Establish Experimental Platforms for Multisensory Research
Establish realistic experimental environments that enable the systematic investigation of multisensory perception and AI-assisted guidance in complex surgical tasks.
An interdisciplinary initiative connecting intelligent medical systems with human multisensory perception.
Why Synergia
Modern operating rooms generate information from imaging, tracking, monitoring, and AI-based analysis. Clinicians must interpret these streams under time pressure, with limited visual bandwidth and high cognitive demands.
Synergia studies how sound, spatial audio, and other computationally mediated signals can complement visual guidance in realistic ophthalmic and microsurgical scenarios.
Project Vision
The project aims to establish scientifically grounded ways for intelligent medical systems to communicate with clinicians through perceptually meaningful audiovisual information, from controlled laboratory studies to realistic clinical validation.
Six interconnected objectives define the project’s scientific framework, guiding the development, evaluation, and clinical translation of multisensory interaction for computer-assisted medicine.
Establish realistic experimental environments that enable the systematic investigation of multisensory perception and AI-assisted guidance in complex surgical tasks.
Model and analyze realistic auditory operating-room environments to establish ecologically valid foundations for multisensory interaction research.
Investigate perceptually meaningful sonification strategies that communicate clinically relevant information beyond conventional visual interfaces.
Investigate how audiovisual information influences perception, spatial navigation, cognitive load, and human performance in high-intensity environments.
Determine how expertise and training shape multisensory perception, interaction, and performance during complex surgical tasks.
Evaluate optimized multisensory guidance in realistic ophthalmic surgical settings to establish its effectiveness and translational potential.
The experimental programme advances from passive perception studies to active navigation and, finally, realistic ophthalmic validation.

WP1 establishes the experimental foundation. WP2 and WP3 develop auditory environments and sonification methods; WP4 and WP5 evaluate human performance, expertise, and learning; WP6 brings the optimized approach into clinical validation.
A three-year progression from experimental platforms and models to human studies, clinical validation, and reusable research outputs.
Year 1
Year 2
Year 3
Synergia aims to advance understanding of multisensory human performance while developing methods for more interpretable and human-centred computer-assisted interventions.
Synergia is funded by the Deutsche Forschungsgemeinschaft and conducted jointly by the Technical University of Munich and TU Dresden, together with clinical and technology collaborators.