Passenger Mobility Impact on Customer Satisfaction and
Environmental Degradation Through Air Transportation
Crowdshipping
MODEN PURBA1*, HASDI AIMON2, ALPON SATRIANTO3
1*, 2, 3 Environmental & Development Studies Doctoral Programme, Faculty Economy and Business,
Universitas Negeri Padang, Padang, INDONESIA
Abstract: This study investigates the impact and implications of passenger mobility through crowdshipping on
customer satisfaction and environmental degradation. A questionnaire was used to collect data from customers
who have been aeroplane passengers at Hang Nadim Airport in Batam, Indonesia. SmartPLS software was used
to evaluate the quality of the questionnaire data and test the research hypotheses. The SmartPLS path model
analysis results show that passenger mobility affects Crowdshipping, customer satisfaction, and environmental
degradation; Crowdshipping affects passenger mobility and environmental degradation, and customer
satisfaction affects environmental degradation. The findings of this study help understand and quantify potential
strategies for logistics delivery by utilizing aeroplane passenger crowd shipping. Consequently, it can help
policymakers and air transport companies develop air transport-based crowd shipping models to estimate the
possible impacts from an economic and environmental point of view as well as environmental utilization.
Key-Words: Passenger Mobility, Crowdshipping, Customer Satisfaction, Environmental Degradation.
Received: March 15, 2024. Revised: August 12, 2024. Accepted: September 15, 2024. Published: October 14, 2024.
1. Introduction
The quick advancement in making use of
Crowdshipping systems has actually started a
paradigmatic modification in today's traveling
characteristics [16]. which enables people to make
use of the vacant capability in the travel luggage area
for the transport of items using air transport [22].
This produces brand-new opportunities for making
use of area formerly not used efficiently in air
traveling as well as has substantial ramifications for
traditional traveling patterns of actions plus
behaviors [46]; [52].
This expanding fad elevates considerable issues
concerning its ramifications for customer
contentment plus Environmental Degradation [26]
despite the financial and easy advantages of
executing this company version [3]. In customer
complete satisfaction, focusing on elements such as
promptness of distribution, the security of items, and
top quality of solution is crucial to consider in
reviewing the performance of Crowdshipping
systems [26].
At the same time from an environmental
sustainability point of view a thorough evaluation of
the influence of carbon exhausts source usage [30]
as well as possible payment to environment
modification is required to determine proper
reductions steps [53]. Consequently a holistic
understanding of this fad's unfavorable and also
favorable ramifications is a crucial requirement for
creating plans that can fit customer demands while
focusing on ecological sustainability [30].
The Crowdshipping sensation, which requires the
engagement of people in the distribution of products
making use of easily accessible travel luggage
centres in air transport [16]; [22]; [52], has been the
topic of substantial interest in human flexibility
researches. Comprehending how guest flexibility
patterns communicate with Crowdshipping methods
is vital [16]. This permits scientists to determine
behaviour patterns that highlight choices for group
delivery solutions and variables affecting choices to
take on or desert the method [37]; [38].
Along with the financial advantages and comfort
frequently connected with Crowdshipping, there are
claims regarding its influence on customer
satisfaction and environmental sustainability.
Comprehending these elements is vital in creating an
alternative plus lasting method. A comprehensive
empirical study can assist in repainting a much more
full image of the impacts of Crowdshipping methods
on customer experiences and their effect on the
environment.
It is crucial to examine how crowdshipping
influences carbon discharges, power intake, and
source use from an ecological viewpoint [39].
International Journal of Environmental Engineering and Development
DOI: 10.37394/232033.2024.2.23
Moden Purba, Hasdi Aimon, Alpon Satrianto
E-ISSN: 2945-1159
256
Volume 2, 2024
Studies on the environmental influence of these
methods can determine locations for enhancements
to minimize the downsides [4]. Recognizing
customer choices based on environmental factors
can assist in the creation of sustainable initiatives
[43].
Independent research has analyzed subjects
associated with passenger mobility, client
contentment, and environmental deterioration [33].
Studies on passenger mobility have mainly analyzed
travelling patterns, setting selection actions together
with the variables influencing travelling choices.
[3].
Similarly, complete satisfaction has
concentrator-tailored experiences and solutions of
high quality [18]. Literary works on environmental
degradation have examined how different forms of
mobility affect the environment and how this affects
air quality and climate change [14].
Passenger mobility is related to the movement of
goods and logistics during departure and arrival.
[54]. These fads are integrating to develop brand-
new opportunities for logistics [12]; [41]; [54]. The
integration between passengers and logistics opens
up possibilities in transport to minimize complete
journeys by enhancing load factor as well as product
performance [40]. The level of passenger crowd
thickness limits the separation room consisting of
guest arrivals [25].
One of the critical challenges identified here is
aligning the supply and demand of these services,
given that supply first emerges from the passenger
transportation sector. In contrast, the freight
transportation sector generates demand [57]. If
guests have a ticket, they can immediately get a
travel solution consisting of free travel luggage that
can be used separately [19]. Transportation logistics
affects the logistics costs and prices of products
consumed in a particular area, so logistics is
concerned with efficiency and effectiveness [25].
Passengers departing and arriving on flights have
accessible baggage facilities to carry personal or
logistical items [12]. Airlines limit accessible
baggage facilities, and excess baggage will be
shared with passengers with the same flight number
[46], which is the basic concept of crowd shipping
that can generally be seen and booked through
Internet services [22].
Crowdshipping is a method that utilizes crowds
of departure people to deliver packages to customers
[11]. This method is considered a sustainable
business that corresponds to supply and demand for
any logistics transportation, [52] with a market
concept that allows information connectivity to
occur [15]. The primary process of crowdshipping is
that the logistics are transported by passenger
aircraft that are traveling according to the passenger
destination [20].
The type of crowdshipping examined is based on
crowd shippers utilizing mass transit, explicitly
leveraging travel, and planning urban transportation
activities in flight paths for sustainable logistics
[22]; [42]. If accessible baggage facilities are still
available, cargo/logistics distributors who sign up
can utilize the centre, coupled with passengers
having the opportunity to become freelance couriers
[57]. Through internet solutions, freelancer couriers
can view the crowdlogistics schedule to be provided,
the logistics delivery location based on the
agreement from the operator, the settlement made as
a settlement as the operator's settlement approach, as
well as various other parcel distribution solutions
needed [15]; [22].
Along with the passion for delivery, web
solutions are also developing areas in the online
world of these freelancers, making web applications
particularly important [55]. The increasing variety
of freelance service providers will undoubtedly form
a group in the social environment of the courier
crowd [46].
Nonetheless, the impact of passenger departures
and arrivals may be disruptive for crowdshipping air
transportation [13]. The unfavourable impact of
passenger movement on crowdshipping solutions
can be credited to elements such as distribution
delays due to travel delays, solution efficiency,
passenger overflow, supply factors, and
compatibility between passengers and goods [57].
These factors must be carefully considered when
developing and implementing crowdshipping
solutions to ensure their success and sustainability
[46]. In addition, crowdshipping systems are
anticipated to be continuously improved to match
passengers' flexibility characteristics and how well
regulations and policies are implemented to
overcome these barriers [34]; [52].
The novelty of this research lies in exploring the
complex interactions between customer satisfaction
and environmental degradation in the context of
crowdshipping activities to support passenger
mobility in air transportation. This may include data
analysis on passenger behaviour, environmental
impact analysis, and policy proposals to mitigate
negative impacts while maximizing benefits.
International Journal of Environmental Engineering and Development
DOI: 10.37394/232033.2024.2.23
Moden Purba, Hasdi Aimon, Alpon Satrianto
E-ISSN: 2945-1159
257
Volume 2, 2024
2. Conceptual Framework and
Hypothesis Development
2.1. Passenger mobility
Passenger mobility represents the capacity of people
to move between places using different
transportation arrangements and plays a vital role in
facilitating smooth and effective travel to various
destinations [47]. More than just convenience, this
mobility is a critical facilitator for accessing
essential aspects of life, such as employment,
education and learning, and healthcare, as
highlighted by [36]. The effects go beyond
individual benefits, leveraging significant impacts
on the economic climate and the environment,
specifically the alarming power intake and release of
greenhouse gases [16]. Therefore, it is essential to
explore and implement advancements in passenger
movement, with a more detailed concentration on
improving environmentally friendly mass
transportation systems. These efforts not only aim to
improve people's quality of life but also to ensure
environmental sustainability.
A large number of scientific investigations
investigate various aspects of passenger mobility,
including the profiling of public transport passenger
mobility using counterintuitive learning to decipher
the complex patterns controlling passenger choices
[36], then data-driven models that seek to
understand the decision-making processes
underlying passenger route choices in urban metro
networks [47], furthermore data-driven models that
seek to understand the decision-making processes
underlying passenger route choices in urban metro
networks, explaining the intricacies of passenger
behaviour [35]. As the studies above show,
innovative research, as demonstrated by the studies
above, contributes to the ongoing discourse
explaining the various factors that influence
passenger mobility.
2.2. Crowdshipping
Crowdshipping, also called team logistics, offers a
new perspective for long-distance circulation by
utilizing crowdsourcing to improve transportation
capabilities and enhance the efficiency of providing
goods [21]. It objectifies a cumulative and
sustainable method for long-distance delivery that
utilizes the travel of travellers and visitors combined
with nearby citizens to provide a flawless strategy
between areas [51]. By utilizing internet systems
that attach service providers, providers, and
recipients, crowdsourcing is emerging as an
economical and environmentally friendly option to
standard circulation techniques [2].
The main principle of crowd delivery involves
appointing distribution work to on-demand
representatives, such as travellers, tourists, and
additional locals who volunteer to augment the
transport of goods [5]. By using crowdsourcing for
the customized distribution of goods, crowd delivery
helps with a collective and holistic approach to
overcoming the difficulties inherent in long-distance
logistics [21].
2.3. Consumer satisfaction
Improving client satisfaction is a vital component of
any service, directly influencing the general success
and development of the firm [51]. This procedure
includes how consumers review a product's and
services' general top quality and their assumptions
[56]. It also works as a vital efficiency sign assessing
the degree of complete satisfaction clients acquire
from a firm's offerings. Pleased consumers are most
likely to commit to advising the business to others
and add favourable testimonials, which inevitably
reinforce sales and earnings [51].
Different aspects significantly affect client
satisfaction, such [51]: (1) Product Quality: The top
quality of a service or product plays a vital role in
shaping complete consumer satisfaction, with high-
quality offerings likely to match client assumptions;
(2) Customer Service: Top quality of customer
support is essential which includes quick reaction to
queries, efficient problem resolution, along with
interest tailored to the consumer's needs; (3)
Convenience: The ease with which a client can
access as well as use the service or product
considering variables such as delivery time, return
plans, and also user-friendly user interface, adds to
satisfaction; (4) Price: Price is important: The rate of
the service or product emerges as an essential
component with clients anticipating a reasonable
price according to the perceived value.
2.4. Environment Degradation
Environmental degradation is emerging as an
essential international issue with considerable
consequences for human health and the environment
[56]. This phenomenon is environmental
degradation due to the depletion of essential
resources such as air, water, and soil, coupled with
the destruction of ecological communities,
extermination of wildlife environments, and air
pollution [58]. This forms a turbulent procedure that
conflicts with the native environment, reduces
biodiversity, and jeopardizes the overall health and
well-being of the environment [57]. Although
International Journal of Environmental Engineering and Development
DOI: 10.37394/232033.2024.2.23
Moden Purba, Hasdi Aimon, Alpon Satrianto
E-ISSN: 2945-1159
258
Volume 2, 2024
environmental degradation usually occurs, human
tasks can help or initiate these procedures [37],
turning them into multidimensional obstacles that
affect sustainable progress, economic climate, and
poverty [4]. Deforestation, overgrazing, pollution,
and climate change [9] lead to biodiversity loss,
health concerns, and economic impacts.
Then the reasons for environmental degradation
[49] consist of (1) Deforestation leading to
environmental loss, reduced water and nutrient
uptake by plants combined with payments for
environmental modification; (2) Overgrazing
leading to soil degradation, reduced water and
nutrient retention, and loss of biodiversity; (3)
Pollution, including the release of harmful
compounds into the air, water, and soil, leading to
health problems and societal deterioration; (4)
Climate adjustment caused by increased greenhouse
gases that add to the spike in ocean temperatures
worldwide, among other ecological impacts.
Based upon the research as well as examination
of various research searchings for, the literary works
testimonial, as well as the connections in between
the variables as pointed out previously the
complying with Figure 1. provides the research
study structure:
Picture 1 Conceptual Framework
Environmental degradation is influenced directly
by passenger mobility and through the moderating
variables of crowdshipping and customer
satisfaction. Customer satisfaction is influenced
directly by passenger mobility and through the
moderating variables of crowdshipping.
Crowdshipping is influenced directly by passenger
mobility.
The influence of variables can be formulated as
the formulas below:
Z1 =  …………………..……...…...formula 1
Y1 = 4 …………………..……. formula 2
Y2 = 5 …………………… formula 3
Z1: Determinants of Air Transportation
Crowdshipping
Y1 : Determinants of Customer Satisfaction
Y2 : Determinants of Environmental Degradation
: Path Coefficient from Passenger Mobility to
Crowdshipping
: Path Coefficient from Passenger Mobility to
Customer Satisfaction
: Path Coefficient from Passenger Mobility to
Environmental Degradation
: Path Coefficient from Crowdshipping to
Customer Satisfaction
: Path Coefficient from Crowdshipping to
Environmental Degradation
: Path Coefficient from Customer Satisfaction to
Environmental Degradation
: Crowdshipping Residual
: Customer Satisfaction Residual
: Environmental Degradation Residual
3. Methodology
This study used primary data. Data was collected
from prospective passengers, passengers, and
former passengers at Hang Nadim Airport Batam.
The data collection technique in this study used a
questionnaire method, which was made in Google
International Journal of Environmental Engineering and Development
DOI: 10.37394/232033.2024.2.23
Moden Purba, Hasdi Aimon, Alpon Satrianto
E-ISSN: 2945-1159
259
Volume 2, 2024
Form format and distributed online. The sample in
this study, namely 100 respondents, returned valid
questionnaires for analysis. Data analysis in this
study used a Structural Equation Model with a
Partial Least Square approach using SmartPLS 3.2.8
software.
The questionnaire consisted of 27 indicator
questions used to measure the constructs of the
Passenger Mobility aspect (6 indicator statements),
the Crowdshipping aspect (5 indicator statements),
the Customer Satisfaction aspect (8 indicator
statements), and the Environmental Degradation
aspect (8 indicator statements). The variables used
in this study were adopted from previous studies:
1. Passenger mobility X1 is the number of people
who travel by air transport from one city to
another city, the indicator of which is passengers
number X1.1, logistics number X1.2, vehicles
number X1.3, destinations number X1.4, baggage
additions number X1.5, logistics regulation X1.6,
[8]; [12]; [54].
2. Crowdshipping Z1 sends mass goods using
passenger departures crowd as delivery people,
known as freelance couriers, [52]. The
measurement indicator for this process is the
availability of free charge baggage 15-20 kg as
a form of service from airlines in the form of
logistics ready to be sent via passengers
(crowdlogistics Z1.1), companies or people
sending logistics (crowdshipper Z1.2),
passengers who are willing to carry logistics on
behalf of the ticket (crowdcourier Z1.3), means
of delivery (crowdplatform Z1.4), shipping costs
(crowdshare economic Z1.5), [29]; [52]; [57].
3. Customer satisfaction Y1 is the perception of
airport service users about the availability of
support for passenger mobility, and
crowdshipping activities at airport. Measuring
indicators can be seen through clarity of service
needs such as, simplicity of service procedures
(procedures simplicity) Y1.1, fast or slow service
(duration of services) Y1.2, costs required for
services (cost of services) Y1.3, suitability and
compliance with applicable rules (compliance),
security and comfort (security), safety of people
and goods (safety) Y1.4, availability of complaint
suggestions and responses to complaints
(complaint media) Y1.5, [17]; [26].
4. Environment Degradation at Hang Nadim
Airport Batam: the degradation of
environmental quality due to the impact of air
transport operations around the airport,
including the airport operations themselves in
serving customers in the form of aircraft,
passengers, and logistics. The process of
changes and degradation of environmental
quality, which has a negative impact on Hang
Nadim Airport Batam, can certainly be seen
from the measurement of indicators such as air
pollution, water pollution, rubbish, noises, green
open space, sanitation (sanitazion), drainages,
and environmental hygiene of the airport in
general, [30]; [39]; [56].
4. Results and Discussion
4.1. Demographic Results
This research categorised participants into two
groups: males and females. Out of the data collected
from 100 respondents, it was found that 62
individuals, or 62%, were male, and the remaining
38 individuals, or 38%, were female. Moreover, in
terms of their professions, 76 participants, or 76%,
represented the general public, 21 participants, or
21%, were bureaucrats, and 2 participants, or 2%,
identified as entrepreneurs.
4.2. Validity and Reliability Test
Table 1 is the outer model table, which is this study's
reliability and validity assessment. This research. A
reflective measure is considered high if it correlates
more than 0.50 with the construct to be measured.
Table 1. Outer Loading
Number
Indicators
Kode
Passanger
Mobility
(X1)
Crowdshipping
(Z1)
Customers
Satisfaction
(Y1)
Environment
Degradation
(Y2)
1
Passangers Number
X1.1
0.714
2
Baggage Number
X1.2
0.782
International Journal of Environmental Engineering and Development
DOI: 10.37394/232033.2024.2.23
Moden Purba, Hasdi Aimon, Alpon Satrianto
E-ISSN: 2945-1159
260
Volume 2, 2024
3
Transportation Vehicles
X1.3
0.891
4
Destinations Number
X1.4
0.774
5
Baggage Additions
Number
X1.5
0.883
6
Mobility Regulation
X1.6
0.876
7
Crowdcourier
Z1.1
0.611
8
Crowdlogistic
Z1.2
0.869
9
Crowddelivery
Z1.3
0.893
10
Crowdshare-economi
Z1.4
0.874
11
Crowdair-transportation
Z1.5
0.898
12
Requirements Clearly
Y1.1
0.723
13
Procedures Simplicity
Y1.2
0.854
14
Duration of Services
Y1.3
0.900
15
Cost of Services
Y1.4
0.829
16
Compliances
Y1.5
0.912
17
Security and
Comfortable
Y1.6
0.842
18
Safety
Y1.7
0.837
19
Complaint Media
Availables
Y1.8
0.707
20
Air Pollution
Y2.1
0.780
21
Water Pollution
Y2.2
0.801
22
Rubbish
Y2.3
0.896
23
Noise
Y2.4
0.604
24
Sanitation
Y2.5
0.864
25
Green Open Space
Y2.6
0.891
26
Drainages
Y2.7
0.758
27
Environment Hygiene
Y2.8
0.881
Derived from the findings presented in the
outer loading results within Table 1, it is evident that
all the questionnaire items in all indicators exhibit
correlation values surpassing 0.50. Consequently,
all items meet the validity criteria, illustrating their
capacity to represent the variables effectively.
Table 2. Cronbach’s Alpha
Variables
Cronbach's Alpha
Passanger Mobility (X1)
0.903
Crowdshipping (Z1)
0.887
Customer Satisfaction (Y2)
0.933
Environment Degradation (Y3)
0.925
Of the 4 variables above, X1 Passenger
Mobility, Z1 Crowdshipping, Y1 Customer
Satisfaction and Y2 Environmental Degradation, all
have a Cronbach's Alpha value greater than 0.7 and
an Average Variance Extracted (AVE) value greater
than 0.5, so it can be stated that all variables are
reliable or fulfill the requirements.
4.3. Hypothesis Testing
Table 3 presents the results of direct structural
model testing. Hypothesis testing is done by looking
at the R square value. The results of direct model
testing are as follows:
International Journal of Environmental Engineering and Development
DOI: 10.37394/232033.2024.2.23
Moden Purba, Hasdi Aimon, Alpon Satrianto
E-ISSN: 2945-1159
261
Volume 2, 2024
Table 3. R Square
Variables
R Square
R Square Ajusted
Crowdshipping (Y1)
0.883
0.882
Customer Satisfaction (Y2)
0.970
0.969
Environment Degradation (Y3)
0.950
0.948
Based on the R2 value in Table 3 above, it is
found that the Passenger Mobility able to interpret
88.3% of the variability in Crowdshipping, and the
remaining 0.7% is explained by other constructs
outside those examined in this research. Then the
variables Passenger Mobility and Crowdshipping,
are simultaneously able to interpret the variability of
the Customer Satisfaction construct by 97.0%, and
the remaining 3.0% is explained by other constructs
outside those examined in this research. Then the
variables Passenger Mobility, Crowdshipping, and
Customer Satisfaction are simultaneously able to
interpret the variability of the Environmental
Degradation construct by 95.0%, and the remaining
5.0% is explained by other constructs outside those
examined in this research.
Table 4. Path Coefficient
Variables
Original
Sampel
(O)
Sampel
Mean
(M)
Standard
Deviation
(STDEV)
T Statistics
(O/lSTDEVl)
p Value
Passanger Mobility (X1) vs
Crowdshipping (Z1)
0.940
0.940
0.015
62.483
0.000
Passanger Mobility (X1) vs Customer
Satisfaction (Y2)
0.494
0.509
0.068
7.22
0.000
Passanger Mobiliy (X1) vs
Environment Degradation (Y3)
0.740
0.731
0.145
5.101
0.000
Crowdshipping (Y1) vs Customer
Satisfaction (Z2)
0.506
0.490
0.071
7.125
0.000
Crowdshipping (Z2) vs Environment
Degradation (Y3)
-0.530
-0.515
0.177
2.986
0.003
Customer Satisfaction (Y2) vs
Environment Degradation (Y3)
0.745
0.739
0.261
2.849
0.005
As per the data presented in Table 4 it's
evident that the collective impact of the independent
variable on the dependent variable is statistically
significant. This inference is drawn from the
observation that the p-values are less than 0.05,
indicating that the Passenger Mobility variable
significantly influences Crowdshipping, Customer
Satisfaction, and Environmental Degradation
variables. Moreover, Crowdshipping's impact on
Customer Satisfaction and Environmental
Degradation is also statistically significant, as is the
influence of Customer Satisfaction on
Environmental Degradation.
5. Discussion
5.1. Passenger Mobility
The Passenger Mobility variable seen from the external
loading results offered in Table 1 can be effectively
clarified with suitable indicators consisting of the
Number of Passengers (0.714), number of Baggage
(0.782), Transport Vehicle (0.891), number of
destinations (0.774), number of Baggage Additions
(0.883), coupled with Movement Regulations
(0.876). This detailed set of indicators precisely
represents the Passenger Mobility variable.
As illustrated in Table 4, Passenger Mobility has
a significant impact on a number of important
measures. Passenger Mobility positively influences
Crowdshipping by 0.940, which represents a 94%
increase in Crowdshipping procedures. In addition,
Passenger Mobility positively contributes to
Customer Satisfaction by 0.494, which results in a
49.4% increase in customer satisfaction. In addition,
it also affects Environmental Degradation by 0.740,
International Journal of Environmental Engineering and Development
DOI: 10.37394/232033.2024.2.23
Moden Purba, Hasdi Aimon, Alpon Satrianto
E-ISSN: 2945-1159
262
Volume 2, 2024
which brings a 74% increase in environmental
degradation. Utilizing passenger mobility in the
context of crowdshipping provides an efficient
method of overcoming logistical development
difficulties, meeting customer needs, and possibly
reducing air pollution [16]. This principle
emphasizes exactly how the application of
Passenger Mobility for logistics transportation can
reduce the number of logistics carriers [37].
The movement of individuals, as well as the
growing need for effective and cost-effective
transportation of goods, are the present and future
patterns in the logistics sector. Meeting the need for
the transportation of lightweight goods as well as
parcels presents both difficulties and opportunities
in the logistics chain. Sustainable intercity freight
transportation makes every effort to strike a balance
between promoting favourable influences on
availability as well as financial progress while
reducing unfavourable externalities such as
environmental pollution. The crowdshipping
principle is one possible option to achieve this
balance [36].
5.2. Crowdshipping
Using the Crowdshipping variable clarified by the
external loading results offered in Table 1, its
characterization can be explained through its
component indicators, which consist of
Crowdcourier (0.61), Crowdlogistics (0.869),
Crowddelivery (0.893), Crowdshare-Economic
(0.874), and also Crowdair-Transportation (0.898).
Collectively, these indicators provide an overall
picture of the Crowdshipping variable.
After assessing Table 4, it can be seen that the
Crowdshipping variable exerts a remarkable impact
on several measurements: it affects Customer
Satisfaction by 0.506, which leads to a significant
50.6% increase in the overall customer satisfaction
process. On the other hand, it produces an
unfavourable effect on environmental degradation,
including a directional coefficient of -0.530, which
symbolizes a 53% decrease in environmental
degradation and efficiently reduces high
environmental degradation.
Crowdshipping is defined as a version of
crowdsourced delivery, logistics, and freight
forwarding that leverages the power of
crowdsourcing to provide customized distribution
solutions by leveraging transportation guests. This
design allows many people to jointly participate in
distribution tasks along with their desired journey,
promoting shared habits along with shared solutions
within the environment [2]. This highlights how
individuals utilize the capacity of social media
networks to adhere to and also share solutions along
with possessions both for the benefit of the area and
their benefit [5]. The application of crowdshipping
stands as a dependable solution for a variety of jobs,
particularly those carried out quickly by
intermediaries, which enables a large number of
people to take part in the procedure [51].
5.3. Customer Satisfaction
The Customer Satisfaction variable, as shown by the
outer loading in Table 1, can be well represented by
its constituent indicators. These comprise Clarity of
Requirements (0.723), Simplicity of Procedures
(0.854), Duration of Service (0.9), Cost of Service
(0.829), Compliance (0.912), Security coupled with
Convenience (0.842), Safety (0.837) and also
Availability of Complaint Media (0.707). Together,
this comprehensive set of indicators provides a good
representation of the Customer Satisfaction variable.
As seen in Table 4, the variable Customer
Satisfaction strongly influences the formation of
Environmental Degradation, with a path coefficient
of 0.745. This indicates that customer satisfaction
plays an important role in strengthening the
environmental degradation procedure by 74.5%.
In enterprises, customer satisfaction is an
important statistic that affects various elements of
business efficiency [39]; [33]. In the context of
environmental degradation, overall customer
satisfaction can dramatically affect k patterns as well
as the need for services and products [3]; [26].
Consumer choice, coupled with the choice to obtain
it, contributes to shaping the ecological effects of a
company [39]. Research has actually revealed that
greater levels of consumer satisfaction are related to
increased intake along with the need for products, as
well as solutions that lead to more resource disposal,
power intake, and waste generation [45]. This
increased usage can indirectly add to ecological
damage by accelerating procedures such as
environmental damage, air pollution, contamination,
and also environmental modification [11].
In the era of industrialisation, the logistics sector
is demanding improvements, especially in terms of
increased emphasis on customer satisfaction.
Various logistics solutions have proliferated around
the world, providing opportunities to improve the
fulfilment of end-to-end customer satisfaction [2];
[7]. Efforts to improve customer satisfaction can
also be observed with partnerships associated with
factors such as reduced circulation costs, minimized
transportation times, reliable payment techniques,
and information technology. These aspects indicate
a favourable partnership with logistics customer
satisfaction, including in the case of crowdshipping
International Journal of Environmental Engineering and Development
DOI: 10.37394/232033.2024.2.23
Moden Purba, Hasdi Aimon, Alpon Satrianto
E-ISSN: 2945-1159
263
Volume 2, 2024
[35]; [28]. Various other emerging principles reveal
that the perceived high quality of logistics solutions
through crowdshipping is dramatically associated
with future acquisition intentions, further
intensifying customer satisfaction in the world of
logistics coupled with supply chain monitoring.
5.4. Environmental Degradation
The Environmental Degradation variable, as
described in the pouter loading results of Table 1, is
precisely mentioned by its constituent indicators
consisting of Air Pollution (0.780), Water Pollution
(0.801), Garbage (0.896), Noise (0.604), Sanitation
(0.864), Green Open Space (0.891), Drainage
(0.758), plus Environmental Hygiene (0.881). This
broad set of indicators provides a broad picture of
the Environmental Degradation variable that shows
a positive relationship.
Based on Table 4, Passenger Mobility has a
considerable impact on environmental degradation,
with a coefficient value of 0.740. Meanwhile,
Customer Satisfaction also has a considerable
impact on environmental degradation, with a
coefficient value of 0.745. However, it should be
noted that this impact is inversely proportional to
crowdshipping, which has an influence on
environmental degradation and has a coefficient
value of -0.530. This implies that Crowdshipping
can mitigate the increase in environmental
degradation by reducing it with a coefficient value
of 53%.
The unfavourable coefficient suggests an
opposite relationship, recommending that
crowdshipping can help reduce environmental
degradation by facilitating the movement of goods
through collaborative transportation and delivery
approaches. This remains in line with previous
research, which states that crowdshipping can
provide advantages in reducing the level of
environmental damage by efficient use of vehicles
along with passengers and logistics [21]; [47].
Specific indicators related to environmental
degradation are defined as follows:
Air Pollution: This refers to a problem where
high air quality ends up being endangered and
polluted by compounds that can have both safe and
harmful outcomes for human health [48]; [4]. Water
Pollution: This includes changes in water issues
such as lakes, rivers, seas, and groundwater due to
human actions [30]; [44]; [49]. Garbage: Refers to
recurring waste from daily human activities or
natural procedures, usually in a strong form, which
is excess, discarded, or disliked, originating from
human activities Wongkitrungrueng [9]; [56].
Noise: Defined as unwanted sound that may cause
pain to the audience. Sounds can come from natural
resources such as speech or created tasks such as the
use of devices [24]; [23]; [6]. Eco-Open Space: This
term refers to a much more open, extended or
landscaped location where plants grow, consisting
of normally growing plants and also deliberately
planted plants [9]; [56]. Sanitation: Basically, health
describes the deliberate method of maintaining
sanitation to stop direct contact with dust and
various other harmful waste products with the aim
of protecting and improving human health [24];
[58]; [50]. Sewerage/drainage: This is a framework
created to help drain excess water from one area to
another consisting of natural and synthetic water
containers that ultimately channel excess water to
the ocean, rivers, lakes, wells, and also various other
infiltration centres [30]; [1]; [27]. General
Environmental Conditions: In a more
comprehensive context, the environment
encompasses the territorial unit and its stresses and
microorganisms, which consist of humans and their
actions that affect the survival and well-being of
humans and other living things [4]; [39].
6. Conclusions
This study highlights the significant impact of
passenger mobility on customer satisfaction and
environmental degradation through crowdshipping
activities. This study facilitates a more in-depth
understanding and measurement of potential
strategies for logistics delivery, especially through
the utilization of air passengers. In addition, the
findings offer valuable knowledge to policy makers
and transportation companies, guiding the
development of future crowd-based air
transportation models. This perspective makes it
possible to estimate the possible impacts from an
economic, environmental, and utilization point of
view.
Acknowledgment:
This research was purely funded by the author's
funds to support the final assignment of the
Environmental and Development Studies Doctoral
Program at Universitas Negeri Padang, Indonesia
International Journal of Environmental Engineering and Development
DOI: 10.37394/232033.2024.2.23
Moden Purba, Hasdi Aimon, Alpon Satrianto
E-ISSN: 2945-1159
264
Volume 2, 2024
References:
[1] Al-Kodmany, K. (2018). The vertical farm: A
review of developments and implications for
the vertical city. Buildings, 8(2), 24.
[2] Allahviranloo, M., & Baghestani, A. (2019). A
dynamic crowdshipping model and daily travel
behavior. Transportation Research Part E:
Logistics .
https://www.sciencedirect.com/science/article
/pii/S1366554518310603
[3] Allen, J., Piecyk, M., Piotrowska, M.,
McLeod, F., Cherrett, T., Ghali, K., Nguyen,
T., Bektas, T., Bates, O., Friday, A., & others.
(2018). Understanding the impact of e-
commerce on last-mile light goods vehicle
activity in urban areas: The case of London.
Transportation Research Part D: Transport
and Environment, 61, 325–338.
[4] Barrett, B. F. D., & Therivel, R. (2019).
Environmental policy and impact assessment
in Japan. Routledge.
[5] Behrend, M., & Meisel, F. (2018). The
integration of item-sharing and
crowdshipping: Can collaborative
consumption be pushed by delivering through
the crowd? Transportation Research Part B:
Methodological.
https://www.sciencedirect.com/science/article
/pii/S0191261517308810
[6] Bies, D. A., Hansen, C. H., & Howard, C. Q.
(2017). Engineering noise control. CRC press.
[7] Boysen, N., Emde, S., & Schwerdfeger, S.
(2022). Crowdshipping by employees of
distribution centers: Optimization approaches
for matching supply and demand. European
Journal of Operational .
https://www.sciencedirect.com/science/article
/pii/S0377221721003143
[8] Camps-Aragó, P., Temmerman, L.,
Vanobberghen, W., & Delaere, S. (2022).
Encouraging the Sustainable Adoption of
Autonomous Vehicles for Public Transport in
Belgium: Citizen Acceptance, Business
Models, and Policy Aspects. Sustainability
(Switzerland), 14(2).
https://doi.org/10.3390/su14020921
[9] Canton, H. (2021). International Civil Aviation
Organization—ICAO. In The Europa
Directory of International Organizations 2021
(pp. 326–330). Routledge.
[10] Chen, C., Zhang, D., Wang, Y., & Huang, H.
(2021). Enabling Smart Urban Services with
GPS Trajectory Data. Enabling Smart Urban
Services with GPS Trajectory Data, 1–347.
https://doi.org/10.1007/978-981-16-0178-1
[11] Chen, J. K. C., Batchuluun, A., & Batnasan, J.
(2015). Services innovation impact to
customer satisfaction and customer value
enhancement in airport. Technology in Society,
43, 219–230.
[12] Cohen, A. P., Shaheen, S. A., & Farrar, E. M.
(2021). Urban Air Mobility: History,
Ecosystem, Market Potential, and Challenges.
IEEE Transactions on Intelligent
Transportation Systems, 22(9), 6074–6087.
https://doi.org/10.1109/TITS.2021.3082767
[13] Craps, A. (2021). What are the changes in LCA
passengers’ mobility practices? Insights from a
European survey. Transportation Research
Interdisciplinary Perspectives, 12(April),
100477.
https://doi.org/10.1016/j.trip.2021.100477
[14] D’Alfonso, T., Jiang, C., & Bracaglia, V.
(2016). Air transport and high-speed rail
competition: Environmental implications and
mitigation strategies. Transportation Research
Part A: Policy and Practice, 92, 261–276.
[15] Dai, Q., Jia, H., & Liu, Y. (2020). Private
vehicle-based crowdshipping for intercity
express transportation: Feasibility assessment.
International Journal of Distributed .
https://journals.sagepub.com/doi/abs/10.1177/
1550147720908203
[16] Dayarian, I., & Savelsbergh, M. (2020).
Crowdshipping and sameday delivery:
Employing instore customers to deliver online
orders. Production and Operations .
https://onlinelibrary.wiley.com/doi/abs/10.111
1/poms.13219
[17] Dole, C. E., Lewis, J. E., Badick, J. R., &
Johnson, B. A. (2016). Flight theory and
aerodynamics: a practical guide for
operational safety. John Wiley & Sons.
[18] Einwiller, S. A., & Steilen, S. (2015). Handling
complaints on social network sites--An
analysis of complaints and complaint
responses on Facebook and Twitter pages of
large US companies. Public Relations Review,
41(2), 195–204.
[19] Fadeev, A. I., & Alhusseini, S. (2023).
Determination of Urban Public Transport
Demand by Processing Electronic Travel
Ticket Data. Periodica Polytechnica
Transportation Engineering, 51(4), 394–408.
https://doi.org/10.3311/PPtr.21447
[20] Fessler, A., Thorhauge, M., Mabit, S., &
Haustein, S. (2022). A public transport-based
crowdshipping concept as a sustainable last-
mile solution: Assessing user preferences with
a stated choice experiment. Transportation
International Journal of Environmental Engineering and Development
DOI: 10.37394/232033.2024.2.23
Moden Purba, Hasdi Aimon, Alpon Satrianto
E-ISSN: 2945-1159
265
Volume 2, 2024
Research Part A: Policy and Practice,
158(January 2021), 210–223.
https://doi.org/10.1016/j.tra.2022.02.005
[21] Gatta, V, Marcucci, E., Nigro, M., & Serafini,
S. (2019). Sustainable urban freight transport
adopting public transport-based
crowdshipping for B2C deliveries. In
European Transport Research . Springer.
https://link.springer.com/article/10.1186/s125
44-019-0352-x
[22] Gatta, Valerio, Marcucci, E., Nigro, M.,
Patella, S. M., & Serafini, S. (2019). Public
transport-based crowdshipping for sustainable
city logistics: Assessing economic and
environmental impacts. Sustainability
(Switzerland), 11(1), 1–14.
https://doi.org/10.3390/su11010145
[23] Gdowska, K., Viana, A., & Pedroso, J. P.
(2018). Stochastic last-mile delivery with
crowdshipping. Transportation Research
Procedia, 30, 90–100.
https://doi.org/10.1016/j.trpro.2018.09.011
[24] Gray, R. S. (2020). Agriculture, transportation,
and the COVID-19 crisis. Canadian Journal of
Agricultural Economics/Revue Canadienne
d’agroeconomie, 68(2), 239–243.
[25] Hadas, Y., Tillman, A., Tsadikovich, D., &
Ozalvo, A. (2023). Assessing public transport
passenger attitudes towards a dynamic fare
model based on in-vehicle crowdedness levels
and additional waiting time. International
Journal of Transportation Science and
Technology, 12(3), 836–847.
https://doi.org/10.1016/j.ijtst.2022.08.003
[26] Hameed, W.-U., Nadeem, S., Azeem, M.,
Aljumah, A. I., & Adeyemi, R. A. (2018).
Determinants of e-logistic customer
satisfaction: A mediating role of information
and communication technology (ICT).
International Journal of Supply Chain
Management (IJSCM), 7(1), 105–111.
[27] Heath, A. G. (2018). Water pollution and fish
physiology. CRC press.
[28] Hollnagel, E. (2016). Barriers and accident
prevention. Routledge.
[29] Johnson, B., Sun, T., Stjepanović, D., Vu, G.,
& Chan, G. C. K. (2023). “Buy High, Sell
Low”: A Qualitative Study of Cryptocurrency
Traders Who Experience Harm. International
Journal of Environmental Research and
Public Health, 20(10).
https://doi.org/10.3390/ijerph20105833
[30] Karakikes, I., & Nathanail, E. (2022).
Assessing the Impacts of Crowdshipping
Using Public Transport: A Case Study in a
Middle-Sized Greek City. Future
Transportation, 2(1), 55–81.
https://doi.org/10.3390/futuretransp2010004
[31] Khatri, N., & Tyagi, S. (2015). Influences of
natural and anthropogenic factors on surface
and groundwater quality in rural and urban
areas. Frontiers in Life Science, 8(1), 23–39.
[32] Kwasiborska, A., & Stelmach, A. (2014).
Analysis of airport traffic in the context of
environmental throughput. Transport
Problems, 9(1), 129–140.
[33] Lange, A. (2019). Does cargo matter? The
impact of air cargo operations on departure on-
time performance for combination carriers.
Transportation Research Part A: Policy and
Practice, 119, 214–223.
[34] Lauenstein, S., & Schank, C. (2022). Design of
a Sustainable Last Mile in Urban Logistics—A
Systematic Literature Review. Sustainability
(Switzerland), 14(9), 1–14.
https://doi.org/10.3390/su14095501
[35] Le, T. V, Stathopoulos, A., Woensel, T. Van,
& ... (2019). Supply, demand, operations, and
management of crowd-shipping services: A
review and empirical evidence. Research
Part C .
https://www.sciencedirect.com/science/article
/pii/S0968090X18314700
[36] Le, T. V, & Ukkusuri, S. V. (2019). Crowd-
shipping services for last mile delivery:
Analysis from American survey data. In
Transportation Research Interdisciplinary .
Elsevier.
https://www.sciencedirect.com/science/article
/pii/S2590198219300089
[37] Macrina, G, Pugliese, L. D. P., & Guerriero, F.
(2020). Crowd-shipping: a new efficient and
eco-friendly delivery strategy. Procedia
Manufacturing.
https://www.sciencedirect.com/science/article
/pii/S2351978920306077
[38] Macrina, Giusy, Di Puglia Pugliese, L.,
Guerriero, F., & Laporte, G. (2020). Crowd-
shipping with time windows and
transshipment nodes. Computers and
Operations Research, 113, 104806.
https://doi.org/10.1016/j.cor.2019.104806
[39] Mao, Y., Li, G., Ma, W., Mu, Y., Wang, F.,
Miao, J., & Wu, D. (2019). Field observation
of permafrost degradation under Mo’he
airport, Northeastern China from 2007 to 2016.
Cold Regions Science and Technology, 161,
43–50.
https://doi.org/10.1016/j.coldregions.2019.03.
004
International Journal of Environmental Engineering and Development
DOI: 10.37394/232033.2024.2.23
Moden Purba, Hasdi Aimon, Alpon Satrianto
E-ISSN: 2945-1159
266
Volume 2, 2024
[40] Marcucci, E, Pira, M. Le, Carrocci, C. S., & ...
(2017). Connected shared mobility for
passengers and freight: Investigating the
potential of crowdshipping in urban areas.
2017 5th IEEE .
https://ieeexplore.ieee.org/abstract/document/
8005629/
[41] Marcucci, Edoardo, Le Pira, M., Carrocci, C.
S., Gatta, V., & Pieralice, E. (2017). Connected
shared mobility for passengers and freight:
Investigating the potential of crowdshipping in
urban areas. 5th IEEE International
Conference on Models and Technologies for
Intelligent Transportation Systems, MT-ITS
2017 - Proceedings, 839–843.
https://doi.org/10.1109/MTITS.2017.8005629
[42] Mittal, A., Gibson, N. O., & Krejci, C. C.
(2020). Assessing the potential of crowd-
shipping for food rescue logistics using agent-
based modeling. Conference of the
Computational .
https://link.springer.com/chapter/10.1007/978
-3-030-77517-9_4
[43] Münzel, T., Schmidt, F. P., Steven, S., Herzog,
J., Daiber, A., & Sørensen, M. (2018).
Environmental noise and the cardiovascular
system. Journal of the American College of
Cardiology, 71(6), 688–697.
[44] Ostrom, V., & Ostrom, E. (2019). Public goods
and public choices. In Alternatives for
delivering public services (pp. 7–49).
Routledge.
[45] Pizam, A., Shapoval, V., & Ellis, T. (2016).
Customer satisfaction and its measurement in
hospitality enterprises: a revisit and update.
International Journal of Contemporary
Hospitality Management.
[46] Pourrahmani, E., & Jaller, M. (2021).
Crowdshipping in last mile deliveries:
Operational challenges and research
opportunities. Socio-Economic Planning
Sciences, 78(March), 101063.
https://doi.org/10.1016/j.seps.2021.101063
[47] Punel, A., Ermagun, A., & Stathopoulos, A.
(2018). Studying determinants of crowd-
shipping use. Travel Behaviour and Society,
12(March), 30–40.
https://doi.org/10.1016/j.tbs.2018.03.005
[48] Purba, M., Aimon, H., & Satrianto, A. (2023).
The Crowdshipping Business Opportunity in
Air Transportation through the Mobility of
Inter-Urban Passengers and the Utilization of
Internet in Hang Nadim Airport, Batam.
Journal of Hunan University Natural Sciences,
50(1), 20–25.
https://doi.org/10.55463/issn.1674-
2974.50.1.3
[49] Sampaio, A., Savelsbergh, M., Veelenturf, L.,
& Van Woensel, T. (2019). Crowd-based city
logistics. In Sustainable transportation and
smart logistics (pp. 381–400). Elsevier.
[50] Schäfer, A. W., & Waitz, I. A. (2014). Air
transportation and the environment. Transport
Policy, 34, 1–4.
[51] Shen, H., & Lin, J. (2020). Investigation of
crowdshipping delivery trip production with
real-world data. Transportation Research Part
E: Logistics and .
https://www.sciencedirect.com/science/article
/pii/S1366554520307547
[52] Sina Mohri, S., Ghaderi, H., Nassir, N., &
Thompson, R. G. (2023). Crowdshipping for
sustainable urban logistics: A systematic
review of the literature. Transportation
Research Part E: Logistics and Transportation
Review, 178(September), 103289.
https://doi.org/10.1016/j.tre.2023.103289
[53] Stefanakis, A. I. (2019). The role of
constructed wetlands as green infrastructure
for sustainable urban water management.
Sustainability, 11(24), 6981.
[54] Štefancová, V., Harantová, V., Mazanec, J.,
Mašek, J., & Foltýnová, H. B. (2023). Analysis
of Passenger Behaviour During the Covid-19
Pandemic Situation. LOGI - Scientific Journal
on Transport and Logistics, 14(1), 203–214.
https://doi.org/10.2478/logi-2023-0019
[55] Sułkowski, Ł., Kolasińska-Morawska, K.,
Brzozowska, M., Morawski, P., & Schroeder,
T. (2022). Last Mile Logistics Innovations in
the Courier-Express-Parcel Sector Due to the
COVID-19 Pandemic. Sustainability
(Switzerland), 14(13).
https://doi.org/10.3390/su14138207
[56] Sun, P., Young, B., Elgowainy, A., Lu, Z.,
Wang, M., Morelli, B., & Hawkins, T. (2019).
Criteria air pollutants and greenhouse gas
emissions from hydrogen production in US
steam methane reforming facilities.
Environmental Science & Technology, 53(12),
7103–7113.
[57] Tapia, R. J., Kourounioti, I., Thoen, S., de Bok,
M., & Tavasszy, L. (2023). A disaggregate
model of passenger-freight matching in
crowdshipping services. Transportation
Research Part A: Policy and Practice,
169(January), 103587.
https://doi.org/10.1016/j.tra.2023.103587
International Journal of Environmental Engineering and Development
DOI: 10.37394/232033.2024.2.23
Moden Purba, Hasdi Aimon, Alpon Satrianto
E-ISSN: 2945-1159
267
Volume 2, 2024
[58] Touri, L., Marchetti, H. H., Sari-Minodier, I.
I., Molinari, N., & Chanez, P. (2013). The
airport atmospheric environment: respiratory
health at work. European Respiratory Review,
22(128), 124–130.
https://doi.org/10.1183/09059180.00005712
Contribution of Individual Authors to the
Creation of a Scientific Article (Ghostwriting
Policy)
The authors equally contributed in the present
research, at all stages from the formulation of the
problem to the final findings and solution.
Sources of Funding for Research Presented in a
Scientific Article or Scientific Article Itself
No funding was received for conducting this study.
Conflict of Interest
The authors have no conflicts of interest to declare
that are relevant to the content of this article.
Creative Commons Attribution License 4.0
(Attribution 4.0 International, CC BY 4.0)
This article is published under the terms of the
Creative Commons Attribution License 4.0
https://creativecommons.org/licenses/by/4.0/deed.en
_US
International Journal of Environmental Engineering and Development
DOI: 10.37394/232033.2024.2.23
Moden Purba, Hasdi Aimon, Alpon Satrianto
E-ISSN: 2945-1159
268
Volume 2, 2024