About 18,900 results
Open links in new tab
  1. DNA Replication Simulator

    In this interactive Biology activity, you’ll connect concepts like DNA replication, Okazaki fragments, leading strand, and lagging strand. Take charge of DNA copying.

  2. DNA Replication Interactive - BioMan Biology

    Video computer games, virtual labs and activities for learning and reviewing biology content. Great for students and teachers.

  3. Unit B.3 L5 DNA Replication Fork - OpenSciEd

    This NetLogo simulation allows students to explore some of the processes that occur during DNA replication. It is used in Lesson 5 of Unit B.3 Inheritance & Variation of Traits.

  4. Building DNA Virtual Lab | ExploreLearning Gizmos

    Construct a DNA molecule, examine its double-helix structure, and then go through the DNA replication process. Learn how each component fits into a DNA molecule, and see how a …

  5. DNA Replication Visualizer - SimulateEd

    Use this simulator to explore the intricate process of DNA replication and understand how this fundamental biological process ensures the accurate transmission of genetic information from …

  6. Biology Animations - CSHL DNA Learning Center

    Processes like DNA translation, transcription, replication, and more are explained in interactive animations.

  7. DNA Replication (Advanced Detail) - BioInteractive

    Feb 5, 2003 · DNA Replication (Advanced Detail) | This animation shows the process of DNA replication, including details about how the mechanism differs between the leading and lagging …

  8. Build a DNA Molecule - University of Utah

    Watch a real-time 3d animation of molecular machines copying DNA. DNA replication is a tightly coordinated process that relies on multiple proteins working together.

  9. DNA Replication Simulation - thinkingsmith.com

    Theoretical Background: S = S 0 × 2 r c. c is the number of replication cycles.

  10. DNA Replication and Central Dogma - Pathway - LabXchange

    Apr 28, 2020 · This 3D animation shows how DNA is copied in a cell. It demonstrates how both strands of the DNA helix are unzipped and copied to produce two identical DNA molecules.