Icard/angular-clarity-master(work.../node_modules/highcharts/modules/treegraph.src.js

1744 lines
73 KiB
JavaScript

/**
* @license Highcharts JS v11.4.1 (2024-04-04)
* Treegraph chart series type
*
* (c) 2010-2024 Pawel Lysy Grzegorz Blachlinski
*
* License: www.highcharts.com/license
*/
(function (factory) {
if (typeof module === 'object' && module.exports) {
factory['default'] = factory;
module.exports = factory;
} else if (typeof define === 'function' && define.amd) {
define('highcharts/modules/treegraph', ['highcharts', 'highcharts/modules/treemap'], function (Highcharts) {
factory(Highcharts);
factory.Highcharts = Highcharts;
return factory;
});
} else {
factory(typeof Highcharts !== 'undefined' ? Highcharts : undefined);
}
}(function (Highcharts) {
'use strict';
var _modules = Highcharts ? Highcharts._modules : {};
function _registerModule(obj, path, args, fn) {
if (!obj.hasOwnProperty(path)) {
obj[path] = fn.apply(null, args);
if (typeof CustomEvent === 'function') {
window.dispatchEvent(new CustomEvent(
'HighchartsModuleLoaded',
{ detail: { path: path, module: obj[path] } }
));
}
}
}
_registerModule(_modules, 'Series/PathUtilities.js', [], function () {
/* *
*
* (c) 2010-2024 Pawel Lysy
*
* License: www.highcharts.com/license
*
* !!!!!!! SOURCE GETS TRANSPILED BY TYPESCRIPT. EDIT TS FILE ONLY. !!!!!!!
*
* */
const getLinkPath = {
'default': getDefaultPath,
straight: getStraightPath,
curved: getCurvedPath
};
/**
*
*/
function getDefaultPath(pathParams) {
const { x1, y1, x2, y2, width = 0, inverted = false, radius, parentVisible } = pathParams;
const path = [
['M', x1, y1],
['L', x1, y1],
['C', x1, y1, x1, y2, x1, y2],
['L', x1, y2],
['C', x1, y1, x1, y2, x1, y2],
['L', x1, y2]
];
return parentVisible ?
applyRadius([
['M', x1, y1],
['L', x1 + width * (inverted ? -0.5 : 0.5), y1],
['L', x1 + width * (inverted ? -0.5 : 0.5), y2],
['L', x2, y2]
], radius) :
path;
}
/**
*
*/
function getStraightPath(pathParams) {
const { x1, y1, x2, y2, width = 0, inverted = false, parentVisible } = pathParams;
return parentVisible ? [
['M', x1, y1],
['L', x1 + width * (inverted ? -1 : 1), y2],
['L', x2, y2]
] : [
['M', x1, y1],
['L', x1, y2],
['L', x1, y2]
];
}
/**
*
*/
function getCurvedPath(pathParams) {
const { x1, y1, x2, y2, offset = 0, width = 0, inverted = false, parentVisible } = pathParams;
return parentVisible ?
[
['M', x1, y1],
[
'C',
x1 + offset,
y1,
x1 - offset + width * (inverted ? -1 : 1),
y2,
x1 + width * (inverted ? -1 : 1),
y2
],
['L', x2, y2]
] :
[
['M', x1, y1],
['C', x1, y1, x1, y2, x1, y2],
['L', x2, y2]
];
}
/**
* General function to apply corner radius to a path
* @private
*/
function applyRadius(path, r) {
const d = [];
for (let i = 0; i < path.length; i++) {
const x = path[i][1];
const y = path[i][2];
if (typeof x === 'number' && typeof y === 'number') {
// MoveTo
if (i === 0) {
d.push(['M', x, y]);
}
else if (i === path.length - 1) {
d.push(['L', x, y]);
// CurveTo
}
else if (r) {
const prevSeg = path[i - 1];
const nextSeg = path[i + 1];
if (prevSeg && nextSeg) {
const x1 = prevSeg[1], y1 = prevSeg[2], x2 = nextSeg[1], y2 = nextSeg[2];
// Only apply to breaks
if (typeof x1 === 'number' &&
typeof x2 === 'number' &&
typeof y1 === 'number' &&
typeof y2 === 'number' &&
x1 !== x2 &&
y1 !== y2) {
const directionX = x1 < x2 ? 1 : -1, directionY = y1 < y2 ? 1 : -1;
d.push([
'L',
x - directionX * Math.min(Math.abs(x - x1), r),
y - directionY * Math.min(Math.abs(y - y1), r)
], [
'C',
x,
y,
x,
y,
x + directionX * Math.min(Math.abs(x - x2), r),
y + directionY * Math.min(Math.abs(y - y2), r)
]);
}
}
// LineTo
}
else {
d.push(['L', x, y]);
}
}
}
return d;
}
const PathUtilities = {
applyRadius,
getLinkPath
};
return PathUtilities;
});
_registerModule(_modules, 'Series/Treegraph/TreegraphNode.js', [_modules['Core/Series/SeriesRegistry.js']], function (SeriesRegistry) {
/* *
*
* (c) 2010-2024 Pawel Lysy Grzegorz Blachlinski
*
* License: www.highcharts.com/license
*
* !!!!!!! SOURCE GETS TRANSPILED BY TYPESCRIPT. EDIT TS FILE ONLY. !!!!!!!
*
* */
const { seriesTypes: { treemap: { prototype: { NodeClass: TreemapNode } } } } = SeriesRegistry;
/* *
*
* Class
*
* */
/**
* @private
* @class
*/
class TreegraphNode extends TreemapNode {
constructor() {
/* *
*
* Properties
*
* */
super(...arguments);
this.mod = 0;
this.shift = 0;
this.change = 0;
this.children = [];
this.preX = 0;
this.hidden = false;
this.wasVisited = false;
this.collapsed = false;
}
/* *
*
* Functions
*
* */
/**
* Get the next left node which is either first child or thread.
*
* @return {TreegraphNode|undefined}
* Next left node child or thread.
*/
nextLeft() {
return this.getLeftMostChild() || this.thread;
}
/**
* Get the next right node which is either last child or thread.
*
* @return {TreegraphNode|undefined}
* Next right node child or thread.
*/
nextRight() {
return this.getRightMostChild() || this.thread;
}
/**
* Return the left one of the greatest uncommon ancestors of a
* leftInternal node and it's right neighbor.
*
* @param {TreegraphNode} leftIntNode
* @param {TreegraphNode} defaultAncestor
* @return {TreegraphNode}
* Left one of the greatest uncommon ancestors of a leftInternal
* node and it's right neighbor.
*
*/
getAncestor(leftIntNode, defaultAncestor) {
const leftAnc = leftIntNode.ancestor;
if (leftAnc.children[0] === this.children[0]) {
return leftIntNode.ancestor;
}
return defaultAncestor;
}
/**
* Get node's first sibling, which is not hidden.
*
* @return {TreegraphNode|undefined}
* First sibling of the node which is not hidden or undefined, if it
* does not exists.
*/
getLeftMostSibling() {
const parent = this.getParent();
if (parent) {
for (const child of parent.children) {
if (child && child.point.visible) {
return child;
}
}
}
}
/**
* Check if the node is a leaf (if it has any children).
*
* @return {boolean}
* If the node has no visible children return true.
*/
hasChildren() {
const children = this.children;
for (let i = 0; i < children.length; i++) {
if (children[i].point.visible) {
return true;
}
}
return false;
}
/**
* Get node's left sibling (if it exists).
*
* @return {TreegraphNode|undefined}
* Left sibling of the node
*/
getLeftSibling() {
const parent = this.getParent();
if (parent) {
const children = parent.children;
for (let i = this.relativeXPosition - 1; i >= 0; i--) {
if (children[i] && children[i].point.visible) {
return children[i];
}
}
}
}
/**
* Get the node's first child (if it exists).
*
* @return {TreegraphNode|undefined}
* Node's first child which isn't hidden.
*/
getLeftMostChild() {
const children = this.children;
for (let i = 0; i < children.length; i++) {
if (children[i].point.visible) {
return children[i];
}
}
}
/**
* Get the node's last child (if it exists).
*
* @return {TreegraphNode|undefined}
* Node's last child which isn't hidden.
*/
getRightMostChild() {
const children = this.children;
for (let i = children.length - 1; i >= 0; i--) {
if (children[i].point.visible) {
return children[i];
}
}
}
/**
* Get the parent of current node or return undefined for root of the
* tree.
*
* @return {TreegraphNode|undefined}
* Node's parent or undefined for root.
*/
getParent() {
return this.parentNode;
}
/**
* Get node's first child which is not hidden.
*
* @return {TreegraphNode|undefined}
* First child.
*/
getFirstChild() {
const children = this.children;
for (let i = 0; i < children.length; i++) {
if (children[i].point.visible) {
return children[i];
}
}
}
}
/* *
*
* Default Export
*
* */
return TreegraphNode;
});
_registerModule(_modules, 'Series/Treegraph/TreegraphPoint.js', [_modules['Core/Series/Point.js'], _modules['Core/Series/SeriesRegistry.js'], _modules['Core/Utilities.js']], function (Point, SeriesRegistry, U) {
/* *
*
* (c) 2010-2024 Pawel Lysy Grzegorz Blachlinski
*
* License: www.highcharts.com/license
*
* !!!!!!! SOURCE GETS TRANSPILED BY TYPESCRIPT. EDIT TS FILE ONLY. !!!!!!!
*
* */
const { seriesTypes: { treemap: { prototype: { pointClass: TreemapPoint } } } } = SeriesRegistry;
const { addEvent, fireEvent, merge } = U;
/* *
*
* Class
*
* */
/**
* @private
* @class
*/
class TreegraphPoint extends TreemapPoint {
constructor() {
/* *
*
* Properties
*
* */
super(...arguments);
this.dataLabelOnHidden = true;
this.isLink = false;
this.setState = Point.prototype.setState;
}
/* *
*
* Functions
*
* */
draw() {
super.draw.apply(this, arguments);
// Run animation of hiding/showing of the point.
const graphic = this.graphic;
if (graphic) {
graphic.animate({
visibility: this.visible ? 'inherit' : 'hidden'
});
}
this.renderCollapseButton();
}
renderCollapseButton() {
const point = this, series = point.series, parentGroup = point.graphic && point.graphic.parentGroup, levelOptions = series.mapOptionsToLevel[point.node.level || 0] || {}, btnOptions = merge(series.options.collapseButton, levelOptions.collapseButton, point.options.collapseButton), { width, height, shape, style } = btnOptions, padding = 2, chart = this.series.chart, calculatedOpacity = (point.visible &&
(point.collapsed ||
!btnOptions.onlyOnHover ||
point.state === 'hover')) ? 1 : 0;
if (!point.shapeArgs) {
return;
}
this.collapseButtonOptions = btnOptions;
if (!point.collapseButton) {
if (!point.node.children.length || !btnOptions.enabled) {
return;
}
const { x, y } = this.getCollapseBtnPosition(btnOptions), fill = (btnOptions.fillColor ||
point.color ||
"#cccccc" /* Palette.neutralColor20 */);
point.collapseButton = chart.renderer
.label(point.collapsed ? '+' : '-', x, y, shape)
.attr({
height: height - 2 * padding,
width: width - 2 * padding,
padding: padding,
fill,
rotation: chart.inverted ? 90 : 0,
rotationOriginX: width / 2,
rotationOriginY: height / 2,
stroke: btnOptions.lineColor || "#ffffff" /* Palette.backgroundColor */,
'stroke-width': btnOptions.lineWidth,
'text-align': 'center',
align: 'center',
zIndex: 1,
opacity: calculatedOpacity,
visibility: point.visible ? 'inherit' : 'hidden'
})
.addClass('highcharts-tracker')
.addClass('highcharts-collapse-button')
.removeClass('highcharts-no-tooltip')
.css(merge({
color: typeof fill === 'string' ?
chart.renderer.getContrast(fill) :
"#333333" /* Palette.neutralColor80 */
}, style))
.add(parentGroup);
point.collapseButton.element.point = point;
}
else {
if (!point.node.children.length || !btnOptions.enabled) {
point.collapseButton.destroy();
delete point.collapseButton;
}
else {
const { x, y } = this.getCollapseBtnPosition(btnOptions);
point.collapseButton
.attr({
text: point.collapsed ? '+' : '-',
rotation: chart.inverted ? 90 : 0,
rotationOriginX: width / 2,
rotationOriginY: height / 2,
visibility: point.visible ? 'inherit' : 'hidden'
})
.animate({
x,
y,
opacity: calculatedOpacity
});
}
}
}
toggleCollapse(state) {
const series = this.series;
this.update({
collapsed: state ?? !this.collapsed
}, false, void 0, false);
fireEvent(series, 'toggleCollapse');
series.redraw();
}
destroy() {
if (this.collapseButton) {
this.collapseButton.destroy();
delete this.collapseButton;
this.collapseButton = void 0;
}
if (this.linkToParent) {
this.linkToParent.destroy();
delete this.linkToParent;
}
super.destroy.apply(this, arguments);
}
getCollapseBtnPosition(btnOptions) {
const point = this, chart = point.series.chart, inverted = chart.inverted, btnWidth = btnOptions.width, btnHeight = btnOptions.height, { x = 0, y = 0, width = 0, height = 0 } = point.shapeArgs || {};
return {
x: x +
btnOptions.x +
(inverted ? -btnHeight * 0.3 : width + btnWidth * -0.3),
y: y + height / 2 - btnHeight / 2 + btnOptions.y
};
}
}
addEvent(TreegraphPoint, 'mouseOut', function () {
const btn = this.collapseButton, btnOptions = this.collapseButtonOptions;
if (btn && btnOptions?.onlyOnHover && !this.collapsed) {
btn.animate({ opacity: 0 });
}
});
addEvent(TreegraphPoint, 'mouseOver', function () {
if (this.collapseButton && this.visible) {
this.collapseButton.animate({ opacity: 1 }, this.series.options.states?.hover?.animation);
}
});
// Handle showing and hiding of the points
addEvent(TreegraphPoint, 'click', function () {
this.toggleCollapse();
});
/* *
*
* Export Default
*
* */
return TreegraphPoint;
});
_registerModule(_modules, 'Series/Treegraph/TreegraphLink.js', [_modules['Core/Series/Point.js'], _modules['Core/Utilities.js'], _modules['Core/Series/SeriesRegistry.js']], function (Point, U, SeriesRegistry) {
/* *
*
* (c) 2010-2024 Pawel Lysy Grzegorz Blachlinski
*
* License: www.highcharts.com/license
*
* !!!!!!! SOURCE GETS TRANSPILED BY TYPESCRIPT. EDIT TS FILE ONLY. !!!!!!!
*
* */
const { pick, extend } = U;
const { seriesTypes: { column: { prototype: { pointClass: ColumnPoint } } } } = SeriesRegistry;
/* *
*
* Class
*
* */
/**
* @private
* @class
*/
class LinkPoint extends ColumnPoint {
/* *
*
* Functions
*
* */
constructor(series, options, x, point) {
super(series, options, x);
/* *
*
* Class properties
*
* */
this.isLink = true;
this.node = {};
this.formatPrefix = 'link';
this.dataLabelOnNull = true;
this.formatPrefix = 'link';
this.dataLabelOnNull = true;
if (point) {
this.fromNode = point.node.parentNode.point;
this.visible = point.visible;
this.toNode = point;
this.id = this.toNode.id + '-' + this.fromNode.id;
}
}
update(options, redraw, animation, runEvent) {
const oldOptions = {
id: this.id,
formatPrefix: this.formatPrefix
};
Point.prototype.update.call(this, options, this.isLink ? false : redraw, // Hold the redraw for nodes
animation, runEvent);
this.visible = this.toNode.visible;
extend(this, oldOptions);
if (pick(redraw, true)) {
this.series.chart.redraw(animation);
}
}
}
/* *
*
* Export Default
*
* */
return LinkPoint;
});
_registerModule(_modules, 'Series/Treegraph/TreegraphLayout.js', [_modules['Series/Treegraph/TreegraphNode.js']], function (TreegraphNode) {
/* *
*
* (c) 2010-2024 Pawel Lysy Grzegorz Blachlinski
*
* License: www.highcharts.com/license
*
* !!!!!!! SOURCE GETS TRANSPILED BY TYPESCRIPT. EDIT TS FILE ONLY. !!!!!!!
*
* */
/* *
*
* Class
*
* */
/**
* @private
* @class
*/
class TreegraphLayout {
/* *
*
* Functions
*
* */
/**
* Create dummy node, which allows to manually set the level of the node.
*
* @param {TreegraphNode} parent
* Parent node, to which the dummyNode should be connected.
* @param {TreegraphNode} child
* Child node, which should be connected to dummyNode.
* @param {number} gapSize
* Remaining gap size.
*
* @return {TreegraphNode}
* DummyNode as a parent of nodes, which column changes.
*/
static createDummyNode(parent, child, gapSize) {
// Initialise dummy node.
const dummyNode = new TreegraphNode();
dummyNode.id = parent.id + '-' + gapSize;
dummyNode.ancestor = parent;
// Add connection from new node to the previous points.
// First connection to itself.
dummyNode.children.push(child);
dummyNode.parent = parent.id;
dummyNode.parentNode = parent;
dummyNode.point = child.point;
dummyNode.level = child.level - gapSize;
dummyNode.relativeXPosition = child.relativeXPosition;
dummyNode.visible = child.visible;
// Then connection from parent to dummyNode.
parent.children[child.relativeXPosition] = dummyNode;
child.oldParentNode = parent;
child.relativeXPosition = 0;
// Then connection from child to dummyNode.
child.parentNode = dummyNode;
child.parent = dummyNode.id;
return dummyNode;
}
/**
* Walker algorithm of positioning the nodes in the treegraph improved by
* Buchheim to run in the linear time. Basic algorithm consists of post
* order traversal, which starts from going bottom up (first walk), and then
* pre order traversal top to bottom (second walk) where adding all of the
* modifiers is performed.
* link to the paper: http://dirk.jivas.de/papers/buchheim02improving.pdf
*
* @param {TreegraphSeries} series the Treegraph series
*/
calculatePositions(series) {
const treeLayout = this;
const nodes = series.nodeList;
this.resetValues(nodes);
const root = series.tree;
if (root) {
treeLayout.calculateRelativeX(root, 0);
treeLayout.beforeLayout(nodes);
treeLayout.firstWalk(root);
treeLayout.secondWalk(root, -root.preX);
treeLayout.afterLayout(nodes);
}
}
/**
* Create dummyNodes as parents for nodes, which column is changed.
*
* @param {Array<TreegraphNode>} nodes
* All of the nodes.
*/
beforeLayout(nodes) {
for (const node of nodes) {
for (let child of node.children) {
// Support for children placed in distant columns.
if (child && child.level - node.level > 1) {
// For further columns treat the nodes as a
// single parent-child pairs till the column is achieved.
let gapSize = child.level - node.level - 1;
// Parent -> dummyNode -> child
while (gapSize > 0) {
child = TreegraphLayout.createDummyNode(node, child, gapSize);
gapSize--;
}
}
}
}
}
/**
* Reset the calculated values from the previous run.
* @param {TreegraphNode[]} nodes all of the nodes.
*/
resetValues(nodes) {
for (const node of nodes) {
node.mod = 0;
node.ancestor = node;
node.shift = 0;
node.thread = void 0;
node.change = 0;
node.preX = 0;
}
}
/**
* Assigns the value to each node, which indicates, what is his sibling
* number.
*
* @param {TreegraphNode} node
* Root node
* @param {number} index
* Index to which the nodes position should be set
*/
calculateRelativeX(node, index) {
const treeLayout = this, children = node.children;
for (let i = 0, iEnd = children.length; i < iEnd; ++i) {
treeLayout.calculateRelativeX(children[i], i);
}
node.relativeXPosition = index;
}
/**
* Recursive post order traversal of the tree, where the initial position
* of the nodes is calculated.
*
* @param {TreegraphNode} node
* The node for which the position should be calculated.
*/
firstWalk(node) {
const treeLayout = this,
// Arbitrary value used to position nodes in respect to each other.
siblingDistance = 1;
let leftSibling;
// If the node is a leaf, set it's position based on the left siblings.
if (!node.hasChildren()) {
leftSibling = node.getLeftSibling();
if (leftSibling) {
node.preX = leftSibling.preX + siblingDistance;
node.mod = node.preX;
}
else {
node.preX = 0;
}
}
else {
// If the node has children, perform the recursive first walk for
// its children, and then calculate its shift in the apportion
// function (most crucial part of the algorithm).
let defaultAncestor = node.getLeftMostChild();
for (const child of node.children) {
treeLayout.firstWalk(child);
defaultAncestor = treeLayout.apportion(child, defaultAncestor);
}
treeLayout.executeShifts(node);
const leftChild = node.getLeftMostChild(), rightChild = node.getRightMostChild(),
// Set the position of the parent as a middle point of its
// children and move it by the value of the leftSibling (if it
// exists).
midPoint = (leftChild.preX + rightChild.preX) / 2;
leftSibling = node.getLeftSibling();
if (leftSibling) {
node.preX = leftSibling.preX + siblingDistance;
node.mod = node.preX - midPoint;
}
else {
node.preX = midPoint;
}
}
}
/**
* Pre order traversal of the tree, which sets the final xPosition of the
* node as its preX value and sum of all if it's parents' modifiers.
*
* @param {TreegraphNode} node
* The node, for which the final position should be calculated.
* @param {number} modSum
* The sum of modifiers of all of the parents.
*/
secondWalk(node, modSum) {
const treeLayout = this;
// When the chart is not inverted we want the tree to be positioned from
// left to right with root node close to the chart border, this is why
// x and y positions are switched.
node.yPosition = node.preX + modSum;
node.xPosition = node.level;
for (const child of node.children) {
treeLayout.secondWalk(child, modSum + node.mod);
}
}
/**
* Shift all children of the current node from right to left.
*
* @param {TreegraphNode} node
* The parent node.
*/
executeShifts(node) {
let shift = 0, change = 0;
for (let i = node.children.length - 1; i >= 0; i--) {
const childNode = node.children[i];
childNode.preX += shift;
childNode.mod += shift;
change += childNode.change;
shift += childNode.shift + change;
}
}
/**
* The core of the algorithm. The new subtree is combined with the previous
* subtrees. Threads are used to traverse the inside and outside contours of
* the left and right subtree up to the highest common level. The vertecies
* are left(right)Int(Out)node where Int means internal and Out means
* outernal. For summing up the modifiers along the contour we use the
* `left(right)Int(Out)mod` variable. Whenever two nodes of the inside
* contours are in conflict we commute the left one of the greatest uncommon
* ancestors using the getAncestor function and we call the moveSubtree
* method to shift the subtree and prepare the shifts of smaller subtrees.
* Finally we add a new thread (if necessary) and we adjust ancestor of
* right outernal node or defaultAncestor.
*
* @param {TreegraphNode} node
* @param {TreegraphNode} defaultAncestor
* The default ancestor of the passed node.
*/
apportion(node, defaultAncestor) {
const treeLayout = this, leftSibling = node.getLeftSibling();
if (leftSibling) {
let rightIntNode = node, rightOutNode = node, leftIntNode = leftSibling, leftOutNode = rightIntNode.getLeftMostSibling(), rightIntMod = rightIntNode.mod, rightOutMod = rightOutNode.mod, leftIntMod = leftIntNode.mod, leftOutMod = leftOutNode.mod;
while (leftIntNode &&
leftIntNode.nextRight() &&
rightIntNode &&
rightIntNode.nextLeft()) {
leftIntNode = leftIntNode.nextRight();
leftOutNode = leftOutNode.nextLeft();
rightIntNode = rightIntNode.nextLeft();
rightOutNode = rightOutNode.nextRight();
rightOutNode.ancestor = node;
const siblingDistance = 1, shift = leftIntNode.preX +
leftIntMod -
(rightIntNode.preX + rightIntMod) +
siblingDistance;
if (shift > 0) {
treeLayout.moveSubtree(node.getAncestor(leftIntNode, defaultAncestor), node, shift);
rightIntMod += shift;
rightOutMod += shift;
}
leftIntMod += leftIntNode.mod;
rightIntMod += rightIntNode.mod;
leftOutMod += leftOutNode.mod;
rightOutMod += rightOutNode.mod;
}
if (leftIntNode &&
leftIntNode.nextRight() &&
!rightOutNode.nextRight()) {
rightOutNode.thread = leftIntNode.nextRight();
rightOutNode.mod += leftIntMod - rightOutMod;
}
if (rightIntNode &&
rightIntNode.nextLeft() &&
!leftOutNode.nextLeft()) {
leftOutNode.thread = rightIntNode.nextLeft();
leftOutNode.mod += rightIntMod - leftOutMod;
}
defaultAncestor = node;
}
return defaultAncestor;
}
/**
* Shifts the subtree from leftNode to rightNode.
*
* @param {TreegraphNode} leftNode
* @param {TreegraphNode} rightNode
* @param {number} shift
* The value, by which the subtree should be moved.
*/
moveSubtree(leftNode, rightNode, shift) {
const subtrees = rightNode.relativeXPosition - leftNode.relativeXPosition;
rightNode.change -= shift / subtrees;
rightNode.shift += shift;
rightNode.preX += shift;
rightNode.mod += shift;
leftNode.change += shift / subtrees;
}
/**
* Clear values created in a beforeLayout.
*
* @param {TreegraphNode[]} nodes
* All of the nodes of the Treegraph Series.
*/
afterLayout(nodes) {
for (const node of nodes) {
if (node.oldParentNode) {
// Restore default connections
node.relativeXPosition = node.parentNode.relativeXPosition;
node.parent = node.oldParentNode.parent;
node.parentNode = node.oldParentNode;
// Delete dummyNode
delete node.oldParentNode.children[node.relativeXPosition];
node.oldParentNode.children[node.relativeXPosition] = node;
node.oldParentNode = void 0;
}
}
}
}
/* *
*
* Default Export
*
* */
return TreegraphLayout;
});
_registerModule(_modules, 'Series/Treegraph/TreegraphSeriesDefaults.js', [], function () {
/* *
*
* (c) 2010-2024 Pawel Lysy Grzegorz Blachlinski
*
* License: www.highcharts.com/license
*
* !!!!!!! SOURCE GETS TRANSPILED BY TYPESCRIPT. EDIT TS FILE ONLY. !!!!!!!
*
* */
/* *
*
* Constants
*
* */
/**
* A treegraph series is a diagram, which shows a relation between ancestors
* and descendants with a clear parent - child relation.
* The best examples of the dataStructures, which best reflect this chart
* are e.g. genealogy tree or directory structure.
*
* TODO change back the demo path
* @sample highcharts/demo/treegraph-chart
* Treegraph Chart
*
* @extends plotOptions.treemap
* @excluding layoutAlgorithm, dashStyle, linecap, lineWidth,
* negativeColor, threshold, zones, zoneAxis, colorAxis,
* colorKey, compare, dataGrouping, endAngle, gapSize, gapUnit,
* ignoreHiddenPoint, innerSize, joinBy, legendType, linecap,
* minSize, navigatorOptions, pointRange, allowTraversingTree,
* alternateStartingDirection, borderRadius, breadcrumbs,
* interactByLeaf, layoutStartingDirection, levelIsConstant,
* lineWidth, negativeColor, nodes, sortIndex, zoneAxis,
* zones
*
* @product highcharts
* @since 10.3.0
* @requires modules/treemap.js
* @requires modules/treegraph.js
* @optionparent plotOptions.treegraph
*/
const TreegraphSeriesDefaults = {
/**
* Flips the positions of the nodes of a treegraph along the
* horizontal axis (vertical if chart is inverted).
*
* @sample highcharts/series-treegraph/reversed-nodes
* Treegraph series with reversed nodes.
*
* @type {boolean}
* @default false
* @product highcharts
* @since 10.3.0
*/
reversed: false,
/**
* @extends plotOptions.series.marker
* @excluding enabled, enabledThreshold
*/
marker: {
radius: 10,
lineWidth: 0,
symbol: 'circle',
fillOpacity: 1,
states: {}
},
link: {
/**
* Modifier of the shape of the curved link. Works best for
* values between 0 and 1, where 0 is a straight line, and 1 is
* a shape close to the default one.
*
* @type {number}
* @default 0.5
* @product highcharts
* @since 10.3.0
* @apioption series.treegraph.link.curveFactor
*/
/**
* The color of the links between nodes.
*
* @type {Highcharts.ColorString}
* @private
*/
color: "#666666" /* Palette.neutralColor60 */,
/**
* The line width of the links connecting nodes, in pixels.
* @type {number}
*
* @private
*/
lineWidth: 1,
/**
* Radius for the rounded corners of the links between nodes.
* Works for `default` link type.
*
* @private
*/
radius: 10,
cursor: 'default',
/**
* Type of the link shape.
*
* @sample highcharts/series-treegraph/link-types
* Different link types
*
* @type {'default' | 'curved' | 'straight'}
* @product highcharts
*
*/
type: 'curved'
},
/**
* Options applied to collapse Button. The collape button is the
* small button which indicates, that the node is collapsable.
*/
collapseButton: {
/**
* Whether the button should be visible only when the node is
* hovered. When set to true, the button is hidden for nodes,
* which are not collapsed, and shown for the collapsed ones.
*/
onlyOnHover: true,
/**
* Whether the button should be visible.
*/
enabled: true,
/**
* The line width of the button in pixels
*/
lineWidth: 1,
/**
* Offset of the button in the x direction.
*/
x: 0,
/**
* Offset of the button in the y direction.
*/
y: 0,
/**
* Height of the button.
*/
height: 18,
/**
* Width of the button.
*/
width: 18,
/**
* The symbol of the collapse button.
*/
shape: 'circle',
/**
* CSS styles for the collapse button.
*
* In styled mode, the collapse button style is given in the
* `.highcharts-collapse-button` class.
*/
style: {
cursor: 'pointer',
fontWeight: 'bold',
fontSize: '1em'
}
},
/**
* Whether the treegraph series should fill the entire plot area in the X
* axis direction, even when there are collapsed points.
*
* @sample highcharts/series-treegraph/fillspace
* Fill space demonstrated
*
* @product highcharts
*/
fillSpace: false,
/**
* @extends plotOptions.series.tooltip
*/
tooltip: {
/**
* The HTML of the point's line in the tooltip. Variables are
* enclosed by curly brackets. Available variables are
* `point.id`, `point.fromNode.id`, `point.toNode.id`,
* `series.name`, `series.color` and other properties on the
* same form. Furthermore, This can also be overridden for each
* series, which makes it a good hook for displaying units. In
* styled mode, the dot is colored by a class name rather than
* the point color.
*
* @type {string}
* @since 10.3.0
* @product highcharts
*/
linkFormat: '{point.fromNode.id} \u2192 {point.toNode.id}',
pointFormat: '{point.id}'
/**
* A callback function for formatting the HTML output for a
* single link in the tooltip. Like the `linkFormat` string,
* but with more flexibility.
*
* @type {Highcharts.FormatterCallbackFunction.<Highcharts.Point>}
* @apioption series.treegraph.tooltip.linkFormatter
*
*/
},
/**
* Options for the data labels appearing on top of the nodes and
* links. For treegraph charts, data labels are visible for the
* nodes by default, but hidden for links. This is controlled by
* modifying the `nodeFormat`, and the `format` that applies to
* links and is an empty string by default.
*
* @declare Highcharts.SeriesTreegraphDataLabelsOptionsObject
*/
dataLabels: {
defer: true,
/**
* Options for a _link_ label text which should follow link
* connection. Border and background are disabled for a label
* that follows a path.
*
* **Note:** Only SVG-based renderer supports this option.
* Setting `useHTML` to true will disable this option.
*
* @sample highcharts/series-treegraph/link-text-path
* Treegraph series with link text path dataLabels.
*
* @extends plotOptions.treegraph.dataLabels.textPath
* @since 10.3.0
*/
linkTextPath: {
attributes: {
startOffset: '50%'
}
},
enabled: true,
linkFormatter: () => '',
style: {
textOverflow: 'none'
}
},
/**
* The distance between nodes in a tree graph in the longitudinal direction.
* The longitudinal direction means the direction that the chart flows - in
* a horizontal chart the distance is horizontal, in an inverted chart
* (vertical), the distance is vertical.
*
* If a number is given, it denotes pixels. If a percentage string is given,
* the distance is a percentage of the rendered node width. A `nodeDistance`
* of `100%` will render equal widths for the nodes and the gaps between
* them.
*
* This option applies only when the `nodeWidth` option is `auto`, making
* the node width respond to the number of columns.
*
* @since 11.4.0
* @sample highcharts/series-treegraph/node-distance
* Node distance of 100% means equal to node width
* @type {number|string}
*/
nodeDistance: 30,
/**
* The pixel width of each node in a, or the height in case the chart is
* inverted. For tree graphs, the node width is only applied if the marker
* symbol is `rect`, otherwise the `marker` sizing options apply.
*
* Can be a number or a percentage string, or `auto`. If `auto`, the nodes
* are sized to fill up the plot area in the longitudinal direction,
* regardless of the number of levels.
*
* @since 11.4.0
* @see [treegraph.nodeDistance](#nodeDistance)
* @sample highcharts/series-treegraph/node-distance
* Node width is auto and combined with node distance
*
* @type {number|string}
*/
nodeWidth: void 0
};
/* *
*
* Default Export
*
* */
return TreegraphSeriesDefaults;
});
_registerModule(_modules, 'Series/Treegraph/TreegraphSeries.js', [_modules['Series/PathUtilities.js'], _modules['Core/Series/SeriesRegistry.js'], _modules['Core/Renderer/SVG/SVGRenderer.js'], _modules['Series/Treegraph/TreegraphNode.js'], _modules['Series/Treegraph/TreegraphPoint.js'], _modules['Series/TreeUtilities.js'], _modules['Core/Utilities.js'], _modules['Series/Treegraph/TreegraphLink.js'], _modules['Series/Treegraph/TreegraphLayout.js'], _modules['Series/Treegraph/TreegraphSeriesDefaults.js']], function (PU, SeriesRegistry, SVGRenderer, TreegraphNode, TreegraphPoint, TU, U, TreegraphLink, TreegraphLayout, TreegraphSeriesDefaults) {
/* *
*
* (c) 2010-2024 Pawel Lysy Grzegorz Blachlinski
*
* License: www.highcharts.com/license
*
* !!!!!!! SOURCE GETS TRANSPILED BY TYPESCRIPT. EDIT TS FILE ONLY. !!!!!!!
*
* */
const { getLinkPath } = PU;
const { series: { prototype: seriesProto }, seriesTypes: { treemap: TreemapSeries, column: ColumnSeries } } = SeriesRegistry;
const { prototype: { symbols } } = SVGRenderer;
const { getLevelOptions, getNodeWidth } = TU;
const { arrayMax, extend, merge, pick, relativeLength, splat } = U;
/* *
*
* Class
*
* */
/**
* The Treegraph series type.
*
* @private
* @class
* @name Highcharts.seriesTypes.treegraph
*
* @augments Highcharts.Series
*/
class TreegraphSeries extends TreemapSeries {
constructor() {
/* *
*
* Static Properties
*
* */
super(...arguments);
this.nodeList = [];
this.links = [];
}
/* *
*
* Functions
*
* */
init() {
super.init.apply(this, arguments);
this.layoutAlgorythm = new TreegraphLayout();
}
/**
* Calculate `a` and `b` parameters of linear transformation, where
* `finalPosition = a * calculatedPosition + b`.
*
* @return {LayoutModifiers} `a` and `b` parameter for x and y direction.
*/
getLayoutModifiers() {
const chart = this.chart, series = this, plotSizeX = chart.plotSizeX, plotSizeY = chart.plotSizeY, columnCount = arrayMax(this.points.map((p) => p.node.xPosition));
let minX = Infinity, maxX = -Infinity, minY = Infinity, maxY = -Infinity, maxXSize = 0, minXSize = 0, maxYSize = 0, minYSize = 0;
this.points.forEach((point) => {
// When fillSpace is on, stop the layout calculation when the hidden
// points are reached. (#19038)
if (this.options.fillSpace && !point.visible) {
return;
}
const node = point.node, level = series.mapOptionsToLevel[point.node.level] || {}, markerOptions = merge(this.options.marker, level.marker, point.options.marker), nodeWidth = markerOptions.width ?? getNodeWidth(this, columnCount), radius = relativeLength(markerOptions.radius || 0, Math.min(plotSizeX, plotSizeY)), symbol = markerOptions.symbol, nodeSizeY = (symbol === 'circle' || !markerOptions.height) ?
radius * 2 :
relativeLength(markerOptions.height, plotSizeY), nodeSizeX = symbol === 'circle' || !nodeWidth ?
radius * 2 :
relativeLength(nodeWidth, plotSizeX);
node.nodeSizeX = nodeSizeX;
node.nodeSizeY = nodeSizeY;
let lineWidth;
if (node.xPosition <= minX) {
minX = node.xPosition;
lineWidth = markerOptions.lineWidth || 0;
minXSize = Math.max(nodeSizeX + lineWidth, minXSize);
}
if (node.xPosition >= maxX) {
maxX = node.xPosition;
lineWidth = markerOptions.lineWidth || 0;
maxXSize = Math.max(nodeSizeX + lineWidth, maxXSize);
}
if (node.yPosition <= minY) {
minY = node.yPosition;
lineWidth = markerOptions.lineWidth || 0;
minYSize = Math.max(nodeSizeY + lineWidth, minYSize);
}
if (node.yPosition >= maxY) {
maxY = node.yPosition;
lineWidth = markerOptions.lineWidth || 0;
maxYSize = Math.max(nodeSizeY + lineWidth, maxYSize);
}
});
// Calculate the values of linear transformation, which will later be
// applied as `nodePosition = a * x + b` for each direction.
const ay = maxY === minY ?
1 :
(plotSizeY - (minYSize + maxYSize) / 2) / (maxY - minY), by = maxY === minY ? plotSizeY / 2 : -ay * minY + minYSize / 2, ax = maxX === minX ?
1 :
(plotSizeX - (maxXSize + maxXSize) / 2) / (maxX - minX), bx = maxX === minX ? plotSizeX / 2 : -ax * minX + minXSize / 2;
return { ax, bx, ay, by };
}
getLinks() {
const series = this;
const links = [];
this.data.forEach((point) => {
const levelOptions = series.mapOptionsToLevel[point.node.level || 0] || {};
if (point.node.parent) {
const pointOptions = merge(levelOptions, point.options);
if (!point.linkToParent || point.linkToParent.destroyed) {
const link = new series.LinkClass(series, pointOptions, void 0, point);
point.linkToParent = link;
}
else {
// #19552
point.collapsed = pick(point.collapsed, (this.mapOptionsToLevel[point.node.level] || {}).collapsed);
point.linkToParent.visible =
point.linkToParent.toNode.visible;
}
point.linkToParent.index = links.push(point.linkToParent) - 1;
}
else {
if (point.linkToParent) {
series.links.splice(point.linkToParent.index);
point.linkToParent.destroy();
delete point.linkToParent;
}
}
});
return links;
}
buildTree(id, index, level, list, parent) {
const point = this.points[index];
level = (point && point.level) || level;
return super.buildTree.call(this, id, index, level, list, parent);
}
markerAttribs() {
// The super Series.markerAttribs returns { width: NaN, height: NaN },
// so just disable this for now.
return {};
}
setCollapsedStatus(node, visibility) {
const point = node.point;
if (point) {
// Take the level options into account.
point.collapsed = pick(point.collapsed, (this.mapOptionsToLevel[node.level] || {}).collapsed);
point.visible = visibility;
visibility = visibility === false ? false : !point.collapsed;
}
node.children.forEach((childNode) => {
this.setCollapsedStatus(childNode, visibility);
});
}
drawTracker() {
ColumnSeries.prototype.drawTracker.apply(this, arguments);
ColumnSeries.prototype.drawTracker.call(this, this.links);
}
/**
* Run pre-translation by generating the nodeColumns.
* @private
*/
translate() {
const series = this, options = series.options;
// NOTE: updateRootId modifies series.
let rootId = TU.updateRootId(series), rootNode;
// Call prototype function
seriesProto.translate.call(series);
const tree = series.tree = series.getTree();
rootNode = series.nodeMap[rootId];
if (rootId !== '' && (!rootNode || !rootNode.children.length)) {
series.setRootNode('', false);
rootId = series.rootNode;
rootNode = series.nodeMap[rootId];
}
series.mapOptionsToLevel = getLevelOptions({
from: rootNode.level + 1,
levels: options.levels,
to: tree.height,
defaults: {
levelIsConstant: series.options.levelIsConstant,
colorByPoint: options.colorByPoint
}
});
this.setCollapsedStatus(tree, true);
series.links = series.getLinks();
series.setTreeValues(tree);
this.layoutAlgorythm.calculatePositions(series);
series.layoutModifier = this.getLayoutModifiers();
this.points.forEach((point) => {
this.translateNode(point);
});
this.points.forEach((point) => {
if (point.linkToParent) {
this.translateLink(point.linkToParent);
}
});
if (!options.colorByPoint) {
series.setColorRecursive(series.tree);
}
}
translateLink(link) {
const fromNode = link.fromNode, toNode = link.toNode, linkWidth = this.options.link.lineWidth, crisp = (Math.round(linkWidth) % 2) / 2, factor = pick(this.options.link.curveFactor, 0.5), type = pick(link.options.link && link.options.link.type, this.options.link.type);
if (fromNode.shapeArgs && toNode.shapeArgs) {
const fromNodeWidth = (fromNode.shapeArgs.width || 0), inverted = this.chart.inverted, y1 = Math.floor((fromNode.shapeArgs.y || 0) +
(fromNode.shapeArgs.height || 0) / 2) + crisp, y2 = Math.floor((toNode.shapeArgs.y || 0) +
(toNode.shapeArgs.height || 0) / 2) + crisp;
let x1 = Math.floor((fromNode.shapeArgs.x || 0) + fromNodeWidth) +
crisp, x2 = Math.floor(toNode.shapeArgs.x || 0) + crisp;
if (inverted) {
x1 -= fromNodeWidth;
x2 += (toNode.shapeArgs.width || 0);
}
const diff = toNode.node.xPosition - fromNode.node.xPosition;
link.shapeType = 'path';
const fullWidth = Math.abs(x2 - x1) + fromNodeWidth, width = (fullWidth / diff) - fromNodeWidth, offset = width * factor * (inverted ? -1 : 1);
const xMiddle = Math.floor((x2 + x1) / 2) + crisp;
link.plotX = xMiddle;
link.plotY = y2;
link.shapeArgs = {
d: getLinkPath[type]({
x1,
y1,
x2,
y2,
width,
offset,
inverted,
parentVisible: toNode.visible,
radius: this.options.link.radius
})
};
link.dlBox = {
x: (x1 + x2) / 2,
y: (y1 + y2) / 2,
height: linkWidth,
width: 0
};
link.tooltipPos = inverted ? [
(this.chart.plotSizeY || 0) - link.dlBox.y,
(this.chart.plotSizeX || 0) - link.dlBox.x
] : [
link.dlBox.x,
link.dlBox.y
];
}
}
/**
* Private method responsible for adjusting the dataLabel options for each
* node-point individually.
*/
drawNodeLabels(points) {
const series = this, mapOptionsToLevel = series.mapOptionsToLevel;
let options, level;
for (const point of points) {
level = mapOptionsToLevel[point.node.level];
// Set options to new object to avoid problems with scope
options = { style: {} };
// If options for level exists, include them as well
if (level && level.dataLabels) {
options = merge(options, level.dataLabels);
series.hasDataLabels = () => true;
}
// Set dataLabel width to the width of the point shape.
if (point.shapeArgs &&
!splat(series.options.dataLabels)[0].style.width) {
options.style.width = point.shapeArgs.width;
if (point.dataLabel) {
point.dataLabel.css({
width: point.shapeArgs.width + 'px'
});
}
}
// Merge custom options with point options
point.dlOptions = merge(options, point.options.dataLabels);
}
seriesProto.drawDataLabels.call(this, points);
}
/**
* Override alignDataLabel so that position is always calculated and the
* label is faded in and out instead of hidden/shown when collapsing and
* expanding nodes.
*/
alignDataLabel(point, dataLabel) {
const visible = point.visible;
// Force position calculation and visibility
point.visible = true;
super.alignDataLabel.apply(this, arguments);
// Fade in or out
dataLabel.animate({
opacity: visible === false ? 0 : 1
}, void 0, function () {
// Hide data labels that belong to hidden points (#18891)
visible || dataLabel.hide();
});
// Reset
point.visible = visible;
}
/**
* Treegraph has two separate collecions of nodes and lines,
* render dataLabels for both sets.
*/
drawDataLabels() {
if (this.options.dataLabels) {
this.options.dataLabels = splat(this.options.dataLabels);
// Render node labels.
this.drawNodeLabels(this.points);
// Render link labels.
seriesProto.drawDataLabels.call(this, this.links);
}
}
destroy() {
// Links must also be destroyed.
if (this.links) {
for (const link of this.links) {
link.destroy();
}
this.links.length = 0;
}
return seriesProto.destroy.apply(this, arguments);
}
/**
* Return the presentational attributes.
* @private
*/
pointAttribs(point, state) {
const series = this, levelOptions = point &&
series.mapOptionsToLevel[point.node.level || 0] || {}, options = point && point.options, stateOptions = (levelOptions.states &&
levelOptions.states[state]) ||
{};
if (point) {
point.options.marker = merge(series.options.marker, levelOptions.marker, point.options.marker);
}
const linkColor = pick(stateOptions && stateOptions.link && stateOptions.link.color, options && options.link && options.link.color, levelOptions && levelOptions.link && levelOptions.link.color, series.options.link && series.options.link.color), linkLineWidth = pick(stateOptions && stateOptions.link &&
stateOptions.link.lineWidth, options && options.link && options.link.lineWidth, levelOptions && levelOptions.link &&
levelOptions.link.lineWidth, series.options.link && series.options.link.lineWidth), attribs = seriesProto.pointAttribs.call(series, point, state);
if (point) {
if (point.isLink) {
attribs.stroke = linkColor;
attribs['stroke-width'] = linkLineWidth;
delete attribs.fill;
}
if (!point.visible) {
attribs.opacity = 0;
}
}
return attribs;
}
drawPoints() {
TreemapSeries.prototype.drawPoints.apply(this, arguments);
ColumnSeries.prototype.drawPoints.call(this, this.links);
}
/**
* Run translation operations for one node.
* @private
*/
translateNode(point) {
const chart = this.chart, node = point.node, plotSizeY = chart.plotSizeY, plotSizeX = chart.plotSizeX,
// Get the layout modifiers which are common for all nodes.
{ ax, bx, ay, by } = this.layoutModifier, x = ax * node.xPosition + bx, y = ay * node.yPosition + by, level = this.mapOptionsToLevel[node.level] || {}, markerOptions = merge(this.options.marker, level.marker, point.options.marker), symbol = markerOptions.symbol, height = node.nodeSizeY, width = node.nodeSizeX, reversed = this.options.reversed, nodeX = node.x = (chart.inverted ?
plotSizeX - width / 2 - x :
x - width / 2), nodeY = node.y = (!reversed ?
plotSizeY - y - height / 2 :
y - height / 2), borderRadius = pick(point.options.borderRadius, level.borderRadius, this.options.borderRadius), symbolFn = symbols[symbol || 'circle'];
if (symbolFn === void 0) {
point.hasImage = true;
point.shapeType = 'image';
point.imageUrl = symbol.match(/^url\((.*?)\)$/)[1];
}
else {
point.shapeType = 'path';
}
if (!point.visible && point.linkToParent) {
const parentNode = point.linkToParent.fromNode;
if (parentNode) {
const parentShapeArgs = parentNode.shapeArgs || {}, { x = 0, y = 0, width = 0, height = 0 } = parentShapeArgs;
if (!point.shapeArgs) {
point.shapeArgs = {};
}
if (!point.hasImage) {
extend(point.shapeArgs, {
d: symbolFn(x, y, width, height, borderRadius ? { r: borderRadius } : void 0)
});
}
extend(point.shapeArgs, { x, y });
point.plotX = parentNode.plotX;
point.plotY = parentNode.plotY;
}
}
else {
point.plotX = nodeX;
point.plotY = nodeY;
point.shapeArgs = {
x: nodeX,
y: nodeY,
width,
height,
cursor: !point.node.isLeaf ? 'pointer' : 'default'
};
if (!point.hasImage) {
point.shapeArgs.d = symbolFn(nodeX, nodeY, width, height, borderRadius ? { r: borderRadius } : void 0);
}
}
// Set the anchor position for tooltip.
point.tooltipPos = chart.inverted ?
[plotSizeY - nodeY - height / 2, plotSizeX - nodeX - width / 2] :
[nodeX + width / 2, nodeY];
}
}
TreegraphSeries.defaultOptions = merge(TreemapSeries.defaultOptions, TreegraphSeriesDefaults);
extend(TreegraphSeries.prototype, {
pointClass: TreegraphPoint,
NodeClass: TreegraphNode,
LinkClass: TreegraphLink
});
SeriesRegistry.registerSeriesType('treegraph', TreegraphSeries);
/* *
*
* Default Export
*
* */
/* *
*
* API Options
*
* */
/**
* A `treegraph` series. If the [type](#series.treegraph.type)
* option is not specified, it is inherited from [chart.type](#chart.type).
*
* @extends series,plotOptions.treegraph
* @exclude allowDrillToNode, boostBlending, boostThreshold, curveFactor,
* centerInCategory, connectEnds, connectNulls, colorAxis, colorKey,
* dataSorting, dragDrop, findNearestPointBy, getExtremesFromAll, layout,
* nodePadding, pointInterval, pointIntervalUnit, pointPlacement, pointStart,
* relativeXValue, softThreshold, stack, stacking, step,
* traverseUpButton, xAxis, yAxis, zoneAxis, zones
* @product highcharts
* @requires modules/treemap.js
* @requires modules/treegraph.js
* @apioption series.treegraph
*/
/**
* @extends plotOptions.series.marker
* @excluding enabled, enabledThreshold
* @apioption series.treegraph.marker
*/
/**
* @type {Highcharts.SeriesTreegraphDataLabelsOptionsObject|Array<Highcharts.SeriesTreegraphDataLabelsOptionsObject>}
* @product highcharts
* @apioption series.treegraph.data.dataLabels
*/
/**
* @sample highcharts/series-treegraph/level-options
* Treegraph chart with level options applied
*
* @type {Array<*>}
* @excluding layoutStartingDirection, layoutAlgorithm
* @apioption series.treegraph.levels
*/
/**
* Set collapsed status for nodes level-wise.
* @type {boolean}
* @apioption series.treegraph.levels.collapsed
*/
/**
* Set marker options for nodes at the level.
* @extends series.treegraph.marker
* @apioption series.treegraph.levels.marker
*/
/**
* An array of data points for the series. For the `treegraph` series type,
* points can be given in the following ways:
*
* 1. The array of arrays, with `keys` property, which defines how the fields in
* array should be interpreted
* ```js
* keys: ['id', 'parent'],
* data: [
* ['Category1'],
* ['Category1', 'Category2']
* ]
*
* 2. An array of objects with named values. The following snippet shows only a
* few settings, see the complete options set below. If the total number of
* data points exceeds the
* series' [turboThreshold](#series.area.turboThreshold),
* this option is not available.
* The data of the treegraph series needs to be formatted in such a way, that
* there are no circular dependencies on the nodes
*
* ```js
* data: [{
* id: 'Category1'
* }, {
* id: 'Category1',
* parent: 'Category2',
* }]
* ```
*
* @type {Array<*>}
* @extends series.treemap.data
* @product highcharts
* @excluding outgoing, weight, value
* @apioption series.treegraph.data
*/
/**
* Options used for button, which toggles the collapse status of the node.
*
*
* @apioption series.treegraph.data.collapseButton
*/
/**
* If point's children should be initially hidden
*
* @sample highcharts/series-treegraph/level-options
* Treegraph chart with initially hidden children
*
* @type {boolean}
* @apioption series.treegraph.data.collapsed
*/
''; // Gets doclets above into transpiled version
return TreegraphSeries;
});
_registerModule(_modules, 'masters/modules/treegraph.src.js', [_modules['Core/Globals.js']], function (Highcharts) {
return Highcharts;
});
}));