Welcome to a world where shapes come alive and transform in mesmerizing ways! In this blog post, we will delve into the captivating concept of kinetic shapes, as presented in Handzic’s research paper titled “Kinetic Shapes” (2014). While the paper may appear complex, we will break it down into easily understandable terms, allowing you to grasp the wonders of kinetic shapes. Get ready to embark on an extraordinary journey!

Understanding Kinetic Shapes

Imagine if shapes could magically come to life and move around. That’s the essence of kinetic shapes. Handzic’s research paper explores the development of computer programs that enable shapes to undergo captivating transformations and movements.

Passive dynamics is all about utilizing the natural forces and mechanics within our bodies to optimize movement efficiency. Unlike active systems that require external energy input, passive dynamics harness inherent mechanical properties such as mass distribution, joint design, and compliance to achieve energy-efficient motion. It’s the hidden science that makes our movements look and feel effortless. Dr. Ivanovic-Handzic’s research reveals that natural human movement arises from the intricate interaction between our body’s passive dynamics and the environment. By harnessing the forces of gravity, momentum, and our physical structure, we can perform tasks with incredible efficiency and elegance. It’s like a beautifully choreographed dance between our bodies and the world around us.


  • The Significance of Kinetic Shapes: Studying kinetic shapes is crucial because it helps us understand how objects in the real world can change and move. By unraveling the secrets of these dynamic shapes, scientists and engineers can apply their knowledge to create technologies like robots and machines that exhibit specific movements and behaviors.

  • The Building Blocks: Vertices and Edges: To understand kinetic shapes, we need to grasp two fundamental elements: vertices and edges. Vertices are the points or corners of a shape, while edges are the lines that connect these points. Together, they form the underlying structure of a shape.

  • Embracing Transformations and Animation: Handzic’s research focuses on transforming shapes by manipulating their vertices and edges. These transformations bring shapes to life, allowing them to move and morph in captivating ways. Imagine a shape changing its size, shape, or position – that’s the power of transformations.

  • Unleashing the Potential with Computer Programs: Handzic and their team employed specialized computer programs to create and manipulate kinetic shapes. These programs served as a tool to define shapes, specify transformations, and control how shapes would evolve and move over time. It’s akin to giving instructions to a computer to animate and bring shapes to life.
  • The Wide-Ranging Applications of Kinetic Shapes: The applications of kinetic shapes are vast and exciting. By studying these shapes, scientists and engineers unlock possibilities in fields such as robotics, computer graphics, and animation. Kinetic shapes find their way into video games and movies, where they contribute to the creation of lifelike and dynamic characters.

Let’s explore some real-life examples that demonstrate the concept of kinetic shapes:

  • Transforming Robots: Ever seen a robot that can change its shape? Kinetic shapes provide the foundation for designing robots that can seamlessly transform from one shape to another. This adaptability allows robots to perform different tasks efficiently.

  • Animated Characters: Think of your favorite animated movie or video game character. Animators use the principles of kinetic shapes to breathe life into these characters. This enables them to move, jump, and dance on the screen with fluidity and grace.

Kinetic shapes introduce us to a world where objects can transform and move in awe-inspiring ways. Through the study of these shapes, scientists and engineers gain valuable insights into how objects in the real world can change and interact. By harnessing the power of computer programs, we can bring these dynamic shapes to life and witness advancements in fields such as robotics and animation.

So, the next time you encounter a shape-shifting robot or a mesmerizing animated character on your screen, remember that behind the magic lies the captivating realm of kinetic shapes!

To learn more and read the entire study, CLICK HERE

Share This