kopia lustrzana https://github.com/miguelvaca/vk3cpu
Added loop current.
Reordered datasets. Added support for half-mm changes for conductor thickness.pull/2/head
miguel
rodzic
38bc3992e8
commit
f4d86a3e8c
122
magloop.html
122
magloop.html
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@ -22,7 +22,7 @@
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</div>
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<div class="sliders">
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<label for="conductor_diameter_slider">⌀b:</label>
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<input type="range" id="conductor_diameter_slider" min="5" max="40" value="19" step="1">
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<input type="range" id="conductor_diameter_slider" min="5" max="40" value="19" step="0.5">
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<!-- <span id="conductor_diameter_value"></span>mm -->
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</div>
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<div class="sliders">
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@ -313,6 +313,20 @@
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return retval;
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}
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function circulatingCurrent(frequency) {
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const cc = Math.sqrt(transmit_power_slider.value * qualityFactor(frequency) / inductiveReactance(frequency));
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return cc;
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}
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function calculateCirculatingCurrent() {
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var retval = [];
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frequencies.forEach(freq => {
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const cc = circulatingCurrent(freq * 1e6);
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retval.push({x:freq, y:cc});
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});
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return retval;
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}
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loop_diameter_slider.oninput = function() {
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//const val = this.value * 1.0;
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//loop_diameter_value.innerHTML = val.toPrecision(3).toString();
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@ -320,13 +334,14 @@
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drawSideDesign();
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updateFrequencies();
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myChart.data.datasets[0].data = calculateTuningCapacitor();
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myChart.data.datasets[1].data = calculateBandwidth();
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myChart.data.datasets[2].data = calculateEfficiencyFactor();
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myChart.data.datasets[3].data = calculateRadiationResistance();
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myChart.data.datasets[4].data = calculateLossResistance();
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myChart.data.datasets[5].data = calculateInductiveReactance();
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myChart.data.datasets[6].data = calculateQualityFactor();
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myChart.data.datasets[7].data = calculateCapacitorVoltage();
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myChart.data.datasets[1].data = calculateCapacitorVoltage();
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myChart.data.datasets[2].data = calculateBandwidth();
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myChart.data.datasets[3].data = calculateEfficiencyFactor();
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myChart.data.datasets[4].data = calculateRadiationResistance();
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myChart.data.datasets[5].data = calculateLossResistance();
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myChart.data.datasets[6].data = calculateInductiveReactance();
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myChart.data.datasets[7].data = calculateQualityFactor();
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myChart.data.datasets[8].data = calculateCirculatingCurrent();
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myChart.update();
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}
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@ -335,13 +350,14 @@
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drawFrontDesign();
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drawSideDesign();
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myChart.data.datasets[0].data = calculateTuningCapacitor();
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myChart.data.datasets[1].data = calculateBandwidth();
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myChart.data.datasets[2].data = calculateEfficiencyFactor();
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myChart.data.datasets[3].data = calculateRadiationResistance();
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myChart.data.datasets[4].data = calculateLossResistance();
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myChart.data.datasets[5].data = calculateInductiveReactance();
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myChart.data.datasets[6].data = calculateQualityFactor();
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myChart.data.datasets[7].data = calculateCapacitorVoltage();
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myChart.data.datasets[1].data = calculateCapacitorVoltage();
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myChart.data.datasets[2].data = calculateBandwidth();
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myChart.data.datasets[3].data = calculateEfficiencyFactor();
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myChart.data.datasets[4].data = calculateRadiationResistance();
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myChart.data.datasets[5].data = calculateLossResistance();
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myChart.data.datasets[6].data = calculateInductiveReactance();
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myChart.data.datasets[7].data = calculateQualityFactor();
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myChart.data.datasets[8].data = calculateCirculatingCurrent();
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myChart.update();
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}
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@ -350,13 +366,14 @@
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drawFrontDesign();
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drawSideDesign();
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myChart.data.datasets[0].data = calculateTuningCapacitor();
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myChart.data.datasets[1].data = calculateBandwidth();
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myChart.data.datasets[2].data = calculateEfficiencyFactor();
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myChart.data.datasets[3].data = calculateRadiationResistance();
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myChart.data.datasets[4].data = calculateLossResistance();
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myChart.data.datasets[5].data = calculateInductiveReactance();
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myChart.data.datasets[6].data = calculateQualityFactor();
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myChart.data.datasets[7].data = calculateCapacitorVoltage();
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myChart.data.datasets[1].data = calculateCapacitorVoltage();
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myChart.data.datasets[2].data = calculateBandwidth();
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myChart.data.datasets[3].data = calculateEfficiencyFactor();
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myChart.data.datasets[4].data = calculateRadiationResistance();
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myChart.data.datasets[5].data = calculateLossResistance();
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myChart.data.datasets[6].data = calculateInductiveReactance();
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myChart.data.datasets[7].data = calculateQualityFactor();
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myChart.data.datasets[8].data = calculateCirculatingCurrent();
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myChart.update();
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}
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@ -366,20 +383,22 @@
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drawFrontDesign();
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drawSideDesign();
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myChart.data.datasets[0].data = calculateTuningCapacitor();
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myChart.data.datasets[1].data = calculateBandwidth();
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myChart.data.datasets[2].data = calculateEfficiencyFactor();
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myChart.data.datasets[3].data = calculateRadiationResistance();
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myChart.data.datasets[4].data = calculateLossResistance();
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myChart.data.datasets[5].data = calculateInductiveReactance();
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myChart.data.datasets[6].data = calculateQualityFactor();
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myChart.data.datasets[7].data = calculateCapacitorVoltage();
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myChart.data.datasets[1].data = calculateCapacitorVoltage();
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myChart.data.datasets[2].data = calculateBandwidth();
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myChart.data.datasets[3].data = calculateEfficiencyFactor();
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myChart.data.datasets[4].data = calculateRadiationResistance();
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myChart.data.datasets[5].data = calculateLossResistance();
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myChart.data.datasets[6].data = calculateInductiveReactance();
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myChart.data.datasets[7].data = calculateQualityFactor();
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myChart.data.datasets[8].data = calculateCirculatingCurrent();
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myChart.update();
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}
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transmit_power_slider.oninput = function() {
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//transmit_power_value.innerHTML = this.value;
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drawFrontDesign();
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myChart.data.datasets[7].data = calculateCapacitorVoltage();
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myChart.data.datasets[1].data = calculateCapacitorVoltage();
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myChart.data.datasets[8].data = calculateCirculatingCurrent();
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myChart.update();
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}
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@ -504,7 +523,8 @@
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p1x = loopx + 0.4 * (loop_radius - cond_radius);
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p1y = loopy + 0.4 * (loop_radius - cond_radius) - 5;
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//fctx.textAlign = "right";
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fctx.fillText("\u2300b = " + conductor_diameter_slider.value.toString() + "mm", loopx, p1y+2);
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const cond_dia = 1.0 * conductor_diameter_slider.value;
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fctx.fillText("\u2300b = " + cond_dia.toPrecision(3).toString() + "mm", loopx, p1y+2);
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}
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const aside_canvas = document.getElementById("antennaSide2D");
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@ -603,6 +623,15 @@
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borderWidth: 1,
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yAxisID: 'pfID'
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},
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{
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label: 'Vcap (kV)',
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fill: false,
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borderColor: 'rgb(150, 150, 0)',
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backgroundColor: 'rgb(200, 200, 0)',
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data: calculateCapacitorVoltage(),
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borderWidth: 1,
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yAxisID: 'vID'
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},
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{
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label: 'BW (kHz)',
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fill: false,
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@ -658,13 +687,13 @@
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yAxisID: 'qID'
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},
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{
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label: 'V cap (kV)',
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label: 'I\u2092 (A)',
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fill: false,
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borderColor: 'rgb(150, 150, 0)',
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backgroundColor: 'rgb(150, 150, 0)',
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data: calculateCapacitorVoltage(),
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borderColor: 'rgb(0,255,255)',
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backgroundColor: 'rgb(0,128,128)',
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data: calculateCirculatingCurrent(),
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borderWidth: 1,
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yAxisID: 'vID'
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yAxisID: 'ccID'
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}]
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},
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options: {
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@ -709,6 +738,21 @@
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},
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position: 'left',
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id: 'bwID'
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},{
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type: 'linear',
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display: 'auto',
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scaleLabel: {
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display: true,
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labelString: 'kV',
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fontColor: 'rgb(150, 150, 0)',
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fontStyle: 'bold'
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},
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ticks: {
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beginAtZero: true,
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},
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min: 0.0,
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position: 'left',
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id: 'vID'
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},{
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type: 'linear',
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display: 'auto',
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@ -767,8 +811,8 @@
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display: 'auto',
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scaleLabel: {
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display: true,
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labelString: 'kV',
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fontColor: 'rgb(150, 150, 0)',
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labelString: 'A',
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fontColor: 'rgb(0,128,128)',
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fontStyle: 'bold'
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},
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ticks: {
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@ -776,7 +820,7 @@
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},
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min: 0.0,
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position: 'right',
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id: 'vID'
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id: 'ccID'
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}]
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},
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showLines: true,
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