on system state, workload behavior, and observed error patterns. The research includes defining relevant system contexts, integrating multiple detection models, and evaluating their effectiveness under different runtime conditions using real or simulated log datasets. The expected outcome is improved fault detection reliability while maintaining scalability across heterogeneous HPC architectures.
This thesis focuses on designing a context-aware job scheduling system powered by multiple AI models for heterogeneous computing environments, including cloud, edge, and HPC systems. The scheduler dynamically selects the most suitable scheduling model based on job characteristics, resource availability, and historical performance data. The study involves developing an adaptive AI-based scheduler that responds to varying resource types and infrastructure constraints, with the goal of improving overall scheduling efficiency in complex, multi-layered computing systems.
This thesis aims to develop a minimal and efficient AI-based anomaly detection system for identifying irregular behavior in log files generated by small-scale devices or sensors. The system is optimized for environments with limited memory and computational resources, such as embedded systems and low-power devices. Contextual indicators—such as temperature readings, timestamp frequency, and error patterns—are incorporated to improve detection accuracy and relevance. The resulting solution targets real-world monitoring scenarios in edge computing and IoT deployments.
This project involves the design and implementation of a web-based interactive dashboard for monitoring and visualizing AI behavior in system maintenance tasks. The dashboard presents information such as tool selection, confidence levels, warning predictions, and input variations over time in an interpretable and user-friendly manner. It supports AI models that can be configured with different data sources and toolsets, aiming to enhance transparency, trust, and usability in predictive maintenance systems operating in dynamic, multi-model environments.
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All publications as BibTex