30

Sep 2024

AI Passport for Biomedical Research

Biomedical Image Analysis

AI Passport for Biomedical Research is an accessible training program designed for healthcare professionals and biomedical researchers to integrate AI into their research and practice. With minimal coding to no coding, it caters to all technical levels using real-world medical data and case studies. The community-based learning program offers flexible asynchronous learning, live community sessions, and mentorship from AI faculty, coaches, and your fellow peers.

Explore the landscape of biomedical imaging and dive into advanced, emerging topics in Biomedical Image Analysis. Understand traditional biomedical image analysis, while delving into biomedical image preprocessing and transformation and biomedical computer vision applications.

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TBA
START DATE
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QUANTITY
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DURATION
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TIME
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AI Passport for
Biomedical Research Module

AI Passport
for Biomedical Research Module

AI Passport
for Biomedical Research Module

AI Passport
for Biomedical Research Module

AI Passport
for Biomedical Research Module
AI Passport
for Biomedical Research Module
AI Passport
for Biomedical Research Module
AI Passport
for Biomedical Research Module

Course Outcomes

Integration of AI Techniques:

Participants will be able to integrate AI and machine learning techniques into their healthcare research and clinical practice.

Application of Real-World Data:

Learners will effectively use real-world medical data and case studies to address healthcare challenges and develop innovative solutions.

Practical AI Skills:

Graduates will gain hands-on experience with code-free AI/ML tools, enabling them to implement AI solutions without extensive programming knowledge.

Critical Thinking and Problem Solving:

Participants will enhance their ability to analyze and solve complex healthcare problems through AI-driven insights and methodologies.

Microskill:

  • Demystifying artificial intelligence
  • Artificial intelligence lifecycle
  • Designing biomedical artificial intelligence experiments
  • Training, validation, and generalizability
  • Leveraging multidisciplinary team strengths
  • Basics of scientific rigor and reproducibility
  • Mentorship and peer review in biomedical AI

Microskill :

  • Fundamentals of biomedical AI ethics and liability
  • Bias, fairness, and societal impact of biomedical AI
  • The regulatory landscape of biomedical AI
  • Biomedical AI quality and safety
  • Human-AI collaboration in biomedicine
  • Human-AI collaboration in biomedicine
  • The fundamental principles of bioethics






Microskill:

  • The importance of data for developing biomedical AI
  • Acquiring ethically sourced biomedical data
  • Understanding the role of human annotation
  • Promoting FAIR biomedical data principles
  • Developing AI/ML-ready biomedical datasets
  • Navigating multi-institutional data sharing challenges
  • Secure and ethical use of biomedical data

Microskill:

  • Shared biomedical artificial intelligence vocabulary
  • Applied fundamentals of ML and deep learning
  • Choosing the right biomedical machine learning model
  • Choosing the right biomedical deep learning model
  • Evaluating biomedical machine learning models
  • Model generalizability
  • Ethics of black-box algorithms

Microskill:

  • Landscape of biomedical imaging
  • Biomedical image preprocessing and transformation
  • Traditional biomedical image analysis
  • Biomedical computer vision applications
  • Advanced and emerging topics
  • Consistency in biomedical image analysis
  • Ethical and privacy implications of biomedical imaging

Microskill:

  • Fundamentals of generative biomedical AI
  • Fundamentals of large language models
  • Large language models (LLMs) in biomedicine
  • Prompt engineering for biomedical applications
  • Utilizing LLMs for accelerating biomedical research
  • Evaluation and reproducibility of AI-generated data
  • Ethical dissemination of generated biomedical content

Microskill:

  • Designing biomedical AI experiments
  • Writing successful biomedical AI proposals
  • Effective scientific communication
  • Bridging traditional research with AI innovation
  • Peer review and feedback mechanisms
  • Robust biomedical AI research design
  • Responsible biomedical AI research

Microskill:

  • Designing biomedical AI experiments
  • Writing successful biomedical AI proposals
  • Effective scientific communication
  • Bridging traditional research with AI innovation
  • Peer review and feedback mechanisms
  • Robust biomedical AI research design
  • Responsible biomedical AI research

Meet Your Instructors

Senior Associate Dean for Research Affairs
R. Glenn Davis Professor of Medicine,
Surgery and Anesthesiology Director,
Intelligent Clinical Care Center

Assistant Professor
Associate Director, Intelligent Clinical
Care Center

Associate Professor of Surgery
Associate Director, Intelligent Clinical
Care Center

Instructional Associate Professor

Elizabeth Palmer PhD

Assistant Director of Training and Education

General Surgery Resident

Yingbo Ma PhD

Data Scientist

Assistant Professor of Anesthesiology,
Clinical Director of research for the
Division of Critical Care Medicine