R3: Sustainability and Efficiency in Human-centered Environments

Current AI models for ITS can contain hundreds of billion model parameters and tokens for training. These exhaustive resources limit their availability for fast model adaptation in human-machine interaction and continued adaptation during their life-cycle. Furthermore, there is a need for data- and resource-efficient AI technologies in the light of AI’s ecological footprint. While research begins to address technological demands such as learning from few data or resource-efficient model distillation, we also need to consider efficiency regarding human-computer-interaction and cognitive constraints of a human partner. SAIL leverages and connects cognitive components, human-computer interaction expertise, and novel engineering technologies to create innovative approaches for challenges pertaining to data economy and knowledge integration, energy efficiency, and cognitive efficiency. Central research questions are as follows:

  • How can the amount of necessary training data for large AI models for ITS be reduced without harming performance? Can prior knowledge (e.g., physical models) be integrated to generate reliable AI models at low cost. How is prior knowledge best modeled to improve run-time, amount of training data, reliability, or usability?
  • How can the energy efficiency of AI algorithms be improved? Is domain-specific computing a viable path towards energy-efficient AI? Do approximative solutions provide sufficient guarantees for human-centered AI?
  • What are viable models of human empowerment in this socio-technical context? Which types of human interventions are natural and efficient, thus limiting the ‘cognitive load’ of required interventions? How do human-centered objectives relate to common learning objectives and knowledge representation models of AI models for ITS?

Explore R3 Sustainability & Efficiency Projects

R3 Sustainability & Efficiency

EDGE: Evaluation of Diverse Knowledge Graph Explanations

by Rupesh Sapkota
Class Expression Learning Explainable AI Knowledge Graphs Neural Networks Paderborn University
R3 Sustainability & Efficiency

Explainable Benchmarking

by Quan Nian Zhang
Explainable Benchmarking Knowledge Graphs Paderborn University
R3 Sustainability & Efficiency

Enhancing Comprehension of Machine Learning Notebooks Through Static Analysis

by Ashwin Prasad Shivarpatna Venkatesh
Paderborn University
R3 Sustainability & Efficiency

Knowledge Graph Mimicking

by Ana Alexandra Morim da Silva
Knowledge Graphs Paderborn University
R3 Sustainability & Efficiency

Sustainable Knowledge Graph Pipelines

by Denis Kuchelev
Knowledge Graphs Paderborn University
R2 Prosilience & Robustness

Solidarity with Migrants/Women in German Political Debates: An Analysis via Large Language Models

by Aida Kostikova
LLMs Bielefeld University
R3 Sustainability & Efficiency

Downstream Application of Foundation Models

by Tristan Kenneweg
LLMs Bielefeld University
R3 Sustainability & Efficiency

Sustainable AI for Small Data: An Active Learning Approach

by Bjarne Jaster
Active Learning Machine Learning HSBI
R3 Sustainability & Efficiency

Explainable AI for Cognitive Support in Intelligent Tutoring Systems

by Jesper Dannath
Human-Centered AI Bielefeld University
R3 Sustainability & Efficiency

Dataflow and Approximation of Neural Network Inference and Training on FPGAs

by Christoph Berganski
Neural Networks Paderborn University
R3 Sustainability & Efficiency

Safe Active Learning, Optimization and Control via Gaussian Processes

by Jörn Tebbe
Active Learning Gaussian Processes TH OWL