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Shohreh Moradi
 -- 1483 2023-08-15 21:25:44 |
2 layout & references
Sirius Huang
 Meta information modification 1483 2023-08-16 03:13:03 | |
3 Passenger rail transportation, despite its many advantages, is often not economical, and this issue
Hamidreza Ahadi
 Meta information modification 1483 2023-08-16 08:57:24 |

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Moradi, S.; Ahadi, H.R.; Sierpiński, G. Sustainable Management of Railway Companies. Encyclopedia. Available online: https://encyclopedia.pub/entry/48103 (accessed on 26 December 2024).
Moradi S, Ahadi HR, Sierpiński G. Sustainable Management of Railway Companies. Encyclopedia. Available at: https://encyclopedia.pub/entry/48103. Accessed December 26, 2024.
Moradi, Shohreh, Hamid Reza Ahadi, Grzegorz Sierpiński. "Sustainable Management of Railway Companies" Encyclopedia, https://encyclopedia.pub/entry/48103 (accessed December 26, 2024).
Moradi, S., Ahadi, H.R., & Sierpiński, G. (2023, August 15). Sustainable Management of Railway Companies. In Encyclopedia. https://encyclopedia.pub/entry/48103
Moradi, Shohreh, et al. "Sustainable Management of Railway Companies." Encyclopedia. Web. 15 August, 2023.
Sustainable Management of Railway Companies
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This entry is adapted from the peer-reviewed paper 10.3390/su151411176

Sustainable transport is a critical and complex issue that the world is currently facing. Managers of railway companies in particular face significant challenges in achieving self-sustainable management of their assets. 

system dynamics railroad passenger transportation inflation Sustainability Sustainable Transport

1. Introduction

Transport is an essential sector that encompasses various aspects of the economy and scientific fields. The decisions made in this field usually involve various factors, making them complex and multi-criteria in nature [1]. Sustainable transport, in particular, involves considering environmental, economic, and social factors in decision-making processes. These factors need to be carefully analysed and balanced to ensure that the chosen transportation options promote sustainable development [2]. The idea of sustainable transport emerged in tandem with the definition of sustainable development, as outlined in the World Commission on Environment and Development’s report, “Our Common Future” [3]. Companies that transport passengers and cargo must look beyond traditional growth strategies and adopt sustainable solutions that address economic, social, and environmental issues simultaneously [4].
One of the key environmental concerns in the transportation sector is greenhouse gas emissions, which have been linked to global warming and climate change. Sustainable transportation aims to address these issues by minimizing negative impacts on society and the environment while ensuring social and economic well-being [5]. Furthermore, the transport sector is linked to eight of the United Nations’ Sustainable Development Goals (SDGs), highlighting the importance of sustainable transportation in achieving these goals. Transport networks are vital to a country’s economic growth and account for a significant percentage of national GDP and employment [6]. Therefore, it is crucial for companies in the transportation sector to adopt sustainable development practices and incorporate the three dimensions of economic growth, social well-being, and environmental concerns into their growth strategies. This will not only help address pressing global issues but also lead to long-term business success and societal benefits [7].
Transportation is a critical component of every country’s economy, with land, water, and air transportation all playing important roles [8]. However, the economic benefits of the transportation industry come with environmental costs, particularly in the form of greenhouse gas emissions [9]. Overall, the transportation sector is responsible for an estimated 14% of all pollution, with road transport being the largest contributor [10][11]. The aviation sector is the second-largest contributor to pollution within human-caused emissions, accounting for approximately 2% to 4% of the total pollution [12]. These environmental consequences have prompted policymakers and industry leaders to focus on finding sustainable solutions for transportation, including alternative fuels, efficient practices, and investments in eco-friendly modes of transportation, such as rail [13].
Despite these challenges, there is a growing commitment to sustainability within the rail industry, with many companies investing in new technologies and implementing sustainability measures [9]. This is an encouraging trend, as rail transportation has the potential to significantly reduce carbon emissions and contribute to a more sustainable future [14]. By working together, policymakers, industry leaders, and the public can help create a transport system that is both sustainable and efficient, while also addressing the urgent need to address climate change [15][16].

2. The Background of Sustainability in Transport Systems

The railway transport system is a complex network that is influenced by various factors such as population growth, environmental conditions, economic factors, and other modes of transportation and cargo movement. Conventional techniques for analysing railway transport companies are unsuitable due to the intricate nature of this system [17]. Typically, traditional railway transport assessments focus on a single key indicator such as sales or revenue, without considering the significance of the system’s coherence. As a result, traditional assessment methods have been strongly criticized, leading to the development of new evaluation methodologies [18]. To elaborate, the railway transport system is a significant and complex infrastructure that is not only impacted by passenger and freight demand but also by environmental conditions, demographic changes, technological advancements, and economic factors. Traditional assessment methods that prioritize sales or revenue overlook the importance of maintaining the integrity and coherence of the railway transport system [19][20]. As a result, new approaches that consider these complex factors have emerged to assess the effectiveness and sustainability of railway transport companies. These new methodologies aim to provide a more comprehensive and accurate assessment of the railway transport system’s performance, thus enabling better decision-making and improving the system’s overall efficiency [21].
The sustainability of transportation has been studied using multi-criteria methods (MCA), life cycle assessment (LCA), cost-benefit analysis (CBA) [17], and other approaches [22]. Various indicators are used to measure activities and trends, as well as to compare different areas, alternatives, strategies, and goals for transportation sustainability [23]. There are publications and research on transportation sustainability in the literature that provide a variety of indicators for the concept. In this context, Nicolas et al. [24] provide a set of indicators that assess the three dimensions of sustainability: economic, social, and environmental. They provide the results of exploratory research commissioned by Renault Automobile Manufacturers to evaluate the feasibility and value of generating such sustainable mobility indicators. These indicators facilitate comparisons not only between various urban contexts but also over time, allowing for longitudinal analysis. Litman and Burwell [23][25] examine the determination of indicators for comprehensive and sustainable transportation planning. Those authors propose that there is currently a lack of universally standardized indicator sets for comprehensive and sustainable transport planning. As a result, each jurisdiction or organization must develop its own set of indicators based on their specific needs and capabilities. However, they suggest that it would be beneficial for prominent planning and professional organizations to collaborate and establish recommended sets of sustainable transportation indicators, along with standardized data collection practices and evaluation methodologies. Such efforts would not only enhance sustainability planning but also enable comparisons among different jurisdictions, organizations, and time periods, promoting knowledge sharing and best practices in the field of sustainable transport. Pregl et al. [26] aim at evaluating and analysing transportation operations in the European Union using transport sustainability indicators. For analysing and monitoring transportation sustainability, several researchers suggest a country (or city)-level indicator system [22][27][28]. Refs. [29][30] investigate the sustainability of urban passenger transportation networks using data from the majority of cities. The authors emphasize the key factors that play a significant role in achieving sustainability in the field of transportation. They observe that wealthier and larger cities tend to have more sustainable transport systems in place. Additionally, they identify specific transport policies that can address existing shortcomings, such as increasing the utilization of public transport and discouraging urban sprawl. These measures have the potential to enhance the sustainability of transport systems and promote more efficient and environmentally friendly modes of travel within urban areas. There have been studies that use fewer indicators to assess the sustainability of transportation. A set of indicators was used to assess transportation sustainability, taking into account various systems such as freight transport [31][32], road transport [33][34], urban transport [35][36], transport infrastructure projects [37][38], modes of transportation in particular [39][40], public transportation [41], road and rail systems on the local scale [42], and inland transport on the local scale [30][37][43][44]. In addition, a few indicators for roads and railroads were used to assess the systems’ sustainability [44].
Research [35] has explored structural equation modelling and statistical tests given by Shiau et al. [28] for analysing indicators of transport sustainability. Chou et al. [45] investigated the cause-and-effect connection between high-speed rail performance indicators. Saleem et al. [46] studied how air and rail transportation factors influenced environmental degradation indicators. Social media was utilized in research to analyse sustainable urban transportation indicators [47].

3. System Dynamics Modelling

The dynamics of systems, which is a framework for studying and regulating complex feedback systems, is one of the fields of system theory. Business, economics, the environment, energy management, urban concerns, and other social and human challenges are all examples of these systems [48][49]. The business world is evolving and growing more competitive. As a result, in order to keep pace with the ever-changing environment, businesses must be more adaptive and agile, providing them with an advantage over their competitors [50]. J. Forrester from M.I.T. established the first system dynamics method in the early 1960s [51]. Fundamentally, the system dynamics (SD) approach is capable of formulating complex decision model systems in which:
  • Because of the system’s complexity and breadth, the analyst’s amnesia, or the element’s casual relationships, certain components are omitted.
  • For many scenarios, a comparative approach is used.
  • The system cannot be restarted from the beginning.
  • It takes time for the effects of changes to show in the system [52].
System dynamics procedures include outlining issues, generating theories, constructing the model’s simulation, analysing the model, and devising evaluation and policy criteria. As a general approach, Figure 1 displays the various steps necessary in running an SD model. This model, which simulates the flow of resources and the measures taken, includes stock elements and flow elements, as well as auxiliary and consonant variables [52].
Sustainability 15 11176 g001 550
Figure 1. General steps for executing an SD model [53].
Railway transportation is a complex system influenced by a variety of elements such as the environment, the economy, and society. A complete railway transport assessment should be integrated with the development of railway transport systems [54].

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