3 files changed, 10 insertions, 10 deletions
diff --git a/frontend/2d/_rigidbody/rigidbody_2.js b/frontend/2d/_rigidbody/rigidbody_2.js
index 4632b11..76d8047 100644
--- a/frontend/2d/_rigidbody/rigidbody_2.js
+++ b/frontend/2d/_rigidbody/rigidbody_2.js
@@ -43,7 +43,7 @@
                     // Angular code starts here
     
                     // Retrieve the moment of inertia for our shape (Ours is a circle by default)
-                    const lMomentOfInertia = getMomentOfInertia(lCircle);
+                    const lMomentOfInertia = getCircleMomentOfInertia(lCircle);
     
                     // Calculate the angular acceperation (omega = T / I)
                     const lAngularAcceleration = lCircle.torque / lMomentOfInertia;
diff --git a/frontend/2d/_rigidbody/rigidbody_3a.js b/frontend/2d/_rigidbody/rigidbody_3a.js
index d38f1da..ef9577b 100644
--- a/frontend/2d/_rigidbody/rigidbody_3a.js
+++ b/frontend/2d/_rigidbody/rigidbody_3a.js
@@ -62,7 +62,7 @@
                     pCircle.force = vec2();
     
                     // Same physics updates from part 2
-                    const lMomentOfInertia = getMomentOfInertia(pCircle);
+                    const lMomentOfInertia = getCircleMomentOfInertia(pCircle);
                     const lAngularAcceleration = pCircle.torque / lMomentOfInertia;
                     pCircle.rotationVelocity += lAngularAcceleration * pDeltaTimeSeconds;
                     pCircle.rotationRadians += pCircle.rotationVelocity * pDeltaTimeSeconds;
@@ -118,8 +118,8 @@
     
                     const lNumerator = dot2(scaleVec2(lRelativeVelocity, -(1.0 + COF_OF_RESTITUITION)), lCollisionNormal);
                     const lLinearDenomPart = dot2(lCollisionNormal, (scaleVec2(lCollisionNormal, 1 / horizontalCircle.mass + 1 / verticalCircle.mass)));
-                    const lRotationalDenomPart = (Math.pow(dot2(lFirstPerp, lCollisionNormal), 2) / getMomentOfInertia(horizontalCircle)) 
-                        + (Math.pow(dot2(lSecondPerp, lCollisionNormal), 2) / getMomentOfInertia(verticalCircle))
+                    const lRotationalDenomPart = (Math.pow(dot2(lFirstPerp, lCollisionNormal), 2) / getCircleMomentOfInertia(horizontalCircle)) 
+                        + (Math.pow(dot2(lSecondPerp, lCollisionNormal), 2) / getCircleMomentOfInertia(verticalCircle))
     
                     const lImpulseMagnitude = lNumerator / (lLinearDenomPart + lRotationalDenomPart);
     
@@ -129,8 +129,8 @@
                     horizontalCircle.velocity = addVec2(horizontalCircle.velocity, scaleVec2(lCollisionNormal, lImpulseMagnitude / horizontalCircle.mass));
                     verticalCircle.velocity = subVec2(verticalCircle.velocity, scaleVec2(lCollisionNormal, lImpulseMagnitude / verticalCircle.mass));
     
-                    horizontalCircle.rotationVelocity = horizontalCircle.rotationVelocity + dot2(lFirstPerp, scaleVec2(lCollisionNormal, lImpulseMagnitude)) / getMomentOfInertia(horizontalCircle);
-                    verticalCircle.rotationVelocity = verticalCircle.rotationVelocity - dot2(lSecondPerp, scaleVec2(lCollisionNormal, lImpulseMagnitude)) / getMomentOfInertia(verticalCircle);
+                    horizontalCircle.rotationVelocity = horizontalCircle.rotationVelocity + dot2(lFirstPerp, scaleVec2(lCollisionNormal, lImpulseMagnitude)) / getCircleMomentOfInertia(horizontalCircle);
+                    verticalCircle.rotationVelocity = verticalCircle.rotationVelocity - dot2(lSecondPerp, scaleVec2(lCollisionNormal, lImpulseMagnitude)) / getCircleMomentOfInertia(verticalCircle);
     
                     updateCircle(horizontalCircle, pDeltaTimeSeconds - lSubdividedDeltaTime);
                     updateCircle(verticalCircle, pDeltaTimeSeconds - lSubdividedDeltaTime);
diff --git a/frontend/2d/_rigidbody/rigidbody_3b.js b/frontend/2d/_rigidbody/rigidbody_3b.js
index 803161a..ddb4c70 100644
--- a/frontend/2d/_rigidbody/rigidbody_3b.js
+++ b/frontend/2d/_rigidbody/rigidbody_3b.js
@@ -62,7 +62,7 @@
 
                 // Same physics updates from part 2
                 
-                const lMomentOfInertia = getMomentOfInertia(pCircle);
+                const lMomentOfInertia = getCircleMomentOfInertia(pCircle);
                 const lAngularAcceleration = pCircle.torque / lMomentOfInertia;
                 pCircle.rotationVelocity += lAngularAcceleration * pDeltaTimeSeconds;
                 pCircle.rotationRadians += pCircle.rotationVelocity * pDeltaTimeSeconds;
@@ -119,14 +119,14 @@
     
                     const lNumerator = dot2(scaleVec2(lRelativeVelocity, -(1.0 + COF_OF_RESTITUITION)), lCollisionNormal);
                     const lLinearDenomPart = dot2(lCollisionNormal, (scaleVec2(lCollisionNormal, 1 / lBall.mass)));
-                    const lRotationalDenomPart = (Math.pow(dot2(lFirstPerp, lCollisionNormal), 2) / getMomentOfInertia(lPeg)) 
-                        + (Math.pow(dot2(lSecondPerp, lCollisionNormal), 2) / getMomentOfInertia(lBall))
+                    const lRotationalDenomPart = (Math.pow(dot2(lFirstPerp, lCollisionNormal), 2) / getCircleMomentOfInertia(lPeg)) 
+                        + (Math.pow(dot2(lSecondPerp, lCollisionNormal), 2) / getCircleMomentOfInertia(lBall))
     
                     const lImpulseMagnitude = lNumerator / (lLinearDenomPart + lRotationalDenomPart);
     
                     lBall.position = lSubdividedBall.position;  // Move the ball back to its proper subdivided position
                     lBall.velocity = subVec2(lBall.velocity, scaleVec2(lCollisionNormal, lImpulseMagnitude / lBall.mass));
-                    lBall.rotationVelocity = lBall.rotationVelocity - dot2(lSecondPerp, scaleVec2(lCollisionNormal, lImpulseMagnitude)) / getMomentOfInertia(lBall);
+                    lBall.rotationVelocity = lBall.rotationVelocity - dot2(lSecondPerp, scaleVec2(lCollisionNormal, lImpulseMagnitude)) / getCircleMomentOfInertia(lBall);
 
                     // Now we update in our new direction with the remaining time that we have left.
                     updateCircle(lBall, pDeltaTimeSeconds - lSubdividedDeltaTime);