Abstract:This paper develops a hybrid approach for analyzing vehicle classification data and applies the approach to a fused data set from multiple jurisdictions in the Canadian prairie region. Application of the approach results in a set of regional default truck traffic classification groups for use in the Mechanistic–Empirical Pavement Design Guide. The hybrid approach is a conglomeration of three components: statistical clustering procedures, expert judgment, and industry intelligence. By applying the hybrid approa… Show more
“…Figure 4 illustrates the capability of these data by showing the vehicle class distributions (VCDs) obtained from four 48-hour classification sites near the Pierson oilfield, adjacent to the Saskatchewan and North Dakota borders. The distributions shown are unique to oilfield activity in Manitoba, Saskatchewan, and Alberta, as evident by the high percent of class 10 trucks (Reimer and Regehr 2014).…”
Section: Illustrative Analysis Of Petroleum-related Trucking In Manitobamentioning
This paper presents a case study of the Manitoba experience in permitting petroleum-related oversize/overweight (OS/OW) truck traffic. In recent years, Southwest Manitoba, along with many regions throughout North America, has experienced rapid growth and change in the petroleum industry. This growth has fuelled economic development and also caused infrastructure challenges on rural roads that are being used by unique vehicle configurations, many of which are beyond basic truck size and weight (TSW) limits. Manitoba's OS/OW permitting program for these vehicles stems from the performance-based approach to TSW regulation being used in Canada since 1988 and relies on ongoing collaboration with the petroleum industry. Manitoba's experiences have led to several insights, which may be options for other jurisdictions facing similar issues related to OS/OW petroleum-related trucking. These insights include: (1) purposeful collaboration with the industry and officials in neighbouring jurisdictions to understand permitting needs and barriers; (2) supplementing qualitative understanding of the industry with quantitative data; and (3) identifying opportunities to expedite permitting procedures by issuing annual permits to routinely-configured vehicles, utilizing technologies to assist with TSW enforcement, and rationalizing permit fee structures.
“…Figure 4 illustrates the capability of these data by showing the vehicle class distributions (VCDs) obtained from four 48-hour classification sites near the Pierson oilfield, adjacent to the Saskatchewan and North Dakota borders. The distributions shown are unique to oilfield activity in Manitoba, Saskatchewan, and Alberta, as evident by the high percent of class 10 trucks (Reimer and Regehr 2014).…”
Section: Illustrative Analysis Of Petroleum-related Trucking In Manitobamentioning
This paper presents a case study of the Manitoba experience in permitting petroleum-related oversize/overweight (OS/OW) truck traffic. In recent years, Southwest Manitoba, along with many regions throughout North America, has experienced rapid growth and change in the petroleum industry. This growth has fuelled economic development and also caused infrastructure challenges on rural roads that are being used by unique vehicle configurations, many of which are beyond basic truck size and weight (TSW) limits. Manitoba's OS/OW permitting program for these vehicles stems from the performance-based approach to TSW regulation being used in Canada since 1988 and relies on ongoing collaboration with the petroleum industry. Manitoba's experiences have led to several insights, which may be options for other jurisdictions facing similar issues related to OS/OW petroleum-related trucking. These insights include: (1) purposeful collaboration with the industry and officials in neighbouring jurisdictions to understand permitting needs and barriers; (2) supplementing qualitative understanding of the industry with quantitative data; and (3) identifying opportunities to expedite permitting procedures by issuing annual permits to routinely-configured vehicles, utilizing technologies to assist with TSW enforcement, and rationalizing permit fee structures.
“…From a freight demand modeling perspective, inclusion of these data sources is not novel as they provide the fundamental inputs for the components of the modeling process. However, from a truck traffic monitoring perspective, explicit integration of these nontraditional data sets has not been emphasized, despite general recognition that better information about industry-related patterns and trends supports more robust monitoring practices and better data interpretation (18). Therefore, the framework offers a structured way of relating the two processes, which ultimately have a common objective.…”
Section: Source Datamentioning
confidence: 95%
“…The bottom graph shows the VCD of a provincial highway in Manitoba that is a primary corridor in the petroleum-producing region. There is no continuous classification equipment along this route; however, the VCD reflects typical oil-related truck traffic classification distribu-tions in which Class 10 vehicles make up the bulk of the fleet mix (18). The truck traffic along this corridor would also be influenced by other local industries, particularly agriculture.…”
Section: Example 2 Supply and Activity Variables To Direct A Truck Tmentioning
Technological developments have stimulated rapid change and growth in North America's petroleum industry. This growth has placed significant demand on local and regional transportation infrastructure. This paper develops and applies an integrated framework for characterizing petroleum-related truck traffic to support the engineering and planning efforts needed to accommodate the growth. The framework draws from standard methodologies used for monitoring truck traffic and modeling freight transport demand and illustrates how these methodologies interrelate through their reliance on common data sources and their mutual goal of characterizing current and future truck traffic. Specific data sources relevant to the petroleum industry are identified within the context of the framework, although the framework is generic and transferable to other jurisdictions and industries with unique truck travel demands. An illustrative application of the framework for the petroleum industry reveals new insights about the industry that enable a better engineering and planning response to its transportation needs. The application examples also demonstrate how data describing exogenous industry factors, activity system variables, and transportation supply variables integrate with data collected by truck traffic monitoring programs to (a) clarify the interpretation of traditional truck traffic monitoring data, (b) provide direction in the design of a monitoring program, and (c) justify adjustments to standard monitoring procedures. However, successful data integration is limited by the difficulty in appropriately fusing quantitative and qualitative data sources, the increased reliance on industry intelligence, and the challenge of representatively observing a dynamic industry.
“…31 (2) Typically, cluster analysis has been used as a method to characterize temporal traffic patterns. For example, cluster analysis has different applications: to characterize truck flows [10]- [13] or traffic patterns [14], to classify roads according to their use [15], or to identify unusual patterns or nonrecurrent events [16], [17]. Additionally, [18] characterized the stations of a public bicycle system according to entrance and exit.…”
This study shows the development of patterns of temporal hourly volume distributions in an urban area in Costa Rica, based on a cluster analysis of pedestrian data. This study aims to establish specific pattern groups for the temporal variation of weekday pedestrian volumes applying cluster analysis in the central business district of Guadalupe in San José. For 46 counting sites, vectors with the weekday hourly factors, the proportion of the daily pedestrian traffic, were estimated. A hierarchical cluster method was implemented to group the vectors of hourly factors from the different counting sites. This method groups elements by minimizing the Euclidean distance between elements of the same group and, at the same time, maximizing the distances from elements of other groups. In addition, the groups found through this analysis are related to land use through buffers of different radios. Eight temporal pattern groups were obtained through cluster analysis. Two pattern groups account for more than two-thirds of the sites included in the study. Fisher’s exact independence test shows that banks and public services could explain some of the patterns observed. The classification of 46 counting sites based on temporal distribution patterns, and the relation with the establishments in the area, allows a simplification of the information and facilitates an understanding of the pedestrian mobility in the area. Further research is required that leads towards geographical elements that could explain the differences in temporal and mobility patterns.
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