Contents

Assessment of Bus Rapid / Mass transit system for sustainable transportation in North Central Nigeria

Author(s): Igibah Ehizemhen Christopher1, Busari, Ayobami Adebola1, Aderinola Olumuyiwa Samson2, Agashua Lucia Omolayo2
1Department of Civil Engineering, Federal University Oye Ekiti, Ekiti State, Nigeria
2Department of Civil Engineering, Federal University of Technology, Akure, Ondo State, Nigeria
Copyright © Igibah Ehizemhen Christopher, Busari, Ayobami Adebola, Aderinola Olumuyiwa Samson, Agashua Lucia Omolayo. This is an open access article distributed under the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.

Abstract

This study investigates contemporary and emerging transportation problems in North-central Nigeria. Its primary objective is to identify and characterize the major challenges facing passengers within the region and to propose a sustainable institutional framework for improved transportation management. The study draws upon data collected through field audits in three North-central states: the Federal Capital Territory (FCT) Abuja, Nasarawa, and Niger. Key findings highlight the lack of developed transit connections to major activity centers. The study concludes that these challenges stem from inefficiencies within the existing institutional mechanisms for transportation management. To address this, the study proposes the establishment of an effective, innovative transport system, such as an intercity train network within the North-central zone, as a sustainable transportation management strategy for the region.

Keywords: Transportation; Mass transit; Sustainable; Traffic Congestion; North-Central; Nigeria.

1. Introduction

Transportation serves as an essential catalyst for social, economic, strategic, and political development within any society. For urban centers to function effectively, they require basic infrastructure-with transportation being among the most vital components [1-3]. Well-developed transportation infrastructure ensures the safe, timely, cost-effective, and environmentally sustainable movement of both people and goods [4,5]. Additionally, strategic improvements integrate and streamline various transportation modes for enhanced socioeconomic outcomes and security [6]. A sustainable transportation system, characterized by safety, reliability, efficiency, and environmental consciousness, is crucial to maximizing the benefits of developed infrastructure [7]. Within the North-central states of Abuja, Nasarawa, and Niger, addressing the challenges of inner-city congestion is integral to their continued progress [8,9].

2. Material and Method

2.1. Study Area

North-central Nigeria, also known as the Middle Belt, is a transitional region stretching longitudinally across central Nigeria and serving as a bridge between the country’s northern and southern zones. It comprises the southern portion of the former Northern Region of Nigeria [10,11] and lacks a single dominant ethnic group. Additionally, it houses Nigeria’s Federal Capital Territory (FCT). States within this region include Niger, former Plateau (now Plateau and Nasarawa), Kogi, former Gongola (now Adamawa and Taraba), Kwara, Benue, and the FCT. Notably, while portions of southern Yobe, Kaduna, Gombe, Bauchi, Kebbi, and Borno states share ethnic ties with the Middle Belt, they lie outside its core. The Middle Belt had an approximate population of 17.3 million in 1991 [12], estimated to exceed 45 million today. Religiously, the region has a majority Christian population (65%), followed by Animist (10%) and Muslim (25%) populations. Culturally, it boasts a rich linguistic diversity with over 230 languages and dialects [10,11].

This study focuses on three of the fastest-growing urban centers within the North-central region: Abuja, Nigeria’s capital, and its neighboring states, Nasarawa and Niger. Abuja, designated as the Federal Capital Territory, was created to replace the overcrowded former capital of Lagos, which offered limited growth potential. Consequently, residents were resettled to nearby cities like Suleja (Niger State) and New Karshi (Nasarawa State), forming peripheries around the territory [10,11]. Strategically located at the confluence of the Benue and Niger Rivers, Abuja sits near the nation’s geographic center. It is bordered by Kaduna (northeast), Kogi (southwest), Niger State (west and north), and Nasarawa (east and south), lying between longitude 6.45 and 7.39 east and latitude 8.25 and 9.20 north. Abuja has an approximate landmass of 7,315 km2 and enjoys a moderate climate within the Savannah region. Hausa and English are the primary languages spoken in the FCT [10,11].

Nasarawa State was formed on October 1, 1996, from the neighboring Plateau State. Its borders include Kogi and Benue (south), Kaduna (north), Taraba and Plateau (east), and the FCT (west). Agriculture is the economic mainstay, producing diverse cash crops year-round. It also possesses mineral resources like bauxite, salt, and baryte. Niger State, the country’s largest, takes its name from the River Niger. Its capital is Minna [2,3], and it hosts three major hydroelectric power stations: the Shiroro, Kainji, and Zungeru Dams. Covering 76,363 \(km^2\), Niger State had a population of 3,954,772 in 2006. Its population includes various indigenous tribes such as the Kamuku, Nupe, Kambari, Gbagyi, Hausa, Koro, and Hun-Saare [10,11]. Notable institutions within Niger State include the Federal University of Technology Minna, Federal Polytechnic Bida, and Niger State Polytechnic Zungeru. For geographical reference, please see Figure 1.

2.2. Research techniques

The techniques encompasses of travelers within case study provinces, data was gathered through questionnaire as well as field investigation. The questionnaire utilized was from prior studies but it was upgradedto suite this scrutiny purpose. Field survey encompasses of trip to city and points collection within North-central Nigeria.

3. Results and Discussions

3.1. Demographic Analysis

3.1.1. Sex and Occupation

The demographic investigation (Gender and Profession) formed using the three regions Questionnaire that were dispensed to four hundred travelers selected randomly making total of 1200 respondents are presented in Figure 2 and 3.

3.1.2. Age Group and Religions

The Age group and religions formed using the three regions Questionnaire that were dispensed to four hundred travellers selected randomly making total of 1200 respondents are presented in Figure 4 and 5.

3.1.3. Education

The Education level produced using the three regions Questionnaire that were dispensed to four hundred travellers selected randomly making total of 1200 respondents are presented in Figure 6.

3.1.4. Salary

The salary produced using the three regions Questionnaire that were dispensed to four hundred travellers selected randomly making total of 1200 respondentsare presented in Figure 7.

Figures 2 – 7 shows that demographic figures (sex, profession, age, religion, education and salary) for each of the three zones, female travellers more than men, Self-employed travellers has the highest, between 25 and 40 years travelled most, Christian travellers are more than other religions, while travellers with at least degree certificate travelled most and the highest income is below minimum wage.

These results specify thatprofession, age and education level of the populace regulate travel management which is inagreement with paper work by Loo 2007 and Golob 2003.

3.2. Other socio-economic pattern

3.2.1. Language, nationality, community safety

The socio-economic pattern (language, nationality and community safety) formed using the three regions Questionnaire that were dispensed to four hundred travellers selected randomly making total of 1200 respondents are presented in Figures 8-10.

3.2.2. State, disability, tribeof North-central respondents

The state, disability and tribe formed using the three regions Questionnaire that were dispensed to four hundred travellers selected randomly making total of 1200 respondents are presented in Figure 11, 12 and 13.

3.3. Travel Behaviour

3.3.1. Number of Trips

Numbers of trips formed using the three regions Questionnaire that were dispensed to four hundred travellers selected randomly making total of 1200 respondents are presented in Figure 14.

3.3.2. North central people favorite destination

The favorite destination of North-Central, Nigeria dweller using the three regions Questionnaire that were dispensed to four hundred travellers selected randomly making total of 1200 respondents are presented in Figure 15.

3.3.3. Prefer Mode of transportation of North central people

Prefer mode of mass transit transport formed using the three regions Questionnaire that were dispensed to four hundred travellers selected randomly making total of 1200 respondents are presented in Figure 16.

3.3.4. Sequence or pattern of trips

Sequence or pattern of trips formed using the three regions Questionnaire that were dispensed to four hundred travellers selected randomly making total of 1200 respondents are presented in Figure 17.

3.3.5. Why prefer traveling to stay at home, telecommute or teleshop

Reason why North-central dweller prefer travelling than others formed using the three regions Questionnaire that were dispensed to four hundred travellers selected randomly making total of 1200 respondents are presented in Figure 18.

3.3.6. Awareness about environmental and climate impact

The environmental and climate impact awareness formed using the three regions Questionnaire that were dispensed to four hundred travellers selected randomly making total of 1200 respondents are presented in Figure 19.

3.3.7. Degree of environmental and climate impacts

Environmental and climate impacts degree formed using the three regions Questionnaire that were dispensed to four hundred travellers selected randomly making total of 1200 respondents are presented in Figure 20.

3.3.8. Opinion of People about Travel Behavior of People

North-central traveller opinion on travel behaviour formed using the three regions Questionnaire that were dispensed to four hundred travellers selected randomly making total of 1200 respondents are presented in Figure 21.

3.3.9. Way of Promoting Travel Behavior within Society

Suggestion of ways to promote travel behavior within society formed using the three regions Questionnaire that were dispensed to four hundred travelers selected randomly making total of 1200 respondents are presented in Figure 22.

Figure 8 – 22 illustrations that travel behavior for each of the three zones, daily has highest number of trips followed by weekly, whereas North-central dweller favorite destination is Abuja though majority are from other state in Nigeria. The highest mode of traveling is car, while the patterns or sequences of trips are both weekly and monthly.Besides, the reason North-central travelers prefer traveling then stay at home, telescope or telecommute is business followed by tourist, environmental and climate impacts degree is moderate, though majority are aware of environmental and climate impact. On the evaluation on people travel behavior majority indicated average rate, while public awareness has the highest respondent on how to promote travel behavior within society.These outcomes stipulate that North-central people prefer train but not available that why they used car often though costly compare to buses, whereas travel behavior is on the average but with public awareness and education it will improve which is in agreement with paper work by [13-15]

3.4. Multivariance analysis

3.4.1. Descriptive statistics

The statistics formed using the three regions Questionnaire that were dispensed to four hundred travelers selected randomly making total of 1200 respondents are shown in Table 1 & 2 and graphically indicated in Figure 23.

Table 1 Descriptive statistics of North-central Nigeria respondents
North-central N Minimum Maximum Sum Mean Std. Devia Variance Skewness
Statistic Statistic Statistic Statistic Statistic Statistic Statistic Statistic Std. Error
No of Respondant
Student 3 0 560 680 226.67 294.845 86933.33 1.415 1.225
Government Employed 3 0 80 80 26.67 46.188 2133.333 1.732 1.225
Private Employed 3 40 480 640 213.33 234.379 54933.33 1.508 1.225
Self Employed 3 440 720 1880 626.67 161.658 26133.33 -1.732 1.225
Unemployed 3 0 240 280 93.33 128.582 16533.33 1.545 1.225
No response 3 0 40 40 13.33 23.094 533.333 1.732 1.225
Table 2 Frequency of North-central Nigeria respondents
Frequency (N) Student Government Employed Private Employed Self Employed Unemployed No response
No of respondents
Valid 3 3 3 3 3 3
Std. Deviation 294,845 46.188 234.379 161.658 128,582 23.094
Variance 85933.33 2133.333 54933.333 26133.333 16533.333 533.333
Skewness 1,415 1.732 1.508 -1.732 1.545 1.732
Std. Error of Skewness 1.225 1.225 1.225 1.225 1.225 1.225
Minimum 0 0 40 440 0 0
Maximum 560 80 480 720 240 40
Percentiles 25 0 0 40 440 0 0
50 120 0 120 720 40 0
Figure 23 Tribe of North-Central Nigeria respondents

Result Table 1 and 2, which was represented graphically in Figure 23, displayed that self-employed has the extreme mean (626.67 respondents), then students (226.67 respondents), while no responses the lowest with value at (13.33 respondents). Similarly, student shave the maximum Standard deviation (294.845 respondents). It was seconded by private employed (234.379 respondents), while no response have the least value of (23.094 respondents).

3.4.2. Regression and Correlation Analysis

The linear and multiple regression formed using the three regions Questionnaire that were dispensed to four hundred travelers selected randomly making total of 1200 respondents are shown in Table 3 & 4 and graphically represented in Figures 24 – 25.

Table 3 Power Analysis – Linear Regression
Power Analysis Table
Powerb Test Assumptions
N Std. Dev. Effect Size Sig.
Test for Meana .212 10 294 .408 .05
a. Two-sided test.
b. Based on non central t-distribution.
Table 4 Posterior distribution characterization for pairwise correlations
Posterior Distribution Characterization for Pairwise Correlations
Student no of Respondants Government Employed no of Respondants Private Employed no of Respondants Self Employed no of Respondants Un Employed no of Respondants No of Response
Student no of Respondants Posterior Mode 0.96 -0.677 -0.96 -0.122 0.96
Mean 0.783 -0.308 -0.785 -0.019 0.786
Variance 0.083 0.0208 0.081 0.174 0.081
MIN Credible Interval Lower Bound 0.153 -0.979 -1 -0.789 0.164
upper Bound 1 0.564 -0.164 -0.721 1
N 3 3 3 3 3 3
Government Employed No of Respondant Posterior Mode 0.96 -0.524 -0.276
Mean 0.783 -0.176 -0.058
Variance 0.083 0.202 0.181
95% Credible interval Lower Bound 0.153 -0.928 -0.796
upper Bound 1 0.64 0.738
N 3 3 3 3 3 3
Private Employed No of respondents Posterior Mode -0.677 -0.524 0.524 -0.383 -0.524
Mean -0.308 -0.176 0.177 -0.106 -0.172
Variance 0.0208 0.202 0.203 0.192 0.205
95% Credible interval Lower Bound -0.979 -0.928 -0.634 -0.871 -0.921
upper Bound 0.564 0.64 0.937 0.673 0.66
N 3 3 3 3 3 3
Self employed No or respondents Posterior Mode -0.96 0.524 0.276
Mean -0.785 0.177 0.062
Variance 0.081 0.203 0.179
95% Credible interval Lower Bound -1 -0.634 -0.681
upper Bound -0.164 0.937 0.841
N 3 3 3 3 3 3
Unemployed No of Respondant Posterior Mode -0.122 -0.276 -0.383 0.276 0.276
Mean -0.019 -0.058 -0.106 0.062 0.07
Variance 0.174 0.181 0.192 0.179 0.184
95% Credible interval Lower Bound -0.789 -0.796 -0.871 -0.681 0.83
upper Bound -0.721 0.738 0.673 0.841 0.706
N 3 3 3 3 3 3
No of Response Posterior Mode 0.96 -0.524 0.276
Mean 0.786 -0.172 0.07
Variance 0.081 0.205 0.184
95% Credible interval Lower Bound 0.164 -0.921 0.83
upper Bound 1 0.66 0.706
N 3 3 3 3 3 3
a. The analysis assume reference prior (c=0)
Figure 24 Sample size and effect size byNorth-Central Nigeria respondents
Figure 25 . Multiple partial correlation coefficient and sample size byNorth-Central Nigeria respondents

Result from Table 3 & 4 which was graphically represented in Figure 26 achieved via power analysis two side test, which was based on non-central t-distribution techniques. Showed standard deviation of 294 respondents with 408 sample size and less than one significant level. Students / Government employed respondents correlated with mode of 0.98, and mean of 0.783, whereas no response has lowest connectivity level with mode and mean values of -0.276 and -0.070 respectively.

3.4.3. Cluster Analysis

The cluster scrutiny formed using the three regions Questionnaire that were dispensed to four hundred travelers selected randomly making total of 1200 respondents are shown in Table 5 & 6 and graphically displayed in Figure 26.

Table 5 Cluster Analysis (CA) using Proximity matrix (squared euclidean distance)
Proximity Matrix
Case Squared Euclidean Distance
2: 3: 4:
2: .000 326400.000 201600.000
3: 326400.000 .000 595200.000
4: 201600.000 595200.000 .000
This is a dissimilarity matrix
Table 6 Ward Linkage (Agglomeration schedule)
Agglomeration Schedule
Stage Cluster Combined Coefficients Stage Cluster First Appears Next Stage
Cluster 1 Cluster 2 Cluster 1 Cluster 2
1 2 4 100800.000 0 0 2
2 2 3 374400.000 1 0 0

Result from Table 5 & 6 which was graphically represented in Figure 26 achieved via squared Euclidean distances for similarity measurement which in turn generated a deprogram. It detect connection groups among st the respondents. Two statistically substantial Clusters are created 1 and 2, which created two (2) sets of connection between the respondents which is in agreement with paper work by [9,16]. Meanwhile, Figure 27 showed respondents within North-central Nigeria filling the questionnaires.

Figure 27 Tribe of North-Central Nigeria respondents

4. Conclusion

This study examined the transportation system in North-central Nigeria. A survey of travel behavior indicated a majority of respondents reporting average travel frequency, with public awareness campaigns identified as the most common suggestion for promoting positive travel behavior. Descriptive statistics revealed self-employed individuals having the highest mean travel frequency (626.67 respondents), followed by students (226.67 respondents). No-response individuals had the lowest frequency (13.33 respondents). Students also demonstrated the highest standard deviation (294.845 respondents). Power analysis using a non-central t-distribution indicated a standard deviation of 294 respondents with a sample size of 408 and a significance level below 0.01. Correlation analysis showed a strong connection (0.98) between student/government employee respondents and their transportation mode, with a mean of 0.783. Conversely, no-response individuals exhibited the weakest correlation, with mode and mean values of -0.276 and -0.070 respectively. Two statistically significant clusters were identified, implying two distinct sets of connections among respondents. To improve transportation outcomes, faster, more accessible, and cost-effective options like trains should be introduced to reduce traffic congestion. Additionally, government agencies, transportation authorities, and private operators should prioritize education and awareness campaigns to influence positive travel behavior.

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