Keynote Speaker 1
Md Tauhidul Islam Assistant Professor, Department of Radiation Oncology. Stanford University, CA< USA

Biography: Dr. Md Tauhidul Islam is an Assistant Professor in the Department of Radiation Oncology (Medical Physics) at Stanford University, where he leads a research program at the intersection of artificial intelligence, biomedical imaging, and multi-omics analytics. His work focuses on developing interpretable, data-efficient, and trustworthy AI systems for high-dimensional biomedical data, with applications spanning cancer detection, liquid biopsy, spatial omics, precision imaging, and biological network analysis.
Dr. Islam’s recent contributions include pioneering methods that convert omics and graph-structured data into semantically meaningful image representations; scalable graph-to-image and eigenmapping frameworks for analyzing massive biological networks; multimodal fusion algorithms integrating imaging, genomics, and pathway knowledge; and generative models for predicting longitudinal brain aging. His research has been published in leading venues such as Nature Biomedical Engineering, Nature Computational Science, and Nature Communications and he is supported by competitive awards including the NIH K99/R00 Pathway to Independence Award.
At Stanford, Dr. Islam collaborates widely across oncology, radiology, computer science, and molecular medicine to translate next-generation AI systems into tools that advance mechanistic understanding, accelerate discovery, and enable data-driven precision healthcare. He is a frequent speaker on interpretable AI and multi-modal data integration, and his work continues to shape the future of computational biomedicine.

Talk Title: Next-Generation AI for High-Dimensional Biomedical Data: Towards Interpretable and Data-Efficient Discovery

Abstract:  The explosion of high-dimensional biomedical data—ranging from medical images to single-cell omics, spatial transcriptomics, and large-scale biological networks—has created extraordinary opportunities for scientific discovery and clinical translation. Yet traditional AI models often behave as black boxes, require large volumes of labeled data, and struggle to scale or generalize across diverse modalities. These limitations hinder trust, interpretability, and real-world adoption in healthcare.In this keynote, I will present a new generation of AI frameworks designed to overcome these challenges through interpretability, data-efficiency, and multimodal integration. I will highlight approaches that transform omics and graph-structured data into semantically meaningful image representations, enabling the use of powerful and interpretable convolutional neural networks. I will also introduce scalable graph-to-image and eigenmapping techniques that preserve complete biological network structure, outperform conventional graph neural networks, and reveal mechanistic insights underlying cancer progression, metastasis, and cell fate decisions. Finally, I will discuss multimodal fusion strategies that combine imaging, genomics, and biological pathway knowledge to build transparent and biologically grounded predictive models. Together, these innovations demonstrate a unified paradigm for transforming complex biomedical datasets into interpretable representations that enhance discovery, improve prediction, and accelerate translation into precision medicine.

Keynote Speaker 2
Dr. Roshan Joy Martis, Department of Electronics and Communication Engineering, Manipal Institute of Technology, Bengaluru Campus, Karnataka, India

Biography: Dr. Roshan Joy Martis defended his doctoral dissertation in Biomedical Signal Processing in March 2012 from School of Medical Science and Technology of Indian Institute of Technology, Kharagpur, India. He was a Research and Development Engineer at Ngee Ann Polytechnic, Singapore in a Ministry of Education funded project during 2012 to September 2014. Currently he is serving as Associate Professor of Electronics and Communication Engineering at Manipal Institute of Technology, Bengaluru Campus, India.

He is known for his research in physiological signal processing with 93 research articles in journals, conferences and edited books with more than 7,200 citations and H-index of 37. He has served as guest editor in many special issues of international journals. He is currently serving as Associate Editor in Frontiers in Digital Health, Frontiers Publishers and Co-Editor-in Chief in Current Machine Learning, Bentham Science Publisher. He has appeared as one of the top 2% of researchers in the world as per the survey conducted by the Stanford University for consecutive six years, viz. 2020, 2021, 2022, 2023, 2024 and 2025.  He is Senior Member of IEEE, and IEEE Engineering in Medicine and Biology Society (EMBS), USA.

Talk Title: Intelligent Processing of Biomedical Signals: A Technological Perspective.

Abstract:  Every person is unique in the world in terms of anatomy, genetic material, thought process,his/ her response to different stimuli etc. which is manifested by having unique face expression, gesture, fingerprint, iris structure, gean pattern etc. During affliction of diseases and its progression, aging process etc. can lead to some further variability across individuals leading stochastic nature of signals and images obtained from them. These Signals and images can be physiological, viz.  ECG, EEG, EMG, etc; or radiological, viz. X-ray, MRI, CT, PET etc; biometric, viz. fingerprint, iris pattern, facial expression, gesture etc. They can be analyzed for an instance of time or over a short or long duration of time. These signals and images can be linear for a short term or nonlinear when modeled over a long duration of time which forms a stringent requirement on healthcare infrastructure, processing capability leading to cost effectiveness, affordability, access and equity for healthcare among individuals. This session addresses the prospects and challenges in automation driven signal and image processing methods and systems.

Keynote Speaker 3
Ashir Ahmed, Associate Professor, Faculty of Information Science and Electrical Engineering,
Kyushu University

Biography: Dr. Ashir Ahmed is a digital-health researcher at Kyushu University, Japan specializing in healthcare productivity, AI-enabled diagnostics, and social innovation. His work integrates system design, data governance, and community-based delivery models. He leads several international collaborations—including Asia–Africa digital health capacity-building initiatives—focusing on scalable, cost-effective health transformation

He is known for his research in physiological signal processing with 93 research articles in journals, conferences and edited books with more than 7,200 citations and H-index of 37. He has served as guest editor in many special issues of international journals. He is currently serving as Associate Editor in Frontiers in Digital Health, Frontiers Publishers and Co-Editor-in Chief in Current Machine Learning, Bentham Science Publisher. He has appeared as one of the top 2% of researchers in the world as per the survey conducted by the Stanford University for consecutive six years, viz. 2020, 2021, 2022, 2023, 2024 and 2025.  He is Senior Member of IEEE, and IEEE Engineering in Medicine and Biology Society (EMBS), USA.

Talk Title: Digital Transformation for Healthcare Productivity: Lessons from PHC, AI, and Global South Innovation`

Abstract:  Healthcare productivity is a defining challenge of the 21st century, especially in rapidly aging and resource-constrained societies. This keynote explores how digital transformation—when grounded in local context—can reshape service delivery, improve early detection pathways, and reduce pressure on hospitals. Using evidence from Portable Health Clinic (PHC) deployments, AI-assisted triage tools, and community-clinic digitalization pilots, the talk examines how smart, data-driven primary care systems enhance efficiency and quality of care. I will highlight ongoing collaborative projects across Japan, Bangladesh, Pakistan, and Nigeria, and discuss how digital standards, interoperable datasets, and ethical AI frameworks can support national transformation. The session concludes with a strategic model for governments and organizations: how to scale digital healthcare through policy, capacity building, and cross-country knowledge exchange, creating systems that are productive, inclusive, and sustainable.

Keynote Speaker 3
Mohammad Tariqul Islam, MIT-Novo Nordisk AI Postdoctoral Fellow; Massachusetts Institute of Technology (MIT)

Biography:Mohammad Tariqul Islam is an MIT–Novo Nordisk AI Fellow at the Massachusetts Institute of Technology (MIT), where he works with Prof. Deblina Sarkar in the Nano-Cybernetic Biotrek lab. He completed his PhD at Princeton University under the supervision of Prof. Jason Fleischer in the Imaging Physics Group. Tariq’s research interests include signal processing and machine learning, with a focus on biomedical applications.

Talk Title: Geometric Structures in Biomedical Data

Abstract:  High-dimensional biomedical data, such as medical images and brain signals, often lie on hidden low-dimensional geometric structures. In this talk, I will show how manifold learning methods like UMAP can be used for outlier detection and COVID-19 classification in chest X-rays, and how kernel alignment can compare geometric structure in brain data. These examples highlight how geometric thinking provides a powerful lens for analyzing complex biomedical data.