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  • Home
  • Role of IT in Biotech
  • AI & Big Data in Medicine
  • Ethics & Society
  • Looking Ahead
    • Careers & The Future
    • Global Access & Equity
    • Future Implications
  • More
    • Home
    • Role of IT in Biotech
    • AI & Big Data in Medicine
    • Ethics & Society
    • Looking Ahead
      • Careers & The Future
      • Global Access & Equity
      • Future Implications
  • Home
  • Role of IT in Biotech
  • AI & Big Data in Medicine
  • Ethics & Society
  • Looking Ahead
    • Careers & The Future
    • Global Access & Equity
    • Future Implications

AI & Big Data in Medicine

AI in Data Analysis

Artificial intelligence is transforming how we analyze medical data. AI models can process thousands of patient records, imaging scans, and genomic sequences to predict disease risk, treatment efficacy, and drug interactions. Algorithms are now capable of outperforming radiologists in detecting certain cancers.


Key Applications:

  • Predicting disease risk
  • Identifying genetic biomarkers
  • Assessing drug effectiveness
  • Analyzing medical images and scans
  • Enhancing the accuracy of clinical decision support systems


Drug Discovery

AI accelerates drug development by predicting molecule-target interactions and simulating drug trials. Companies like DeepMind (AlphaFold) and Insilico Medicine are revolutionizing how we discover and test new drugs using deep learning models.


Examples of Drugs Discovered with AI:

  • DSP-1181: The first AI-designed drug to enter human clinical trials. Developed by Exscientia and Sumitomo Dainippon Pharma, it targets obsessive-compulsive disorder (OCD).
  • ABBV-CLS-484: An AI-guided small molecule immuno-oncology drug co-developed by Calico Life Sciences and AbbVie.
  • INS018_055: Discovered by Insilico Medicine, this fibrosis-targeting compound was rapidly advanced into clinical trials using AI-driven generative chemistry.

CRISPR & Personalized Me

CRISPR & Personalized Me

Machine learning is used to tailor treatment plans based on genetic makeup. CRISPR-Cas9 gene-editing tools are enhanced by AI algorithms that increase targeting precision and reduce off-target effects. This makes personalized, genetically-informed therapies more effective and accessible.


CRISPR-AI Workflow Diagram:

  1. Patient genome sequenced
  2. ML model identifies mutation
  3. AI optimizes CRISPR target site
  4. Gene edited with precision
  5. Post-edit data used to refine future models

Case Studies

Tempus AI

Tempus is a technology company that collects and analyzes clinical and molecular data to help physicians make real-time, personalized decisions. Their AI platform integrates sequencing data with structured and unstructured clinical information to identify actionable insights for cancer and other diseases. By leveraging deep learning algorithms, Tempus predicts treatment response, enhances drug matching, and contributes to clinical trial selection. It has created one of the world’s largest libraries of clinical and molecular data, helping optimize patient outcomes through data-driven precision medicine.

AlphaFold by DeepMind

AlphaFold is an AI system developed by DeepMind that solved one of biology’s greatest challenges—predicting the 3D structure of proteins from their amino acid sequences. This breakthrough has drastically reduced the time and cost of protein structure discovery, which is fundamental to understanding diseases and designing drugs. Its predictive power has already assisted pharmaceutical researchers in identifying drug targets, simulating molecular docking, and accelerating early-stage drug design. AlphaFold’s open database now includes hundreds of thousands of predicted protein structures.

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