SENSIBLE and MOEEBIUS both target energy efficiency in buildings, covering storage, simulation tools, and energy performance contracting.
TECHNISCHE HOCHSCHULE NURNBERG GEORG SIMON OHM
German university of applied sciences specializing in building energy optimization, retrofit strategies, and advanced lightweight ceramic and concrete materials.
Their core work
Technische Hochschule Nürnberg (TH Nürnberg) is a German university of applied sciences that brings practical engineering expertise to EU research projects focused on energy-efficient buildings and advanced construction materials. Their work spans building energy management — including occupant behavior modeling, demand-response systems, and retrofit strategies — as well as lightweight multifunctional ceramics and concrete for construction. They contribute applied research on sensors, predictive modeling, and energy simulation tools, bridging the gap between academic research and real-world building and materials applications.
What they specialise in
MOEEBIUS specifically focuses on occupant behaviour modelling and building-district energy simulation tools.
LightCoce addresses up-scaling of lightweight multifunctional concrete and ceramic materials with predictive modelling.
Both SENSIBLE (energy storage) and MOEEBIUS (sensors, BEMS, demand-response) involve sensor and control system integration.
LightCoce includes prefabricated elements as a key output, signaling a move toward industrialized construction.
How they've shifted over time
TH Nürnberg's early H2020 work (2015–2018) concentrated squarely on building energy performance — energy storage for communities, occupant behavior modeling, demand-response, and retrofit strategies. From 2019 onward, their focus shifted toward advanced materials, specifically lightweight ceramics and concrete with multifunctional properties, combined with predictive modelling and standardization. This suggests a broadening from pure energy systems into the physical fabric of buildings — the materials themselves.
TH Nürnberg is moving from software-side energy optimization toward materials science and industrialized construction, positioning them at the intersection of energy efficiency and advanced building materials.
How they like to work
TH Nürnberg has participated exclusively as a partner, never as coordinator, across all three projects. With 56 unique consortium partners across 15 countries from just 3 projects, they operate in large, diverse consortia (averaging ~19 partners per project). This profile suggests a reliable technical contributor that integrates well into big multi-national teams rather than driving project direction.
Despite only 3 projects, TH Nürnberg has built a broad network of 56 partners across 15 countries, reflecting participation in large Innovation Action consortia with wide European reach.
What sets them apart
TH Nürnberg sits at the intersection of building energy systems and advanced construction materials — a combination that is relatively rare among universities of applied sciences. Their applied research profile means they focus on implementable solutions rather than fundamental science, making them a practical partner for projects that need to move from lab to building site. For consortium builders, they offer a German UAS perspective that blends energy engineering with materials expertise.
Highlights from their portfolio
- LightCoceTheir largest funded project (EUR 786K), marking a strategic pivot from energy systems into advanced ceramics and lightweight concrete materials.
- MOEEBIUSThe most keyword-rich project in their portfolio, covering a full stack from occupant behavior modeling through sensors to energy performance contracting and demand-response.