/**
 * @typedef {Object} Point
 * @property {number} x - X coordinate
 * @property {number} y - Y coordinate
 */

/**
 * @typedef {Object} PathSegment
 * @property {Point} startPoint - Starting point of the segment
 * @property {Point} endPoint - Ending point of the segment
 * @property {Object} properties - Segment properties
 * @property {number} properties.width - Line width
 * @property {string} properties.strokeColor - Stroke color
 */

/**
 * @typedef {Object} DecorativeElement
 * @property {Point} position - Element position
 * @property {string} type - Element type (e.g., 'circle', 'dot')
 * @property {Object} properties - Element properties
 * @property {number} properties.radius - Element radius
 * @property {string} properties.color - Element color
 */

/**
 * @typedef {Object} RadiatingEffect
 * @property {Point} origin - Starting point on the boundary
 * @property {Object} path - Path information
 * @property {Object} path.direction - Direction vector
 * @property {number} path.direction.dx - X component of direction
 * @property {number} path.direction.dy - Y component of direction
 * @property {number} path.length - Path length
 * @property {PathSegment[]} path.segments - Path segments
 * @property {DecorativeElement[]} [decorativeElements] - Optional decorative elements
 */

/**
 * @typedef {Object} MaskInfo
 * @property {Point} center - Centroid of the mask
 * @property {Point[]} edgePoints - Array of points along the mask's edge
 */

/**
 * @typedef {Object} OverlayEffect
 * @property {Object} baseShape - Base shape information
 * @property {Point} baseShape.center - Center point
 * @property {Point[]} baseShape.boundaryPoints - Boundary points
 * @property {Object} baseShape.bounds - Shape bounds
 * @property {number} baseShape.bounds.width - Width
 * @property {number} baseShape.bounds.height - Height
 * @property {RadiatingEffect[]} radiatingEffects - Array of radiating effects
 */

/**
 * @class MaskProcessor
 * @description Processes bitmap masks to generate decorative flame-like effects radiating from edges.
 */
class MaskProcessor {
    /**
     * @constructor
     * @param {number} width - Canvas width in pixels
     * @param {number} height - Canvas height in pixels
     * @param {number} [lineLengthRatio=1.0] - Ratio controlling the length of radiating lines
     * @param {number} [numLines=10] - Number of radiating lines to draw
     * @param {number} [lineWidthRatio=0.01] - Ratio of line width to contour circumference
     */
    constructor(width, height, lineLengthRatio = 1.0, numLines = 20, lineWidthRatio = 0.01) {
        this.debug = false;
        this.width = width;
        this.height = height;
        
        this.inputCanvas = document.createElement('canvas');
        this.outputCanvas = document.createElement('canvas');
        
        this.inputCanvas.width = width;
        this.inputCanvas.height = height;
        this.outputCanvas.width = width;
        this.outputCanvas.height = height;
        
        this.inputCtx = this.inputCanvas.getContext('2d');
        this.outputCtx = this.outputCanvas.getContext('2d');
        this.maskInfo = null;
        this.lineLengthRatio = lineLengthRatio;
        this.numLines = numLines;
        this.lineWidthRatio = lineWidthRatio;
        this.strokeColor = 'black';
        this.elementColor = 'black';
        
        this.domInputCanvas = document.getElementById('inputCanvas');
        this.domOutputCanvas = document.getElementById('outputCanvas');
        
        if (!this.domInputCanvas || !this.domOutputCanvas) {
            console.error('Failed to find canvas elements');
        }
    }

    /**
     * @method generateRandomMask
     * @description Generates a random organic mask shape using quadratic curves and enhanced bulge calculations
     * @returns {MaskInfo} Contains center point and edge points of the generated mask
     */
    generateRandomMask() {
        this.inputCanvas.width = 400;
        this.inputCanvas.height = 400;
        this.width = 400;
        this.height = 400;
        
        // Reset DOM canvas dimensions
        this.domInputCanvas.width = 400;
        this.domInputCanvas.height = 400;
        this.domOutputCanvas.width = 400;
        this.domOutputCanvas.height = 400;
        
        // Reset display styles
        this.domInputCanvas.style.width = '400px';
        this.domInputCanvas.style.height = '400px';
        this.domOutputCanvas.style.width = '400px';
        this.domOutputCanvas.style.height = '400px';
        
        // Clear canvas
        this.inputCtx.fillStyle = 'white';
        this.inputCtx.fillRect(0, 0, this.width, this.height);
        
        const centerX = this.width / 2;
        const centerY = this.height / 2;
        const baseRadius = Math.min(this.width, this.height) * 0.15;
        const numPoints = 6 + Math.floor(Math.random() * 3);
        const points = [];

        // Generate base points with smoother distribution
        for (let i = 0; i < numPoints; i++) {
            const angle = (i / numPoints) * Math.PI * 2;
            // Smoother radius variation
            const radiusVariation = baseRadius * (0.8 + Math.random() * 0.4);
            const x = centerX + Math.cos(angle) * radiusVariation;
            const y = centerY + Math.sin(angle) * radiusVariation;
            points.push({ x, y });
        }

        // Draw the mask with enhanced curves
        this.inputCtx.fillStyle = 'black';
        
        this.inputCtx.beginPath();
        this.inputCtx.moveTo(points[0].x, points[0].y);

        const curvePoints = [];
        const numCurvePoints = 240; // Increased for smoother sampling

        // Draw and sample points along curves between vertices
        for (let i = 0; i < points.length; i++) {
            const current = points[i];
            const next = points[(i + 1) % points.length];
            
            // Enhanced bulge calculation
            const midX = (current.x + next.x) / 2;
            const midY = (current.y + next.y) / 2;
            const bulgeX = midX - centerX;
            const bulgeY = midY - centerY;
            const bulgeLength = Math.sqrt(bulgeX * bulgeX + bulgeY * bulgeY);
            const segmentLength = Math.sqrt(
                Math.pow(next.x - current.x, 2) + 
                Math.pow(next.y - current.y, 2)
            );
            // Scale bulge factor based on segment length
            const bulgeFactor = baseRadius * (0.2 + Math.random() * 0.2) * 
                              (segmentLength / baseRadius) * 0.5;
            const controlX = midX + (bulgeX / bulgeLength) * bulgeFactor;
            const controlY = midY + (bulgeY / bulgeLength) * bulgeFactor;

            // Sample points with adaptive density
            const pointsPerSegment = Math.ceil((numCurvePoints / points.length) * 
                                   (segmentLength / (baseRadius * 2)));
            for (let t = 0; t < 1; t += 1/pointsPerSegment) {
                const t1 = 1 - t;
                const x = t1 * t1 * current.x + 2 * t1 * t * controlX + t * t * next.x;
                const y = t1 * t1 * current.y + 2 * t1 * t * controlY + t * t * next.y;
                curvePoints.push({ x, y });
            }

            this.inputCtx.quadraticCurveTo(controlX, controlY, next.x, next.y);
        }

        this.inputCtx.closePath();
        this.inputCtx.fill();

        // Store mask info with evenly distributed points
        this.maskInfo = {
            center: { x: centerX, y: centerY },
            edgePoints: this.redistributePoints(curvePoints, 100)
        };
        
        return this.maskInfo;
    }

    /**
     * @method redistributePoints
     * @description Redistributes points evenly along a path defined by a series of points
     * @param {Point[]} points - Original array of points defining the path
     * @param {number} targetCount - Desired number of evenly spaced points
     * @returns {Point[]} Array of evenly distributed points
     * @private
     */
    redistributePoints(points, targetCount) {
        // Calculate total perimeter length
        let totalLength = 0;
        const segments = [];
        for (let i = 0; i < points.length; i++) {
            const next = points[(i + 1) % points.length];
            const length = Math.sqrt(
                Math.pow(next.x - points[i].x, 2) + 
                Math.pow(next.y - points[i].y, 2)
            );
            totalLength += length;
            segments.push({ start: points[i], end: next, length });
        }

        // Redistribute points evenly
        const spacing = totalLength / targetCount;
        const newPoints = [];
        let currentDist = 0;
        let currentSegment = 0;
        let segmentPos = 0;

        for (let i = 0; i < targetCount; i++) {
            while (currentDist >= segments[currentSegment].length) {
                currentDist -= segments[currentSegment].length;
                currentSegment = (currentSegment + 1) % segments.length;
            }

            const seg = segments[currentSegment];
            const t = currentDist / seg.length;
            newPoints.push({
                x: seg.start.x + (seg.end.x - seg.start.x) * t,
                y: seg.start.y + (seg.end.y - seg.start.y) * t
            });

            currentDist += spacing;
        }

        return newPoints;
    }

    /**
     * @private
     * @method drawRadiatingLine
     * @description Draws a single radiating line from a point on the mask's edge
     * @param {Object} point - The starting point on the mask's edge
     * @param {number} lineLength - The length of the line to draw
     */
    drawRadiatingLine(point, lineLength) {
        const dx = point.x - this.maskInfo.center.x;
        const dy = point.y - this.maskInfo.center.y;
        const length = Math.sqrt(dx * dx + dy * dy);
        const normalizedDx = dx / length;
        const normalizedDy = dy / length;

        this.outputCtx.beginPath();
        this.outputCtx.moveTo(point.x, point.y);
        this.outputCtx.lineTo(
            point.x + normalizedDx * lineLength,
            point.y + normalizedDy * lineLength
        );
        this.outputCtx.stroke();
    }

    /**
     * @private
     * @method calculateBaseLineWidth
     * @description Calculates the base line width based on the contour circumference
     * @returns {number} Calculated base line width
     */
    calculateBaseLineWidth() {
        if (!this.maskInfo || !this.maskInfo.edgePoints) {
            return 10; // Default fallback value
        }

        let circumference = 0;
        const points = this.maskInfo.edgePoints;
        
        for (let i = 0; i < points.length; i++) {
            const current = points[i];
            const next = points[(i + 1) % points.length];
            const distance = Math.sqrt(
                Math.pow(next.x - current.x, 2) + 
                Math.pow(next.y - current.y, 2)
            );
            circumference += distance;
        }

        return Math.max(1, circumference * this.lineWidthRatio);
    }

    /**
     * @method generateFlameRayEffect
     * @description Generates data for a flame-like effect radiating from an edge point
     * @param {Point} point - Starting point on the mask's edge
     * @param {Point} nextPoint - Next point on the mask's edge
     * @param {number} lineLength - Length of the flame effect
     * @returns {RadiatingEffect} Generated flame effect data
     * @private
     */
    generateFlameRayEffect(point, nextPoint, lineLength) {
        const amplitudeInitialMod = 0.2;
        const amplitudeDecayMod = 0.8;
        const baseLineWidth = this.calculateBaseLineWidth();
        
        // Calculate direction vectors for both current and next points
        const dx1 = point.x - this.maskInfo.center.x;
        const dy1 = point.y - this.maskInfo.center.y;
        const length1 = Math.sqrt(dx1 * dx1 + dy1 * dy1);
        const normalizedDx1 = dx1 / length1;
        const normalizedDy1 = dy1 / length1;

        const dx2 = nextPoint.x - this.maskInfo.center.x;
        const dy2 = nextPoint.y - this.maskInfo.center.y;
        const length2 = Math.sqrt(dx2 * dx2 + dy2 * dy2);
        const normalizedDx2 = dx2 / length2;
        const normalizedDy2 = dy2 / length2;

        // Calculate midpoint between current and next flame
        const midPoint = {
            x: (point.x + nextPoint.x) / 2,
            y: (point.y + nextPoint.y) / 2
        };

        const numWaves = Math.max(5, lineLength / 5);
        const initialAmplitude = lineLength * amplitudeInitialMod;
        const minLineWidth = 1;

        const segments = [];
        const decorativeElements = [];

        // Generate path segments for the main flame rays
        for (let i = 0; i < numWaves; i++) {
            const t = i / numWaves;
            const nextT = (i + 1) / numWaves;
            
            // Calculate current wave points for both flames
            const waveX = point.x + normalizedDx1 * lineLength * t;
            const waveY = point.y + normalizedDy1 * lineLength * t;
            const nextWaveX = point.x + normalizedDx1 * lineLength * nextT;
            const nextWaveY = point.y + normalizedDy1 * lineLength * nextT;

            // Calculate wave amplitudes and offsets
            const currentAmplitude = initialAmplitude * (1 - t * amplitudeDecayMod);
            const offsetX = -normalizedDy1 * Math.sin(t * Math.PI * 2) * currentAmplitude;
            const offsetY = normalizedDx1 * Math.sin(t * Math.PI * 2) * currentAmplitude;
            const nextAmplitude = initialAmplitude * (1 - nextT * amplitudeDecayMod);
            const nextOffsetX = -normalizedDy1 * Math.sin(nextT * Math.PI * 2) * nextAmplitude;
            const nextOffsetY = normalizedDx1 * Math.sin(nextT * Math.PI * 2) * nextAmplitude;

            // Interpolate between the two direction vectors for virtual flame
            const interpolationFactor = 0.5; // Can be adjusted for different effects
            const virtualDx = normalizedDx1 * (1 - interpolationFactor) + normalizedDx2 * interpolationFactor;
            const virtualDy = normalizedDy1 * (1 - interpolationFactor) + normalizedDy2 * interpolationFactor;
            
            // Normalize the interpolated direction
            const virtualLength = Math.sqrt(virtualDx * virtualDx + virtualDy * virtualDy);
            const normalizedVirtualDx = virtualDx / virtualLength;
            const normalizedVirtualDy = virtualDy / virtualLength;

            // Calculate virtual flame point with interpolated direction and sinusoidal pattern
            const virtualFlameX = midPoint.x + normalizedVirtualDx * lineLength * t;
            const virtualFlameY = midPoint.y + normalizedVirtualDy * lineLength * t;

            // Add sinusoidal pattern to virtual flame position
            const virtualAmplitude = currentAmplitude;
            const virtualOffsetX = -normalizedVirtualDy * Math.sin(t * Math.PI * 2) * virtualAmplitude;
            const virtualOffsetY = normalizedVirtualDx * Math.sin(t * Math.PI * 2) * virtualAmplitude;

            segments.push({
                startPoint: {
                    x: waveX + offsetX,
                    y: waveY + offsetY
                },
                endPoint: {
                    x: nextWaveX + nextOffsetX,
                    y: nextWaveY + nextOffsetY
                },
                properties: {
                    width: baseLineWidth - (baseLineWidth - minLineWidth) * t,
                    strokeColor: this.strokeColor
                }
            });

            // Add decorative elements along virtual flame path with sinusoidal pattern
            const startStep = 2;
            if (i >= startStep && i % 3 === 0) {
                const progress = (i - startStep) / (numWaves - startStep);
                const minRadius = minLineWidth / 2;
                const maxRadius = baseLineWidth * 0.6;
                const currentRadius = minRadius + (maxRadius - minRadius) * progress;
                
                decorativeElements.push({
                    position: {
                        x: virtualFlameX + virtualOffsetX,
                        y: virtualFlameY + virtualOffsetY
                    },
                    type: 'circle',
                    properties: {
                        radius: currentRadius,
                        color: this.elementColor
                    }
                });
            }
        }

        return {
            origin: point,
            path: {
                direction: { dx: normalizedDx1, dy: normalizedDy1 },
                length: lineLength,
                segments
            },
            decorativeElements
        };
    }

    /**
     * @method renderFlameRayEffect
     * @description Renders a flame ray effect including path segments and decorative elements
     * @param {RadiatingEffect} effect - The effect data to render
     * @private
     */
    renderFlameRayEffect(effect) {
        // Render main path segments
        effect.path.segments.forEach(segment => {
            this.outputCtx.beginPath();
            this.outputCtx.lineWidth = segment.properties.width;
            this.outputCtx.strokeStyle = segment.properties.strokeColor || this.strokeColor;
            this.outputCtx.moveTo(segment.startPoint.x, segment.startPoint.y);
            this.outputCtx.lineTo(segment.endPoint.x, segment.endPoint.y);
            this.outputCtx.stroke();
        });

        // Render decorative elements
        if (effect.decorativeElements) {
            effect.decorativeElements.forEach(element => {
                if (element.type === 'circle') {
                    this.outputCtx.fillStyle = element.properties.color || this.elementColor;
                    this.outputCtx.beginPath();
                    this.outputCtx.arc(
                        element.position.x,
                        element.position.y,
                        element.properties.radius,
                        0,
                        Math.PI * 2
                    );
                    this.outputCtx.fill();
                }
            });
        }
    }

    /**
     * @private
     * @method setupOutputCanvas
     * @description Prepares the output canvas for drawing
     */
    setupOutputCanvas() {
        this.outputCtx.fillStyle = 'white';
        this.outputCtx.fillRect(0, 0, this.width, this.height);
        this.outputCtx.drawImage(this.inputCanvas, 0, 0);
        
        this.outputCtx.strokeStyle = 'black';
        this.outputCtx.lineCap = 'round';
        // Line width will be set per segment in renderFlameRayEffect
    }

    /**
     * @private
     * @method copyToDOM
     * @description Copies the internal canvases to the DOM canvases
     */
    copyToDOM() {
        const domInputCtx = this.domInputCanvas.getContext('2d');
        const domOutputCtx = this.domOutputCanvas.getContext('2d');
        
        domInputCtx.clearRect(0, 0, this.width, this.height);
        domOutputCtx.clearRect(0, 0, this.width, this.height);
        
        domInputCtx.drawImage(this.inputCanvas, 0, 0);
        domOutputCtx.drawImage(this.outputCanvas, 0, 0);
    }

    /**
     * @method processMask
     * @description Generates decorative effects based on the analyzed mask.
     */
    processMask() {
        if (!this.maskInfo) {
            this.generateRandomMask();
        }

        this.setupOutputCanvas();

        // Debug visualization
        if (this.debug) {
            this.outputCtx.fillStyle = 'red';
            this.maskInfo.edgePoints.forEach(point => {
                this.outputCtx.beginPath();
                this.outputCtx.arc(point.x, point.y, 2, 0, Math.PI * 2);
                this.outputCtx.fill();
            });
        }

        // Select evenly distributed points around the contour
        const selectedPoints = this.selectEvenlyDistributedPoints(
            this.maskInfo.edgePoints, 
            this.numLines
        );

        // Process each selected point
        for (let i = 0; i < selectedPoints.length; i++) {
            const point = selectedPoints[i];
            const nextPoint = selectedPoints[(i + 1) % selectedPoints.length];
            const lineLength = Math.sqrt(
                Math.pow(point.x - this.maskInfo.center.x, 2) + 
                Math.pow(point.y - this.maskInfo.center.y, 2)
            ) * this.lineLengthRatio;
            
            const effect = this.generateFlameRayEffect(point, nextPoint, lineLength);
            this.renderFlameRayEffect(effect);
        }

        this.copyToDOM();
    }

    /**
     * @private
     * @method selectEvenlyDistributedPoints
     * @description Selects points that are evenly distributed along the contour
     * @param {Point[]} points - Array of points along the contour
     * @param {number} count - Number of points to select
     * @returns {Point[]} Array of selected points
     */
    selectEvenlyDistributedPoints(points, count) {
        if (points.length <= count) return points;

        // Calculate the total contour length
        let totalLength = 0;
        const distances = [];
        
        for (let i = 0; i < points.length; i++) {
            const current = points[i];
            const next = points[(i + 1) % points.length];
            const distance = Math.sqrt(
                Math.pow(next.x - current.x, 2) + 
                Math.pow(next.y - current.y, 2)
            );
            distances.push(distance);
            totalLength += distance;
        }

        // Calculate the ideal spacing between points
        const spacing = totalLength / count;
        const selectedPoints = [];
        let currentDistance = 0;
        let currentIndex = 0;
        let accumulatedDistance = 0;

        // Select points based on accumulated distance
        for (let i = 0; i < count; i++) {
            const targetDistance = (i * totalLength) / count;

            // Find the point closest to the target distance
            while (accumulatedDistance < targetDistance && currentIndex < distances.length) {
                accumulatedDistance += distances[currentIndex];
                currentIndex++;
            }

            // Get the actual point
            selectedPoints.push(points[currentIndex % points.length]);
        }

        return selectedPoints;
    }

    /**
     * @method detectMaskFromBitmap
     * @description Analyzes bitmap data to extract mask information
     * @returns {MaskInfo} Analyzed mask data including center and edge points
     */
    detectMaskFromBitmap() {
        const imageData = this.inputCtx.getImageData(0, 0, this.width, this.height);
        const pixels = imageData.data;
        
        // Find mask boundaries and center
        const center = this.calculateMaskCentroid(pixels);
        const edges = this.detectEdgePoints(pixels, center);
        
        // Store and return mask info
        this.maskInfo = {
            center: center,
            edgePoints: this.redistributePoints(edges, 100) // Maintain consistent point count
        };
        
        return this.maskInfo;
    }

    /**
     * @private
     * @method calculateMaskCentroid
     * @description Calculates the centroid (center of mass) of the mask
     * @param {Uint8ClampedArray} pixels - Canvas pixel data
     * @returns {Object} Center point {x, y}
     */
    calculateMaskCentroid(pixels) {
        let sumX = 0, sumY = 0, total = 0;
        
        for (let y = 0; y < this.height; y++) {
            for (let x = 0; x < this.width; x++) {
                const idx = (y * this.width + x) * 4;
                // Check if pixel is black (part of mask)
                if (pixels[idx] === 0) {
                    sumX += x;
                    sumY += y;
                    total++;
                }
            }
        }
        
        return {
            x: sumX / total,
            y: sumY / total
        };
    }

    /**
     * @private
     * @method detectEdgePoints
     * @description Detects edge points of the mask using a simple edge detection algorithm
     * @param {Uint8ClampedArray} pixels - Canvas pixel data
     * @returns {Array<Object>} Array of edge points
     */
    detectEdgePoints(pixels, center) {
        const edges = [];
        
        // Scan from each direction to find edges
        // Top to bottom
        for (let x = 0; x < this.width; x++) {
            let lastPixel = 255; // Start with white
            for (let y = 0; y < this.height; y++) {
                const idx = (y * this.width + x) * 4;
                const currentPixel = pixels[idx];
                if (lastPixel !== currentPixel) {
                    edges.push({ x, y });
                }
                lastPixel = currentPixel;
            }
        }
        
        // Left to right
        for (let y = 0; y < this.height; y++) {
            let lastPixel = 255; // Start with white
            for (let x = 0; x < this.width; x++) {
                const idx = (y * this.width + x) * 4;
                const currentPixel = pixels[idx];
                if (lastPixel !== currentPixel) {
                    edges.push({ x, y });
                }
                lastPixel = currentPixel;
            }
        }
        
        // Remove duplicates
        const uniqueEdges = [];
        const seen = new Set();
        
        for (const point of edges) {
            const key = `${point.x},${point.y}`;
            if (!seen.has(key)) {
                seen.add(key);
                uniqueEdges.push(point);
            }
        }
        
        // Sort points clockwise around the center
        uniqueEdges.sort((a, b) => {
            const angleA = Math.atan2(a.y - center.y, a.x - center.x);
            const angleB = Math.atan2(b.y - center.y, b.x - center.x);
            return angleA - angleB;
        });
        
        return uniqueEdges;
    }

    /**
     * @method updateCanvasDimensions
     * @description Updates the dimensions of both internal and DOM canvases
     * @param {number} width - New width for the canvases
     * @param {number} height - New height for the canvases
     */
    updateCanvasDimensions(width, height) {
        this.width = width;
        this.height = height;

        // Update internal canvases
        this.inputCanvas.width = width;
        this.inputCanvas.height = height;
        this.outputCanvas.width = width;
        this.outputCanvas.height = height;

        // Update DOM canvases
        this.domInputCanvas.width = width;
        this.domInputCanvas.height = height;
        this.domOutputCanvas.width = width;
        this.domOutputCanvas.height = height;

        // Update display styles
        this.domInputCanvas.style.width = `${width}px`;
        this.domInputCanvas.style.height = `${height}px`;
        this.domOutputCanvas.style.width = `${width}px`;
        this.domOutputCanvas.style.height = `${height}px`;
    }

    /**
     * @method loadMask
     * @description Primary entry point for processing an existing mask image.
     * Handles the complete workflow of loading, detecting edges, and generating effects.
     * @param {HTMLImageElement} img - The mask image to process
     */
    loadMask(img) {
        // Update canvas dimensions
        this.updateCanvasDimensions(img.width, img.height);

        // Clear the input canvas
        this.inputCtx.clearRect(0, 0, this.width, this.height);

        // Draw the image onto the input canvas
        this.inputCtx.drawImage(img, 0, 0, img.width, img.height);

        // Detect the mask from the bitmap
        this.detectMaskFromBitmap();

        // Process the mask
        this.processMask();
    }

    // /**
    //  * @private
    //  * @method generateOverlayData
    //  * @description Generates complete overlay effect data structure
    //  * @returns {OverlayEffect} Generated overlay effect data
    //  * @private
    //  */
    // generateOverlayData() {
    //     if (!this.maskInfo) {
    //         this.generateRandomMask();
    //     }

    //     const totalEdgePoints = this.maskInfo.edgePoints.length;
    //     const step = totalEdgePoints >= this.numLines ? 
    //         Math.floor(totalEdgePoints / this.numLines) : 1;

    //     const radiatingEffects = [];

    //     // Generate data for each radiating effect
    //     for (let i = 0; i < totalEdgePoints; i += step) {
    //         const point = this.maskInfo.edgePoints[i];
    //         const dx = point.x - this.maskInfo.center.x;
    //         const dy = point.y - this.maskInfo.center.y;
    //         const length = Math.sqrt(dx * dx + dy * dy) * this.lineLengthRatio;
            
    //         radiatingEffects.push({
    //             origin: point,
    //             path: {
    //                 direction: {
    //                     dx: dx / length,
    //                     dy: dy / length
    //                 },
    //                 length: length,
    //                 segments: [] // Would be populated based on effect type
    //             }
    //         });
    //     }

    //     return {
    //         baseShape: {
    //             center: this.maskInfo.center,
    //             boundaryPoints: this.maskInfo.edgePoints,
    //             bounds: {
    //                 width: this.width,
    //                 height: this.height
    //             }
    //         },
    //         radiatingEffects
    //     };
    // }

    // /**
    //  * @method setColors
    //  * @description Sets the base colors for strokes and decorative elements
    //  * @param {string} strokeColor - Color for line strokes
    //  * @param {string} elementColor - Color for decorative elements
    //  */
    // setColors(strokeColor, elementColor) {
    //     this.strokeColor = strokeColor;
    //     this.elementColor = elementColor;
    // }
}

if (typeof module !== 'undefined' && module.exports) {
    module.exports = MaskProcessor;
}