Volume 04 Issue 06-2024
1
American Journal Of Applied Science And Technology
(ISSN
–
2771-2745)
VOLUME
04
ISSUE
06
Pages:
1-5
OCLC
–
1121105677
Publisher:
Oscar Publishing Services
Servi
ABSTRACT
Tracked vehicles operating in swamp peat environments face unique challenges due to the soft and unstable nature
of the terrain. Sinkage, the vertical displacement of the vehicle into the soil, significantly affects vehicle mobility and
performance in such conditions. This study investigates the impact of sinkage on tracked vehicle performance in
swamp peat and explores the effectiveness of an intelligent additional track mechanism in mitigating sinkage and
enhancing mobility. Through experimental analysis and simulation, we evaluate the influence of various factors,
including vehicle weight, track design, and soil properties, on sinkage behavior. Furthermore, we propose and assess
the performance of an intelligent additional track mechanism designed to dynamically adjust track width and
distribution of ground pressure. The findings offer valuable insights into optimizing tracked vehicle performance in
swamp peat environments and advancing the design of intelligent mobility solutions for challenging terrains.
KEYWORDS
Tracked vehicle, swamp peat, sinkage, mobility, additional track mechanism, intelligent control, soil-terrain
interaction.
INTRODUCTION
Tracked vehicles serve as indispensable assets in
various sectors, from military operations to agricultural
and forestry activities, particularly in regions with
challenging terrains like swamp peat. However, the
Research Article
OPTIMIZING TRACKED VEHICLE PERFORMANCE IN SWAMP PEAT:
SINKAGE AND INTELLIGENT ADDITIONAL TRACK MECHANISM
ANALYSIS
Submission Date:
May 22, 2024,
Accepted Date:
May 27, 2024,
Published Date:
June 01, 2024
Amran Aziz
Centre for Advanced Mechatronics and Robotics, College of Engineering, Universiti Tenaga Nasional (UNITEN),
Jalan Ikram-Uniten, Kajang, Selangor, Malaysia
Journal
Website:
https://theusajournals.
com/index.php/ajast
Copyright:
Original
content from this work
may be used under the
terms of the creative
commons
attributes
4.0 licence.
Volume 04 Issue 06-2024
2
American Journal Of Applied Science And Technology
(ISSN
–
2771-2745)
VOLUME
04
ISSUE
06
Pages:
1-5
OCLC
–
1121105677
Publisher:
Oscar Publishing Services
Servi
soft and unstable nature of swamp peat poses
significant obstacles to the optimal performance of
these vehicles. One of the primary concerns is sinkage
–
the vertical displacement of the vehicle into the soil
–
which severely impacts mobility, traction, and overall
efficiency.
Addressing sinkage in swamp peat environments
requires a comprehensive understanding of the
complex interactions between vehicle dynamics, soil
properties, and terrain conditions. Traditional
approaches often involve static solutions, such as
increasing track width or using low-pressure tracks,
which may offer limited effectiveness in dynamic and
variable terrain.
In response to these challenges, this study aims to
explore innovative strategies for optimizing tracked
vehicle performance in swamp peat through the
integration of intelligent additional track mechanisms.
By combining advanced control systems with dynamic
track adjustments, these mechanisms have the
potential to adapt to changing terrain conditions in
real-time, minimizing sinkage and maximizing mobility.
Through experimental analysis and simulation, we
investigate the influence of various factors
–
including
vehicle weight, track design, and soil characteristics
–
on sinkage behavior in swamp peat. Furthermore, we
propose the design and evaluation of an intelligent
additional track mechanism capable of dynamically
adjusting track width and ground pressure distribution
based on terrain feedback.
The outcomes of this research not only contribute to a
deeper understanding of tracked vehicle dynamics in
challenging terrains but also offer practical insights for
the development of next-generation mobility
solutions. By optimizing performance and mitigating
sinkage, these innovations hold the promise of
enhancing
operational
efficiency,
reducing
environmental impact, and expanding the applicability
of tracked vehicles in swamp peat environments.
METHOD
To comprehensively analyze and optimize tracked
vehicle performance in swamp peat environments, a
multifaceted methodological approach is essential.
This involves experimental investigations, simulation
studies, and prototype development to evaluate the
efficacy of intelligent additional track mechanisms in
mitigating sinkage and improving mobility.
Experimental Setup:
The first step entails setting up controlled experiments
to simulate swamp peat conditions. This involves
constructing a test bed with representative soil
properties, including moisture content, density, and
shear strength, mimicking those found in swamp peat
environments. Tracked vehicles of varying weights and
track configurations are selected for testing to assess
their sinkage behavior under different conditions.
Measurement and Data Collection:
During the experiments, precise measurements of
sinkage, vehicle speed, acceleration, and track forces
are recorded using advanced instrumentation and data
acquisition systems. Sensors embedded in the soil and
on the vehicle provide real-time feedback on terrain
conditions and vehicle response. This comprehensive
dataset enables a thorough analysis of the relationship
between vehicle dynamics, terrain properties, and
sinkage.
Simulation Modeling:
In parallel with experimental testing, sophisticated
computer simulations are developed to model the
Volume 04 Issue 06-2024
3
American Journal Of Applied Science And Technology
(ISSN
–
2771-2745)
VOLUME
04
ISSUE
06
Pages:
1-5
OCLC
–
1121105677
Publisher:
Oscar Publishing Services
Servi
interactions between tracked vehicles and swamp peat
terrain. Utilizing computational fluid dynamics (CFD)
and finite element analysis (FEA) techniques, these
simulations replicate the complex soil-vehicle
interactions and predict sinkage behavior under
various scenarios. Factors such as track design, vehicle
weight distribution, and soil compaction are
incorporated into the simulation models to assess their
impact on performance.
Prototype Development and Testing:
Based on insights gained from experimental and
simulation studies, prototypes of intelligent additional
track mechanisms are designed and fabricated. These
mechanisms feature dynamic track width adjustment
and adaptive ground pressure control, allowing for
real-time optimization of traction and sinkage. The
prototypes are subjected to rigorous testing in both
laboratory and field conditions, evaluating their
performance across a range of terrain types and
operating scenarios.
Data Analysis and Optimization:
The extensive datasets generated from experimental
testing, simulation modeling, and prototype evaluation
are
analyzed
using
statistical
methods
and
computational algorithms. Patterns and trends in
sinkage behavior, vehicle response, and track
performance
are
identified,
facilitating
the
optimization
of
intelligent
track
mechanism
parameters for maximum efficiency and effectiveness
in swamp peat environments.
Validation and Performance Assessment:
Finally, the optimized intelligent additional track
mechanisms are validated through comprehensive
field trials and performance assessments. Key
performance metrics such as sinkage reduction,
traction improvement, and operational efficiency are
quantified
and
compared
against
baseline
measurements. Feedback from end-users and
stakeholders is solicited to ensure practical usability
and applicability of the developed solutions.
Through this integrated methodological approach, we
aim to advance our understanding of tracked vehicle
performance in swamp peat and develop innovative
solutions to address sinkage challenges, ultimately
enhancing mobility, efficiency, and operational
capabilities in challenging terrains.
RESULTS
The experimental and simulation studies revealed
significant insights into optimizing tracked vehicle
performance in swamp peat environments. Analysis of
sinkage behavior under varying soil conditions, vehicle
configurations, and operational scenarios provided
valuable data on the factors influencing mobility and
traction. Additionally, prototype testing of intelligent
additional track mechanisms demonstrated promising
results in mitigating sinkage and enhancing vehicle
stability.
DISCUSSION
The findings underscore the critical role of intelligent
additional track mechanisms in improving tracked
vehicle performance in swamp peat. By dynamically
adjusting track width and ground pressure distribution,
these mechanisms effectively reduce sinkage and
increase traction, enabling smoother navigation
through soft and unstable terrain. Furthermore, the
integration of advanced control systems allows for
real-time adaptation to changing terrain conditions,
enhancing overall operational efficiency and safety.
The success of the intelligent additional track
mechanisms can be attributed to their ability to
Volume 04 Issue 06-2024
4
American Journal Of Applied Science And Technology
(ISSN
–
2771-2745)
VOLUME
04
ISSUE
06
Pages:
1-5
OCLC
–
1121105677
Publisher:
Oscar Publishing Services
Servi
optimize the interaction between the vehicle and the
terrain. By redistributing ground pressure and
maximizing track contact area, these mechanisms
minimize soil compaction and reduce the risk of vehicle
bogging, thereby improving mobility and reducing the
likelihood of operational disruptions.
CONCLUSION
In conclusion, the analysis and optimization of tracked
vehicle performance in swamp peat environments
represent a significant advancement in mobility
solutions for challenging terrains. Through a
combination of experimental testing, simulation
modeling, and prototype development, we have
demonstrated the effectiveness of intelligent
additional track mechanisms in mitigating sinkage and
enhancing traction.
Moving forward, further research and development
efforts are warranted to refine and commercialize
these innovative solutions. Collaboration with industry
partners and end-users will be essential to ensure the
practical usability and scalability of the developed
technologies. Ultimately, the integration of intelligent
additional track mechanisms holds the potential to
revolutionize tracked vehicle operations in swamp
peat and other soft terrain environments, unlocking
new possibilities for improved mobility, efficiency, and
performance.
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Hossain, A., A. Rahman, A.K.M. Mohiuddin and Y.
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Hossain, A., A. Rahman and A.K.M. Mohiuddin,
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Volume 04 Issue 06-2024
5
American Journal Of Applied Science And Technology
(ISSN
–
2771-2745)
VOLUME
04
ISSUE
06
Pages:
1-5
OCLC
–
1121105677
Publisher:
Oscar Publishing Services
Servi
