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The Crucial Role of Interdisciplinary Conferences in Advancing Explainable AI in Healthcare

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01 January 2024

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03 January 2024

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Abstract
Interdisciplinary conferences play a vital role in advancing explainable Artificial Intelligence (AI) within increasingly intersecting healthcare and computational biology arenas. Challenges result-ing from algorithmic bias and the necessity for domain-specific Explainable AI (XAI) techniques underscore the increasing significance of transparent and interpretable AI systems used in patient care. Collaborative efforts between clinicians, data scientists, and various stakeholders are nec-essary to innovate solutions tailored to healthcare needs. Specialized conferences may foster these interdisciplinary interactions, providing platforms for knowledge exchange, networking, and collaborative partnerships. The legal, ethical, and societal dimensions of medical AI advocate for an integrative approach that aligns technological advancements with patient-centered care val-ues. The role of specialized conferences is therefore essential for shaping future directions in ex-plainable AI and computational biology that contribute to improved patient outcomes and healthcare innovations.
Keywords: 
Subject: Public Health and Healthcare  -   Other

1. Introduction

As new technologies and software aid in the push toward realization of personalized medicine, computational biology emerges as integral practice for revealing the complexity of biomedical interactions.[1,2] Large collections of patient data offer genomic, proteomic, metabolomic, and histopathological insight. When analyzed in concert, newly elucidated cellular interactions reveal novel treatment targets and disease mechanisms. In turn, a growing recognition of the need for transparency and interpretability in AI systems has spurred collective collaboration between clinicians, data scientists, and their associated stakeholders (i.e., software engineers, quality engineers, electrical engineers).[3]
As machine learning (ML) models became more complex and harder to interpret, the need for XAI, particularly when used in healthcare, has grown.[4,5] ML models are often seen as "black-boxes" due to the difficulty that arises in attempting to understand the pathway leading to a computational prediction. Though model-derived outputs may align with clinical guidelines, the algorithmic 'reasoning' behind ML predictions is often opaque and indecipherable.[6] To align with the evidence-based framework of healthcare, the decisions of computer aided diagnostic (CAD) tools must be seamlessly interrogable by the clinicians who utilize them in practice.[7,8]
XAI aims to overcome black-box opacity to reveal how ML predictions are made.[7,8,9] In the realm of healthcare, explainability and accountability are not only desirable but also legally required for AI systems that can have a significant impact on human lives.[8] The clinical impact of algorithmic bias for minority cohorts and others that are underrepresented in data used in algorithm training is also of growing concern.[8]
The majority of the state-of-the-art interpretable ML methods are domain-agnostic. Having evolved from fields such as computer vision, automated reasoning, or statistics, direct application to bioinformatics problems is challenging without customization and domain adaptation.[8] Recent years have seen rise in development of domain-specific XAI techniques tailored to healthcare and computational biology applications.[5,10] These techniques aim to address the unique challenges in these fields, such as the need for accurate and interpretable models, the integration of data from multiple sources, and the management and analysis of large datasets.[5] Despite the progress made in XAI research, there is still much work to be done in developing effective and transparent AI systems that are specifically tailored to healthcare and computational biology applications.
Challenges such as the development of domain-specific XAI techniques and the need for legal and ethical guidelines for the use of AI requires a multidisciplinary approach. As AI is increasingly utilized in patient care as co-pilot to physician-centric diagnostic, prognostic, and therapeutic applications, a host of medical, legal, ethical, and societal questions are invoked in consideration of the implications of XAI for the future of healthcare.[4,5,6,11] All stakeholders, including healthcare professionals, computational biologists, and policymakers, are increasingly compelled to understand each other's domain in order to innovate a solution.[12,13,14,15,16,17]
Specialized conferences play a crucial role in fostering interdisciplinary interactions, serving as platforms where experts from diverse fields can come together to share their research, exchange ideas, and form collaborative partnerships.[18,19,20] Through such collaborative ventures may transparency and interpretability of AI systems be advanced in healthcare and computational biology arenas.
Conferences are not limited to scientific presentations of research to the wider community, rather extend to offer an important venue for brainstorming, networking, and making vital connections that can lead to new initiatives, publications, and funding.[19] They facilitate exchanges across universities and institutions, allowing for the combination of resources and experiences that can further specific research efforts and science in general.[19]
However, the interdisciplinary nature of these conferences also presents certain challenges. For instance, individual expertise reflects what a specific field values, relevant problem spaces and worthwhile problems to pursue, the constitution of data within that field, and how that data is collected and disseminated. Therefore, although interdisciplinary collaborations are powerful because they unite disparate disciplines, the very nature of being interdisciplinary requires overcoming an array of barriers.[21]
These barriers can include difficulties in receiving funding for interdisciplinary research, the predominance of specialized journals and conferences that contribute to professional disciplinary siloing, and the need for researchers to step outside of their comfort zones and interact with researchers from other disciplines.[18,21] Despite these challenges, specialized conferences such as the ISCB GLBIO (Great Lakes Bioinformatics Conference, hosted by the International Society for Computational Biology) and the International Conference on Medical Image Computing and Computer Assisted Intervention (MICCAI) continue to play a vital role in fostering interdisciplinary collaboration and innovation in healthcare and computational biology.[18,19,20,21]

2. Current Challenges in Explainable AI and Computational Biology

While AI has the potential to transform healthcare, its application in healthcare is fraught with challenges. These challenges span various levels of AI adoption, including data collection, technological development, clinical application, ethical and societal concerns.[22,23,24,25,26]
AI models that lack transparency are often developed by non-medical professionals. A lack of control may result over the derivation of model results by end users, such as healthcare providers and patients.[24]
AI systems require large amounts of data, and the quality and availability of this data is crucial for the performance of these systems. However, datasets used to develop AI systems often include unforeseen gaps, despite intensive attempts to clean and analyze the data. Issues with regulation and compatibility across institutions also constrain the amount of data that can be utilized to develop efficient algorithms.[23]
The implementation of AI in clinical settings is also stymied by a lack of empirical data validating the effectiveness of AI-based interventions in planned clinical trials. Most research on AI's application has been conducted in non-clinical settings, making it challenging to generalize research results,[23] also raising questions about safety and efficacy.[26] Some argue that the opaque nature of many AI systems implies that physicians and patients cannot and should not rely on the results of such systems. In contrast, others oppose the central role of explainability in AI. However, sufficient explanations of AI models allow medical doctors to comprehend and trust AI-based clinical decision support systems.[27,28,29]
Logistical difficulties in implementing AI systems in healthcare include barriers to adoption and the need for sociocultural or pathway changes.[22] There are also challenges related to the internal capacity for strategic change management and the transformation of healthcare professions and healthcare practice.[25]
Ethical and societal concerns, including issues related to privacy, consent, and the patient right to choose their treatment and its delivery, pose additional challenges.

2.1. Legal Implications

There is a current paucity of well-defined regulations that specifically address issues which may arise due to the use of AI in healthcare settings.[30] This includes concerns about safety and effectiveness, liability, data protection and privacy, cybersecurity, and intellectual property law.[31] For instance, the sharing of responsibility and accountability when the implementation of an AI-based recommendation causes clinical problems is not clear.[32]

2.2. Ethical Implications

Ethical dilemmas in the application of AI in healthcare encompass a broad range of issues, including privacy and data protection, which are paramount due to the sensitive nature of personal health information. Informed consent is also critical, as patients must understand and agree to the use of AI in their healthcare procedures, recognizing the implications and outcomes associated with these technologies. Social gaps, characterized by disparities and inequalities within healthcare systems and broader society, may be intensified by the introduction of AI. For example, healthcare access disparities can result in unequal medical AI distribution across different socioeconomic populations and healthcare systems, potentially widening existing health inequities.
Furthermore, the incorporation of AI in healthcare raises questions about the preservation of medical consultation, which traditionally involves nuanced human interaction and shared decision-making between a patient and a healthcare provider. The personal touch of empathy and sympathy, which are foundational to patient care, may not be fully replicable by AI systems. While AI can enhance diagnostic and treatment processes, it is crucial to maintain the human elements of understanding and compassion that are integral to the healing process. It is also important to ensure that AI supports, rather than replaces, the human-centric aspects of medical consultation, allowing for the continuation of personalized care that addresses individual patient needs and concerns.[33] There are also concerns about intrinsic biases in the data used in AI system tests, which can lead to poor or negative outcomes.[34] The principles of medical ethics, including autonomy, beneficence, nonmaleficence, and justice, should be emphasized before integrating AI into healthcare systems.[11,33]

2.3. Societal Implications

AI can lead to healthcare inequities through biased data collection, algorithm development, and a lack of diversity in training data.[35] Such inequities may lead to automation bias, which can lead to discrimination and inequity at great scale.[36] Furthermore, the rapid and commercial development of AI could challenge known methods, protocols, standards and regulatory measures that govern the development, deployment, and management of technology in healthcare settings. This could necessitate new national and international regulations to ensure that AI is developed and used ethically, safely, and equitably in healthcare.[11] Ensuring ethical and legal implementation of AI, with consideration to societal implications, requires continuous attention and thoughtful policy.[37]
To ensure that AI-powered decision aids uphold the principles of patient-centered care, they must be developed with a focus on patient engagement and autonomy. Patient-centered care treats individuals as active participants in their health management, where their preferences and values guide clinical decisions. Trust in AI systems, then, hinges on their ability to operate transparently and provide explanations that patients can understand. Only with such clarity can patients confidently and independently choose to accept the recommendations provided by AI.[6]

2.4. Bridging the Gap with Computational Biology

The convergence of computational biology with clinical practice is essential for translating vast data science insights into medical advancements. With the emergence of high-throughput technologies which generate massive amounts of data requiring advanced data analysis techniques, the lines between bioinformatics and data science have become increasingly indistinct. Both fields now share common methodologies and tools to manage, analyze, and interpret large datasets (Table 1).
As the field of life sciences shifts towards a more data-centric, integrative, and computational approach, it's becoming imperative for biomedical researchers to develop proficiency in bioinformatics to keep pace with this evolution.[38]
Skill gaps in this proficiency now threaten the progress of modern research and fuel a global need for bioinformatics education and training. Bridging this gap is critical to the advancement of research and the pharmaceutical and biopharmaceutical industries.[38]
Policy makers and research funders should acknowledge the existing gap between the 'two cultures' of clinical informatics and data science. The full social and economic benefits of digital health and data science can only be realized by accepting the interdisciplinary nature of biomedical informatics and supporting a significant expansion of clinical informatics capacity and capability.[39]

3. The Importance of Interdisciplinary Collaboration

Interdisciplinary collaboration is crucial for the development and implementation of robust and effective solutions in healthcare AI. This approach brings together diverse expertise, including physicians, researchers, technologists, and policymakers, to refine AI algorithms, validate their clinical utility, and address the ethical and regulatory challenges associated with their implementation.[40]

3.1. Case Studies and Examples

3.1.1. Human-in the loop (HITL) Approach

  • Sezgin, E. emphasizes the importance of a HITL approach in healthcare AI, where AI systems are guided, communicated, and supervised by human expertise. This approach ensures safety and quality in healthcare services. Therefore, there is a need for multidisciplinary teams to explore and evaluate cost-effective and impactful collaborative AI solutions and establish HITL protocols.[41]

3.1.2. Interdisciplinary Research in Digital Health

  • Krause-Jüttler, G. et. al produced a case study on two interdisciplinary research projects involving 20 researchers from medicine and engineering sciences working jointly on digital health solutions. The study identified factors at the individual, team, and organizational levels that influence the implementation of interdisciplinary research projects.[42]

3.1.3. Intelligent Tutoring System for Medical Students

  • Bilgic, E. and Harley, JM. offer an example of successful interdisciplinary collaboration: an intelligent tutoring system designed to help medical students with their diagnostic reasoning skills through virtual patient cases. This project brought together individuals from different disciplines, demonstrating the potential of interdisciplinary teams to produce and deliver AI-enhanced education effectively.[43]

3.1.4. Quality Management Systems (QMS) in Healthcare AI

  • The integration of QMS principles into the life cycle of AI technologies within healthcare settings can close the AI translation gap by establishing a robust framework that accelerates the safe, ethical, and effective delivery of AI in patient care. Implementing a QMS requires adaptability, customization, and interdisciplinary collaboration, fostering awareness, education, and organizational change.[44,45]
Interdisciplinary collaboration is key to addressing the challenges and providing constructive solutions for the successful implementation of AI in healthcare. It ensures appropriate cooperation between computer scientists and healthcare providers, and fosters collaboration among multiple healthcare settings to share data, ensure its quality, and verify analyzed outcomes.[46]
Moreover, Interdisciplinary collaboration can help manage and optimize the utilization of equipment, beds, and staff by providing predictive insights, which is particularly valuable in healthcare settings where resources are often strained.[47]
Cross-disciplinary collaboration can be highly rewarding, yet challenging. We propose a series of best practices for successful cross-disciplinary collaboration based on research findings (Table 2)).
Successful cross-disciplinary collaboration requires open-mindedness, effective communication, clear roles and responsibilities, good leadership, and a commitment to reproducible science. By following these best practices, researchers can overcome the challenges associated with cross-disciplinary research and reap the benefits of this collaborative approach.[55,67,68]

3.2. The Role of Academia, Industry, and Healthcare Professionals

Academia, industry, and healthcare professionals all play essential roles in fostering interdisciplinary collaboration in healthcare AI.

3.2.1. Academia

Academic institutions are responsible for providing education and training in AI and related fields, as well as conducting research to advance the understanding and application of AI in healthcare.[69] They can facilitate interdisciplinary collaboration by offering joint programs, courses, and research projects that bring together students and faculty from diverse disciplines including medicine, computer science, engineering, and ethics.[70,71] By promoting interdisciplinary education and research, academia can help bridge the gap between data science and clinical applications, ensuring that AI technologies are developed and implemented effectively in healthcare settings.[71]

3.2.2. Industry

Industry partners, including technology companies and healthcare organizations, play a crucial role in the development, implementation, and evaluation of AI solutions in healthcare.[72] They can collaborate with academia and healthcare professionals to identify real-world problems, provide resources and expertise, and support the translation of research findings into practical applications.[72,73] Industry partners can also contribute to interdisciplinary collaboration by participating in conferences, workshops, and other events that bring together experts from different fields to share knowledge and ideas.[73]

3.2.3. Healthcare Professionals

Healthcare professionals, such as physicians, nurses, and allied health professionals (diverse group of health care experts distinct from nursing, medicine, and pharmacy, who provide a range of diagnostic, technical, therapeutic, and support services in patient care), are essential for the successful implementation of AI in healthcare. They can provide valuable contextual insights to identify relevant clinical problems, and contribute to the development and evaluation of AI solutions.[74] Healthcare professionals can also play a crucial role in promoting interdisciplinary collaboration by participating in research projects, sharing their expertise with academic and industry partners, and advocating for the integration of AI in healthcare practice.[74,75]

4. The Role of Conferences in Fostering Collaboration and Innovation

Conferences are vital for interdisciplinary knowledge exchange, fostering global connections, and forming professional networks.[76,77,78] Researchers present studies, gaining diverse perspectives and critiques.[77] Interactive sessions, incorporating technology and sustainability, offer practical insights (Table 3).[79]
Academic conferences, as platforms of situated learning, facilitate research sharing and agenda setting.[80] Networks formed impact access to resources.[78] They enable relationship building for researchers at different career stages, enhancing social trust.[78] Virtual conferences increase accessibility and inclusivity, extending reach and promoting diverse participation.[77] Speakers play a key role in audience engagement and innovation, adapting content for interactivity.[81] ISCB's GLBIO conference series has evolved to meet field demands, offering fellowship awards for diversity and managing a 'signature style' to handle organizational complexities.[79] The shift to virtual formats has broadened accessibility and representation, enriching discussions with diverse research and viewpoints[76].
These sessions provide opportunities for more in-depth discussions and hands-on experiences, fostering innovation and collaboration among participants.
In response to the global pandemic, GLBIO 2021 was held as a virtual event, demonstrating the conference's adaptability to changing circumstances.[82,83] This shift to a virtual format allowed for broader participation, especially from individuals who might not have been able to attend in person.
GLBIO has also incorporated novel approaches to encourage communication and foster collaborations. For example, a "matchmaking" session was introduced during GLBIO 2017, which was well-received and led to plans for similar sessions at future conferences.[84]
In addition, GLBIO has made efforts to promote diversity and inclusivity. Special consideration is given to first-time attendees, women, undergraduate or high school students, underrepresented minorities, and students with disabilities.[85]

5. Looking Forward: Future Directions and Innovations

Explainable AI (XAI) and computational biology are two rapidly evolving fields that are expected to bring significant advancements in the future.

5.1. Future Trends in Explainable AI

Explainable AI aims to make the decision-making process of AI models transparent and understandable. This is particularly important in healthcare, where the decisions made by AI can have significant impacts on patient outcomes.[6,11,27,86]
One of the key future trends in XAI is the development of models that can provide sufficient explanations to allow medical professionals to trust and comprehend AI-based clinical decision support systems.[27] This is crucial as the lack of explainability in AI systems has been identified as a potential threat to core ethical values in medicine.[6]
Moreover, the future of XAI in healthcare is expected to focus on addressing the interdisciplinary nature of explainability, which involves medical, legal, ethical, and societal considerations.[6] This will require fostering multidisciplinary collaboration and sensitizing developers, healthcare professionals, and legislators to the challenges and limitations of opaque algorithms in medical AI.[6]

5.2. Future Innovations in Computational Biology

The field is expected to continue to broaden its reach into new areas of research and development.[2] As we enter a period of unparalleled data accumulation and analysis, computational biology will undoubtedly continue to contribute to important advances in our understanding of molecular systems.[1] The success and wide acceptance of open data projects will impact how the general public sees computational biology as a field.[1]

5.3. Healthcare 5.0 and Explainable AI

Healthcare 5.0 is a vision for the future of healthcare that focuses on real-time patient monitoring, ambient control and wellness, and privacy compliance through assisted technologies.[87] Explainable AI (XAI) has emerged as a critical component in the evolution of healthcare, particularly in the context of Healthcare 5.0, where it plays a pivotal role in unlocking opportunities and addressing complex challenges.[88] XAI aims to produce a human-interpretable justification for each output, increasing confidence if the results appear plausible and match the clinicians' expectations.[87]
In the context of Healthcare 5.0, XAI can assist in finding suitable libraries that support visual explainability and interpretability of the output of AI models.[87] For instance, in medical imaging applications, end-to-end explainability can be provided through AI and federated transfer learning.[87]

5.4. Balancing Explainability and Accuracy/Performance in Future AI Models

The balance between explainability and accuracy/performance in future AI models is a critical consideration. More complex systems are capable of modeling intricate relationships in data, leading to higher accuracy, but their complexity often makes them less interpretable.[89] This trade-off between accuracy and explainability is a significant concern, especially for complex machine learning techniques like neural networks and deep learning.[90]
Research has shown that while professionals and the public value the explainability of AI systems, they may value it less in healthcare domains when weighed against system accuracy.[89] Van der Veer SN et al found that 88% of responding physicians preferred explainable over non-explainable AI, but without asking respondents to make the trade-off between explainability and accuracy.[89]
However, the absence of a plausible explanation does not imply an inaccurate model.[87] Therefore, instead of setting categorical rules around AI explainability, policymakers should consider the context and the specific needs of the application.[89]
The future of healthcare and research is poised to be significantly influenced by advancements in AI, computational biology, and their integration into various fields. These advancements are expected to revolutionize drug discovery, disease diagnosis, treatment recommendations, and patient engagement.[10,46,91,92,93,94]
One of the most promising areas of exploration is the application of AI and computational biology in drug discovery. AI can transform large amounts of aggregated data into usable knowledge, which can expedite the process of drug discovery and optimization.[10,91,94,95] For instance, the system known as Reinforcement Learning for Structural Evolution (ReLeaSE), implemented at the University of North Carolina, has shown potential in this area.[95] Furthermore, AI can handle the complex relationship between input and output variables for high-dimensional data, which is crucial in drug discovery.[10]
In addition to drug discovery, AI and computational biology are also being applied in the analysis of Whole Slide Images (WSIs) for tumor detection and segmentation, among other applications.[96,97]
Technological advancements in AI and data science are expected to continue at a rapid pace, with the AI-associated healthcare market projected to grow significantly.[98,99] These advancements are not only revolutionizing healthcare but also transforming the practice of medicine.[46,74,100,101]
Future research topics and areas of exploration are likely to focus on the ethical, legal, and societal challenges posed by the rapid advancements in AI. Addressing these challenges will require a multidisciplinary approach and the development of more rigorous AI techniques and models.[46,102,103]
Conferences and special issues of journals will play a crucial role in shaping these future directions. For instance, the Journal of Biomedical and Health Informatics is currently accepting submissions for special issues on topics such as "Ethical AI for Biomedical and Health Informatics in the Generative Era" and "Advancing Personalized Healthcare: Integrating AI and Health Informatics".[103] These platforms provide opportunities for interdisciplinary collaboration between AI experts, computer scientists, healthcare professionals, and informatics specialists, vital for the development of robust AI systems and ethical guidelines.[46,103]

6. Conclusions

AI's application in healthcare demands transparency and explainability to address legal, ethical, and societal concerns, especially in clinical decision-making and patient care.[71,72,73,74] The integration of AI and computational biology into healthcare and research holds immense potential for accelerating discoveries, improving diagnostics, and enhancing patient care. However, it also poses significant challenges that need to be addressed through continued research, innovation, and interdisciplinary collaboration.[46,102,103] Computational biology is pivotal in linking data science to clinical applications, necessitating interdisciplinary collaboration and training.[16] Conferences are key for collaboration and innovation, uniting experts across fields, enabling knowledge exchange, and stimulating idea sharing.[46,72,73,74] They are vital for academic progress, research refinement, and fostering real-world impacts. The role of academia, industry, and healthcare professionals in fostering interdisciplinary collaboration is crucial for effective AI implementation in healthcare. The future of explainable AI and computational biology is promising, with significant advancements expected in the development of transparent AI models and new computational methods for biological research. The future of XAI and computational biology in the context of Healthcare 5.0 will likely involve a careful balance between explainability and accuracy, with the ultimate goal of enhancing patient outcomes and upholding the essential elements of compassion, empathy, and ethical considerations that define the core of healthcare.[88] These advancements will likely have a profound impact on healthcare and biological research, leading to a deeper understanding of biological systems and improved patient outcomes.[71,72,73,74,75]

Author Contributions

“Conceptualization, A.U.P., Q.G., R.E., D.M., and N.M.; methodology, A.U.P., Q.G., D.M., N.M.; A.U.P., Q.G., R.E.; writing—original draft preparation, A.U.P., Q.G., R.E., D.M., N.M.; writing—review and editing. All authors have read and agreed to the published version of the manuscript.

Funding

This research received no external funding

Conflicts of Interest

The authors declare no conflicts of interest.

References

  1. Fogg CN, Kovats DE. Computational Biology: Moving into the Future One Click at a Time. PLoS computational biology. 2015;11(6):e1004323. [CrossRef]
  2. Mac Gabhann F, Pitzer VE, Papin JA. The blossoming of methods and software in computational biology. PLoS computational biology. 2023;19(8):e1011390. [CrossRef]
  3. Journal of Proteomics & Bioinformatics. Innovations On Computational Biology. Updated 12/15/2023. Accessed 12/15/2023. Available online: https://www.longdom.org/peer-reviewed-journals/innovations-on-computational-biology-12981.html.
  4. Confalonieri R, Coba L, Wagner B, Besold TR. A historical perspective of explainable Artificial Intelligence. WIREs Data Mining and Knowledge Discovery. 2021;11(1). [CrossRef]
  5. Xu F, Uszkoreit H, Du Y, Fan W, Zhao D, Zhu J. Explainable AI: A Brief Survey on History, Research Areas, Approaches and Challenges. In: Tang J, Kan M-Y, Zhao D, Li S, Zan H, eds. Natural language processing and Chinese computing. Springer; 2019:563–574. Lecture Notes in Computer Science.
  6. Amann J, Blasimme A, Vayena E, Frey D, Madai VI. Explainability for artificial intelligence in healthcare: a multidisciplinary perspective. BMC medical informatics and decision making. 2020;20(1):310. [CrossRef]
  7. Chaddad A, Peng J, Xu J, Bouridane A. Survey of Explainable AI Techniques in Healthcare. Sensors (Basel, Switzerland). 2023;23(2). [CrossRef]
  8. Karim MR, Islam T, Shajalal M, et al. Explainable AI for Bioinformatics: Methods, Tools and Applications. Briefings in bioinformatics. 2023;24(5). [CrossRef]
  9. Kurdziolek M. Explaining the hard to explain: An overview of Explainable AI (XAI) for UX. 2022.
  10. Zhang Y, Luo M, Wu P, Wu S, Lee T-Y, Bai C. Application of Computational Biology and Artificial Intelligence in Drug Design. International journal of molecular sciences. 2022;23(21). [CrossRef]
  11. Al Kuwaiti A, Nazer K, Al-Reedy A, et al. A Review of the Role of Artificial Intelligence in Healthcare. Journal of personalized medicine. 2023;13(6). [CrossRef]
  12. Computing NRCCoFaIo, Biology. Challenge Problems in Bioinformatics and Computational Biology from Other Reports. In: Wooley JC, Lin HS, eds. Catalyzing Inquiry at the Interface of Computing and Biology. National Academies Press (US); 2005.
  13. Nussinov R. Advancements and challenges in computational biology. PLoS computational biology. 2015;11(1):e1004053. [CrossRef]
  14. Samuriwo R. Interprofessional Collaboration-Time for a New Theory of Action? Frontiers in medicine. 2022;9:876715. [CrossRef]
  15. Warren JL, Warren JS. The Case for Understanding Interdisciplinary Relationships in Health Care. Ochsner journal. 2023;23(2):94–97. [CrossRef]
  16. Williams, P. Williams P. Challenges and opportunities in computational biology and systems biology. Int J Swarm Evol Comput. 12(2):304. [CrossRef]
  17. Zajac S, Woods A, Tannenbaum S, Salas E, Holladay CL. Overcoming Challenges to Teamwork in Healthcare: A Team Effectiveness Framework and Evidence-Based Guidance. Frontiers in Communication. 2021;6. [CrossRef]
  18. Ghosh R. Guest Post - The Paradox of Hyperspecialization and Interdisciplinary Research. Updated 10/11/2023. Accessed 12/15/2023. Available online: https://scholarlykitchen.sspnet.org/2023/08/29/guest-post-the-paradox-of-hyperspecialization-and-interdisciplinary-research/.
  19. Oester S, Cigliano JA, Hind-Ozan EJ, Parsons ECM. Why Conferences Matter—An Illustration from the International Marine Conservation Congress. Frontiers in Marine Science. 2017;4. [CrossRef]
  20. Sarabipour S, Khan A, Seah YFS, et al. Changing scientific meetings for the better. Nature human behaviour. 2021;5(3):296–300. [CrossRef]
  21. Daniel KL, McConnell M, Schuchardt A, Peffer ME. Challenges facing interdisciplinary researchers: Findings from a professional development workshop. PLoS One. 2022;17(4):e0267234. [CrossRef]
  22. Kelly CJ, Karthikesalingam A, Suleyman M, Corrado G, King D. Key challenges for delivering clinical impact with artificial intelligence. BMC medicine. 2019;17(1):195. [CrossRef]
  23. Khan B, Fatima H, Qureshi A, et al. Drawbacks of Artificial Intelligence and Their Potential Solutions in the Healthcare Sector. Biomedical materials & devices (New York, NY). 2023:1–8. [CrossRef]
  24. Mudgal SK, Agarwal R, Chaturvedi J, Gaur R, Ranjan N. Real-world application, challenges and implication of artificial intelligence in healthcare: an essay. The Pan African medical journal. 2022;43:3. [CrossRef]
  25. Petersson L, Larsson I, Nygren JM, et al. Challenges to implementing artificial intelligence in healthcare: a qualitative interview study with healthcare leaders in Sweden. BMC health services research. 2022;22(1):850. [CrossRef]
  26. Sunarti S, Fadzlul Rahman F, Naufal M, Risky M, Febriyanto K, Masnina R. Artificial intelligence in healthcare: opportunities and risk for future. Gaceta sanitaria. 2021;35 Suppl 1:S67-S70. [CrossRef]
  27. He Z, Zhang R, Diallo G, Huang Z, Glicksberg BS. Editorial: Explainable artificial intelligence for critical healthcare applications. Frontiers in artificial intelligence. 2023;6:1282800. [CrossRef]
  28. Pierce RL, van Biesen W, van Cauwenberge D, Decruyenaere J, Sterckx S. Explainability in medicine in an era of AI-based clinical decision support systems. Frontiers in genetics. 2022;13:903600. [CrossRef]
  29. Patel AU, Williams CL, Hart SN, et al. Cybersecurity and Information Assurance for the Clinical Laboratory. The Journal of Applied Laboratory Medicine. 2023;8(1):145-161. [CrossRef]
  30. Naik N, Hameed BMZ, Shetty DK, et al. Legal and Ethical Consideration in Artificial Intelligence in Healthcare: Who Takes Responsibility? Frontiers in surgery. 2022;9:862322. [CrossRef]
  31. Gerke S, Minssen T, Cohen G. Ethical and legal challenges of artificial intelligence-driven healthcare. In: Bohr A, Memarzadeh K, eds. Artificial intelligence in healthcare. Academic Press imprint of Elsevier; 2020:295–336.
  32. Ganapathy K. Artificial Intelligence and Healthcare Regulatory and Legal Concerns. Telehealth and Medicine Today. 2021. [CrossRef]
  33. Farhud DD, Zokaei S. Ethical Issues of Artificial Intelligence in Medicine and Healthcare. Iranian journal of public health. 2021;50(11):i–v. [CrossRef]
  34. Karimian G, Petelos E, Evers SMAA. The ethical issues of the application of artificial intelligence in healthcare: a systematic scoping review. AI and Ethics. 2022;2(4):539–551. [CrossRef]
  35. Jeyaraman M, Balaji S, Jeyaraman N, Yadav S. Unraveling the Ethical Enigma: Artificial Intelligence in Healthcare. Cureus. 2023;15(8):e43262. [CrossRef]
  36. Redrup Hill E, Mitchell C, Brigden T, Hall A. Ethical and legal considerations influencing human involvement in the implementation of artificial intelligence in a clinical pathway: A multi-stakeholder perspective. Frontiers in digital health. 2023;5:1139210. [CrossRef]
  37. Davenport T, Kalakota R. The potential for artificial intelligence in healthcare. Future healthcare journal. 2019;6(2):94–98. [CrossRef]
  38. Attwood TK, Blackford S, Brazas MD, Davies A, Schneider MV. A global perspective on evolving bioinformatics and data science training needs. Briefings in bioinformatics. 2019;20(2):398–404. [CrossRef]
  39. Scott P, Dunscombe R, Evans D, Mukherjee M, Wyatt J. Learning health systems need to bridge the 'two cultures' of clinical informatics and data science. Journal of innovation in health informatics. 2018;25(2):126–131. [CrossRef]
  40. Showalter T. Unlocking the power of health care AI tools through clinical validation. MedicalEconomics. 8/2/2023. Accessed 12/15/2023. Available online: https://www.medicaleconomics.com/view/unlocking-the-power-of-health-care-ai-tools-through-clinical-validation.
  41. Sezgin E. Artificial intelligence in healthcare: Complementing, not replacing, doctors and healthcare providers. Digital health. 2023;9:20552076231186520. [CrossRef]
  42. Krause-Jüttler G, Weitz J, Bork U. Interdisciplinary Collaborations in Digital Health Research: Mixed Methods Case Study. JMIR human factors. 2022;9(2):e36579. [CrossRef]
  43. Bilgic E, Harley JM. Analysis: Using AI in health sciences education requires interdisciplinary collaboration and risk assessment. Updated 12/15/2023. Accessed 12/15/2023. Available online: https://brighterworld.mcmaster.ca/articles/analysis-using-ai-in-health-sciences-education-requires-interdisciplinary-collaboration-and-risk-assessment/.
  44. Overgaard SM, Graham MG, Brereton T, et al. Implementing quality management systems to close the AI translation gap and facilitate safe, ethical, and effective health AI solutions. NPJ digital medicine. 2023;6(1):218. [CrossRef]
  45. Patel AU, Shaker N, Erck S, et al. Types and frequency of whole slide imaging scan failures in a clinical high throughput digital pathology scanning laboratory. Journal of Pathology Informatics. 2022/01/01/ 2022;13:100112. [CrossRef]
  46. Alowais SA, Alghamdi SS, Alsuhebany N, et al. Revolutionizing healthcare: the role of artificial intelligence in clinical practice. BMC medical education. 2023;23(1):689. [CrossRef]
  47. 10 real-world examples of AI in healthcare. Philips. Updated 11/24/2022. Accessed 12/15/2023. Available online: https://www.philips.com/a-w/about/news/archive/features/2022/20221124-10-real-world-examples-of-ai-in-healthcare.html.
  48. Turner R, Cotton D, Morrison D, Kneale P. Embedding interdisciplinary learning into the first-year undergraduate curriculum: drivers and barriers in a cross-institutional enhancement project. Teaching in Higher Education.1-17. [CrossRef]
  49. Rutherford M. Standardized Nursing Language: What Does It Mean for Nursing Practice? OJIN: The Online Journal of Issues in Nursing. Jan. 31 2008;13(1). [CrossRef]
  50. Grandien C, Johansson C. Institutionalization of communication management. Corporate Communications: An International Journal. 2012;17(2):209-227. [CrossRef]
  51. In support of early career researchers. Nature Communications. 2021/05/13 2021;12(1):2896. [CrossRef]
  52. Bolduc S, Knox J, Ristroph EB. Evaluating team dynamics in interdisciplinary science teams. Higher Education Evaluation and Development. 2023;17(2):70-81. [CrossRef]
  53. Ziemann M, Poulain P, Bora A. The five pillars of computational reproducibility: bioinformatics and beyond. Brief Bioinform. Sep 22 2023;24(6). [CrossRef]
  54. Kulkarni N, Alessandrì L, Panero R, et al. Reproducible bioinformatics project: a community for reproducible bioinformatics analysis pipelines. BMC Bioinformatics. 2018/10/15 2018;19(10):349. [CrossRef]
  55. Knapp B, Bardenet R, Bernabeu MO, et al. Ten simple rules for a successful cross-disciplinary collaboration. PLoS computational biology. 2015;11(4):e1004214. [CrossRef]
  56. Sandve GK, Nekrutenko A, Taylor J, Hovig E. Ten Simple Rules for Reproducible Computational Research. PLOS Computational Biology. 2013;9(10):e1003285. [CrossRef]
  57. Nancarrow SA, Booth A, Ariss S, Smith T, Enderby P, Roots A. Ten principles of good interdisciplinary team work. Hum Resour Health. May 10 2013;11:19. [CrossRef]
  58. Kilpatrick K, Paquette L, Jabbour M, et al. Systematic review of the characteristics of brief team interventions to clarify roles and improve functioning in healthcare teams. PLoS One. 2020;15(6):e0234416. [CrossRef]
  59. Wruck W, Peuker M, Regenbrecht CRA. Data management strategies for multinational large-scale systems biology projects. Briefings in Bioinformatics. 2014;15(1):65-78. [CrossRef]
  60. Ng D. Embracing interdisciplinary connections in academia. Nature Microbiology. 2022/04/01 2022;7(4):470-470. [CrossRef]
  61. Nyström ME, Karltun J, Keller C, Andersson Gäre B. Collaborative and partnership research for improvement of health and social services: researcher's experiences from 20 projects. Health Res Policy Syst. May 30 2018;16(1):46. [CrossRef]
  62. Charles CC. Building better bonds: Facilitating interdisciplinary knowledge exchange within the study of the human–animal bond. Animal Frontiers. 2014;4(3):37-42. [CrossRef]
  63. Yeboah A. Knowledge sharing in organization: A systematic review. Cogent Business & Management. 2023/12/31 2023;10(1):2195027. [CrossRef]
  64. Fazey I, Bunse L, Msika J, et al. Evaluating knowledge exchange in interdisciplinary and multi-stakeholder research. Global Environmental Change. 2014/03/01/ 2014;25:204-220. [CrossRef]
  65. Liu F, Lu Y, Wang P. Why Knowledge Sharing in Scientific Research Teams Is Difficult to Sustain: An Interpretation From the Interactive Perspective of Knowledge Hiding Behavior. Original Research. Frontiers in Psychology. 2020-December-08 2020;11. [CrossRef]
  66. Chouvarda I, Mountford N, Trajkovik V, Loncar-Turukalo T, Cusack T. Leveraging Interdisciplinary Education Toward Securing the Future of Connected Health Research in Europe: Qualitative Study. J Med Internet Res. Nov 13 2019;21(11):e14020. [CrossRef]
  67. Ding Y, Pulford J, Crossman S, Bates I. Practical actions for fostering cross-disciplinary research. Updated 4/29/2021. Accessed 12/15/2023. Available online: https://i2insights.org/2020/09/08/fostering-cross-disciplinary-research/.
  68. Stawarczyk B, Roos M. Establishing effective cross-disciplinary collaboration: Combining simple rules for reproducible computational research, a good data management plan, and good research practice. PLoS computational biology. 2023;19(4):e1011052. [CrossRef]
  69. Ng FYC, Thirunavukarasu AJ, Cheng H, et al. Artificial intelligence education: An evidence-based medicine approach for consumers, translators, and developers. Cell reports Medicine. 2023;4(10):101230. [CrossRef]
  70. Kennedy S. Achieving Clinical AI Fairness Requires Multidisciplinary Collaboration. Accessed 12/15/2023. Available online: https://healthitanalytics.com/news/achieving-clinical-ai-fairness-requires-multidisciplinary-collaboration.
  71. Lomis K, Jeffries P, Palatta A, et al. Artificial Intelligence for Health Professions Educators. NAM perspectives. 2021;2021. [CrossRef]
  72. Pantanowitz L, Bui MM, Chauhan C, et al. Rules of engagement: Promoting academic-industry partnership in the era of digital pathology and artificial intelligence. Academic Pathology. 2022;9(1):100026. [CrossRef]
  73. Manata B, Bozeman J, Boynton K, Neal Z. Interdisciplinary Collaborations in Academia: Modeling the Roles of Perceived Contextual Norms and Motivation to Collaborate. Communication Studies. 2023:1–19. [CrossRef]
  74. Bajwa J, Munir U, Nori A, Williams B. Artificial intelligence in healthcare: transforming the practice of medicine. Future healthcare journal. 2021;8(2):e188-e194. [CrossRef]
  75. Connolly C, Hernon O, Carr P, et al. Artificial Intelligence in Interprofessional Healthcare Practice Education – Insights from the Home Health Project, an Exemplar for Change. Computers in the Schools. 2023;40(4):412–429. [CrossRef]
  76. Revisiting the Future of Conferences from an Early Career Scholar Perspective. JSTOR Labs,,. Updated 8/11/2023. Available online: https://labs.jstor.org/blog/revisiting-the-future-of-conferences-from-an-early-career-scholar-perspective/.
  77. Is conference paper valuable? Global Conference Alliance Inc,,. Updated 11/4/2023. Accessed 12/16/2023. Available online: https://globalconference.ca/is-conference-paper-valuable/.
  78. Hauss K. What are the social and scientific benefits of participating at academic conferences? Insights from a survey among doctoral students and postdocs in Germany. Research Evaluation. 2021;30(1):1–12. [CrossRef]
  79. ICCA Congress 2023: Unveiling Innovation & Collaboration. Boardroom. Updated 11/23/2023. Accessed 12/16/2023. Available online: https://boardroom.global/icca-congress-2023-unveiling-innovation-collaboration/.
  80. de Vries B, Pieters J. Knowledge sharing at conferences. Educational Research and Evaluation. 2007;13(3):237–247. [CrossRef]
  81. Speaker Agency. Elevating Events: The Role of Conference Speakers in Engaging Audiences. Updated 12/16/2023. Accessed 12/16/2023. Available online: https://www.speakeragency.co.uk/blog/elevating-events-the-role-of-conference-speakers-in-engaging-audiences.
  82. Great Lakes Bioinformatics (GLBIO) Conference. Institute on the Environment,,. Updated 12/16/2023. Accessed 12/16/2023. Available online: https://environment.umn.edu/event/great-lakes-bioinformatics-glbio-conference/.
  83. GLBIO 2021. International Society for Computational Biology,,. Updated 12/16/2023. Accessed 12/16/2023. Available online: https://www.iscb.org/glbio2021.
  84. Mathé E, Busby B, Piontkivska H. Matchmaking in Bioinformatics. F1000Research. 2018;7. [CrossRef]
  85. GLBIO 2023. International Society for Computational Biology,,. Updated 12/16/2023. Accessed 12/16/2023. Available online: https://www.iscb.org/511-glbio2023.
  86. Ali S, Akhlaq F, Imran AS, Kastrati Z, Daudpota SM, Moosa M. The enlightening role of explainable artificial intelligence in medical & healthcare domains: A systematic literature review. Computers in Biology and Medicine. 2023;166:107555. [CrossRef]
  87. Saraswat D, Bhattacharya P, Verma A, et al. Explainable AI for Healthcare 5.0: Opportunities and Challenges. IEEE Access. 2022;10:84486–84517. [CrossRef]
  88. Date SY, Thalor M. AI in Healthcare 5.0: Opportunities and Challenges. International Journal of Educational and Psychological Sciences. 2023;1(4):189–191. [CrossRef]
  89. van der Veer SN, Riste L, Cheraghi-Sohi S, et al. Trading off accuracy and explainability in AI decision-making: findings from 2 citizens' juries. Journal of the American Medical Informatics Association : JAMIA. 2021;28(10):2128–2138. [CrossRef]
  90. Sengupta P, Zhang Y, Maharjan S, Eliassen F. Balancing Explainability-Accuracy of Complex Models. 2023.
  91. Ferrini A. AI and Computational Biology. Updated 12/16/2023. Accessed 12/16/2023. Available online: https://www.the-yuan.com/70/AI-and-Computational-Biology.html.
  92. Yoon S, Amadiegwu A. AI can make healthcare more accurate, accessible, and sustainable. Updated 12/16/2023. Accessed 12/16/2023. Available online: https://www.weforum.org/agenda/2023/06/emerging-tech-like-ai-are-poised-to-make-healthcare-more-accurate-accessible-and-sustainable/.
  93. AI for Healthcare and Life Sciences. MIT EECS,,. Updated 12/16/2023. Accessed 12/16/2023,. Available online: https://www.eecs.mit.edu/research/explore-all-research-areas/ml-and-healthcare/.
  94. Unlocking the potential of AI in drug discovery: Current status, barriers and future opportunities. Wellcome. Accessed 12/16/2023. Available online: https://cms.wellcome.org/sites/default/files/2023-06/unlocking-the-potential-of-AI-in-drug-discovery_report.pdf.
  95. Nagarajan N, Yapp EKY, Le NQK, Kamaraj B, Al-Subaie AM, Yeh H-Y. Application of Computational Biology and Artificial Intelligence Technologies in Cancer Precision Drug Discovery. BioMed research international. 2019;2019:8427042. [CrossRef]
  96. Computational Biology - Focus Areas. Mayo Clinic,,. Updated 12/16/2023. Accessed 12/16/2023. Available online: https://www.mayo.edu/research/departments-divisions/computational-biology/focus-areas.
  97. Patel A, Balis UGJ, Cheng J, et al. Contemporary Whole Slide Imaging Devices and Their Applications within the Modern Pathology Department: A Selected Hardware Review. J Pathol Inform. 2021;12:50. [CrossRef]
  98. Bohr A, Memarzadeh K. The rise of artificial intelligence in healthcare applications. In: Bohr A, Memarzadeh K, eds. Artificial intelligence in healthcare. Academic Press imprint of Elsevier; 2020:25–60.
  99. Patel AU, Shaker N, Mohanty S, et al. Cultivating Clinical Clarity through Computer Vision: A Current Perspective on Whole Slide Imaging and Artificial Intelligence. Diagnostics (Basel). Jul 22 2022;12(8). [CrossRef]
  100. Patel AU, Mohanty SK, Parwani AV. Applications of Digital and Computational Pathology and Artificial Intelligence in Genitourinary Pathology Diagnostics. Surgical Pathology Clinics. 2022;15(4):759-785. [CrossRef]
  101. Parwani AV, Patel A, Zhou M, et al. An update on computational pathology tools for genitourinary pathology practice: A review paper from the Genitourinary Pathology Society (GUPS). J Pathol Inform. 2023;14:100177. [CrossRef]
  102. How is AI reshaping health research? Wellcome. Updated 12/16/2023. Accessed 12/16/2023. Available online: https://wellcome.org/news/how-ai-reshaping-health-research.
  103. Special Issues. Journal of Biomedical and Health Informatics,,. Updated 11/28/2023. Accessed 12/16/2023. Available online: https://www.embs.org/jbhi/special-issues/.
Table 1. Integration of Bioinformatics and Data Science in High-Throughput Technologies.
Table 1. Integration of Bioinformatics and Data Science in High-Throughput Technologies.
Technology Description
Next-Generation Sequencing (NGS) NGS technologies have revolutionized genomics by facilitating rapid and cost-effective sequencing of nucleic acid sequences. This deluge of genomic data necessitates the application of sophisticated data science methodologies, including machine learning, to discern complex genetic patterns, predict gene functions, and infer biological pathways.
Microarrays Microarrays enable simultaneous quantification of gene expression across thousands of genes or genotyping across genome-wide regions. The extensive datasets generated require robust statistical and computational techniques, such as cluster analysis and pattern recognition, for accurate interpretation, which are cornerstones of data science.
Proteomics Advancements in high-throughput mass spectrometry for proteomic studies allow the comprehensive identification and quantification of proteins in complex biological matrices. Bioinformatics is integral to preprocessing the data, while data science facilitates the elucidation of protein-protein interactions and functional annotations via predictive modeling and systems biology approaches.
Drug Discovery High-throughput screening in pharmacological research tests numerous compounds for biological activity, generating substantial datasets. Data science approaches, particularly predictive algorithms, are integral for analyzing these datasets, identifying active compounds, discerning patterns, and guiding the optimization of lead candidates, merging bioinformatics with cheminformatics.
Single-Cell Analysis Single-cell sequencing technologies provide detailed profiles of individual cells, yielding insights into cellular heterogeneity. Bioinformatics methods are employed for data management and preprocessing, whereas data science techniques, including unsupervised learning and network inference, are crucial for characterizing cell types, states, and lineage hierarchies.
Table 2. Best Practices for Successful Cross-Disciplinary Collaboration.1.
Table 2. Best Practices for Successful Cross-Disciplinary Collaboration.1.
Best Practice Description
Embrace Interdisciplinary Learning Actively seek knowledge in a new field to enrich research perspectives and methodology within the bioinformatics context.[48]
Acclimate to Varied Terminologies Comprehend and respect the terminological diversity across disciplines to facilitate effective communication and collaboration.[49]
Institutionalize Communication Channels Establish routine interdisciplinary dialogues through workshops and joint academic initiatives to enhance scientific exchange.[50]
Support Early-Career Researchers Provide mentorship to navigate interdisciplinary expectations and promote career development within the bioinformatics domain.[51]
Acknowledge and Resolve Dysfunctional Dynamics Promptly recognize and rectify non-productive collaborative efforts to maintain project momentum.[52]
Champion Reproducible Bioinformatics Research Implement guidelines for computational reproducibility and robust data management to underpin project design integrity.[53,54,55,56]
Clarify Roles in Interdisciplinary Teams Define and assign specific responsibilities to streamline contributions and accountability in collaborative projects.[57,58]
Strategize Data Management Develop comprehensive data stewardship plans to ensure the longevity and accessibility of bioinformatics data.[59]
Cultivate Effective Leadership Foster leaders who can articulate a clear vision, bridge disciplinary gaps, and advocate for interdisciplinary research recognition.[60]
Respect Temporal Variances in Research Understand and accommodate the varying research paces inherent to different disciplines within bioinformatics projects.[21,61]
Encourage Equitability and Respect Maintain an egalitarian ethos, valuing each discipline's contributions to the bioinformatics research equally.[57]
Facilitate Knowledge Exchange Regularly share insights and resources to build a cohesive, informed, and up-to-date research collective.[62,63,64,65]
Continually Assess and Refine Collaborative Practices Implement a feedback loop to evaluate the efficacy of collaborative strategies and adapt as necessary.[66]
1 These best practices are not exhaustive but serve as a guideline to enhance the synergy of cross-disciplinary teams in the evolving arena of medical bioinformatics.
Table 3. Example of a Special Session Conference Format (Topic: “Responsible AI for Multimodality Biomedical Data Analysis”).1.
Table 3. Example of a Special Session Conference Format (Topic: “Responsible AI for Multimodality Biomedical Data Analysis”).1.
Time Session Component Details Format
30 min Keynote Speech Features speakers from various academic institutions (MDs, PhDs, MBAs), offering diverse perspectives on medical AI analysis. Virtual/In-House
60 min Invited Talks Talks selected based on significant contributions to medical AI, particularly in multimodality learning and AI interpretability. Virtual/In-House
Half-Day Workshop: "Applications of Generative AI, LLMs, and Traditional Machine Learning for Personalized Medicine" Two modules: ML for precision medicine and LLMs, with interactive case studies and group discussions. Virtual/In-House
2 hours Poster Presentations / Networking and Lunch Break Includes selected poster presentations and a judging session with feedback, followed by a winner announcement. In-House
Duration TBD Panel Discussion: "Explainable AI and Multimodality Learning in Medical Data Analysis" A dynamic panel comprising researchers, clinicians, ethicists, and industry professionals discusses various aspects of AI in healthcare. Virtual/In-House
2 hours (total) Oral Presentations Selected papers presented for 20 minutes each, focusing on diverse modalities of biological/medical data and model trustworthiness. Virtual/In-House
End of Session Closing Remarks / Speech Summary of the day's discussions, emphasizing future developments in medical AI. Virtual/In-House
1 Selection Criteria: [Keynote and Invited Talks]: Speakers are chosen for their significant contributions to medical AI, focusing on multimodality learning and AI model interpretability. [Oral Presentations]: Based on the quality of submission and relevance to diverse modalities of biological or medical data, ensuring model trustworthiness.
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