A framework based IOHT for comprehensive, intelligent, and adaptive solution in the health domain
Metadatos
Mostrar el registro completo del ítemAutor
Bahbouh, Nour MahmoudEditorial
Universidad de Granada
Departamento
Universidad de Granada. Programa de Doctorado en Tecnologías de la Información y la ComunicaciónFecha
2025Fecha lectura
2025-02-14Referencia bibliográfica
Bahbouh, Nour Mahmoud. A framework based IOHT for comprehensive, intelligent, and adaptive solution in the health domain. Granada: Universidad de Granada, 2024. [https://hdl.handle.net/10481/102871]
Patrocinador
Tesis Univ. Granada.Resumen
Life and happiness are directly related to health, so we can state that nothing is more important. The
healthcare system and its improvements serve as key indicators of social progress and the level of care for
individuals. Therefore, the healthcare sector has attracted significant attention from researchers after the
digital revolution and important advancements in technological tools. One of the latest technologies and
concepts is the Internet of Healthcare Things (IoHT) / Internet of Medical Things (IoMT), which acts as
an umbrella for all stages of development in this sector, starting from E-Health, then M-Health, S-Health,
followed by I-Health, U-Health, and finally reaching IoHT. Even though IoHT has introduced many smart
applications based on the Internet of Things and artificial intelligence, all healthcare systems, even the
most advanced ones, faced challenges during the real test of the COVID-19 pandemic. This thesis analyzes
the challenges faced by healthcare systems based on IoHT. These challenges have impacted the ability of
systems to deal with pandemics, affected the effectiveness of healthcare systems, and threatened their
future. The thesis addresses the different challenges that are extremely important, given the sector in which
they are applied, i.e. the health field. The challenges addressed are:
1- The most significant challenge is the lack of a comprehensive unified platform or framework in
the healthcare sector. Instead, there are thousands of independent services, applications, and
systems addressing various health-related issues or problems.
2- Providing reliable real-time data from different sources to ensure effective solutions through the
utilization of data science, artificial intelligence, algorithms, and associated models.
3- Performance and responsiveness to emergency cases, requiring computational power to process
large volumes of data generated from various data sources.
4- Availability of services and mobility regardless of circumstances.
5- Interoperability at the device, service, protocol, and heterogeneous data levels, hindering the ability
to collaborate and integrate various healthcare services and systems.
6- Data security and reliability, a major issue for all modern technologies, gaining importance with
the sensitivity of healthcare data and services.
7- Data privacy, is one of the biggest challenges in the healthcare sector due to the nature of data and
its significant connection to users, in addition to the need to maintain the accuracy of healthcare
data while protecting it.
8- Pandemics, revealed weaknesses in healthcare systems' response to pandemics and the absence of
specific protocols for pandemic management.
9- Mass gatherings health, not adequately addressed despite a significant increase in large-scale
events in recent years across various domains (religious, cultural, political), complicating matters
during pandemics and resulting in the deaths of thousands.
10- Special attention to people with disabilities, the elderly, and those with chronic diseases, as they
require special services and treatment to create effective systems enabling them to lead their daily
lives normally.
11- Society and the environment, with little focus on community awareness and the need to address
issues of pollution, energy, and plant and animal health.
We wanted our thesis to be a humanitarian message addressing all the previous points, not just focusing
on one aspect. To ensure the validity of our claim in the main message goal, which is to build a
comprehensive framework based on IoHT to create effective and resilient healthcare systems capable of
withstanding pandemics and other challenges while ensuring the security and privacy of its users.
As part of the sub-objectives of the message, we worked extensively and in-depth on the eleven
aforementioned challenges. We reviewed existing solutions for each challenge, discussed their
weaknesses, and presented our solution in a way that does not negatively impact other challenges.
To address the first, second, third, and fourth challenges, we designed a comprehensive framework
consisting of five integrated layers, each layer having its elements and functions that collectively contribute
to solving one or more challenges. Most modern technologies have been employed in the proposed
framework, including but not limited to (Internet of Things, Crowdsourcing, Computing models, Drones,
Smart phones and smart devices, Data sciences and Artificial Intelligent Algorithms).
• The first layer was the Sensing Layer responsible for providing data from multiple sources (IoT
devices such as RFID tags or wireless mesh sensors, wearable sensors, smartphones, social media,
and crowdsourcing from users themselves to provide real-time data from everywhere, in addition
to data from healthcare systems, applications, and services).
• The second layer was Fog Computing to alleviate the burden on the cloud by performing initial
data processing locally and providing real-time response without delay, especially in emergencies.
The integration between fog and cloud computing had a positive impact in mitigating all other
challenges, especially availability and mobility.
• The third layer was a proposed Intermediate Computing layer called Light Cloud, stronger than
fog and faster than the cloud, to better distribute the workload create Federated Learning for
aggregated data and better manage fog nodes. Additionally, this layer supports Mobility by
providing mobile edge facilities and relying on drones in many services.
• The fourth layer is the Cloud responsible for aggregating all data from the other layers and
providing immense computing power to execute data science algorithms, including data mining,
machine learning, text mining, and deep learning, in addition to artificial intelligence algorithms
and tools. This layer has contributed to preserving data permanently to form historical data that,
through analysis, can yield a wealth of knowledge and rules supporting healthcare management
and government decisions, as well as improving the adaptability and intelligence of healthcare
services.
• The fifth layer is the Services and Applications layer, and the concept of a Super App for Health
has been proposed, where all healthcare services can be provided through one comprehensive
application. The Super App will contribute to creating fair competition among service providers to
deliver better quality services, enabling Auto-Selection for the best service for the user based on
their preferences, context, service quality, and evaluation.
The solution of the fifth challenge, interoperability and resolving the issue of heterogeneous data, involved
categorizing all solutions proposed in the field of interoperability in a survey. Solutions spanned all levels
of interoperability (hardware, protocols, formats and syntax, databases, data, and semantics). In reality,
there is no single comprehensive solution, so we proposed a hybrid approach integrating multiple
solutions, along with suggesting the design of a comprehensive ontology to unify new systems and services
and support interoperability between them. For legacy systems, a service based on TM was proposed to
transform messages from these systems to align with the Ontology.
The sixth challenge, data security, and trustworthiness saw the best-proposed solutions in previous
research relying on Blockchain. However, the challenge was that current consensus algorithms were not
suitable for operation during pandemics. Therefore, a survey of consensus algorithms was conducted,
leading to the proposal of a new consensus algorithm called Proof of Reputation, suitable for healthcare
services, providing trustworthy data that is tamper-proof and non-repudiable. Additionally, the
decentralized nature of blockchain was compatible with fog computing, offering a higher level of data
protection. Furthermore, for highly sensitive and confidential data, a new lightweight and highly secure
obfuscation method was proposed, surpassing other methods in terms of trust, robustness, performance,
and resistance to attacks. The seventh challenge, data privacy, involved reviewing all major approaches to privacy protection and
their associated methods such as Dummy, obfuscation, Third Trusted Party, Cloak Area, Mix Zone, Private
Information Retrieval, and Encryption. All these methods suffer from drawbacks related to their impact
on data accuracy or performance, which is unacceptable in the healthcare sector. A special approach to
privacy protection was proposed that preserves data accuracy without a significant impact on performance.
Additionally, a specific approach for privacy protection of Crowdsourcing data was suggested to
encourage users and volunteers to contribute to data provision while maintaining privacy.
The eighth challenge, specifically addressing pandemics, proposed a special protocol for operation within
this framework. The protocol considers providing specialized services and supporting early warnings to
take necessary precautions through threat-level classification algorithms or infection assessment.
Additionally, it emphasizes the role of mobile health centers, remote healthcare services, and reliance on
drones and volunteers, as well as enhancing health awareness and social distancing during pandemics. All
of the above was implemented while ensuring the reliability of aggregated data, preventing rumors during
pandemics, and preserving individuals' privacy.
The ninth challenge is enhancing health and safety during gatherings. Previous research has predominantly
focused on addressing crowd congestion and safety more than health concerns. However, following
COVID-19, the importance of health measures within crowds became evident, necessitating solutions for
effectively managing crowds while ensuring both health and safety. Integration of various solutions within
a general framework was proposed, along with a specialized lightweight monitoring algorithm based on
ML and TM. Additionally, smart sanitization and smart alert solutions were suggested, along with a mobile
application to provide services specifically for participants in gatherings. Smart gates and digital pathways
were also proposed for effectively controlling crowd flow.
The tenth challenge involves catering to individuals with special needs by allocating a set of services
tailored to them, along with early detection services for chronic diseases and services for the elderly and
children as well.
The eleventh challenge focuses on community and environmental care. A platform to support community
health awareness with a search engine for health issues (diseases, health centers, medications, and health
articles) was proposed. Additionally, an application was developed to manage the blood donation process
and provide timely blood supply. Furthermore, a service to promote volunteering in first aid was
introduced. Moreover, efforts are underway to enhance plant health, and a platform for waste management
and pollution reduction is being developed.
Finally, we pointed out some future work and areas where further contributions can be made to provide
additional solutions.