onMounted(() => const animator = new PlayerAnimator( container: animatorCanvas.value ); // Confirm version via animator.version property (0.9.9+) console.log(animator.version); // "0.9.9" ); </script>
const PlayerAnimator = window.PlayerAnimator; const myAnimation = new PlayerAnimator( duration: 5000, frames: [0, 0.25, 0.5, 0.75, 1] ); install player-animator%2C version 0.9.9 or later.
In modern game development and web-based 3D experiences, animation logic often becomes a bottleneck. Without a structured system, developers face a "spaghetti code" dilemma where animation states are tightly coupled with input handling. The player-animator package offers a modular solution, decoupling the visual representation of a character from the logical inputs that drive it. By enforcing a requirement of version 0.9.9 or later, developers ensure access to critical patches regarding state transition timing and memory optimization. // "0.9.9" )
npm install player-animator@latest
onMounted(() => const animator = new PlayerAnimator( container: animatorCanvas.value ); // Confirm version via animator.version property (0.9.9+) console.log(animator.version); // "0.9.9" ); </script>
const PlayerAnimator = window.PlayerAnimator; const myAnimation = new PlayerAnimator( duration: 5000, frames: [0, 0.25, 0.5, 0.75, 1] );
In modern game development and web-based 3D experiences, animation logic often becomes a bottleneck. Without a structured system, developers face a "spaghetti code" dilemma where animation states are tightly coupled with input handling. The player-animator package offers a modular solution, decoupling the visual representation of a character from the logical inputs that drive it. By enforcing a requirement of version 0.9.9 or later, developers ensure access to critical patches regarding state transition timing and memory optimization.
npm install player-animator@latest
