2020
DOI: 10.1016/j.trf.2020.07.014
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The Impact of Commercial Parking Utilization on Cyclist Behavior in Urban Environments

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Cited by 16 publications
(5 citation statements)
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“…A Tukey HSD post hoc pairwise comparison was used to calculate the group means for each of the main effects as shown in Figure 10. This comparison shows the influence of each factor with all other factors held constant ( 27 , 28 ). Across the vehicle types, the rounded RS was about 2 dB louder than the sinusoidal RS.…”
Section: Resultsmentioning
confidence: 99%
“…A Tukey HSD post hoc pairwise comparison was used to calculate the group means for each of the main effects as shown in Figure 10. This comparison shows the influence of each factor with all other factors held constant ( 27 , 28 ). Across the vehicle types, the rounded RS was about 2 dB louder than the sinusoidal RS.…”
Section: Resultsmentioning
confidence: 99%
“…Similar behavioral adaptations were observed in situations when the HGV was reversing, which made nearly half of the cyclists react in some way (e.g., riding in the opposite traffic lane, going around the reversing truck, waiting in the cycle lane while the truck was reversing). Related insights are provided by Jashami et al (2020) , who concluded that larger loading zones for trucks in the proximity of cyclists resulted in the cyclists adopting slower speed and greater lateral distances from the loading zone even when the zone size was not directly obstructing the trajectory of the cyclists. Pokorny and Pitera (2019) reported that in a scenario where HGVs and cyclists will continue after having stopped at the red phase at traffic lights, cyclists accelerated faster than and thus “escaping” the trucks’ proximity.…”
Section: Resultsmentioning
confidence: 98%
“…More specifically, two of these implicit cues are related to the appearance and characteristics of HGVs (e.g., large/heavy, often driven by a professional driver) and VRUs (e.g., unprotected, wearing helmet, gender) that may set expectations and affect behavior in terms of clearance and acceleration ( Walker, 2007 ). The rest of the implicit cues reflect communication via movement, position, and timing (kinesics, proxemics, and chronemics nonverbal behavior): HGV driver adopting a “flying”, “accelerative”, or “piggybacking” strategy when overtaking a cyclist ( Dozza et al, 2016 ), HGV passing a VRU in close proximity ( Chuang et al, 2013 ; Beck et al, 2019 ; Garcia et al, 2020 ; Beck et al, 2021 ), cyclists adapting their trajectory depending on the position of the HGV ( Pitera et al, 2017 ; Jashami et al, 2020 ), pedestrian passing the obstructing HGV by stepping onto the roadway ( Colley et al, 2020 ). When it comes to explicit communication, one of the cues identified is based on strategic positioning (proxemics) to request perception and involves cyclists selecting a more visible position when the HGV is present ( Pokorny and Pitera, 2019 ), while the other one involves HGVs displaying colors, symbols, and text to VRUs in their vicinity via eHMI ( Colley et al, 2020 ).…”
Section: Resultsmentioning
confidence: 99%
“…In addition, there is a severe mismatch between the rapid growth of non-motorized vehicles and the construction of motor vehicle-oriented transportation facilities [ 7 ]. Competition between motorized and non-motorized vehicles for limited road space has intensified, triggering widespread conflict, especially at road sections with large traffic volume [ 8 , 9 , 10 ].…”
Section: Introductionmentioning
confidence: 99%