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Fig 1.

Trends in weighted incidence of electric scooter-related injuries seen in emergency departments in the United States from 2014 to 2019 by selected age groups [4].

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Table 1.

A summary on e-scooter-related types of accidents, injuries percentages and helmet use, NR—Not reported.

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Fig 2.

Scooter-to-B-pillar impact—Physical experiment depicted in 25 ms intervals; authors’ illustration based on published fka company materials [18].

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Fig 3.

The approach used for the study was based on reverse engineering and coupled LS-DYNA with MADYMO codes.

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Table 2.

The material model for aluminum 6061 used for the scooter.

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Table 2 Expand

Table 3.

The numerical components, their physical properties and applied numerical approach for the study.

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Fig 4.

Impact scenarios: a) Bonnet impact b) side impact B-pillar upright position c) side B-pillar squat position d) symmetrical frontal impact.

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Fig 5.

Dummy kinematics in the side bonnet scenario—The dummy’s resultant displacement in [mm], time in [s].

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Fig 6.

Dummy kinematics in the B-pillar, up-right scenario—The dummy’s resultant displacement in [mm], time in [s].

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Fig 7.

Dummy kinematics in the B-pillar, squat scenario—The dummy’s resultant displacement in [mm], time in [s].

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Fig 8.

Dummy kinematics in the frontal scenario—The dummy’s resultant displacement in [mm], time in [s].

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Fig 9.

The plot of the head linear acceleration and its magnitude for the analyzed scenarios.

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