Hwang Lab
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MACHINE LEARNING & AI GROUp

 
 

AI driven 3D Molecular Tumor Modeling

Research Interests

We believe that understanding diseases in their natural 3D and 4D states—integrating both spatial and temporal molecular information—provides the most comprehensive insights into disease initiation, progression, metastasis, and treatment response. Our lab develops computational and experimental approaches to generate and analyze 3D/4D models of cells, tissues, and organs, enabling us to study complex biological systems with unprecedented precision. By leveraging AI, machine learning, spatial and single-cell biology, we aim to decode complex interactions within the tumor immune microenvironment (TIME) to identify novel biomarkers, therapeutic targets, and treatment strategies.

Our lab processes cells, organoids, and tissues, generating single-cell, spatial multimodal, and 3D/4D molecular imaging data in-house. We are equipped with a sequencer (Singular Genomics G4), spatial instruments (e.g., 10x Genomics Xenium, Cytassist), Holotomography (TOMOCUBE's HT-X1), and Spatial Sorter (Meteor Biotechnology CosmoSort), and have access to additional cutting-edge instruments (Akoya PhenoCycler, Ultra tims TOFs), enabling innovative and rigorous data generation. The data we generate are fed into custom algorithms to drive new discoveries.

Our interdisciplinary approach integrates single-cell and subcellular spatial analysis, digital pathology, spatial microbiome research, and 3D spatial multimodal techniques, alongside the development of novel immunotherapies and cellular therapies. By studying diseases in their natural 3D/4D context, we generate insights that drive the development of personalized therapeutic interventions.

The followings are the areas that our group are actively working:

  • AI and Machine Learning-driven 3D Molecular Tumor Modeling: We are advancing AI-driven 3D molecular tumor models to study pre-cancer stages and their progression. This approach maps the multidimensional evolution of tumors, providing critical insights into cancer development and treatment response.

  • Subcellular-Resolution 3D and 4D Atlas Models: We develop subcellular-resolution 3D and 4D atlas models, powered by AI and machine learning with a combination of holotomography and light sheet microscopy tehcnologies, to investigate how individual cells, their suborganelles, and even full 3D models of organs and organisms contribute to disease processes. Using live 3D and 4D holotomography combined with molecular data, we track cellular dynamics in real time, uncovering novel insights into disease initiation, progression, metastasis, and therapeutic response.

  • Spatial Microbiome in the Tumor Immune Microenvironment: Using Spatial Sorting technology, we isolate individual microorganisms along with their surrounding cellular and non-cellular components from a tumor. This allows us to study how these microorganisms impact tumor progression, immune modulation, and treatment response. This approach could also be applied to investigate how fungi, viruses, and other pathogens influence the tumor immune microenvironment.

  • 3D Spatial Multimodal Approaches: We combine spatial sorting and holotomography to isolate individual cells and suborganelles at the tissue level and generate multimodal data (e.g., DNA, RNA, protein, and methylation) simultaneously. This integrated 3D spatial multimodal approach enables us to comprehensively profile the tumor microenvironment and uncover complex molecular interactions that drive disease progression and treatment response.

  • Real-Time Drug Delivery and Response Using Organotypic Models: We employ organotypic models to study drug delivery and therapeutic response in real time, focusing on therapies such as ADCs, CAR-T cells, and mRNA therapeutics. Using hybrid holotomography and light sheet microscopy, we track drug interactions within the tumor immune microenvironment to optimize precision treatment strategies.

By integrating cutting-edge AI, machine learning, and experimental methodologies, the Hwang Lab aims to uncover the mechanisms driving health and disease, with a particular emphasis on the tumor immune microenvironment, ultimately advancing precision care and therapeutic innovation.


Announcement:

We are always looking for talented individuals to join our journey to end cancer. We welcome applicants at all levels, including undergraduates, graduate students, PhDs, MDs, and MD/PhDs. Our lab is open to both dry and wet lab researchers from fields such as biology, immunology, bioengineering, statistics, mathematics, physics, computer science, and data science.

Requirements:

  • Strong academic background and/or relevant experience in the specified fields.

  • A passion for cancer research and a commitment to contributing to innovative scientific advancements.

  • For wet lab positions: experience with molecular biology techniques, tissue culture, biomedical engineering or immunoassays is preferred.

  • For dry lab positions: experience with machine learning, bioinformatics, or computational biology is preferred.

  • Excellent problem-solving skills and the ability to work both independently and as part of an interdisciplinary team.

Interested candidates should submit a CV, cover letter, and references for consideration via email.

 

Talks!

News!

  • 06/14/2023: We are selected to present two oral presentation at Immunotherapy Scientific Program at the 15th International Gastric Cancer Congress.

  • 05/22/2023: Tae Hyun Hwang will give an invited talk at HIMA Imaging Science Session and serve as a panelist at Pathology Informatics Summit 2023

  • 05/14/2023: Tae Hyun Hwang will give a talk at Representation Learning and serve as a panelist at AI and Genomics at the 2023 Great Lakes Bioinformatics Conference

  • 05/05/2023: 12th Annual Individualizing Medicine Conference: Direct-to-Patient Omics-Based Clinical Trials Tae Hyun Hwang will give a talk

  • 04/14/2023: Our group will present 6 posters about AI, Machine Learning, Deep Learning based approaches utilizing single cell, spatial biology, and image data at AACR 2023 meeting.

  • 11/31/2021: Tae Hyun Hwang gave a talk about machine learning and AI approaches developing clinically actionable biomarker for chemotherapy and immunotherapy in gastric cancer at TargetCancer Foundation.

  • 04/21/2021: Tae Hyun Hwang gave an invited webinar about “Computational driven Spatial Transcriptome Analysis to Investigate Molecular Mechanisms present in Tumor Immune Microenvironment Associated With Immune Checkpoint Inhibitor Response in Gastric Cancer” at NanoString Webinar Series “Total Transcriptome Takeover”.

  • 04/20/2021: Tae Hyun Hwang gave an invited talk about “Machine Learning driven Digital Pathology and Spatial Transcriptome Analyses to Predict Immune Directed Therapy Response in Bladder and Gastric Cancer” at Brigham and Women’s Hospital Computational Digital Pathology Symposium with >400 participants.

  • 02/27/2021: Tae Hyun Hwang gave a seminar about our ongoing research "Spatial transcriptome, single cell and digital pathology approaches to understand mechanisms of response and resistance to Immunotherapy and cell therapy: Opportunities and challenges for machine learning and AI scientists" in the department of computational biology at Carnegie Melon University on March 5th.

  • 1/13/2020: Tae Hyung Hwang gave a seminar at Cleveland Clinic-Yonsei Severance Joint AI and Data Science conference.

  • 8/04/2019: Tae Hyun Hwang gave a keynote regarding AI in Healthcare at 24th ACM SIGKDD conference on Knowledge Discovery and Data Mining.

Contact

➤ LOCATION

4500 San Pablo Rd S.
Jacksonville, FL 32224