Applied Artificial Intelligence

Contact

Group Lead

Prof. Dr.-Ing. Daniel Sonntag

Office

Office hours by appointment

Address

Stiftungsprofessur Künstliche Intelligenz
Marie-Curie Str. 1
D-26129 Oldenburg

See also

Applied Artificial Intelligence

The “Applied AI” research group, which is part of the Interactive Machine Learning research department at the German Research Center for Artificial Intelligence (DFKI), focuses on applying and adapting artificial intelligence methods to, for example, industrial and medical applications. Sustainability is also a major topic in Oldenburg.

Research-relevant application aspects primarily concern the use of learning systems and intelligent user interfaces. Key areas of focus include multimodal input and output and multisensor applications involving environmental and state recognition, sensor data processing, and issues of real-time performance and interactivity when learning from very large or very small datasets, as well as reliability aspects (including trust in AI and explainable AI).

Regardless of specific subject areas, the overarching research goal is to develop guidelines for the practical application of artificial intelligence. In addition, basic research is conducted in the interdisciplinary field of human–machine interaction in combination with machine learning.

Student AI transfer projects are especially important to us. You can find a selection here: iml.dfki.de. For Bachelor's or Master's theses, please contact or .

News

Efficient bioacoustics analysis presented at GoodIT 2025.

Hannes Kath presented the paper "Speeding Up Bioacoustic Data Analysis: Fine-Tuning Deep Models with Active Learning for Efficient Wildlife Detection" at the 5th International Conference on Information Technology for Social Good (GoodIT 2025) in Antwerp.

The research addresses the growing challenge of efficiently analyzing large amounts of bioacoustic data to monitor biodiversity loss. The study demonstrates how fine-tuning transfer learning models in combination with active learning can significantly accelerate the analysis of data from passive acoustic monitoring (PAM). A key contribution is the use of dynamically increasing batch sizes for selecting training data, thereby achieving an optimal balance between computation time and model performance.

This work paves the way for user-friendly and scalable tools for biodiversity monitoring and promotes the wider use of PAM technologies.

Hannes Kath presented the paper "Speeding Up Bioacoustic Data Analysis: Fine-Tuning Deep Models with Active Learning for Efficient Wildlife Detection" at the 5th International Conference on Information Technology for Social Good (GoodIT 2025) in Antwerp.

The research addresses the growing challenge of efficiently analyzing large amounts of bioacoustic data to monitor biodiversity loss. The study demonstrates how fine-tuning transfer learning models in combination with active learning can significantly accelerate the analysis of data from passive acoustic monitoring (PAM). A key contribution is the use of dynamically increasing batch sizes for selecting training data, thereby achieving an optimal balance between computation time and model performance.

This work paves the way for user-friendly and scalable tools for biodiversity monitoring and promotes the wider use of PAM technologies.

(Changed: 11 Feb 2026)  Kurz-URL:Shortlink: https://uol.de/p79699n12021en
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