element provides an accessible, short-text description of any SVG container element or graphics element. //Text in a <title> element is not rendered as part of the graphic, but browsers usually display it as a tooltip. link.append("title") .text(d => d.type); const edgepaths = svg.selectAll(".edgepath") //make path go along with the link provide position for link labels .data(dataset.links) .enter() .append('path') .attr('class', 'edgepath') .attr('fill-opacity', 0) .attr('stroke-opacity', 0) .attr('id', function (d, i) {return 'edgepath' + i}) .style("pointer-events", "none"); const edgelabels = svg.selectAll(".edgelabel") .data(dataset.links) .enter() .append('text') .style("pointer-events", "none") .attr('class', 'edgelabel') .attr('id', function (d, i) {return 'edgelabel' + i}) .attr('font-size', 12) .attr('fill', '#aaa'); edgelabels.append('textPath') //To render text along the shape of a <path>, enclose the text in a <textPath> element that has an href attribute with a reference to the <path> element. .attr('xlink:href', function (d, i) {return '#edgepath' + i}) .style("text-anchor", "middle") .style("pointer-events", "none") .attr("startOffset", "50%") .text(d => d.type); // Initialize the nodes const node = svg.selectAll(".nodes") .data(dataset.nodes) .enter() .append("g") .attr("class", "nodes") node.call(d3.drag() //sets the event listener for the specified typenames and returns the drag behavior. .on("start", dragstarted) //start - after a new pointer becomes active (on mousedown or touchstart). .on("drag", dragged) //drag - after an active pointer moves (on mousemove or touchmove). ); node.append("circle") .attr("r", d=> 17)//+ d.runtime/20 ) .attr("id",d=> "circle"+d.id) .style("stroke", "black") .style("stroke-opacity",1) .style("stroke-width", d => d.runtime/10) .style("fill", d => colorScale(d.group)) node.append("title") .text(d => d.id + ": " + d.label + " - " + d.group +", runtime:"+ d.runtime+ "min"); node.append("text") .attr("dy", 4) .attr("dx", -15) .text(d => d.name); node.append("text") .attr("dy",12) .attr("dx", -8) .text(d=> d.runtime); //set up dictionary of neighbors var neighborTarget= {}; for (var i=0; i < dataset.nodes.length; i++ ){ var id = dataset.nodes[i].id; neighborTarget[id] = dataset.links.filter(function(d){ return d.source == id; }).map(function(d){ return d.target; }) } var neighborSource = {}; for (var i=0; i < dataset.nodes.length; i++ ){ var id = dataset.nodes[i].id; neighborSource[id] = dataset.links.filter(function(d){ return d.target == id; }).map(function(d){ return d.source; }) } console.log("neighborSource is ",neighborSource); console.log("neighborTarget is ",neighborTarget); node.selectAll("circle").on("click",function(d){ var active = d.active? false : true // toggle whether node is active , newStroke = active ? "yellow":"black" , newStrokeIn = active ? "green":"black" , newStrokeOut = active? "red": "black" , newOpacity = active? 0.6: 0.3 , subgraphOpacity = active? 0.9:0; subgraph.selectAll("text") .text("Selected: " +d.label) .attr("dy",14) .attr("dx",14) //extract node's id and ids of its neighbors var id =d.id , neighborS = neighborSource[id] , neighborT = neighborTarget[id]; console.log("neighbors is from ",neighborS," to ", neighborT); d3.selectAll("#circle"+id).style("stroke-opacity", newOpacity); d3.selectAll("#circle"+id).style("stroke", newStroke); d3.selectAll("#subgraph").style("opacity",subgraphOpacity) //highlight the current node and its neighbors for (var i =0; i < neighborS.length; i++){ d3.selectAll("#line"+neighborS[i]+id).style("stroke", newStrokeIn); d3.selectAll("#circle"+neighborS[i]).style("stroke-opacity", newOpacity).style("stroke", newStrokeIn); } for (var i =0; i < neighborT.length; i++){ d3.selectAll("#line"+id+neighborT[i]).style("stroke", newStrokeOut); d3.selectAll("#circle"+neighborT[i]).style("stroke-opacity", newOpacity).style("stroke", newStrokeOut); } //update whether or not the node is active d.active =active; }) //Listen for tick events to render the nodes as they update in your Canvas or SVG. simulation .nodes(dataset.nodes) .on("tick", ticked); simulation.force("link") .links(dataset.links); // This function is run at each iteration of the force algorithm, updating the nodes position (the nodes data array is directly manipulated). function ticked() { link.attr("x1", d => d.source.x) .attr("y1", d => d.source.y) .attr("x2", d => d.target.x) .attr("y2", d => d.target.y); node.attr("transform", d => `translate(${d.x},${d.y})`); edgepaths.attr('d', d => 'M ' + d.source.x + ' ' + d.source.y + ' L ' + d.target.x + ' ' + d.target.y); } //When the drag gesture starts, the targeted node is fixed to the pointer //The simulation is temporarily “heated” during interaction by setting the target alpha to a non-zero value. function dragstarted(d) { if (!d3.event.active) simulation.alphaTarget(0.3).restart();//sets the current target alpha to the specified number in the range [0,1]. d.fy = d.y; //fx - the node’s fixed x-position. Original is null. d.fx = d.x; //fy - the node’s fixed y-position. Original is null. } //When the drag gesture starts, the targeted node is fixed to the pointer function dragged(d) { d.fx = d3.event.x; d.fy = d3.event.y; } return div }</article></body></html>

myChart={ const div = html`

`; const svg = d3.select(div) .append("svg") .attr("width", width + margin.left + margin.right) .attr("height", height + margin.top + margin.bottom) .append("g") .attr("transform", `translate(${margin.left},${margin.top})`); const subgraphWidth = width*2/8; const subgraphHeight = height*1/5; const subgraph = svg.append("g") .attr("id", "subgraph") .attr("transform", `translate(${width - subgraphWidth - 20}, 0)`); subgraph.append("text") .style("font-size","12px") .style("font-family", "Arial, sans-serif"); svg.append('defs').append('marker') .attr("id",'arrowhead') .attr('viewBox','-0 -5 10 10') //the bound of the SVG viewport for the current SVG fragment. defines a coordinate system 10 wide and 10 high starting on (0,-5) .attr('refX',24) // x coordinate for the reference point of the marker. If circle is bigger, this need to be bigger. .attr('refY',0) .attr('orient','auto') .attr('markerWidth',6) .attr('markerHeight',6) .attr('xoverflow','visible') .append('svg:path') .attr('d', 'M 0,-5 L 10 ,0 L 0,5') .attr('fill', '#000') .style('stroke','none'); svg.append("text") .text("Jaringan Emiten") .attr("text-anchor","middle") .attr("x",width/2) .style("font-size","20px") //create some data const dataset = { nodes: [ {id: 1, name: 'TLKM', group: 'Team A'}, {id: 2, name: 'MTEL', group: 'Team A'}, {id: 3, name: 'ASII', group: 'Team B'}, {id: 4, name: 'ASGR', group: 'Team B'}, {id: 5, name: 'AALI', group: 'Team B'}, {id: 6, name: 'UNTR', group: 'Team B'}, {id: 7, name: 'GROW', group: 'Team B'}, {id: 8, name: 'AUTO', group: 'Team B'}, {id: 9, name: 'BMTR', group: 'Team C'}, {id: 10, name: 'IPTV', group: 'Team C'}, {id: 11, name: 'MSKY', group: 'Team C'}, {id: 12, name: 'MSIN', group: 'Team C'}, {id: 13, name: 'MNCN', group: 'Team C'} ], links: [ {source: 1, target: 2, type: 'Induk dari'}, {source: 1, target: 3, type: 'Korelasi'}, {source: 3, target: 4, type: 'Induk dari'}, {source: 3, target: 5, type: 'Induk dari'}, {source: 3, target: 6, type: 'Induk dari'}, {source: 3, target: 7, type: 'Induk dari'}, {source: 3, target: 8, type: 'Induk dari'}, {source: 3, target: 8, type: 'Induk dari'}, {source: 3, target: 9, type: 'Korelasi'}, {source: 9, target: 10, type: 'Induk dari'}, {source: 9, target: 11, type: 'Induk dari'}, {source: 9, target: 12, type: 'Induk dari'}, {source: 9, target: 13, type: 'Induk dari'}, ] }; console.log("dataset is ...",dataset); // Initialize the links const link = svg.selectAll(".links") .data(dataset.links) .enter() .append("line") .attr("class", "links") .attr("stroke","#999") .attr("stroke-width","2px") .style("opacity", 0.8) .attr("id",d=> "line"+d.source+d.target) .attr("class", "links") .attr('marker-end','url(#arrowhead)') //The marker-end attribute defines the arrowhead or polymarker that will be drawn at the final vertex of the given shape. //The element provides an accessible, short-text description of any SVG container element or graphics element. //Text in a <title> element is not rendered as part of the graphic, but browsers usually display it as a tooltip. link.append("title") .text(d => d.type); const edgepaths = svg.selectAll(".edgepath") //make path go along with the link provide position for link labels .data(dataset.links) .enter() .append('path') .attr('class', 'edgepath') .attr('fill-opacity', 0) .attr('stroke-opacity', 0) .attr('id', function (d, i) {return 'edgepath' + i}) .style("pointer-events", "none"); const edgelabels = svg.selectAll(".edgelabel") .data(dataset.links) .enter() .append('text') .style("pointer-events", "none") .attr('class', 'edgelabel') .attr('id', function (d, i) {return 'edgelabel' + i}) .attr('font-size', 12) .attr('fill', '#aaa'); edgelabels.append('textPath') //To render text along the shape of a <path>, enclose the text in a <textPath> element that has an href attribute with a reference to the <path> element. .attr('xlink:href', function (d, i) {return '#edgepath' + i}) .style("text-anchor", "middle") .style("pointer-events", "none") .attr("startOffset", "50%") .text(d => d.type); // Initialize the nodes const node = svg.selectAll(".nodes") .data(dataset.nodes) .enter() .append("g") .attr("class", "nodes") node.call(d3.drag() //sets the event listener for the specified typenames and returns the drag behavior. .on("start", dragstarted) //start - after a new pointer becomes active (on mousedown or touchstart). .on("drag", dragged) //drag - after an active pointer moves (on mousemove or touchmove). ); node.append("circle") .attr("r", d=> 17)//+ d.runtime/20 ) .attr("id",d=> "circle"+d.id) .style("stroke", "black") .style("stroke-opacity",1) .style("stroke-width", d => d.runtime/10) .style("fill", d => colorScale(d.group)) node.append("title") .text(d => d.id + ": " + d.label + " - " + d.group +", runtime:"+ d.runtime+ "min"); node.append("text") .attr("dy", 4) .attr("dx", -15) .text(d => d.name); node.append("text") .attr("dy",12) .attr("dx", -8) .text(d=> d.runtime); //set up dictionary of neighbors var neighborTarget= {}; for (var i=0; i < dataset.nodes.length; i++ ){ var id = dataset.nodes[i].id; neighborTarget[id] = dataset.links.filter(function(d){ return d.source == id; }).map(function(d){ return d.target; }) } var neighborSource = {}; for (var i=0; i < dataset.nodes.length; i++ ){ var id = dataset.nodes[i].id; neighborSource[id] = dataset.links.filter(function(d){ return d.target == id; }).map(function(d){ return d.source; }) } console.log("neighborSource is ",neighborSource); console.log("neighborTarget is ",neighborTarget); node.selectAll("circle").on("click",function(d){ var active = d.active? false : true // toggle whether node is active , newStroke = active ? "yellow":"black" , newStrokeIn = active ? "green":"black" , newStrokeOut = active? "red": "black" , newOpacity = active? 0.6: 0.3 , subgraphOpacity = active? 0.9:0; subgraph.selectAll("text") .text("Selected: " +d.label) .attr("dy",14) .attr("dx",14) //extract node's id and ids of its neighbors var id =d.id , neighborS = neighborSource[id] , neighborT = neighborTarget[id]; console.log("neighbors is from ",neighborS," to ", neighborT); d3.selectAll("#circle"+id).style("stroke-opacity", newOpacity); d3.selectAll("#circle"+id).style("stroke", newStroke); d3.selectAll("#subgraph").style("opacity",subgraphOpacity) //highlight the current node and its neighbors for (var i =0; i < neighborS.length; i++){ d3.selectAll("#line"+neighborS[i]+id).style("stroke", newStrokeIn); d3.selectAll("#circle"+neighborS[i]).style("stroke-opacity", newOpacity).style("stroke", newStrokeIn); } for (var i =0; i < neighborT.length; i++){ d3.selectAll("#line"+id+neighborT[i]).style("stroke", newStrokeOut); d3.selectAll("#circle"+neighborT[i]).style("stroke-opacity", newOpacity).style("stroke", newStrokeOut); } //update whether or not the node is active d.active =active; }) //Listen for tick events to render the nodes as they update in your Canvas or SVG. simulation .nodes(dataset.nodes) .on("tick", ticked); simulation.force("link") .links(dataset.links); // This function is run at each iteration of the force algorithm, updating the nodes position (the nodes data array is directly manipulated). function ticked() { link.attr("x1", d => d.source.x) .attr("y1", d => d.source.y) .attr("x2", d => d.target.x) .attr("y2", d => d.target.y); node.attr("transform", d => `translate(${d.x},${d.y})`); edgepaths.attr('d', d => 'M ' + d.source.x + ' ' + d.source.y + ' L ' + d.target.x + ' ' + d.target.y); } //When the drag gesture starts, the targeted node is fixed to the pointer //The simulation is temporarily “heated” during interaction by setting the target alpha to a non-zero value. function dragstarted(d) { if (!d3.event.active) simulation.alphaTarget(0.3).restart();//sets the current target alpha to the specified number in the range [0,1]. d.fy = d.y; //fx - the node’s fixed x-position. Original is null. d.fx = d.x; //fy - the node’s fixed y-position. Original is null. } //When the drag gesture starts, the targeted node is fixed to the pointer function dragged(d) { d.fx = d3.event.x; d.fy = d3.event.y; } return div }</article></body></html>