Inside Molecular Cloning: How We Duplicate DNA for Research and Innovation  

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When most people hear the word cloning, they think of science fiction stories about cloned animals or even humans. But in molecular biology, cloning has a much more precise and practical meaning: it’s about copying specific pieces of DNA so that scientists can study, modify, and use them for research, medicine, and biotechnology.

For decades, molecular cloning has been the foundation of modern biology. It allows scientists to understand genes, make proteins, engineer crops, produce medicines like insulin, and even edit genomes using tools like CRISPR.


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Life Science


SimplePCI image analysis software provides an easy solution to solving image analysis applications, including:


  1. Simultaneous multi-sites time-lapse capture
  2. Time-lapse replay and analysis
  3. Fluorescence capture and display (GFP, BFP)
  4. Combination fluorescence & bright field acquisition
  5. High speed image sequence streaming
  6. Calcium Imaging with single, dual or triple probe analysis
  7. Motion analysis
  8. In-situ hybridization using grain counting techniques
  9. Quantitative autoradiography
  10. Immunostain analysis
  11. Muscle fiber morphology
  12. Neural process density (arborization)
  13. Vessel morphometry and angiogenesis
  14. 3-D reconstruction with flexible montage of serial sections
  1. Fluorescence in-situ hybridization

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