FUTURE IMPLICATIONS ASSIGNMENT 1
Human Factors Implications in the Future Assignment
Author Note
Abstract
Drawing from the analyses of past incidents such as Flydubai Flight 981 and Pakistan
International Airlines Flight 8303, future implications for aviation safety suggest a paradigm
FUTURE IMPLICATIONS ASSIGNMENT 2
shift towards more holistic and integrated safety strategies. Predicting future trends involves
leveraging advancements in technology, such as artificial intelligence and machine learning, to
enhance real-time decision-making and predictive analytics in flight operations. These
technologies can provide pilots with advanced warning systems and decision support tools,
reducing the likelihood of human error. Organizationally, there is a need for continuous
evolution of safety protocols and a commitment to fostering a safety-first culture that prioritizes
communication and adherence to procedures.
Combining insights from the Flydubai Flight 981 and Pakistan International Airlines Flight 8303
incidents, it becomes evident that a comprehensive approach to aviation safety must prioritize
both human factors and organizational protocols. The recurring themes of pilot error, inadequate
adherence to standard operating procedures, and breakdowns in communication highlight the
urgent need for enhanced training programs that integrate technical skills with human factors
awareness. This paper explores future implications from past and present failures over the last
decade involving human factors.
Keywords: Pakistan International Airlines Flight 8303 (PIA 8303), organizational factors,
decision-making processes, aviation safety analysis
FUTURE IMPLICATIONS ASSIGNMENT 3
Future Implications: Predicting Future Trends and Enhancements for Safety Based on
Past and Present Failures
Introduction
After examining two major aviation incidents, specifically Flydubai Flight 981 and
Pakistan International Airlines Flight 8303, through separate research studies, mixed data from
both quantitative and qualitative analyses have indicated that the future of aviation will be
influenced by several key trends and enhancements, including increased automation, more
stringent training regulations, and heightened liabilities.
The aviation industry is a critical component of global transportation, yet it faces unique
challenges related to the mental health and well-being of its workforce. A study by Aljurf,
Olaish, and BaHammam (2018) highlights the prevalence of sleepiness, fatigue, and depression
among commercial airline pilots within the Gulf Cooperation Council (GCC) countries. These
factors not only affect the pilots' health but also have significant implications for flight safety and
operational efficiency. The tragic incident of Pakistan International Airlines Flight 8303
highlighted critical areas such as adherence to standard operating procedures, effective
communication, and the necessity of robust decision-making frameworks among airline
professionals per the International aviation organizations IFALPA and IFATCA (2020). The
Germanwings crash in 2015, which was linked to the mental health struggles of the co-pilot, has
sparked significant discourse on the implications of mental health stigma and its impact on safety
protocols. Per von dem Knesebeck, Mnich, Angermeyer, Kofahl, and Makowski (2015), societal
perceptions of depression underwent notable shifts following the incident, underscoring the
critical need to address mental health stigma in safety-sensitive industries.
The future implications of sustainable development in aviation logistics, as discussed by
Wu and Yang (2021), suggest a transformative shift in the industry towards more eco-friendly
FUTURE IMPLICATIONS ASSIGNMENT 4
practices. The integration of artificial intelligence (AI) is expected to play a pivotal role in
optimizing logistics operations, reducing carbon footprints, and enhancing efficiency. AI can
facilitate predictive maintenance, optimize flight routes, and improve fuel efficiency, thereby
contributing to the sustainability goals of the aviation sector.
Discussion
In examining the future implications of aviation safety, it is crucial to consider the
lessons learned from past and present failures. The study by Borowik et al. (2022) highlights the
importance of mutable observation in enhancing the efficiency of aerial filming, which can be
extrapolated to broader aviation safety practices. As technology advances, the integration of
drones and other autonomous systems in aviation is expected to increase. This trend suggests a
future where automation plays a significant role in mitigating human error, a common factor in
aviation incidents. While autonomous flight will not fully replaced commercial pilots, it can
enhance safety in every section of flight to include threats like deliberate pilot crash incidents
due to pilot psychosis.
The study by Bigazzi et al. (2021) on a multilevel architecture for autonomous UAVs
suggests that increased automation is a significant trend in aviation safety. This aligns with the
broader industry movement towards integrating more advanced technologies to reduce human
error and enhance operational efficiency. The mixed data from quantitative and qualitative
analyses of these incidents indicate that the aviation industry must focus on these areas to
improve safety outcomes.
Literature Reviews
FUTURE IMPLICATIONS ASSIGNMENT 5
A study by Borowik et al. (2022) highlights the efficiency of aerial filming by television
drone pilots, which underscores the importance of mutable observation in enhancing the quality
of completed shots. Moreover, the integration of drones in aviation not only enhances safety but
also introduces new challenges that require careful consideration. The potential for drones to
improve safety through better surveillance and data collection is significant, yet it also
necessitates the development of robust regulatory frameworks to manage their operation
effectively.
Bigazzi et al. (2021) highlights the importance of a multilevel architecture for
autonomous UAVs, which can be extrapolated to broader aviation contexts. This architecture
emphasizes the integration of various systems to enhance decision-making and operational
efficiency, potentially reducing human error and increasing safety. This proactive approach,
combined with continuous improvements in technology, will be essential in shaping a safer and
more efficient aviation landscape.
The study titled "Changes in depression stigma after the Germanwings crash – findings
from German population surveys" published in the Journal of Affective Disorders is a
quantitative research study by von dem Knesebeck et al. (2015). . This type of study typically
involves the collection and analysis of numerical data to identify patterns, relationships, or
trends. As a result, future trends in aviation safety are likely to include enhanced mental health
support systems and the destigmatization of mental health issues within the industry, ensuring
that pilots and crew members receive the necessary support without fear of professional
repercussions. The qualitative phenomenological investigation by Cross et al. (2024) underscores
the importance of understanding the mental health challenges faced by pilots, which can have
direct implications on safety. This understanding is crucial as it informs the development of more
FUTURE IMPLICATIONS ASSIGNMENT 6
robust support systems and training programs that address these human factors, ultimately
enhancing safety protocols. Analysis of aviation incidents such as Flydubai Flight 981 and
Pakistan International Airlines Flight 8303 reveals that future trends in aviation safety will likely
include increased automation and more stringent training regulations. These enhancements are
driven by the need to mitigate human error and improve operational efficiency.
Kelly and Efthymiou (2019) studied the critical role that human factors have played in
controlled flight into terrain (CFIT) accidents over a decade. As technology continued to evolve,
the industry is likely to see a shift towards more sophisticated automated systems that can assist
pilots in decision-making processes, thereby reducing the likelihood of accidents caused by
human error. As a result, the implementation of more rigorous training programs that focus on
human factors and situational awareness is expected to be a key trend in enhancing aviation
safety.
In examining the future implications of aviation safety, it is crucial to consider the
lessons learned from past and present failures, such as those highlighted in the study by Chinraj
et al. (2022). The COVID-19 pandemic has underscored vulnerabilities within the aviation
industry, particularly in terms of operational disruptions and safety protocols. The study
emphasizes the need for enhanced safety measures and the integration of advanced technologies
to mitigate risks associated with unforeseen events. By learning from incidents such as the
Flydubai Flight 981 and Pakistan International Airlines Flight 8303, the industry can develop
strategies that not only prevent similar occurrences but also enhance the overall safety and
efficiency of air travel.
FUTURE IMPLICATIONS ASSIGNMENT 7
Methodologies
To predict future trends and enhancements for safety in aviation logistics, it is essential to
analyze past and present failures, as highlighted by Wu and Yang (2021). The aviation industry,
being a critical component of global transportation, faces unique challenges that necessitate
continuous improvement in safety protocols. One of the key methodologies involves leveraging
data from past incidents, such as Flydubai Flight 981 and Pakistan International Airlines Flight
8303, to identify recurring issues like pilot error and communication breakdowns. By integrating
both quantitative and qualitative analyses, the industry can develop more robust training
programs that emphasize technical skills alongside human factors awareness.
Borowik et al. (2022) emphasize the efficiency of television drone pilots in improving the
quality of completed shots, which can be extrapolated to broader applications in aviation safety.
By analyzing past failures, such as those in drone operations, and understanding the factors that
contribute to successful outcomes, the aviation industry can develop predictive models that
anticipate potential risks and implement strategies to mitigate them. The mixed data from
quantitative and qualitative analyses of past incidents suggest that focusing on technological
integration is essential for improving safety outcomes. Bigazzi et al. (2021) covers the topic of
multilevel architecture for autonomous UAVs in the aviation industry. This study explores the
idea of enhancing safety protocols and operational efficiency for commercial manned flight
using drone technology. This study used data collection and analysis results from real world
simulation and testing and technical specification documents in order to conduct a mixed
research (qualitative and quantitative).
The study by Aljurf, Olaish, and BaHammam (2018) underscores the significant impact
of sleepiness, fatigue, and depression on commercial airline pilots within the Gulf Cooperation
FUTURE IMPLICATIONS ASSIGNMENT 8
Council (GCC) countries. These factors not only compromise the health of pilots but also pose
serious risks to flight safety and operational efficiency. Leveraging technology to monitor pilot
alertness in real-time could provide immediate feedback and prevent potential incidents. The
research method used in this study is a mix of both qualitative and quantitative analysis. Ponte et
al. (2017) covers a study on social cognition and bipolar disorder, a mixed-methods approach can
be particularly effective. This involves combining quantitative and qualitative research
techniques to gain a comprehensive understanding of the subject. Statistical analysis of this data
can reveal significant patterns and relationships.
Kelly and Efthymiou (2019) conducted a retrospective analysis of 50 CFIT accidents
from 2007 to 2017, utilizing a comprehensive review of accident reports and databases. This
method involved the detailed examination of human factors contributing to these accidents, such
as pilot error, decision-making processes, and situational awareness. The study employed both
qualitative and quantitative data analysis techniques to identify common patterns and underlying
causes of CFIT incidents. Ribeirinho Marques et al. (2017) on aviation mental disorders,
particularly an in-flight case of mania, a case study approach is likely utilized. The researchers
would have collected qualitative data through detailed observations and possibly interviews with
involved personnel to capture the nuances of the manic episode during flight. This approach
allows for a comprehensive analysis of the incident, providing insights into the mental health
challenges faced in aviation settings. By focusing on a specific case, the study can highlight
unique factors and potential interventions, contributing to the broader understanding of mental
health management in aviation.
Future Research
FUTURE IMPLICATIONS ASSIGNMENT 9
For future research in the field of aviation safety and pilot health, several avenues can be
explored to enhance the understanding and application of current findings. Firstly, the integration
of real-time monitoring technology for pilot alertness presents a promising area for further
investigation. This technology could provide immediate feedback to pilots and ground control,
potentially preventing incidents related to fatigue and other health-related issues.
Secondly, the mixed-methods approach, as highlighted in the current study, should be
expanded to include a broader range of qualitative and quantitative data. This approach allows
for a comprehensive understanding of the complex factors affecting pilot performance and
safety. Future research could explore additional variables such as environmental factors, aircraft
type, and pilot demographics to identify patterns and relationships that may not be apparent
through a single-method study.
Another important area for future research is the examination of human factors in
aviation accidents, particularly those related to Controlled Flight Into Terrain (CFIT).
Retrospective analyses, like those conducted by Kelly and Efthymiou (2019), provide valuable
insights into the decision-making processes and situational awareness of pilots. Expanding this
research to include a larger dataset and more recent incidents could help identify new trends and
inform training programs aimed at reducing human error.
The integration of advanced systems to enhance decision-making and operational
efficiency should be a focus of future studies. By seeking opportunities to improve systems that
reduce human error and increase safety, researchers can contribute to the development of a safer
aviation landscape. Lastly, the impact of societal events, such as the Germanwings crash, on
public perception and stigma related to mental health in aviation should be further explored.
Quantitative studies, like those by von dem Knesebeck et al. (2015), can provide insights into
FUTURE IMPLICATIONS ASSIGNMENT 10
changes in public attitudes and inform policies aimed at supporting pilot mental health. Future
research could investigate the long-term effects of such events on both the aviation industry and
public perception.
Conclusion
This paper shall end with the following Bible quote on learning future lessons best from
the present as follows:
“A wiseHmanHwill hear, and will increase learning; and a man of understanding shall attain unto
wise counsels:” (King James Bible, 1769/2017, Proverbs 1:5)
FUTURE IMPLICATIONS ASSIGNMENT 11
References
Aljurf, T. M., Olaish, A. H., & BaHammam, A. S. (2018). Assessment of sleepiness, fatigue, and
depression among Gulf Cooperation Council commercial airline pilots. Sleep &
Breathing, 22(2), 411–419. https://doi.org/10.1007/s11325-017-1565-7
Borowik, G., Kożdoń-Dębecka, M., & Strzelecki, S. (2022). Mutable observation used by
television drone pilots: Efficiency of aerial filming regarding the quality of completed
shots.HElectronics (Basel),H11(23), 3881.Hhttps://doi.org/10.3390/electronics11233881
Bigazzi, L., Basso, M., Boni, E., Innocenti, G., & Pieraccini, M. (2021). A multilevel
architecture for autonomous UAVs.HDrones (Basel),H5(3),
55.Hhttps://doi.org/10.3390/drones5030055
Chinraj, A. K., Khan, P. S., Thammanassery, P. K., Varma, M., Nambiar, R., Shameer, M., &
Mohammed, S. G. (2022). Flight crash during COVID-19: Lessons learnt.Indian Journal
of Orthopaedics,56(2), 357-364.Hhttps://doi.org/10.1007/s43465-021-00463-w
Cross, D. S., Wallace, R., Cross, J., & Coimbra Mendonca, F. (2024). Understanding pilots'
perceptions of mental health issues: A qualitative phenomenological investigation among
airline pilots in the united states.HCurēus (Palo Alto, CA),H16(8),
e66277.Hhttps://doi.org/10.7759/cureus.66277
International aviation organizations IFALPA and IFATCA on pakistan international airlines
flight 8303 preliminary report. (2020).HContify Aviation News,
Kelly, D., & Efthymiou, M. (2019). An analysis of human factors in fifty controlled flight into
terrain aviation accidents from 2007 to 2017.HJournal of Safety Research,H69, 155-
165.Hhttps://doi.org/10.1016/j.jsr.2019.03.009
FUTURE IMPLICATIONS ASSIGNMENT 12
King James, US Congress, Cambridge Edition II. (2007, November 1).HOfficial King James
Bible online. King James Bible Online.Hhttps://www.kingjamesbibleonline.org/Links to
an external site.
Ponte, F. D. R., Cardoso, T. D. A., Kunz, M., & Rosa, A. R. (2017). Social cognition and bipolar
disorder: A preliminary study.HEuropean Psychiatry, 41S, S405–
S464.Hhttp://dx.doi.org/10.1016/j.eurpsy.2017.01.396
Ribeirinho Marques, A., Veludo Chai, M., Cintra, P., Gonçalves, V., Esteves de Sousa, D.,
Albuquerque, M., & Nuno Costa, M. (2017). Aviation mental disordersH–HAn in-flight
case of mania.HEuropean Psychiatry,H41(S1), S426-
S426.Hhttps://doi.org/10.1016/j.eurpsy.2017.01.398
von dem Knesebeck, O., Mnich, E., Angermeyer, M. C., Kofahl, C., & Makowski, A. (2015).
Changes in depression stigma after the germanwings crash – findings from german
population surveys.HJournal of Affective Disorders,H186, 261-
265.Hhttps://doi.org/10.1016/j.jad.2015.07.029
Wu, P., & Yang, C. (2021). Sustainable development in aviation logistics: Successful drivers and
business strategies. Business Strategy and the Environment, 30(8), 3763-3771.
https://doi.org/10.1002/bse.2838