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Interactive diagrams, charts, and graphs, such as trees, flowcharts, orgcharts, UML, BPMN, or business diagrams

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<!DOCTYPE html> <html> <head> <meta charset="UTF-8"> <title>Genogram</title> <meta name="description" content="A genogram is a family tree diagram for visualizing hereditary patterns." /> <meta name="viewport" content="width=device-width, initial-scale=1"> <!-- Copyright 1998-2020 by Northwoods Software Corporation. --> <script src="../release/go.js"></script> <script src="../assets/js/goSamples.js"></script> <!-- this is only for the GoJS Samples framework --> <script id="code"> function init() { if (window.goSamples) goSamples(); // init for these samples -- you don't need to call this var $ = go.GraphObject.make; myDiagram = $(go.Diagram, "myDiagramDiv", { initialAutoScale: go.Diagram.Uniform, "undoManager.isEnabled": true, // when a node is selected, draw a big yellow circle behind it nodeSelectionAdornmentTemplate: $(go.Adornment, "Auto", { layerName: "Grid" }, // the predefined layer that is behind everything else $(go.Shape, "Circle", { fill: "#c1cee3", stroke: null }), $(go.Placeholder, { margin: 2 }) ), layout: // use a custom layout, defined below $(GenogramLayout, { direction: 90, layerSpacing: 30, columnSpacing: 10 }) }); // determine the color for each attribute shape function attrFill(a) { switch (a) { case "A": return "#00af54"; // green case "B": return "#f27935"; // orange case "C": return "#d4071c"; // red case "D": return "#70bdc2"; // cyan case "E": return "#fcf384"; // gold case "F": return "#e69aaf"; // pink case "G": return "#08488f"; // blue case "H": return "#866310"; // brown case "I": return "#9270c2"; // purple case "J": return "#a3cf62"; // chartreuse case "K": return "#91a4c2"; // lightgray bluish case "L": return "#af70c2"; // magenta case "S": return "#d4071c"; // red default: return "transparent"; } } // determine the geometry for each attribute shape in a male; // except for the slash these are all squares at each of the four corners of the overall square var tlsq = go.Geometry.parse("F M1 1 l19 0 0 19 -19 0z"); var trsq = go.Geometry.parse("F M20 1 l19 0 0 19 -19 0z"); var brsq = go.Geometry.parse("F M20 20 l19 0 0 19 -19 0z"); var blsq = go.Geometry.parse("F M1 20 l19 0 0 19 -19 0z"); var slash = go.Geometry.parse("F M38 0 L40 0 40 2 2 40 0 40 0 38z"); function maleGeometry(a) { switch (a) { case "A": return tlsq; case "B": return tlsq; case "C": return tlsq; case "D": return trsq; case "E": return trsq; case "F": return trsq; case "G": return brsq; case "H": return brsq; case "I": return brsq; case "J": return blsq; case "K": return blsq; case "L": return blsq; case "S": return slash; default: return tlsq; } } // determine the geometry for each attribute shape in a female; // except for the slash these are all pie shapes at each of the four quadrants of the overall circle var tlarc = go.Geometry.parse("F M20 20 B 180 90 20 20 19 19 z"); var trarc = go.Geometry.parse("F M20 20 B 270 90 20 20 19 19 z"); var brarc = go.Geometry.parse("F M20 20 B 0 90 20 20 19 19 z"); var blarc = go.Geometry.parse("F M20 20 B 90 90 20 20 19 19 z"); function femaleGeometry(a) { switch (a) { case "A": return tlarc; case "B": return tlarc; case "C": return tlarc; case "D": return trarc; case "E": return trarc; case "F": return trarc; case "G": return brarc; case "H": return brarc; case "I": return brarc; case "J": return blarc; case "K": return blarc; case "L": return blarc; case "S": return slash; default: return tlarc; } } // two different node templates, one for each sex, // named by the category value in the node data object myDiagram.nodeTemplateMap.add("M", // male $(go.Node, "Vertical", { locationSpot: go.Spot.Center, locationObjectName: "ICON", selectionObjectName: "ICON" }, $(go.Panel, { name: "ICON" }, $(go.Shape, "Square", { width: 40, height: 40, strokeWidth: 2, fill: "white", stroke: "#919191", portId: "" }), $(go.Panel, { // for each attribute show a Shape at a particular place in the overall square itemTemplate: $(go.Panel, $(go.Shape, { stroke: null, strokeWidth: 0 }, new go.Binding("fill", "", attrFill), new go.Binding("geometry", "", maleGeometry)) ), margin: 1 }, new go.Binding("itemArray", "a") ) ), $(go.TextBlock, { textAlign: "center", maxSize: new go.Size(80, NaN) }, new go.Binding("text", "n")) )); myDiagram.nodeTemplateMap.add("F", // female $(go.Node, "Vertical", { locationSpot: go.Spot.Center, locationObjectName: "ICON", selectionObjectName: "ICON" }, $(go.Panel, { name: "ICON" }, $(go.Shape, "Circle", { width: 40, height: 40, strokeWidth: 2, fill: "white", stroke: "#a1a1a1", portId: "" }), $(go.Panel, { // for each attribute show a Shape at a particular place in the overall circle itemTemplate: $(go.Panel, $(go.Shape, { stroke: null, strokeWidth: 0 }, new go.Binding("fill", "", attrFill), new go.Binding("geometry", "", femaleGeometry)) ), margin: 1 }, new go.Binding("itemArray", "a") ) ), $(go.TextBlock, { textAlign: "center", maxSize: new go.Size(80, NaN) }, new go.Binding("text", "n")) )); // the representation of each label node -- nothing shows on a Marriage Link myDiagram.nodeTemplateMap.add("LinkLabel", $(go.Node, { selectable: false, width: 1, height: 1, fromEndSegmentLength: 20 })); myDiagram.linkTemplate = // for parent-child relationships $(go.Link, { routing: go.Link.Orthogonal, corner: 5, layerName: "Background", selectable: false, fromSpot: go.Spot.Bottom, toSpot: go.Spot.Top }, $(go.Shape, { stroke: "#424242", strokeWidth: 2 }) ); myDiagram.linkTemplateMap.add("Marriage", // for marriage relationships $(go.Link, { selectable: false }, $(go.Shape, { strokeWidth: 2.5, stroke: "#5d8cc1" /* blue */ }) )); // n: name, s: sex, m: mother, f: father, ux: wife, vir: husband, a: attributes/markers setupDiagram(myDiagram, [ { key: 0, n: "Aaron", s: "M", m: -10, f: -11, ux: 1, a: ["C", "F", "K"] }, { key: 1, n: "Alice", s: "F", m: -12, f: -13, a: ["B", "H", "K"] }, { key: 2, n: "Bob", s: "M", m: 1, f: 0, ux: 3, a: ["C", "H", "L"] }, { key: 3, n: "Barbara", s: "F", a: ["C"] }, { key: 4, n: "Bill", s: "M", m: 1, f: 0, ux: 5, a: ["E", "H"] }, { key: 5, n: "Brooke", s: "F", a: ["B", "H", "L"] }, { key: 6, n: "Claire", s: "F", m: 1, f: 0, a: ["C"] }, { key: 7, n: "Carol", s: "F", m: 1, f: 0, a: ["C", "I"] }, { key: 8, n: "Chloe", s: "F", m: 1, f: 0, vir: 9, a: ["E"] }, { key: 9, n: "Chris", s: "M", a: ["B", "H"] }, { key: 10, n: "Ellie", s: "F", m: 3, f: 2, a: ["E", "G"] }, { key: 11, n: "Dan", s: "M", m: 3, f: 2, a: ["B", "J"] }, { key: 12, n: "Elizabeth", s: "F", vir: 13, a: ["J"] }, { key: 13, n: "David", s: "M", m: 5, f: 4, a: ["B", "H"] }, { key: 14, n: "Emma", s: "F", m: 5, f: 4, a: ["E", "G"] }, { key: 15, n: "Evan", s: "M", m: 8, f: 9, a: ["F", "H"] }, { key: 16, n: "Ethan", s: "M", m: 8, f: 9, a: ["D", "K"] }, { key: 17, n: "Eve", s: "F", vir: 16, a: ["B", "F", "L"] }, { key: 18, n: "Emily", s: "F", m: 8, f: 9 }, { key: 19, n: "Fred", s: "M", m: 17, f: 16, a: ["B"] }, { key: 20, n: "Faith", s: "F", m: 17, f: 16, a: ["L"] }, { key: 21, n: "Felicia", s: "F", m: 12, f: 13, a: ["H"] }, { key: 22, n: "Frank", s: "M", m: 12, f: 13, a: ["B", "H"] }, // "Aaron"'s ancestors { key: -10, n: "Paternal Grandfather", s: "M", m: -33, f: -32, ux: -11, a: ["A", "S"] }, { key: -11, n: "Paternal Grandmother", s: "F", a: ["E", "S"] }, { key: -32, n: "Paternal Great", s: "M", ux: -33, a: ["F", "H", "S"] }, { key: -33, n: "Paternal Great", s: "F", a: ["S"] }, { key: -40, n: "Great Uncle", s: "M", m: -33, f: -32, a: ["F", "H", "S"] }, { key: -41, n: "Great Aunt", s: "F", m: -33, f: -32, a: ["B", "I", "S"] }, { key: -20, n: "Uncle", s: "M", m: -11, f: -10, a: ["A", "S"] }, // "Alice"'s ancestors { key: -12, n: "Maternal Grandfather", s: "M", ux: -13, a: ["D", "L", "S"] }, { key: -13, n: "Maternal Grandmother", s: "F", m: -31, f: -30, a: ["H", "S"] }, { key: -21, n: "Aunt", s: "F", m: -13, f: -12, a: ["C", "I"] }, { key: -22, n: "Uncle", s: "M", ux: -21 }, { key: -23, n: "Cousin", s: "M", m: -21, f: -22 }, { key: -30, n: "Maternal Great", s: "M", ux: -31, a: ["D", "J", "S"] }, { key: -31, n: "Maternal Great", s: "F", m: -50, f: -51, a: ["B", "H", "L", "S"] }, { key: -42, n: "Great Uncle", s: "M", m: -30, f: -31, a: ["C", "J", "S"] }, { key: -43, n: "Great Aunt", s: "F", m: -30, f: -31, a: ["E", "G", "S"] }, { key: -50, n: "Maternal Great Great", s: "F", ux: -51, a: ["D", "I", "S"] }, { key: -51, n: "Maternal Great Great", s: "M", a: ["B", "H", "S"] } ], 4 /* focus on this person */); } // create and initialize the Diagram.model given an array of node data representing people function setupDiagram(diagram, array, focusId) { diagram.model = go.GraphObject.make(go.GraphLinksModel, { // declare support for link label nodes linkLabelKeysProperty: "labelKeys", // this property determines which template is used nodeCategoryProperty: "s", // if a node data object is copied, copy its data.a Array copiesArrays: true, // create all of the nodes for people nodeDataArray: array }); setupMarriages(diagram); setupParents(diagram); var node = diagram.findNodeForKey(focusId); if (node !== null) { diagram.select(node); // remove any spouse for the person under focus: //node.linksConnected.each(function(l) { // if (!l.isLabeledLink) return; // l.opacity = 0; // var spouse = l.getOtherNode(node); // spouse.opacity = 0; // spouse.pickable = false; //}); } } function findMarriage(diagram, a, b) { // A and B are node keys var nodeA = diagram.findNodeForKey(a); var nodeB = diagram.findNodeForKey(b); if (nodeA !== null && nodeB !== null) { var it = nodeA.findLinksBetween(nodeB); // in either direction while (it.next()) { var link = it.value; // Link.data.category === "Marriage" means it's a marriage relationship if (link.data !== null && link.data.category === "Marriage") return link; } } return null; } // now process the node data to determine marriages function setupMarriages(diagram) { var model = diagram.model; var nodeDataArray = model.nodeDataArray; for (var i = 0; i < nodeDataArray.length; i++) { var data = nodeDataArray[i]; var key = data.key; var uxs = data.ux; if (uxs !== undefined) { if (typeof uxs === "number") uxs = [uxs]; for (var j = 0; j < uxs.length; j++) { var wife = uxs[j]; if (key === wife) { // or warn no reflexive marriages continue; } var link = findMarriage(diagram, key, wife); if (link === null) { // add a label node for the marriage link var mlab = { s: "LinkLabel" }; model.addNodeData(mlab); // add the marriage link itself, also referring to the label node var mdata = { from: key, to: wife, labelKeys: [mlab.key], category: "Marriage" }; model.addLinkData(mdata); } } } var virs = data.vir; if (virs !== undefined) { if (typeof virs === "number") virs = [virs]; for (var j = 0; j < virs.length; j++) { var husband = virs[j]; if (key === husband) { // or warn no reflexive marriages continue; } var link = findMarriage(diagram, key, husband); if (link === null) { // add a label node for the marriage link var mlab = { s: "LinkLabel" }; model.addNodeData(mlab); // add the marriage link itself, also referring to the label node var mdata = { from: key, to: husband, labelKeys: [mlab.key], category: "Marriage" }; model.addLinkData(mdata); } } } } } // process parent-child relationships once all marriages are known function setupParents(diagram) { var model = diagram.model; var nodeDataArray = model.nodeDataArray; for (var i = 0; i < nodeDataArray.length; i++) { var data = nodeDataArray[i]; var key = data.key; var mother = data.m; var father = data.f; if (mother !== undefined && father !== undefined) { var link = findMarriage(diagram, mother, father); if (link === null) { // or warn no known mother or no known father or no known marriage between them if (window.console) window.console.log("unknown marriage: " + mother + " & " + father); continue; } var mdata = link.data; var mlabkey = mdata.labelKeys[0]; var cdata = { from: mlabkey, to: key }; myDiagram.model.addLinkData(cdata); } } } // A custom layout that shows the two families related to a person's parents function GenogramLayout() { go.LayeredDigraphLayout.call(this); this.initializeOption = go.LayeredDigraphLayout.InitDepthFirstIn; this.spouseSpacing = 30; // minimum space between spouses } go.Diagram.inherit(GenogramLayout, go.LayeredDigraphLayout); GenogramLayout.prototype.makeNetwork = function(coll) { // generate LayoutEdges for each parent-child Link var net = this.createNetwork(); if (coll instanceof go.Diagram) { this.add(net, coll.nodes, true); this.add(net, coll.links, true); } else if (coll instanceof go.Group) { this.add(net, coll.memberParts, false); } else if (coll.iterator) { this.add(net, coll.iterator, false); } return net; }; // internal method for creating LayeredDigraphNetwork where husband/wife pairs are represented // by a single LayeredDigraphVertex corresponding to the label Node on the marriage Link GenogramLayout.prototype.add = function(net, coll, nonmemberonly) { var multiSpousePeople = new go.Set(); // consider all Nodes in the given collection var it = coll.iterator; while (it.next()) { var node = it.value; if (!(node instanceof go.Node)) continue; if (!node.isLayoutPositioned || !node.isVisible()) continue; if (nonmemberonly && node.containingGroup !== null) continue; // if it's an unmarried Node, or if it's a Link Label Node, create a LayoutVertex for it if (node.isLinkLabel) { // get marriage Link var link = node.labeledLink; var spouseA = link.fromNode; var spouseB = link.toNode; // create vertex representing both husband and wife var vertex = net.addNode(node); // now define the vertex size to be big enough to hold both spouses vertex.width = spouseA.actualBounds.width + this.spouseSpacing + spouseB.actualBounds.width; vertex.height = Math.max(spouseA.actualBounds.height, spouseB.actualBounds.height); vertex.focus = new go.Point(spouseA.actualBounds.width + this.spouseSpacing / 2, vertex.height / 2); } else { // don't add a vertex for any married person! // instead, code above adds label node for marriage link // assume a marriage Link has a label Node var marriages = 0; node.linksConnected.each(function(l) { if (l.isLabeledLink) marriages++; }); if (marriages === 0) { var vertex = net.addNode(node); } else if (marriages > 1) { multiSpousePeople.add(node); } } } // now do all Links it.reset(); while (it.next()) { var link = it.value; if (!(link instanceof go.Link)) continue; if (!link.isLayoutPositioned || !link.isVisible()) continue; if (nonmemberonly && link.containingGroup !== null) continue; // if it's a parent-child link, add a LayoutEdge for it if (!link.isLabeledLink) { var parent = net.findVertex(link.fromNode); // should be a label node var child = net.findVertex(link.toNode); if (child !== null) { // an unmarried child net.linkVertexes(parent, child, link); } else { // a married child link.toNode.linksConnected.each(function(l) { if (!l.isLabeledLink) return; // if it has no label node, it's a parent-child link // found the Marriage Link, now get its label Node var mlab = l.labelNodes.first(); // parent-child link should connect with the label node, // so the LayoutEdge should connect with the LayoutVertex representing the label node var mlabvert = net.findVertex(mlab); if (mlabvert !== null) { net.linkVertexes(parent, mlabvert, link); } }); } } } while (multiSpousePeople.count > 0) { // find all collections of people that are indirectly married to each other var node = multiSpousePeople.first(); var cohort = new go.Set(); this.extendCohort(cohort, node); // then encourage them all to be the same generation by connecting them all with a common vertex var dummyvert = net.createVertex(); net.addVertex(dummyvert); var marriages = new go.Set(); cohort.each(function(n) { n.linksConnected.each(function(l) { marriages.add(l); }) }); marriages.each(function(link) { // find the vertex for the marriage link (i.e. for the label node) var mlab = link.labelNodes.first() var v = net.findVertex(mlab); if (v !== null) { net.linkVertexes(dummyvert, v, null); } }); // done with these people, now see if there are any other multiple-married people multiSpousePeople.removeAll(cohort); } }; // collect all of the people indirectly married with a person GenogramLayout.prototype.extendCohort = function(coll, node) { if (coll.has(node)) return; coll.add(node); var lay = this; node.linksConnected.each(function(l) { if (l.isLabeledLink) { // if it's a marriage link, continue with both spouses lay.extendCohort(coll, l.fromNode); lay.extendCohort(coll, l.toNode); } }); }; GenogramLayout.prototype.assignLayers = function() { go.LayeredDigraphLayout.prototype.assignLayers.call(this); var horiz = this.direction == 0.0 || this.direction == 180.0; // for every vertex, record the maximum vertex width or height for the vertex's layer var maxsizes = []; this.network.vertexes.each(function(v) { var lay = v.layer; var max = maxsizes[lay]; if (max === undefined) max = 0; var sz = (horiz ? v.width : v.height); if (sz > max) maxsizes[lay] = sz; }); // now make sure every vertex has the maximum width or height according to which layer it is in, // and aligned on the left (if horizontal) or the top (if vertical) this.network.vertexes.each(function(v) { var lay = v.layer; var max = maxsizes[lay]; if (horiz) { v.focus = new go.Point(0, v.height / 2); v.width = max; } else { v.focus = new go.Point(v.width / 2, 0); v.height = max; } }); // from now on, the LayeredDigraphLayout will think that the Node is bigger than it really is // (other than the ones that are the widest or tallest in their respective layer). }; GenogramLayout.prototype.commitNodes = function() { go.LayeredDigraphLayout.prototype.commitNodes.call(this); // position regular nodes this.network.vertexes.each(function(v) { if (v.node !== null && !v.node.isLinkLabel) { v.node.position = new go.Point(v.x, v.y); } }); // position the spouses of each marriage vertex var layout = this; this.network.vertexes.each(function(v) { if (v.node === null) return; if (!v.node.isLinkLabel) return; var labnode = v.node; var lablink = labnode.labeledLink; // In case the spouses are not actually moved, we need to have the marriage link // position the label node, because LayoutVertex.commit() was called above on these vertexes. // Alternatively we could override LayoutVetex.commit to be a no-op for label node vertexes. lablink.invalidateRoute(); var spouseA = lablink.fromNode; var spouseB = lablink.toNode; // prefer fathers on the left, mothers on the right if (spouseA.data.s === "F") { // sex is female var temp = spouseA; spouseA = spouseB; spouseB = temp; } // see if the parents are on the desired sides, to avoid a link crossing var aParentsNode = layout.findParentsMarriageLabelNode(spouseA); var bParentsNode = layout.findParentsMarriageLabelNode(spouseB); if (aParentsNode !== null && bParentsNode !== null && aParentsNode.position.x > bParentsNode.position.x) { // swap the spouses var temp = spouseA; spouseA = spouseB; spouseB = temp; } spouseA.position = new go.Point(v.x, v.y); spouseB.position = new go.Point(v.x + spouseA.actualBounds.width + layout.spouseSpacing, v.y); if (spouseA.opacity === 0) { var pos = new go.Point(v.centerX - spouseA.actualBounds.width / 2, v.y); spouseA.position = pos; spouseB.position = pos; } else if (spouseB.opacity === 0) { var pos = new go.Point(v.centerX - spouseB.actualBounds.width / 2, v.y); spouseA.position = pos; spouseB.position = pos; } }); // position only-child nodes to be under the marriage label node this.network.vertexes.each(function(v) { if (v.node === null || v.node.linksConnected.count > 1) return; var mnode = layout.findParentsMarriageLabelNode(v.node); if (mnode !== null && mnode.linksConnected.count === 1) { // if only one child var mvert = layout.network.findVertex(mnode); var newbnds = v.node.actualBounds.copy(); newbnds.x = mvert.centerX - v.node.actualBounds.width / 2; // see if there's any empty space at the horizontal mid-point in that layer var overlaps = layout.diagram.findObjectsIn(newbnds, function(x) { return x.part; }, function(p) { return p !== v.node; }, true); if (overlaps.count === 0) { v.node.move(newbnds.position); } } }); }; GenogramLayout.prototype.findParentsMarriageLabelNode = function(node) { var it = node.findNodesInto(); while (it.next()) { var n = it.value; if (n.isLinkLabel) return n; } return null; }; // end GenogramLayout class </script> </head> <body onload="init()"> <div id="sample"> <div id="myDiagramDiv" style="background-color: #F8F8F8; border: solid 1px black; width:100%; height:600px;"></div> <p>A <em>genogram</em> or <em>pedigree chart</em> is an extended family tree diagram that displays information about each person or each relationship.</p> <p> There are functions that convert an attribute value into a brush color or Shape geometry, to be added to the Node representing the person. </p> <p> A custom <a>LayeredDigraphLayout</a> does the layout, assuming there is a central person whose mother and father each have their own ancestors. In this case we focus on "Bill", but any of the children of "Alice" and "Aaron" would work. The overridden <b>add</b> function allows husband/wife pairs to be represented by a single <a>LayeredDigraphVertex</a>. </p> <p>For a simpler family tree, see the <a href="familyTree.html">family tree sample</a>.</p> <p> The node data representing the people, processed by the <code>setupDiagram</code> function is below. The properties are: <ul> <li><b>key</b>, the unique ID of the person</li> <li><b>n</b>, the person's name</li> <li><b>s</b>, the person's sex</li> <li><b>m</b>, the person's mother's key</li> <li><b>f</b>, the person's father's key</li> <li><b>ux</b>, the person's wife</li> <li><b>vir</b>, the person's husband</li> <li><b>a</b>, an Array of the attributes or markers that the person has</li> </ul> </p> <pre id="peopleData"> [ { key: 0, n: "Aaron", s: "M", m:-10, f:-11, ux: 1, a: ["C", "F", "K"] }, { key: 1, n: "Alice", s: "F", m:-12, f:-13, a: ["B", "H", "K"] }, { key: 2, n: "Bob", s: "M", m: 1, f: 0, ux: 3, a: ["C", "H", "L"] }, { key: 3, n: "Barbara", s: "F", a: ["C"] }, { key: 4, n: "Bill", s: "M", m: 1, f: 0, ux: 5, a: ["E", "H"] }, { key: 5, n: "Brooke", s: "F", a: ["B", "H", "L"] }, { key: 6, n: "Claire", s: "F", m: 1, f: 0, a: ["C"] }, { key: 7, n: "Carol", s: "F", m: 1, f: 0, a: ["C", "I"] }, { key: 8, n: "Chloe", s: "F", m: 1, f: 0, vir: 9, a: ["E"] }, { key: 9, n: "Chris", s: "M", a: ["B", "H"] }, { key: 10, n: "Ellie", s: "F", m: 3, f: 2, a: ["E", "G"] }, { key: 11, n: "Dan", s: "M", m: 3, f: 2, a: ["B", "J"] }, { key: 12, n: "Elizabeth", s: "F", vir: 13, a: ["J"] }, { key: 13, n: "David", s: "M", m: 5, f: 4, a: ["B", "H"] }, { key: 14, n: "Emma", s: "F", m: 5, f: 4, a: ["E", "G"] }, { key: 15, n: "Evan", s: "M", m: 8, f: 9, a: ["F", "H"] }, { key: 16, n: "Ethan", s: "M", m: 8, f: 9, a: ["D", "K", "S"] }, { key: 17, n: "Eve", s: "F", vir: 16, a: ["B", "F", "L", "S"] }, { key: 18, n: "Emily", s: "F", m: 8, f: 9 }, { key: 19, n: "Fred", s: "M", m: 17, f: 16, a: ["B"] }, { key: 20, n: "Faith", s: "F", m: 17, f: 16, a: ["L"] }, { key: 21, n: "Felicia", s: "F", m: 12, f: 13, a: ["H"] }, { key: 22, n: "Frank", s: "M", m: 12, f: 13, a: ["B", "H"] }, // "Aaron"'s ancestors { key: -10, n: "Paternal Grandfather", s: "M", m: -33, f: -32, ux: -11, a: ["A"] }, { key: -11, n: "Paternal Grandmother", s: "F", a: ["E"] }, { key: -32, n: "Paternal Great", s: "M", ux: -33, a: ["F", "H"] }, { key: -33, n: "Paternal Great", s: "F" }, { key: -40, n: "Great Uncle", s: "M", m: -33, f: -32, a: ["F", "H"] }, { key: -41, n: "Great Aunt", s: "F", m: -33, f: -32, a: ["B", "I"] }, { key: -20, n: "Uncle", s: "M", m: -11, f: -10, a: ["A"] }, // "Alice"'s ancestors { key: -12, n: "Maternal Grandfather", s: "M", ux: -13, a: ["D", "L"] }, { key: -13, n: "Maternal Grandmother", s: "F", m: -31, f: -30, a: ["H"] }, { key: -21, n: "Aunt", s: "F", m: -13, f: -12, a: ["C", "I"] }, { key: -22, n: "uncle", s: "M", ux: -21 }, { key: -23, n: "cousin", s: "M", m: -21, f: -22 }, { key: -30, n: "Maternal Great", s: "M", ux: -31, a: ["D", "J"] }, { key: -31, n: "Maternal Great", s: "F", m: -50, f: -51, a: ["B", "H", "L"] }, { key: -42, n: "Great Uncle", s: "M", m: -30, f: -31, a: ["C", "J"] }, { key: -43, n: "Great Aunt", s: "F", m: -30, f: -31, a: ["E", "G"] }, { key: -50, n: "Maternal Great Great", s: "F", ux: -51, a: ["D", "I"] }, { key: -51, n: "Maternal Great Great", s: "M", a: ["B", "H"] } ] </pre> </div> </body> </html>