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Fig 1.

General scheme of attitude-related models like TPB and TAM (own presentation, based on various sources).

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Fig 1 Expand

Fig 2.

Hybrid choice models (adapted from [22]).

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Fig 2 Expand

Fig 3.

Standard model of decision making (adapted from [29]).

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Fig 4.

The Extended Model of Mobility Behaviour (xMooBe).

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Table 1.

Participation of the three function groups (N = 10,782, source: [41]).

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Table 1 Expand

Table 2.

Modal split of UA-Ruhr members based on main modes of transport (source: [41]).

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Table 2 Expand

Table 3.

Preferences related to six goals and average, mode-specific probabilities (N = 10,782, source: [41]).

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Table 3 Expand

Table 4.

Top-rated mode of transport based on the SEU algorithm (SEU scores from 0 to 40).

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Fig 5.

Actually used and highest rated modes of transport (own illustration).

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Fig 6.

Non-utilization of transportation modes despite highest rating; grey = non-utilization of the bike, blue = non-utilization of the car, green = non-utilization of public transport; Bar not labelled = low correlation (<.100) or only weakly significant (<.05); missing bars = no effect (own illustration).

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Table 5.

Binary logistic regression model with the dependent variable “car as main mode of transport” (dummy: 1 = car, 0 = other); values for the different models represent the regression coefficients B; odds ratio Exp (B) in parentheses (own illustration).

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Table 6.

Probability of car use for two fictitious persons (values in brackets: variable cannot be changed).

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Table 7.

Binary logistic regression model with the dependent variable “public transport as main mode of transport” (dummy: 1 = public transport, 0 = other); Variable values for the different models represent the regression coefficients B; odds ratio Exp (B) in parentheses (own illustration).

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Table 7 Expand

Table 8.

Probability of using public transport by two fictitious persons (values in brackets: variable cannot be changed).

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Table 9.

Binary logistic regression model with the dependent variable “bicycle as main mode of transport” (dummy: 1 = bike, 0 = other); Variable values for the different models represent the regression coefficients B; odds ratio Exp (B) in parentheses (own illustration).

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Table 9 Expand

Table 10.

Probability of bicycle use by two fictitious persons (values in brackets: variable cannot be changed).

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Table 10 Expand