Google Gravity Tornado -

Google Gravity Tornado is a delightful browser toy — part nostalgia, part physics sandbox. While not a real Google feature, it showcases creative JavaScript hacking and remains a fun way to “break” Google without any permanent damage.

Try it once, laugh as the search box flies into a whirlwind, then refresh the page to return to normal.

For the curious developers out there, here’s a very simplified conceptual example of how you might apply a tornado effect to any webpage using JavaScript and a physics library. (This is not a full working hack but demonstrates the logic.)

// Pseudo-code for a tornado force
function applyTornadoForce(element, centerX, centerY, strength) 
  let dx = element.x - centerX;
  let dy = element.y - centerY;
  let distance = Math.sqrt(dx*dx + dy*dy);
// Radial force (pulls inward)
let radialForceX = -dx / distance * strength;
let radialForceY = -dy / distance * strength; google gravity tornado
// Tangential force (creates spin)
let tangentialForceX = -dy / distance * strength * 0.5;
let tangentialForceY = dx / distance * strength * 0.5;
// Apply to element's velocity
element.vx += radialForceX + tangentialForceX;
element.vy += radialForceY + tangentialForceY;

In the real Google Gravity Tornado, this function runs on every UI element 60 times per second, creating the swirling illusion.

In the vast, often sterile landscape of modern web design, Google is famous for hiding delightful little anomalies. While most users know about "Google Gravity"—the 2009 experiment where the search page collapses into a heap at the bottom of the screen—fewer are familiar with its chaotic, spinning sibling: the Google Gravity Tornado.

It is a hidden corner of the internet where physics goes to misbehave. Google Gravity Tornado is a delightful browser toy

// Pseudo-code for a basic gravity tornado
let elements = document.querySelectorAll('body *');
let center = x: window.innerWidth/2, y: window.innerHeight/2;
function tornadoForce(element) 
let dx = element.x - center.x;
let dy = element.y - center.y;
let distance = Math.hypot(dx, dy);
let angle = Math.atan2(dy, dx);
let radialForce = -0.01 * distance;  // pull inward
let tangentialForce = 0.05;          // spin
element.vx += radialForce * Math.cos(angle) - tangentialForce * Math.sin(angle);
element.vy += radialForce * Math.sin(angle) + tangentialForce * Math.cos(angle);
 For the curious developers out there, here’s a