// DDR-Bench Interactive Charts with Smooth Animations
// Using Plotly.js with animate for smooth transitions

// Common Plotly layout settings for dark theme
const darkLayout = {
    paper_bgcolor: 'rgba(30, 41, 59, 0)',
    plot_bgcolor: 'rgba(30, 41, 59, 0)',
    font: {
        family: 'Inter, sans-serif',
        color: '#e2e8f0',
        size: 11
    },
    xaxis: {
        gridcolor: 'rgba(148, 163, 184, 0.12)',
        linecolor: 'rgba(148, 163, 184, 0.2)',
        tickfont: { color: '#94a3b8', size: 10 },
        title: { font: { color: '#e2e8f0', size: 11 } }
    },
    yaxis: {
        gridcolor: 'rgba(148, 163, 184, 0.12)',
        linecolor: 'rgba(148, 163, 184, 0.2)',
        tickfont: { color: '#94a3b8', size: 10 },
        title: { font: { color: '#e2e8f0', size: 11 } }
    },
    legend: {
        bgcolor: 'rgba(30, 41, 59, 0.9)',
        bordercolor: 'rgba(148, 163, 184, 0.2)',
        borderwidth: 1,
        font: { color: '#e2e8f0', size: 10 },
        orientation: 'h',
        y: -0.2,
        x: 0.5,
        xanchor: 'center'
    },
    hoverlabel: {
        bgcolor: '#1e293b',
        bordercolor: '#6366f1',
        font: { color: '#e2e8f0', size: 11 }
    },
    margin: { t: 20, r: 15, b: 60, l: 50 }
};

const plotlyConfig = {
    displayModeBar: true,
    responsive: true,
    modeBarButtonsToRemove: ['lasso2d', 'select2d', 'autoScale2d'],
    displaylogo: false
};

// Animation settings for smooth transitions
const animationSettings = {
    transition: {
        duration: 500,
        easing: 'cubic-in-out'
    },
    frame: {
        duration: 500
    }
};

// Current state
let currentScalingDim = 'turn';
let currentProbingMode = 'byTurn';

// Tab Navigation
document.querySelectorAll('.nav-tab').forEach(tab => {
    tab.addEventListener('click', () => {
        document.querySelectorAll('.nav-tab').forEach(t => t.classList.remove('active'));
        tab.classList.add('active');

        const sectionId = tab.dataset.section;
        document.querySelectorAll('.section').forEach(s => s.classList.remove('active'));
        document.getElementById(sectionId).classList.add('active');

        // Resize plots on tab change
        setTimeout(() => window.dispatchEvent(new Event('resize')), 100);
    });
});

// ============================================================================
// SCALING ANALYSIS - 3 Charts with animated dimension switching
// ============================================================================


// ============================================================================
// SCALING ANALYSIS - Normalized Coordinate System for Smooth Animation
// ============================================================================

// Helper to normalize values to [0, 1]
function normalizeData(values, type) {
    if (values.length === 0) return { normalized: [], min: 0, max: 1 };

    let min, max;
    let normalized;

    if (type === 'log') {
        // Filter positive values for log
        const positiveValues = values.filter(v => v > 0);
        min = Math.min(...positiveValues);
        max = Math.max(...positiveValues);
        const logMin = Math.log10(min);
        const logMax = Math.log10(max);
        const range = logMax - logMin || 1;

        normalized = values.map(v => v > 0 ? (Math.log10(v) - logMin) / range : 0);
    } else {
        min = 0; // Always start linear scales at 0 for this use case
        max = Math.max(...values);
        const range = max - min || 1;

        normalized = values.map(v => (v - min) / range);
    }

    return { normalized, min, max };
}

// Helper to generate pretty ticks for normalized scale [0, 1]
function generateTicks(min, max, type) {
    const tickVals = [0, 0.2, 0.4, 0.6, 0.8, 1.0];
    let tickText;

    if (type === 'log') {
        const logMin = Math.log10(min);
        const logMax = Math.log10(max);
        const range = logMax - logMin;

        tickText = tickVals.map(v => {
            const val = Math.pow(10, logMin + (v * range));
            if (val >= 1) return val.toFixed(1);
            return val.toFixed(3); // More precision for small costs
        });
        // Format as currency
        tickText = tickText.map(t => '$' + t);
    } else {
        const range = max - min;
        tickText = tickVals.map(v => {
            const val = min + (v * range);
            if (val >= 1000) return (val / 1000).toFixed(0) + 'k';
            return val.toFixed(0);
        });
    }

    return { tickVals, tickText };
}

// Exact axis ranges from Python scripts
const SCALING_Y_RANGES = {
    'mimic': [5, 40],    // Python: y_min=5, y_max=40
    '10k': [0, 85],      // Python: y_min=0, y_max=85
    'globem': [0, 50]    // Python: y_min=0, y_max=50
};

function initScalingCharts() {
    const scenarios = ['mimic', '10k', 'globem'];

    scenarios.forEach(scenario => {
        const data = DDR_DATA.scaling[scenario];
        if (!data) return;

        const models = Object.keys(data);
        const traces = [];

        // Initial dimension is 'turn'
        const allTurns = models.flatMap(m => data[m].turns);
        const { normalized: normTurns, min: minTurn, max: maxTurn } = normalizeData(allTurns, 'linear');
        const { tickVals, tickText } = generateTicks(minTurn, maxTurn, 'linear');

        // We need to slice the normalized array back to per-model arrays
        let offset = 0;
        models.forEach(model => {
            const len = data[model].turns.length;
            const modelNormX = normTurns.slice(offset, offset + len);
            offset += len;

            traces.push({
                x: modelNormX,
                y: data[model].accuracy,
                mode: 'lines+markers',
                name: model,
                line: { color: DDR_DATA.modelColors[model] || '#888', width: 2 },
                marker: { size: 6, color: DDR_DATA.modelColors[model] || '#888' },
                hovertemplate: `<b>${model}</b><br>Turn: %{customdata}<br>Accuracy: %{y:.2f}%<extra></extra>`,
                customdata: data[model].turns // Store real values for hover
            });
        });

        const yRange = SCALING_Y_RANGES[scenario] || [0, 100];

        const layout = {
            ...darkLayout,
            xaxis: {
                ...darkLayout.xaxis,
                title: { text: 'Number of Interaction Turns', font: { size: 11, color: '#e2e8f0' } },
                type: 'linear', // ALWAYS LINEAR
                range: [-0.05, 1.05], // FIXED RANGE
                tickmode: 'array',
                tickvals: tickVals,
                ticktext: tickText,
                zeroline: false
            },
            yaxis: {
                ...darkLayout.yaxis,
                title: { text: 'Accuracy (%)', font: { size: 11, color: '#e2e8f0' } },
                dtick: 5,
                range: yRange
            },
            showlegend: true
        };

        Plotly.newPlot(`scaling-${scenario}`, traces, layout, plotlyConfig);
    });
}


// Inject CSS for line drawing animation
const style = document.createElement('style');
style.textContent = `
    .js-line path {
        transition: stroke-dashoffset 1s ease-out;
    }
`;
document.head.appendChild(style);

function updateScalingCharts(dimension) {
    const scenarios = ['mimic', '10k', 'globem'];
    const xLabels = {
        'turn': 'Number of Interaction Turns',
        'token': 'Total Costed Tokens',
        'cost': 'Inference Cost ($)'
    };

    scenarios.forEach(scenario => {
        const data = DDR_DATA.scaling[scenario];
        if (!data) return;

        const models = Object.keys(data);

        // 1. Collect all raw X values for normalization
        const allRawX = [];
        models.forEach(model => {
            switch (dimension) {
                case 'turn': allRawX.push(...data[model].turns); break;
                case 'token': allRawX.push(...data[model].tokens); break;
                case 'cost': allRawX.push(...data[model].costs); break;
            }
        });

        // 2. Normalize data
        const type = dimension === 'cost' ? 'log' : 'linear';
        const { normalized: allNormX, min: minX, max: maxX } = normalizeData(allRawX, type);
        const { tickVals, tickText } = generateTicks(minX, maxX, type);

        // 3. Prepare update data
        const newTraces = [];
        let offset = 0;

        const hoverLabels = { 'turn': 'Turns', 'token': 'Tokens', 'cost': 'Cost' };
        const hoverFormat = dimension === 'token' ? (v) => v.toLocaleString() : (dimension === 'cost' ? (v) => '$' + v.toFixed(4) : (v) => v);

        models.forEach((model, i) => {
            const len = data[model].turns.length;
            const modelNormX = allNormX.slice(offset, offset + len);

            // Get raw values for customdata (hover)
            let rawValues;
            switch (dimension) {
                case 'turn': rawValues = data[model].turns; break;
                case 'token': rawValues = data[model].tokens; break;
                case 'cost': rawValues = data[model].costs; break;
            }
            offset += len;

            newTraces.push({
                x: modelNormX,
                y: data[model].accuracy,
                customdata: rawValues,
                mode: 'lines+markers', // KEEP LINES - we'll hide them via CSS
                hovertemplate: `<b>${model}</b><br>${hoverLabels[dimension]}: %{customdata}<br>Accuracy: %{y:.2f}%<extra></extra>`
            });
        });

        // 4. Two-Phase Animation: Points Only -> Add Lines with Drawing Effect

        const graphDiv = document.getElementById(`scaling-${scenario}`);

        // Phase 1: Update to markers-only mode and animate points
        const markersOnlyTraces = newTraces.map(trace => ({
            ...trace,
            mode: 'markers'  // Remove lines completely
        }));

        // Update ticks
        Plotly.relayout(`scaling-${scenario}`, {
            'xaxis.title.text': xLabels[dimension],
            'xaxis.tickvals': tickVals,
            'xaxis.ticktext': tickText
        });

        // Animate points to new positions (no lines)
        Plotly.animate(`scaling-${scenario}`, {
            data: markersOnlyTraces,
            traces: models.map((_, i) => i)
        }, {
            transition: {
                duration: 500,
                easing: 'cubic-in-out'
            },
            frame: {
                duration: 500,
                redraw: true
            }
        }).then(() => {
            // Phase 2: Add lines back and animate them drawing
            const linesAndMarkersTraces = newTraces.map(trace => ({
                ...trace,
                mode: 'lines+markers'
            }));

            // Use Plotly.react and wait for it to complete
            Plotly.react(`scaling-${scenario}`, linesAndMarkersTraces, {
                ...graphDiv.layout
            }, plotlyConfig).then(() => {
                // Give browser time to render
                requestAnimationFrame(() => {
                    requestAnimationFrame(() => {
                        // Try multiple selectors to find the line paths
                        let paths = graphDiv.querySelectorAll('.scatterlayer .js-line path');
                        if (paths.length === 0) {
                            paths = graphDiv.querySelectorAll('.js-line path');
                        }
                        if (paths.length === 0) {
                            paths = graphDiv.querySelectorAll('path.js-line');
                        }
                        if (paths.length === 0) {
                            paths = graphDiv.querySelectorAll('.scatter path');
                        }

                        paths.forEach((path, idx) => {
                            const len = path.getTotalLength();

                            if (len > 0) {
                                // Reset any previous animation
                                path.style.transition = 'none';
                                path.style.strokeDasharray = len + ' ' + len;
                                path.style.strokeDashoffset = len;

                                // Force reflow
                                path.getBoundingClientRect();

                                // Start animation after a tiny delay
                                setTimeout(() => {
                                    path.style.transition = 'stroke-dashoffset 0.8s ease-out';
                                    path.style.strokeDashoffset = '0';
                                }, 10);
                            }
                        });
                    });
                });
            });
        });
    });
}




// Dimension toggle event listeners
document.querySelectorAll('.dim-btn:not(.probing-dim)').forEach(btn => {
    btn.addEventListener('click', () => {
        document.querySelectorAll('.dim-btn:not(.probing-dim)').forEach(b => b.classList.remove('active'));
        btn.classList.add('active');

        const dimension = btn.dataset.dim;
        currentScalingDim = dimension;
        updateScalingCharts(dimension);
    });
});

// ============================================================================
// RANKING COMPARISON - 3 Charts with mode switching (novelty vs accuracy)
// ============================================================================
let currentRankingMode = 'novelty';

function renderRankingCharts(mode) {
    const scenarios = [
        { key: 'MIMIC', id: 'mimic' },
        { key: '10K', id: '10k' },
        { key: 'GLOBEM', id: 'globem' }
    ];

    scenarios.forEach(({ key, id }) => {
        const rawData = DDR_DATA.ranking[key];
        if (!rawData) return;

        // Sort models by the primary ranking
        let sortedModels;
        if (mode === 'novelty') {
            sortedModels = [...rawData].sort((a, b) => a.bt_rank - b.bt_rank);
        } else {
            sortedModels = [...rawData].sort((a, b) => a.acc_rank - b.acc_rank);
        }

        // Take top 12 for display
        const models = sortedModels.slice(0, 12);
        const traces = [];

        // Define colors
        const primaryColor = mode === 'novelty' ? '#8B5CF6' : '#22C55E';
        const secondaryColor = mode === 'novelty' ? '#22C55E' : '#8B5CF6';
        const primaryLabel = mode === 'novelty' ? 'Novelty Rank' : 'Accuracy Rank';
        const secondaryLabel = mode === 'novelty' ? 'Accuracy Rank' : 'Novelty Rank';

        // Connection lines (dashed) from primary to secondary
        models.forEach((m, i) => {
            const primaryX = mode === 'novelty' ? m.bt_rank : m.acc_rank;
            const secondaryX = mode === 'novelty' ? m.acc_rank : m.bt_rank;

            traces.push({
                x: [primaryX, secondaryX],
                y: [i, i],
                mode: 'lines',
                line: {
                    color: 'rgba(148, 163, 184, 0.4)',
                    width: 1.5,
                    dash: 'dot'
                },
                showlegend: false,
                hoverinfo: 'skip'
            });
        });

        // Primary rank points (filled circles)
        traces.push({
            x: models.map(m => mode === 'novelty' ? m.bt_rank : m.acc_rank),
            y: models.map((_, i) => i),
            mode: 'markers',
            name: primaryLabel,
            marker: {
                size: 11,
                symbol: 'circle',
                color: primaryColor,
                line: { color: '#fff', width: 1.5 }
            },
            text: models.map(m => {
                if (mode === 'novelty') {
                    return `<b>${m.model}</b><br>Novelty: #${m.bt_rank}<br>Win Rate: ${m.win_rate}%`;
                } else {
                    return `<b>${m.model}</b><br>Accuracy: #${m.acc_rank}<br>${m.accuracy}%`;
                }
            }),
            hovertemplate: '%{text}<extra></extra>'
        });

        // Secondary rank points (diamond outline)
        traces.push({
            x: models.map(m => mode === 'novelty' ? m.acc_rank : m.bt_rank),
            y: models.map((_, i) => i),
            mode: 'markers',
            name: secondaryLabel,
            marker: {
                size: 9,
                symbol: 'diamond-open',
                color: secondaryColor,
                line: { width: 2 }
            },
            text: models.map(m => {
                if (mode === 'novelty') {
                    return `<b>${m.model}</b><br>Accuracy: #${m.acc_rank}<br>${m.accuracy}%`;
                } else {
                    return `<b>${m.model}</b><br>Novelty: #${m.bt_rank}<br>Win Rate: ${m.win_rate}%`;
                }
            }),
            hovertemplate: '%{text}<extra></extra>'
        });

        const layout = {
            ...darkLayout,
            xaxis: {
                ...darkLayout.xaxis,
                title: { text: 'Rank', font: { size: 11, color: '#e2e8f0' } },
                range: [23, 0], // Fixed range for all charts
                dtick: 5,
                tick0: 0
            },
            yaxis: {
                ...darkLayout.yaxis,
                tickmode: 'array',
                tickvals: models.map((_, i) => i),
                ticktext: models.map(m => m.model.length > 16 ? m.model.substring(0, 14) + '...' : m.model),
                automargin: true,
                range: [-0.5, models.length - 0.5]
            },
            showlegend: true,
            legend: {
                ...darkLayout.legend,
                y: -0.18,
                orientation: 'h',
                x: 0.5,
                xanchor: 'center'
            },
            margin: { t: 20, r: 15, b: 65, l: 120 }
        };

        Plotly.react(`ranking-${id}`, traces, layout, plotlyConfig);
    });
}

function initRankingCharts() {
    renderRankingCharts('novelty');
}

// Ranking mode toggle event listener
document.querySelectorAll('.ranking-dim').forEach(btn => {
    btn.addEventListener('click', () => {
        document.querySelectorAll('.ranking-dim').forEach(b => b.classList.remove('active'));
        btn.classList.add('active');

        const mode = btn.dataset.mode;
        currentRankingMode = mode;
        renderRankingCharts(mode);
    });
});

// ============================================================================
// TURN DISTRIBUTION - 3 Charts (Ridgeline style)
// ============================================================================
function initTurnCharts() {
    const scenarios = ['mimic', '10k', 'globem'];

    // Family colors
    const familyColors = {
        'claude': '#FF6D00',
        'gpt': '#00C853',
        'gemini': '#2196F3',
        'deepseek': '#E91E63',
        'glm': '#9C27B0',
        'kimi': '#FFA500',
        'minimax': '#20B2AA',
        'qwen': '#0EA5E9',
        'llama': '#F59E0B'
    };

    function getModelColor(modelName) {
        const lower = modelName.toLowerCase();
        for (const [family, color] of Object.entries(familyColors)) {
            if (lower.includes(family)) return color;
        }
        return '#888';
    }

    scenarios.forEach(scenario => {
        const data = DDR_DATA.turn[scenario];
        if (!data) return;

        // Sort by median descending (highest median at top)
        const sortedData = [...data].sort((a, b) => b.median - a.median);

        // Limit to top 15 models for readability
        const displayData = sortedData.slice(0, 15);

        const traces = [];
        const binLabels = ['0-10', '10-20', '20-30', '30-40', '40-50', '50-60', '60-70', '70-80', '80-90', '90-100'];
        const binCenters = [5, 15, 25, 35, 45, 55, 65, 75, 85, 95];

        // Create ridgeline traces (area charts stacked vertically)
        displayData.forEach((model, idx) => {
            const color = getModelColor(model.model);
            const yOffset = idx;

            // Scale distribution to fit in the row (max height ~0.8)
            const maxDist = Math.max(...model.distribution) || 1;
            const scaledDist = model.distribution.map(d => d / maxDist * 0.7);

            // Create filled area trace
            traces.push({
                x: binCenters,
                y: scaledDist.map(d => yOffset + d),
                mode: 'lines',
                fill: 'toself',
                fillcolor: color + '40', // 25% opacity
                line: { color: color, width: 1.5 },
                name: model.model,
                text: model.distribution.map((d, i) =>
                    `${model.model}<br>${binLabels[i]} turns: ${d.toFixed(1)}%<br>Median: ${model.median}`
                ),
                hovertemplate: '%{text}<extra></extra>',
                showlegend: false
            });

            // Add baseline
            traces.push({
                x: [0, 100],
                y: [yOffset, yOffset],
                mode: 'lines',
                line: { color: 'rgba(148, 163, 184, 0.2)', width: 0.5 },
                hoverinfo: 'skip',
                showlegend: false
            });
        });

        const layout = {
            ...darkLayout,
            xaxis: {
                ...darkLayout.xaxis,
                title: { text: 'Number of Turns', font: { size: 11, color: '#e2e8f0' } },
                range: [0, 100],
                dtick: 20
            },
            yaxis: {
                ...darkLayout.yaxis,
                tickmode: 'array',
                tickvals: displayData.map((_, i) => i),
                ticktext: displayData.map(m => m.model.length > 20 ? m.model.substring(0, 18) + '...' : m.model),
                automargin: true,
                range: [-0.5, displayData.length]
            },
            margin: { ...darkLayout.margin, l: 140 },
            showlegend: false
        };

        Plotly.newPlot(`turn-${scenario}`, traces, layout, plotlyConfig);
    });
}

// ============================================================================
// PROBING RESULTS - 3 Charts with animated mode switching
// ============================================================================
function initProbingCharts() {
    renderProbingCharts('byTurn');
}

function renderProbingCharts(mode) {
    const scenarios = ['mimic', 'globem', '10k'];
    const scenarioIds = { 'mimic': 'mimic', 'globem': 'globem', '10k': '10k' };

    scenarios.forEach(scenario => {
        const data = DDR_DATA.probing[mode]?.[scenario];
        if (!data) return;

        const traces = [];
        const models = Object.keys(data);

        models.forEach(model => {
            const modelData = data[model];
            const xKey = mode === 'byTurn' ? 'turns' : 'progress';
            const xLabel = mode === 'byTurn' ? 'Turn' : 'Progress (%)';

            // Main line
            traces.push({
                x: modelData[xKey],
                y: modelData.logprob,
                mode: 'lines+markers',
                name: model,
                line: {
                    color: DDR_DATA.probingColors[model] || '#888',
                    width: 2
                },
                marker: {
                    size: 4,
                    color: DDR_DATA.probingColors[model] || '#888'
                },
                hovertemplate: `<b>${model}</b><br>${xLabel}: %{x}<br>Log Prob: %{y:.2f}<extra></extra>`
            });

            // Error band
            if (modelData.sem) {
                const upper = modelData.logprob.map((v, i) => v + modelData.sem[i]);
                const lower = modelData.logprob.map((v, i) => v - modelData.sem[i]);

                traces.push({
                    x: [...modelData[xKey], ...modelData[xKey].slice().reverse()],
                    y: [...upper, ...lower.slice().reverse()],
                    fill: 'toself',
                    fillcolor: (DDR_DATA.probingColors[model] || '#888') + '25',
                    line: { width: 0 },
                    showlegend: false,
                    hoverinfo: 'skip'
                });
            }
        });

        const layout = {
            ...darkLayout,
            xaxis: {
                ...darkLayout.xaxis,
                title: { text: mode === 'byTurn' ? 'Turn' : 'Interaction Progress (%)', font: { size: 11, color: '#e2e8f0' } }
            },
            yaxis: {
                ...darkLayout.yaxis,
                title: { text: 'Avg Log Probability', font: { size: 11, color: '#e2e8f0' } }
            },
            showlegend: true
        };

        Plotly.newPlot(`probing-${scenarioIds[scenario]}`, traces, layout, plotlyConfig);
    });
}

// Probing dimension toggle
document.querySelectorAll('.probing-dim').forEach(btn => {
    btn.addEventListener('click', () => {
        document.querySelectorAll('.probing-dim').forEach(b => b.classList.remove('active'));
        btn.classList.add('active');

        const mode = btn.dataset.mode;
        currentProbingMode = mode;

        // Add updating class for visual feedback
        ['mimic', 'globem', '10k'].forEach(s => {
            document.getElementById(`probing-${s}`).classList.add('chart-updating');
        });

        setTimeout(() => {
            renderProbingCharts(mode);
            ['mimic', 'globem', '10k'].forEach(s => {
                document.getElementById(`probing-${s}`).classList.remove('chart-updating');
            });
        }, 150);
    });
});

// ============================================================================
// ERROR ANALYSIS - Hierarchical Bar Chart
// ============================================================================
function initErrorChart() {
    const data = DDR_DATA.error;
    if (!data || data.length === 0) return;

    // Group by main category for bracket annotations
    const categoryGroups = {};
    data.forEach((item, idx) => {
        if (!categoryGroups[item.main_category]) {
            categoryGroups[item.main_category] = { start: idx, end: idx, items: [] };
        }
        categoryGroups[item.main_category].end = idx;
        categoryGroups[item.main_category].items.push(item);
    });

    const traces = [{
        x: data.map(d => d.subcategory),
        y: data.map(d => d.percentage),
        type: 'bar',
        marker: {
            color: data.map(d => d.color),
            line: { color: '#fff', width: 0.5 }
        },
        text: data.map(d => `${d.percentage}%`),
        textposition: 'outside',
        textfont: { size: 11, color: '#e2e8f0' },
        hovertemplate: '<b>%{x}</b><br>%{y:.1f}%<br>Count: %{customdata}<extra></extra>',
        customdata: data.map(d => d.count),
        showlegend: false
    }];

    const maxPct = Math.max(...data.map(d => d.percentage));

    // Create annotations for main category labels
    const annotations = [];
    Object.entries(categoryGroups).forEach(([catName, group]) => {
        const midIdx = (group.start + group.end) / 2;
        annotations.push({
            x: midIdx,
            y: maxPct * 1.15,
            text: `<b>${catName}</b>`,
            showarrow: false,
            font: { size: 10, color: '#e2e8f0' },
            xanchor: 'center',
            yanchor: 'bottom'
        });
    });

    const layout = {
        ...darkLayout,
        xaxis: {
            ...darkLayout.xaxis,
            tickangle: -30,
            tickfont: { size: 10, color: '#94a3b8' }
        },
        yaxis: {
            ...darkLayout.yaxis,
            title: { text: 'Percentage (%)', font: { size: 11, color: '#e2e8f0' } },
            range: [0, maxPct * 1.25]
        },
        annotations: annotations,
        margin: { t: 50, r: 20, b: 100, l: 50 }
    };

    Plotly.newPlot('error-chart', traces, layout, plotlyConfig);
}

// ============================================================================
// INITIALIZE ALL CHARTS
// ============================================================================
document.addEventListener('DOMContentLoaded', () => {
    initScalingCharts();
    initRankingCharts();
    initTurnCharts();
    initErrorChart();
    initProbingCharts();
});

// Handle window resize
let resizeTimeout;
window.addEventListener('resize', () => {
    clearTimeout(resizeTimeout);
    resizeTimeout = setTimeout(() => {
        ['mimic', '10k', 'globem'].forEach(s => {
            Plotly.Plots.resize(`scaling-${s}`);
            Plotly.Plots.resize(`ranking-${s}`);
            Plotly.Plots.resize(`turn-${s}`);
            Plotly.Plots.resize(`probing-${s}`);
        });
        if (document.getElementById('error-chart')) {
            Plotly.Plots.resize('error-chart');
        }
    }, 100);
});