📚 Documentação inicial do ALETHEIA

- MANUAL-PRODUTO.md: Manual do usuário final
- MANUAL-VENDAS.md: Estratégia comercial e vendas
- MANUAL-TECNICO.md: Infraestrutura e deploy
- README.md: Visão geral do projeto

frontend/node_modules/framer-motion/dist/es/projection/styles/scale-border-radius.mjs

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+import { px } from '../../value/types/numbers/units.mjs';
+
+function pixelsToPercent(pixels, axis) {
+    if (axis.max === axis.min)
+        return 0;
+    return (pixels / (axis.max - axis.min)) * 100;
+}
+/**
+ * We always correct borderRadius as a percentage rather than pixels to reduce paints.
+ * For example, if you are projecting a box that is 100px wide with a 10px borderRadius
+ * into a box that is 200px wide with a 20px borderRadius, that is actually a 10%
+ * borderRadius in both states. If we animate between the two in pixels that will trigger
+ * a paint each time. If we animate between the two in percentage we'll avoid a paint.
+ */
+const correctBorderRadius = {
+    correct: (latest, node) => {
+        if (!node.target)
+            return latest;
+        /**
+         * If latest is a string, if it's a percentage we can return immediately as it's
+         * going to be stretched appropriately. Otherwise, if it's a pixel, convert it to a number.
+         */
+        if (typeof latest === "string") {
+            if (px.test(latest)) {
+                latest = parseFloat(latest);
+            }
+            else {
+                return latest;
+            }
+        }
+        /**
+         * If latest is a number, it's a pixel value. We use the current viewportBox to calculate that
+         * pixel value as a percentage of each axis
+         */
+        const x = pixelsToPercent(latest, node.target.x);
+        const y = pixelsToPercent(latest, node.target.y);
+        return `${x}% ${y}%`;
+    },
+};
+
+export { correctBorderRadius, pixelsToPercent };

frontend/node_modules/framer-motion/dist/es/projection/styles/scale-box-shadow.mjs

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+import { mixNumber } from '../../utils/mix/number.mjs';
+import { complex } from '../../value/types/complex/index.mjs';
+
+const correctBoxShadow = {
+    correct: (latest, { treeScale, projectionDelta }) => {
+        const original = latest;
+        const shadow = complex.parse(latest);
+        // TODO: Doesn't support multiple shadows
+        if (shadow.length > 5)
+            return original;
+        const template = complex.createTransformer(latest);
+        const offset = typeof shadow[0] !== "number" ? 1 : 0;
+        // Calculate the overall context scale
+        const xScale = projectionDelta.x.scale * treeScale.x;
+        const yScale = projectionDelta.y.scale * treeScale.y;
+        shadow[0 + offset] /= xScale;
+        shadow[1 + offset] /= yScale;
+        /**
+         * Ideally we'd correct x and y scales individually, but because blur and
+         * spread apply to both we have to take a scale average and apply that instead.
+         * We could potentially improve the outcome of this by incorporating the ratio between
+         * the two scales.
+         */
+        const averageScale = mixNumber(xScale, yScale, 0.5);
+        // Blur
+        if (typeof shadow[2 + offset] === "number")
+            shadow[2 + offset] /= averageScale;
+        // Spread
+        if (typeof shadow[3 + offset] === "number")
+            shadow[3 + offset] /= averageScale;
+        return template(shadow);
+    },
+};
+
+export { correctBoxShadow };

frontend/node_modules/framer-motion/dist/es/projection/styles/scale-correction.mjs

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+const scaleCorrectors = {};
+function addScaleCorrector(correctors) {
+    Object.assign(scaleCorrectors, correctors);
+}
+
+export { addScaleCorrector, scaleCorrectors };

frontend/node_modules/framer-motion/dist/es/projection/styles/transform.mjs

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+function buildProjectionTransform(delta, treeScale, latestTransform) {
+    let transform = "";
+    /**
+     * The translations we use to calculate are always relative to the viewport coordinate space.
+     * But when we apply scales, we also scale the coordinate space of an element and its children.
+     * For instance if we have a treeScale (the culmination of all parent scales) of 0.5 and we need
+     * to move an element 100 pixels, we actually need to move it 200 in within that scaled space.
+     */
+    const xTranslate = delta.x.translate / treeScale.x;
+    const yTranslate = delta.y.translate / treeScale.y;
+    const zTranslate = (latestTransform === null || latestTransform === void 0 ? void 0 : latestTransform.z) || 0;
+    if (xTranslate || yTranslate || zTranslate) {
+        transform = `translate3d(${xTranslate}px, ${yTranslate}px, ${zTranslate}px) `;
+    }
+    /**
+     * Apply scale correction for the tree transform.
+     * This will apply scale to the screen-orientated axes.
+     */
+    if (treeScale.x !== 1 || treeScale.y !== 1) {
+        transform += `scale(${1 / treeScale.x}, ${1 / treeScale.y}) `;
+    }
+    if (latestTransform) {
+        const { transformPerspective, rotate, rotateX, rotateY, skewX, skewY } = latestTransform;
+        if (transformPerspective)
+            transform = `perspective(${transformPerspective}px) ${transform}`;
+        if (rotate)
+            transform += `rotate(${rotate}deg) `;
+        if (rotateX)
+            transform += `rotateX(${rotateX}deg) `;
+        if (rotateY)
+            transform += `rotateY(${rotateY}deg) `;
+        if (skewX)
+            transform += `skewX(${skewX}deg) `;
+        if (skewY)
+            transform += `skewY(${skewY}deg) `;
+    }
+    /**
+     * Apply scale to match the size of the element to the size we want it.
+     * This will apply scale to the element-orientated axes.
+     */
+    const elementScaleX = delta.x.scale * treeScale.x;
+    const elementScaleY = delta.y.scale * treeScale.y;
+    if (elementScaleX !== 1 || elementScaleY !== 1) {
+        transform += `scale(${elementScaleX}, ${elementScaleY})`;
+    }
+    return transform || "none";
+}
+
+export { buildProjectionTransform };