Physical & Replica models

Physical models are vital in describing scientific phenomena as they offer tangible, visual representations of complex systems, making abstract concepts more comprehensible. These models allow scientists to observe and manipulate variables in a controlled environment, providing insights into the behavior and interactions of different components. By simulating real-world scenarios, physical models help validate theoretical predictions, guide experimental design, and enhance our understanding of underlying mechanisms. They serve as powerful educational tools, facilitating the communication of scientific ideas through concrete examples that are easier to grasp. The ability to test and refine hypotheses using physical models accelerates scientific discovery and fosters innovation, ultimately advancing knowledge and its application in real-world situations.

Examples:

• 3D Replica Models

  • • Models of the human body or parts, such as a heart, skeleton, or brain.

• Analogical models: 

  • • Models showing the structure of plant and animal cells.

• Engineering Models: 

  • • Representations of structures such as Bridges

    • Water Rockets

    • Stomp Rockets- scaled down versions of rockets to invesitgate design and function

• Virtual 3D Replica Models: 

  • • Virtual 3D modeling of molecules: Molview

    • Virtual 3D modeling of physiological systems such as muscle action or breathing. Biodigital Human

    • Solar System Dynamics (Live Sky)

    • Tectonic Explore (Concord Consortium)