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Discover
background of these three main require- ebm-papst.
ments of the virtual interior evaluations,
have positive effects [9].
There are some particular further
developments planned to be able to va - New ideas for the automobile industry at
lidate the requirements for other use
cases. One of them is the integration of discover.ebmpapst.com/automotive
the Functional Engineering Platform
(FEP) which is developed at the Volks-
For many years we have been in demand as
wagen group as a standard communi-
cation platform for data. In the short engineering partners to manufacturers and system
future, basic components of the simula- suppliers in the automobile and commercial
tor architecture are supposed to be con- vehicle fields. Our innovative ventilation and drive
nected at FEP to minimize integration
solutions contribute to making driving constantly
work for future use cases. In the back-
ground of the complete virtualization, more convenient, stress-free and safe.
there are optimizations at the tracking You can’t see it. But you can feel it!
system and the virtual human represen-
tation planned with the scope at HMI
studies. Another central part will be
the advancement of the motion cueing
algorithm in relation to the variable
seat position.
REFERENCES
[1] Wiedemann, M. E. W.: Validierung der Fahrsimu-
lation für das Erleben und Beurteilen fahrdyna-
mischer Eigenschaften. Munich, Technical Univer-
sity, doctoral dissertation, 2016
[2] Curry, R.; Artz, B.; Cathey, L.; Grant, P.; Green-
berg, J.: Kennedy SSQ Results: Fixed vs. Motion-
Base Ford Simulators. In: proceedings, Driving Sim-
ulation Conference, Paris, 2002, Driving Simulation
Association, pp. 289–299
[3] Bittner, A. C. J.; Gore, B. F.; Hooey, B. L.: Mean-
ingful Assessments of Simulator Performance and
Sickness: Can’t Have One without the Other?
In: Proceedings, 41 st Human Factors and Ergonom-
ics Society Annual Meeting, Albuquerque, 1997,
pp. 1089–1093
[4] Riedl, M.: Potential eines virtuellen Fahrer-
platzmodells in der Fahrzeugkonzeptentwicklung.
Munich, Technical University, doctoral dissertation,
2012
[5] Zeeb, E.: Daimler´s New Full-Scale, High-dy-
namic Driving Simulator – A Technical Overview. In:
Proceedings, Driving Simulation Conference, Paris,
2010, Driving Simulation Association, pp. 157–167
[6] Blissing, B.; Bruzelius, F.; Eriksson, O.: Driver
behavior in mixed and virtual reality – a comparative
study. In: Proceedings of the Driving Simulation
Conference, Paris, 2016, Driving Simulation Asso-
ciation, pp. 179–186
[7] Hartfiel, B.; Buchholz, C.; Fresemann, C.;
Tomaszek-Staude, W.; Stark, R.: Use-Case orien-
tierte Gestaltungsempfehlungen für Fahrsimulatoren
zur menschzentrierten Absicherung von Sicher-
heits- und Komfortfunktionen. In: VDI-Berichte Nr.
2333 (2018), pp. 655–669
[8] E2M Technologies: Product Specification Sheet
eM6-300-1500. Amsterdam, 2015, online: https://
www.e2mtechnologies.eu/wp-content/
uploads/2016/02/eM6-300-1500-PSS-i03.pdf,
access: August 23, 2019
[9] Hartfiel, B.; Stark, R.: Influence of vestibular
cues in head-mounted display-based driving simu-
lators. In: Proceedings, Driving Simulation Confer-
ence, Strasbourg, 2019, Driving Simulation Associa-
tion, in preparation
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