The American Journal of Engineering and Technology
01
https://www.theamericanjournals.com/index.php/tajet
TYPE
Original Research
PAGE NO.
1-4
OPEN ACCESS
SUBMITED
16 October 2024
ACCEPTED
09 December 2024
PUBLISHED
01 January 2025
VOLUME
Vol.07 Issue01 2025
CITATION
Angkasa Hasan. (2025). EFFICIENT ENERGY MANAGEMENT IN FERRY
CABINS VIA LORA WIRELESS TELEMETRY. The American Journal of
Engineering and Technology, 7(01), 1
–
4. Retrieved from
https://www.theamericanjournals.com/index.php/tajet/article/view/57
87
COPYRIGHT
© 2025 Original content from this work may be used under the terms
of the creative commons attributes 4.0 License.
Efficient energy
management in ferry
cabins via lora wireless
telemetry
Angkasa Hasan
Department of Marine Electrical Engineering, Politeknik Perkapalan Negeri
Surabaya (Ppns), Indonesia
Abstract:
Efficient energy management on ferry ships is
critical to reducing operational costs and promoting
sustainability. This study introduces a LoRa-based
wireless telemetry system for real-time monitoring of
electronic equipment loads in ferry passenger cabins.
The system leverages LoRa’s long
-range, low-power
communication capabilities to collect and transmit
energy usage data, enabling precise tracking and
management of electrical loads. Through field testing,
the proposed system demonstrated reliability,
scalability, and energy efficiency. The implementation
of this technology allows for enhanced operational
insights, reduced energy waste, and improved onboard
energy efficiency. This approach provides a cost-
effective solution for modernizing energy management
in maritime transportation.
Keywords:
Energy management, Ferry ships, LoRa
wireless telemetry, Load monitoring, Electronic
equipment tracking, Maritime energy efficiency, Real-
time monitoring, Sustainable transportation, IoT in
maritime.
Introduction:
The maritime industry is witnessing a
dynamic shift towards modernization and sustainability,
driven by the pressing need for efficient energy
management, passenger safety, and enhanced
passenger experiences. As ferry ships continue to play a
pivotal role in passenger transportation, optimizing
electronic equipment loads in passenger rooms has
emerged as a critical concern. Efficiently managing and
monitoring the diverse array of electronic devices in
these spaces is essential for ensuring passenger
comfort, safety, and energy conservation. In response
to this challenge, this study introduces a cutting-edge
The American Journal of Engineering and Technology
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The American Journal of Engineering and Technology
solution: "Efficient Electronic Equipment Load
Monitoring in Ferry Ship Passenger Rooms with LoRA
Wireless Telemetry."
Ferry ships, characterized by their constant operation
and varying passenger demands, present a unique set
of challenges in terms of energy consumption and
equipment management. Passenger rooms, which are
equipped with an assortment of electronic devices
such as lighting systems, HVAC (Heating, Ventilation,
and Air Conditioning), entertainment systems, and
charging outlets, require meticulous oversight to
ensure optimal functionality and energy efficiency.
Traditional monitoring methods often fall short in
providing real-time data, remote access, and cost-
effectiveness, prompting the exploration of innovative
technologies like Long Range Wireless Communication
(LoRA) telemetry.
The Promise of LoRA Wireless Telemetry:
LoRA technology has rapidly gained recognition for its
long-range wireless communication capabilities,
enabling the seamless transmission of data over
extended distances. In the context of ferry ships, LoRA
wireless telemetry holds the promise of revolutionizing
electronic equipment load monitoring in passenger
rooms. It allows for the real-time collection of data
from various devices, facilitating proactive responses
to equipment malfunctions, energy wastage, and
safety concerns.
The Goals of this Study:
This research sets out to explore the application of
LoRA wireless telemetry in the maritime sector, with a
specific focus on ferry ship passenger rooms. The
primary objectives include:
Efficient Monitoring: Implementing a LoRA-based
system for real-time electronic equipment load
monitoring in passenger rooms, ensuring the seamless
operation of critical devices.
Energy Efficiency: Optimizing energy consumption by
identifying inefficiencies and patterns in equipment
usage, thus contributing to reduced operational costs
and environmental impact.
Passenger Safety and Comfort: Enhancing passenger
safety and comfort by proactively addressing
equipment malfunctions or irregularities.
Remote Management: Enabling remote access to
equipment data, allowing ship operators to make
informed decisions in real time, regardless of their
location.
In essence, this study paves the way for a more
efficient,
eco-conscious,
and
passenger-centric
maritime industry by harnessing the potential of LoRA
wireless telemetry to monitor and manage electronic
equipment loads in ferry ship passenger rooms. As the
maritime sector embraces innovation and sustainability,
this research represents a significant step towards
achieving these goals.
METHOD
Efficient Electronic Equipment Load Monitoring in Ferry
Ship Passenger Rooms with LoRA Wireless Telemetry
LoRA Wireless Telemetry Infrastructure Setup:
The foundation of this monitoring system involves the
establishment of LoRA wireless telemetry infrastructure
within the ferry ship's passenger rooms. LoRA base
stations are strategically installed throughout the vessel
to ensure optimal signal coverage. These base stations
serve as gateways for data transmission from LoRA-
enabled sensors and devices within passenger rooms.
The LoRA network is configured to support long-range
communication, allowing data to be relayed reliably
from even the most remote corners of the ship.
Sensor Deployment and Integration:
A variety of sensors and data collection devices are
deployed within passenger rooms to monitor electronic
equipment loads. These sensors are designed to capture
data related to power consumption, equipment status,
temperature, and other relevant parameters. Sensors
are strategically placed near critical electronic devices
such as lighting fixtures, HVAC systems, power outlets,
and entertainment systems. Integration with LoRA
technology ensures seamless data transmission to the
central monitoring system.
Central Monitoring System Implementation:
The central monitoring system acts as the nerve center
of the entire setup. It consists of a dedicated computer
server equipped with LoRA network gateways and data
processing capabilities. This system serves as the focal
point for data aggregation, analysis, and visualization.
Specialized software is employed to interface with LoRA
gateways and collect real-time data from the deployed
sensors. The central monitoring system also features a
user-friendly dashboard that provides ship operators
with access to vital equipment data and alarms.
Data Analysis and Alert Mechanisms:
The collected data is subjected to real-time analysis to
identify patterns, irregularities, and anomalies in
electronic equipment loads. Advanced algorithms are
employed to detect equipment malfunctions, abnormal
power consumption, or deviations from expected
operational parameters. In the event of any
discrepancies, the system triggers automated alerts,
notifying ship operators and maintenance personnel
through predefined communication channels, such as
email or SMS.
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Remote Access and Control:
One of the key advantages of LoRA wireless telemetry
is its ability to enable remote access and control. Ship
operators and maintenance teams can securely access
the central monitoring system from various locations,
including the ship's bridge or onshore facilities. This
remote accessibility empowers them to monitor
equipment status, make real-time adjustments, and
respond promptly to emerging issues. Additionally, it
allows for proactive maintenance, reducing downtime
and enhancing passenger safety and comfort.
In summary, the methodology for efficient electronic
equipment load monitoring in ferry ship passenger
rooms with LoRA wireless telemetry involves the
establishment of a robust LoRA infrastructure, sensor
deployment and integration, the implementation of a
central monitoring system, real-time data analysis, and
remote access and control capabilities. This
comprehensive approach ensures the seamless
operation of electronic devices, enhances energy
efficiency, and contributes to a safer and more
comfortable passenger experience.
RESULTS
The implementation of efficient electronic equipment
load monitoring in ferry ship passenger rooms with
LoRA wireless telemetry yielded promising results in
terms of data accuracy, real-time monitoring, and
operational efficiency.
Data Accuracy and Real-Time Monitoring:
The
LoRA
wireless
telemetry
infrastructure
demonstrated exceptional reliability in transmitting
data from sensors placed within passenger rooms to
the central monitoring system. Data accuracy was
consistently high, enabling ship operators to access
real-time information regarding electronic equipment
loads. This real-time monitoring allowed for immediate
detection of anomalies, irregularities, or equipment
malfunctions, facilitating rapid response and issue
resolution.
Operational Efficiency:
One of the primary objectives of this system was to
enhance operational efficiency in ferry ship passenger
rooms. The results showed significant progress in this
regard:
Energy Consumption Optimization: By continuously
monitoring electronic equipment loads, the system
identified opportunities for energy consumption
optimization. For instance, lighting systems were
automatically adjusted based on ambient light levels,
reducing unnecessary power usage during daylight
hours.
Proactive Maintenance: The real-time monitoring and
alert mechanisms enabled proactive maintenance.
Equipment malfunctions were detected at their earliest
stages, allowing maintenance teams to address issues
promptly, thereby reducing downtime and ensuring a
more reliable passenger experience.
Passenger Safety and Comfort:
The system's capacity for real-time monitoring played a
pivotal role in ensuring passenger safety and comfort:
Temperature Control: HVAC systems were closely
monitored, ensuring that passenger rooms maintained
comfortable temperatures throughout the voyage. In
cases of HVAC system failures or irregularities,
immediate
alerts
were
generated,
preventing
discomfort or health risks to passengers.
Emergency Response: The system included provisions
for emergency response. Smoke detectors, for instance,
were integrated into the monitoring network, allowing
for rapid detection of fire-related issues and immediate
alerting of the ship's crew.
DISCUSSION
The results of this study underscore the potential of
LoRA wireless telemetry for efficient electronic
equipment load monitoring in ferry ship passenger
rooms. The combination of reliable data transmission,
real-time monitoring, and automated alert mechanisms
greatly enhances operational efficiency, passenger
safety, and comfort.
Furthermore, the system's ability to optimize energy
consumption aligns with the maritime industry's
broader sustainability goals. Reduced energy wastage
not only leads to cost savings but also contributes to a
lower environmental footprint.
However, it's essential to acknowledge that successful
implementation requires proper sensor placement,
system
calibration,
and
regular
maintenance.
Additionally, cybersecurity measures must be robust to
protect sensitive data and prevent unauthorized access
to the monitoring system.
The integration of LoRA wireless telemetry in ferry ship
passenger rooms represents a substantial step towards
a more efficient, sustainable, and passenger-centric
maritime industry. The system's real-time monitoring
capabilities, data accuracy, and potential for energy
optimization position it as a valuable asset in the pursuit
of enhanced operational efficiency and passenger well-
being. As technology continues to evolve, further
refinements and innovations in electronic equipment
load monitoring are expected to bolster its role in
shaping the future of ferry ship operations.
CONCLUSION
The journey from concept to realization, as witnessed in
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The American Journal of Engineering and Technology
the implementation of efficient electronic equipment
load monitoring in ferry ship passenger rooms with
LoRA
wireless
telemetry,
culminates
in
a
transformative and promising chapter for maritime
operations. This study's results underscore the
significance of real-time monitoring, data accuracy,
and operational efficiency achieved through LoRA
wireless telemetry.
The deployment of LoRA wireless telemetry
infrastructure demonstrated exceptional reliability,
facilitating the seamless transmission of data from
sensors within passenger rooms to the central
monitoring
system.
Data
accuracy
remained
consistently high, empowering ship operators with
real-time insights into electronic equipment loads. This
instantaneous monitoring capability enabled the
immediate detection of anomalies, irregularities, or
equipment malfunctions, streamlining rapid response
protocols and issue resolution.
Operational efficiency received a notable boost
through this system:
Energy
Consumption Optimization:
Continuous
monitoring allowed for the identification of energy
optimization opportunities. Systems such as lighting
and HVAC responded dynamically to environmental
conditions, reducing unnecessary power consumption
and contributing to operational cost savings.
Proactive Maintenance: The system's real-time
monitoring and alert mechanisms empowered
proactive maintenance. Early detection of equipment
malfunctions enabled maintenance teams to address
issues promptly, minimizing downtime, and bolstering
the reliability of passenger services.
The paramount importance of passenger safety and
comfort was also addressed:
Temperature Control: HVAC systems were vigilantly
monitored, ensuring that passenger rooms maintained
comfortable temperatures throughout the voyage.
Immediate alerts in cases of HVAC irregularities
prevented passenger discomfort or health risks.
Emergency Response: The system's integration of
emergency response features, such as smoke
detectors, added an additional layer of safety. Swift
detection of fire-related issues allowed for immediate
alerting of the ship's crew, enhancing onboard safety
measures.
As the maritime industry seeks to achieve
sustainability goals, the system's ability to optimize
energy consumption assumes greater significance.
Reduced energy wastage not only translates into
financial savings but also contributes to a diminished
environmental footprint.
Nonetheless, it is essential to acknowledge that
successful system implementation hinges on meticulous
sensor placement, system calibration, and routine
maintenance. The robustness of cybersecurity
measures remains critical to safeguard sensitive data
and thwart unauthorized access to the monitoring
system.
In summation, the introduction of LoRA wireless
telemetry into ferry ship passenger rooms represents a
pivotal stride toward an operationally efficient,
sustainable, and passenger-centric maritime sector. The
system's real-time monitoring prowess, unwavering
data precision, and potential for energy optimization
position it as a valuable asset in advancing operational
efficiency and passenger well-being. As technology
continues to evolve, the ongoing refinement and
innovation in electronic equipment load monitoring are
poised to shape the future of ferry ship operations,
fostering a safer, more efficient, and environmentally
conscious maritime industry.
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