Daniel Wolff

Daniel Wolff serves as a Researcher at the Institute of Structural Engineering within the Department of Civil Engineering at Technische Hochschule Mittelhessen (THM), where he has been employed since September 2011. His work focuses on experimental and computational analysis of concrete structures, particularly reinforced and prestressed systems.

His academic background includes:

• Civil Engineering degree specializing in Construction and Structural Design from Giessen-Friedberg University of Applied Sciences (2004-2009)
• Master of Engineering in Structural Engineering and Project Management from TH Mittelhessen (2009-2011)

Wolff's research centers on structural engineering challenges in concrete construction, with emphasis on column connections, cross-sectional transitions, and innovative hybrid systems for wind turbine towers. His methodology integrates experimental testing with numerical simulations to address practical construction issues like reinforcement misalignment and material behavior under load. Key applications include precast concrete assembly and sustainable energy infrastructure development.

Publication analysis (2012-2018) reveals consistent focus on concrete structural behavior, particularly butt-jointed columns and hybrid wind turbine towers. His work demonstrates progression from fundamental connection studies toward integrated systems engineering, frequently utilizing Building Information Modeling (BIM) for complex structural solutions in renewable energy infrastructure.

Scientific awards: No awards documented in source materials.

Wolff participated in the HYWEA research project (2012-2014), a LOEWE 3 initiative funded by the State of Hesse developing hybrid wind turbine towers from precast concrete and steel trusses. While no advisees are listed, his research collaborations with Minnert, Koob, and Blatt indicate team-based investigation approaches within THM's structural engineering framework.

He operates within THM's Reinforced and Prestressed Concrete Construction subject area, utilizing university facilities including building materials laboratories and structural testing equipment for experimental validation of concrete systems.