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Das Versuchsfeld des LUF Show image information
Temperaturüberwachung der Ölhydraulik einer Umformpresse Show image information
Thermomechanische Behandlung einer Stahlprobe (Presshärten) Show image information
Reibdrücken: Verschließen eines Rohres Show image information
Werkzeug zum Innendrückwalzen Show image information
Spanende Bearbeitung eines Umformwerkzeuges (Vorlesung Werkzeugtechnologie) Show image information

Das Versuchsfeld des LUF

Temperaturüberwachung der Ölhydraulik einer Umformpresse

Thermomechanische Behandlung einer Stahlprobe (Presshärten)

Reibdrücken: Verschließen eines Rohres

Werkzeug zum Innendrückwalzen

Spanende Bearbeitung eines Umformwerkzeuges (Vorlesung Werkzeugtechnologie)

LUF Staff

Dr.-Ing. Eugen Djakow

Dr.-Ing. Eugen Djakow

Umformende und Spanende Fertigungstechnik

Course Manager - Research Assistant - Lehrveranstaltungsassistent

Fakultät für Maschinenbau

Research Assistant - Vertiefungsberatung

+49 5251 60-5347
+49 5251 60-5342
Pohlweg 53
33098 Paderborn

Open list in Research Information System


Ein Beitrag zur kombinierten (quasi-)statischen und dynamischen Umformung von blechförmigen Halbzeugen

E. Djakow, Shaker, 2019

Working-media-based forming processes (WMBF) represent a great potential regarding the production of complex sheet-metal lightweight components with excellent surface quality, shape accuracy and dimensional stability. The working-media-based forming processes characterize the sheet-metal forming process, where the sheet metal blank is formed during the forming process by means of a (quasi-)static or dynamic working media pressure into a contouring forming tool. Although the WMBF offers improved utilization of the formability of the used materials compared to conventional sheet metal forming processes, there are limits in the production of complex deeper or sharp edged components with (quasi-)static and dynamic WMBF processes, which can not be overcome by using these methods alone. In order to overcome this, multi-level WMBF process sequences for components with spherical and stepped geometries are developed in this work. Here the developed strategies combine the advantages of (quasi-)static and dynamic WMBF processes. Furthermore, based on analytical, experimental and numerical investigations, innovative process management strategies were derived, which completely compensate the local wall thickness changes, make better use of existing material resources and thus enable the safe production of mentioned geometries.

High-Speed Incremental Forming – New Technologies For Flexible Production Of Sheet Metal Parts

M. Linnemann, V. Psyk, E. Djakow, R. Springer, W. Homberg, D. Landgrebe, Procedia Manufacturing (2019), pp. 21-26


Heat transfer enhancement in pillow-plate heat exchangers with dimpled surfaces: A numerical study

M. Piper, A. Zibart, E. Djakow, R. Springer, W. Homberg, E. Kenig, Applied Thermal Engineering (2019), pp. 142-146



Incremental electrohydraulic forming - A new approach for the manufacture of structured multifunctional sheet metal blanks

E. Djakow, R. Springer, W. Homberg, M. Piper, J. Tran, A. Zibart, E. Kenig, 2017


Open list in Research Information System

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