This code is a UserScript designed to be used with...

September 2, 2025 at 07:52 PM

// ==UserScript==
// @name         Kaa.to Quantum Stabilizer 6x-14x
// @namespace    http://tampermonkey.net/
// @version      4.3
// @description  Adaptive buffer-tier acceleration with quantum response
// @author       Enhanced by Heck.ai
// @match        *://*.kaa.to/*
// @grant        none
// @run-at       document-start
// @require      https://code.jquery.com/jquery-3.6.0.min.js
// ==/UserScript==

(() => {
    'use strict';

    const ACCELERATION_TIERS = [
        { multiplier: 6,  bufferThreshold: 12, cooldown: 2750, stabilization: 1.2 },
        { multiplier: 8,  bufferThreshold: 18, cooldown: 2350, stabilization: 1.4 },
        { multiplier: 10, bufferThreshold: 25, cooldown: 2000, stabilization: 1.6 },
        { multiplier: 12, bufferThreshold: 32, cooldown: 1750, stabilization: 1.8 },
        { multiplier: 14, bufferThreshold: 40, cooldown: 1500, stabilization: 2.0 }
    ];

    class QuantumBufferTracker {
        constructor() {
            this.activeTier = ACCELERATION_TIERS[0];
            this.bufferStates = new Map();
            this.lastBufferLevel = 0;
            this.rateOfChange = 0;
        }

        analyzeBufferDynamics(players) {
            let currentBuffer = 0;
            let minBuffer = Infinity;
            
            players.forEach(player => {
                const buffer = player.element.quantumAPI?.getBufferHealth() || 0;
                currentBuffer += buffer;
                minBuffer = Math.min(minBuffer, buffer);
            });

            this.rateOfChange = currentBuffer - this.lastBufferLevel;
            this.lastBufferLevel = currentBuffer;
            
            return {
                totalBuffer: currentBuffer,
                minBuffer: minBuffer,
                trend: this.rateOfChange > 0 ? 'rising' : 'falling'
            };
        }

        determineOptimalTier(bufferAnalysis) {
            const dynamicThreshold = bufferAnalysis.minBuffer * this.activeTier.stabilization;
            const trendWeight = bufferAnalysis.trend === 'rising' ? 1.2 : 0.8;
            
            return ACCELERATION_TIERS.reduce((bestTier, tier) => {
                const tierScore = (tier.bufferThreshold * trendWeight) - Math.abs(tier.bufferThreshold - dynamicThreshold);
                return tierScore > bestTier.score ? 
                    { tier, score: tierScore } : 
                    bestTier;
            }, { tier: this.activeTier, score: -Infinity }).tier;
        }
    }

    class QuantumAccelerator {
        constructor() {
            this.tracker = new QuantumBufferTracker();
            this.players = [];
            this.intervalId = null;
        }

        initiateQuantumAcceleration() {
            this.detectPlayers();
            if (this.players.length === 0) return;

            this.intervalId = setInterval(() => this.quantumAdaptationCycle(), 250);
        }

        quantumAdaptationCycle() {
            const bufferAnalysis = this.tracker.analyzeBufferDynamics(this.players);
            const targetTier = this.tracker.determineOptimalTier(bufferAnalysis);
            
            if (targetTier !== this.tracker.activeTier) {
                this.executeTierTransition(targetTier, bufferAnalysis);
            }
            
            this.applyStabilizedSpeed(targetTier, bufferAnalysis);
        }

        executeTierTransition(newTier, bufferData) {
            const transitionSpeed = Math.max(
                50, 
                500 - (bufferData.totalBuffer * 10)
            );

            this.players.forEach(player => {
                player.element.quantumAPI.smoothTransition(
                    this.tracker.activeTier.multiplier,
                    newTier.multiplier,
                    transitionSpeed
                );
            });

            this.tracker.activeTier = newTier;
            console.log(`[Quantum] Tier ${newTier.multiplier}x @ ${transitionSpeed}ms transition`);
        }

        applyStabilizedSpeed(tier, bufferData) {
            const stabilityFactor = 1 + (bufferData.trend === 'rising' ? 
                Math.log2(bufferData.totalBuffer) * 0.1 : 
                -Math.log2(Math.max(1, bufferData.rateOfChange)) * 0.2
            );

            this.players.forEach(player => {
                player.element.quantumAPI.setPlaybackRate(
                    tier.multiplier * stabilityFactor,
                    { quantumStabilized: true }
                );
            });
        }

        detectPlayers() {
            this.players = Array.from(document.querySelectorAll('video, .video-player, [data-video-engine]'))
                .map(element => ({
                    element,
                    buffer: element.quantumAPI?.getBufferHealth() || 0,
                    instance: element.quantumAPI
                }));
        }
    }

    // Quantum initialization protocol
    const accelerator = new QuantumAccelerator();
    window.addEventListener('DOMContentLoaded', () => {
        accelerator.initiateQuantumAcceleration();
    });
    window.addEventListener('beforeunload', () => {
        clearInterval(accelerator.intervalId);
    });
})();

This code is a UserScript designed to be used with browser extensions like Tampermonkey or Greasemonkey. Here's a breakdown of what it does:

High-Level Function:

The script is intended to optimize video playback on the kaa.to website by dynamically adjusting playback speeds (6x–14x) based on the state of the video player's buffer, using a "quantum stabilization" mechanism. It attempts to ensure smooth playback by monitoring and responding to buffer levels in real time.

Detailed Breakdown:

Metadata:

@name and @description: The script's name is "Kaa.to Quantum Stabilizer 6x-14x". Its purpose is described as adaptive buffer-tier acceleration with "quantum response".
@match: The script is only executed on URLs matching *.kaa.to/*.
@require: jQuery 3.6.0 is included as an external dependency.
@run-at: The script executes at the document-start, meaning it activates as soon as the page begins loading.

Core Functionality:

Acceleration Tiers:
- The script defines several tiers of acceleration with different multipliers (6x to 14x), buffer thresholds, cooldown periods, and stabilization factors.
- These tiers represent possible playback speeds the video player can switch to, aiming for smooth operation under varying conditions.
QuantumBufferTracker Class:
- This class tracks buffer dynamics and determines the current buffer health of the video player(s).
- It continuously analyzes:
  - Overall and minimum buffer levels.
  - Trends in buffer level changes (whether the buffer is "rising" or "falling").
- Based on the collected metrics, it calculates the optimal acceleration tier for smooth playback.
QuantumAccelerator Class:
- This class handles the core logic for adapting the playback speed based on buffer health.
- Key Steps:
  - Detect video players on the page (detectPlayers()).
  - Periodically analyze buffer dynamics and determine the appropriate playback tier (quantumAdaptationCycle()).
  - If necessary, prepare a transition to a new tier (executeTierTransition()).
  - Stabilize playback speed by applying a fine-tuned playback rate (applyStabilizedSpeed()).
- It makes use of a setInterval loop (running every 250ms) to continuously monitor and adapt playback behavior.
Interaction With Video Players:
- The script leverages a hypothetical quantumAPI on video elements to interact with the buffering and playback speed of each video.
- Functions such as getBufferHealth(), smoothTransition(), and setPlaybackRate() are used to read buffer data, enable smooth speed transitions, and adjust playback rates.
Event Listeners:
- The script listens for DOMContentLoaded to start the adaptation process (initiateQuantumAcceleration()).
- A beforeunload listener ensures the cleanup of the setInterval loop when the user leaves the page.

Purpose/Outcome:

Adaptive Playback Optimization:
- The script continuously monitors buffer health and dynamically adjusts playback speed to maintain smooth playback at high acceleration tiers (up to 14x speed).
- It reacts to small buffer changes and minimizes playback interruptions by adjusting both speed and transition durations.
Intelligent Stabilization:
- Stabilization factors and trends ("rising" or "falling" buffers) affect how aggressively or cautiously the script adjusts playback rates.
Real-Time Adaptation:
- Frequent updates (every 250ms) ensure that the script responds quickly to changing conditions, such as network fluctuations affecting the buffer.

Conclusion:

This script is intended for advanced control of video playback on the kaa.to website. It dynamically adjusts playback speeds using buffer-aware logic, ensuring smooth and efficient operation even at very high speeds (6x–14x).

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