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  • Events
    • Event 1
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    • Interview #1
    • Interview #2
    • Event 3
    • Event 4
  • About us
  • Team
  • Articles
    • Medicine >
      • MD/DO
      • Smart Implants: The Future of Medical Devices
      • Artificial Intelligence in Drug Discovery: Accelerating the Search for New Medicines
      • High-Throughput Screening: Finding Needles in Haystacks
      • Liquid Biopsy: A Non-Invasive Way to Detect Cancer
      • Artificial Intelligence in Medical Imaging: Enhancing Diagnosis
      • Robotic Surgery: Precision and Minimally Invasive Procedures
      • Organ-on-a-Chip: Mimicking Human Organs for Drug Testing
      • The Gene-Editing Technology That Could Cure Diseases
      • AI Healthcare: Revolutionizing Diagnosis and Treatment
      • HIV/AIDS Treatment
      • Proton Therapy: A Precise Form of Radiation Therapy
      • Organ Transplantation
      • Harnessing the Immune System to Fight Cancer
      • The Ancient Art of Acupuncture: A Modern Perspective
      • Telemedicine: The Future of Remote Healthcare
      • The Future of Clot-Busting
      • Targeted Therapy: Precision Medicine for Cancer Treatmente
      • Monitoring Health in Real-TimeNew Page
      • Microfluidics in Drug Development: Small-Scale Solutions for Big Problems
      • 3D Printing in Medicine
      • Breast Cancer
      • Nanomedicine
      • COVID-19: The Delta Variant
      • Genetic Engineering
      • Surviving the Next Pandemic
      • Update: Cancer
      • Alternate Personalities
      • Internet Overuse
      • Cloning
      • Covid vaccine
      • Consciousness
      • mask
      • Deja Vu
    • Methodological Innovation in Research >
      • High-Throughput Screening: Accelerating Material Discovery
      • Machine Learning in Materials Science: Accelerating Discovery
      • In Situ Characterization: Real-Time Analysis of Materials
      • Cryo-Electron Microscopy: Visualizing Materials at the Atomic Level
      • Computational Materials Design: Predicting Properties with Simulations
      • Additive Manufacturing: 3D Printing of Advanced Materials
      • Combinatorial Materials Science: High-Speed Material Discovery
      • Nanofabrication: Building Materials at the Nanoscale
      • Self-Assembly: Nature-Inspired Material Design
      • Biomimetic Materials: Learning from Nature
    • New Technologies >
      • Advancements in Renewable Energy Technologies
      • Deep Learning: How AI Learns Like a Human
      • Quantum Computing: The Supercomputer of the Future
      • The Evolution of Wearable Technology
      • The Technology and Challenges of Autonomous Vehicles
      • The New Age of Biotech: CRISPR
      • The Future of Transport
      • Brain-Computer Interfaces (BCIs): Connecting Minds to Machines
      • Augmented Reality (AR): Blending the Digital and Physical Worlds
      • Blockchain and Decentralization: The Future of Trust Online
      • Nanotechnology: The Tiny Science with Big Possibilities
      • Innovations in Human-Machine Interaction
      • War
      • LiDAR
      • 3D printing
      • New energy
      • alphago
      • How Can Virtual Reality Change The World?
      • Metaverse
      • Neuralink
      • Spiral Engine
      • Optimus
    • Future Materials >
      • Aerogels: The Lightest Solids on Earth
      • Metamaterials: Engineering the Impossible
      • Biodegradable Plastics: A Sustainable Future
      • Graphene: The Wonder Material of the 21st Century
      • Carbon Nanotubes: The Building Blocks of Future Technologies
      • Biomaterials: Bridging the Gap Between Biology and Engineering
      • Nanomaterials: The Power of the Very Small
      • Self-Healing Materials: The Future of Durability
      • Shape Memory Alloys: Materials with a Memory
      • Smart Materials: Responding to Their Environment
      • Baking Soda
      • Acids and Bases--Brief
      • Esters and Applications
      • Iodine Clock Reaction
      • Haber Process
      • Elemental Facts
      • Elemental Facts Pt. 2
      • Hall Process
      • Doping
      • Flame Tests
      • Carbon Snake Experiment
      • Chemical Traffic Light
      • Polymers
      • Thermometers
      • Calorimetry
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      • Artificial Intelligence
      • Data Trust
      • Virtual Reality
      • The Popularity of TikTok
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                                                    High-Throughput Screening: Finding Needles in Haystacks
Introduction: Finding a new drug is like finding a needle in a haystack—researchers must sift through thousands or even millions of chemical compounds to find one that works. High-throughput screening (HTS) is a technology that allows scientists to test thousands of compounds quickly and efficiently. In this article, we’ll explore how HTS works, its benefits, and its limitations.
How High-Throughput Screening Works:
HTS involves testing large libraries of chemical compounds against a specific biological target, such as a protein or enzyme involved in a disease. The process is automated, allowing researchers to test thousands of compounds in a short amount of time.
Steps in High-Throughput Screening:
  1. Target Identification: Researchers identify a biological target that plays a key role in a disease.
  2. Assay Development: An assay (a test) is developed to measure the interaction between the target and potential drug candidates.
  3. Screening: Thousands of compounds are tested using the assay to identify those that interact with the target.
  4. Hit Validation: Compounds that show promise (known as "hits") are further tested to confirm their activity.
Benefits of High-Throughput Screening:
  • Speed: HTS can test thousands of compounds in a matter of days or weeks, compared to months or years using traditional methods.
  • Efficiency: HTS allows researchers to quickly identify promising drug candidates, reducing the time and cost of drug discovery.
  • Scalability: HTS can be scaled up to test even larger libraries of compounds, increasing the chances of finding a hit.
Challenges of High-Throughput Screening:
  • False Positives: Some compounds may appear to be hits but are not actually effective against the target.
  • Cost: HTS can be expensive, especially when testing large libraries of compounds.
  • Complexity: Developing a reliable assay can be challenging, and the results of HTS must be carefully validated.
The Future of High-Throughput Screening: Researchers are working on improving the accuracy and efficiency of HTS by integrating it with other technologies, such as AI and microfluidics. They are also exploring new ways to use HTS, such as screening for drug repurposing and combination therapies.

Further Reading:
  1. Nature - High-Throughput Screening
    https://www.nature.com/
  2. ScienceDaily - High-Throughput Screening
    https://www.sciencedaily.com/
  3. Drug Discovery Today - High-Throughput Screening
    https://www.drugdiscoverytoday.com/
  4. MIT Technology Review - High-Throughput Screening
    https://www.technologyreview.com/
  5. NCBI - High-Throughput Screening
    https://www.ncbi.nlm.nih.gov/
                                                                                                                                                                                   Contributed by Queenie Dai
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