Gauge Weight Calculator

Gauge Weight Calculator – Calculate Wire Gauge to Weight :root { –primary-color: #004a99; –success-color: #28a745; –background-color: #f8f9fa; –text-color: #333; –border-color: #ccc; –shadow-color: rgba(0, 0, 0, 0.1); –white: #fff; –input-border-color: #ced4da; –error-color: #dc3545; } body { font-family: 'Segoe UI', Tahoma, Geneva, Verdana, sans-serif; background-color: var(–background-color); color: var(–text-color); line-height: 1.6; margin: 0; padding: 20px; display: flex; justify-content: center; } .main-container { width: 100%; max-width: 1000px; background-color: var(–white); border-radius: 8px; box-shadow: 0 4px 12px var(–shadow-color); overflow: hidden; display: flex; flex-direction: column; align-items: center; } header { background-color: var(–primary-color); color: var(–white); padding: 20px; text-align: center; width: 100%; } header h1 { margin: 0; font-size: 2.2em; font-weight: 700; } main { padding: 30px; width: 100%; box-sizing: border-box; } h2, h3 { color: var(–primary-color); 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Gauge Weight Calculator

Calculate the estimated weight of electrical wire based on gauge size and length.

4/0 AWG 3/0 AWG 2/0 AWG 1/0 AWG 1 AWG 2 AWG 3 AWG 4 AWG 5 AWG 6 AWG 7 AWG 8 AWG 9 AWG 10 AWG 11 AWG 12 AWG 13 AWG 14 AWG 15 AWG 16 AWG 17 AWG 18 AWG 19 AWG 20 AWG 21 AWG 22 AWG 23 AWG 24 AWG 25 AWG 26 AWG 27 AWG 28 AWG 29 AWG 30 AWG 31 AWG 32 AWG 33 AWG 34 AWG 35 AWG 36 AWG 37 AWG 38 AWG 39 AWG 40 AWG
American Wire Gauge (AWG) is a standard for wire size.
Enter the total length of the wire in meters.
Copper Aluminum
Select the primary conductor material.
None PVC XLPE Rubber
Select insulation type if known; affects overall weight.

Your Estimated Wire Weight

Total Weight –.– kg
Conductor Diameter –.– mm
Conductor Volume –.– cm³
Insulation Weight –.– kg
Formula: Total Weight = (Conductor Volume × Conductor Density) + Insulation Weight

Weight vs. Length Comparison (for 10 AWG Copper)

What is a Gauge Weight Calculator?

A gauge weight calculator is a specialized tool designed to estimate the total weight of electrical wire based on its American Wire Gauge (AWG) size, length, and conductor material. It takes into account the physical properties of different metals and common insulation types to provide a practical approximation of how much a given length of wire will weigh. This is crucial for various applications in electrical installation, engineering, and manufacturing.

Who should use it: Electricians planning material orders, electrical engineers designing systems, contractors estimating project costs, wire manufacturers, and even DIY enthusiasts working on smaller projects can benefit from this tool. It helps in logistics, ensuring correct quantities are ordered, and in understanding the physical characteristics of the wire being used.

Common misconceptions: One common misconception is that all wires of the same gauge weigh the same. This calculator highlights that the conductor material (e.g., copper vs. aluminum) significantly impacts weight. Another is neglecting the weight of insulation, which, while less dense than the conductor, can add a substantial amount to the overall weight for longer runs or larger gauge wires.

Gauge Weight Calculator Formula and Mathematical Explanation

The core of the gauge weight calculator relies on fundamental physics principles: calculating volume and then multiplying by density. The process involves several steps:

  1. Determine the conductor diameter based on the AWG size.
  2. Calculate the cross-sectional area of the conductor.
  3. Calculate the conductor's volume using its length and cross-sectional area.
  4. Calculate the conductor's weight using its volume and material density.
  5. Estimate the weight of the insulation based on its volume and material density.
  6. Sum the conductor weight and insulation weight for the total weight.

Detailed Breakdown:

1. Conductor Diameter (d): This is looked up from standard AWG tables. For example, 10 AWG solid copper wire has a nominal diameter of approximately 2.588 mm.

2. Cross-Sectional Area (A): Calculated using the formula for the area of a circle: $A = \pi \times (d/2)^2$.

3. Conductor Volume (V_cond): Calculated as $V_{cond} = A \times L$, where L is the wire length in the same units as the diameter (e.g., mm³ if diameter is in mm, then converted to cubic meters or cubic centimeters for density calculations).

4. Conductor Weight (W_cond): Calculated as $W_{cond} = V_{cond} \times \rho_{cond}$, where $\rho_{cond}$ is the density of the conductor material (e.g., Copper: ~8.96 g/cm³, Aluminum: ~2.70 g/cm³).

5. Insulation Volume (V_ins): This is more complex as it depends on the insulation thickness, which varies by gauge and insulation type. A simplified approach often uses empirical data or average thickness values. The outer diameter ($D_{outer}$) is estimated, and $V_{ins} = ((\pi \times (D_{outer}/2)^2) – A) \times L$.

6. Insulation Weight (W_ins): Calculated as $W_{ins} = V_{ins} \times \rho_{ins}$, where $\rho_{ins}$ is the density of the insulation material (e.g., PVC: ~1.3-1.45 g/cm³, XLPE: ~0.92-1.0 g/cm³).

7. Total Weight (W_total): $W_{total} = W_{cond} + W_{ins}$.

Variables Table:

Key Variables in Gauge Weight Calculation
Variable Meaning Unit Typical Range/Values
AWG American Wire Gauge Gauge Number 1 to 40 (and larger 4/0)
L Wire Length Meters (m) 1 – 1000+
Conductor Material Metal core of the wire Type Copper, Aluminum
$\rho_{cond}$ Conductor Density g/cm³ or kg/m³ Copper: ~8.96, Aluminum: ~2.70
Insulation Type Outer protective layer Type None, PVC, XLPE, Rubber
$\rho_{ins}$ Insulation Density g/cm³ or kg/m³ PVC: ~1.35, XLPE: ~0.96
D_cond Conductor Diameter mm Varies by AWG (e.g., 10 AWG ~2.588 mm)
D_outer Overall Diameter (incl. insulation) mm Varies by AWG and insulation type

Practical Examples (Real-World Use Cases)

Understanding the gauge weight calculator in practice is key. Here are a couple of scenarios:

Example 1: Standard Household Wiring

Scenario: An electrician needs to estimate the weight of 50 meters of 14 AWG copper wire with standard PVC insulation for a residential lighting circuit.

Inputs:

  • Wire Gauge: 14 AWG
  • Wire Length: 50 meters
  • Conductor Material: Copper
  • Insulation Type: PVC

Calculation using the calculator:

  • Conductor Diameter: Approx. 1.628 mm
  • Conductor Volume: Approx. 104.4 cm³
  • Estimated Insulation Weight (PVC): Approx. 0.45 kg
  • Total Weight: Approx. 1.40 kg

Interpretation: This weight is manageable for a single spool, but for a large project involving hundreds of meters, the cumulative weight becomes significant for transportation and handling.

Example 2: Industrial Power Feed

Scenario: An engineer is specifying materials for a factory floor and needs to know the weight of 200 meters of 2/0 AWG aluminum wire with XLPE insulation for a high-power feed.

Inputs:

  • Wire Gauge: 2/0 AWG
  • Wire Length: 200 meters
  • Conductor Material: Aluminum
  • Insulation Type: XLPE

Calculation using the calculator:

  • Conductor Diameter: Approx. 8.28 mm
  • Conductor Volume: Approx. 10,680 cm³
  • Estimated Insulation Weight (XLPE): Approx. 10.5 kg
  • Total Weight: Approx. 38.3 kg

Interpretation: A single 200-meter run weighs nearly 40 kg. This emphasizes the need for appropriate lifting equipment and structural support considerations when dealing with heavy industrial cabling. Ordering large quantities requires careful logistical planning.

How to Use This Gauge Weight Calculator

Using this gauge weight calculator is straightforward. Follow these steps:

  1. Select Wire Gauge (AWG): Choose the appropriate American Wire Gauge size from the dropdown menu that matches your wire specification.
  2. Enter Wire Length: Input the total length of the wire in meters. Ensure this is the accurate length required for your project.
  3. Choose Conductor Material: Select whether the wire's conductor is made of Copper or Aluminum. This is a critical factor for weight calculation.
  4. Select Insulation Type (Optional): If your wire has insulation, choose the type (PVC, XLPE, Rubber) or 'None' if it's bare wire. This adds to the total weight.
  5. Click 'Calculate Weight': The calculator will instantly display the estimated total weight in kilograms.

How to read results:

  • Total Weight: This is the primary result, showing the estimated weight of the specified wire length in kilograms (kg).
  • Intermediate Values: The calculator also provides the conductor's diameter (in mm), conductor volume (in cm³), and the estimated weight of the insulation (in kg). These values can be useful for more detailed analysis.
  • Formula Explanation: A brief explanation clarifies how the total weight is derived from the conductor's properties and insulation.

Decision-making guidance: The calculated weight can inform several decisions:

  • Material Ordering: Ensure you order sufficient wire, accounting for potential weight-related handling challenges.
  • Logistics: Plan for transportation and installation, especially for heavy cables.
  • Cost Estimation: While weight isn't always a direct cost factor for wire itself, it influences shipping costs and labor.
  • Structural Support: For long runs suspended or mounted, the weight impacts the required support structures.

Key Factors That Affect Gauge Weight Results

Several factors influence the accuracy and outcome of the gauge weight calculator:

  1. Conductor Material Density: This is arguably the most significant factor after gauge. Copper is much denser (~3.3 times) than aluminum, so copper wires of the same gauge and length will be substantially heavier. This affects material costs and handling.
  2. Wire Gauge (AWG): Larger AWG numbers (e.g., 24 AWG) correspond to thinner wires with smaller diameters, resulting in less material and lower weight. Smaller AWG numbers (e.g., 4/0 AWG) represent thicker conductors with significantly more mass per unit length.
  3. Wire Length: A linear relationship exists between length and weight. Doubling the length doubles the weight, assuming all other factors remain constant. This is critical for project planning and material estimation.
  4. Insulation Type and Thickness: Different insulation materials have varying densities (e.g., PVC vs. XLPE). Furthermore, the thickness of the insulation layer impacts the overall diameter and thus the volume and weight of the non-conductive portion. Thicker insulation means more weight.
  5. Stranding vs. Solid Conductor: This calculator typically assumes a solid conductor for simplicity. Stranded wire, composed of multiple smaller strands, has a slightly larger overall diameter for the same cross-sectional area of metal due to air gaps. This can slightly increase the volume and weight calculation, though often the difference is minor and accounted for in precise manufacturer specs.
  6. Tolerances and Standards: Manufacturers work within specific tolerances for wire diameter and insulation thickness. This calculator provides an estimate based on nominal or average values. Actual weights may vary slightly due to manufacturing variations.
  7. Jacketing/Outer Sheath: Some cables have an additional outer jacket (e.g., for direct burial or harsh environments) beyond the primary insulation. This calculator does not typically account for such additional layers unless specified within the insulation type options.
  8. Temperature Effects: While not a primary factor for weight calculation itself, extreme temperatures can affect the physical dimensions (thermal expansion/contraction) of the wire and insulation, although this effect is usually negligible for standard weight estimations.

Frequently Asked Questions (FAQ)

Q1: Does the calculator account for stranded wire?
A1: This calculator primarily uses data for solid conductors, which is common for many gauges. Stranded wire can have a slightly different weight due to the air gaps between strands and potentially a larger overall diameter for the same cross-sectional metal area. For most practical purposes, the estimate remains accurate, but precise calculations might require manufacturer-specific data for stranded types.
Q2: Why is aluminum wire lighter than copper wire of the same gauge?
A2: Aluminum has a significantly lower density compared to copper. While both metals have good conductivity, aluminum's atomic structure and mass result in less weight per unit volume. Specifically, aluminum's density is about 30% of copper's density.
Q3: How accurate is the insulation weight estimation?
A3: The insulation weight is an estimate based on typical densities and thicknesses for the selected insulation type and wire gauge. Actual insulation thickness can vary slightly between manufacturers and specific product lines, leading to minor variations in the final weight.
Q4: Can I use this for metric wire sizes?
A4: This calculator is specifically designed for the American Wire Gauge (AWG) system. It does not directly support metric wire sizes (e.g., mm²). You would need to convert metric sizes to their AWG equivalents first.
Q5: What is the difference between conductor diameter and overall diameter?
A5: The conductor diameter refers only to the metal core. The overall diameter includes the conductor plus the insulation layer(s) surrounding it. The calculator uses both to determine conductor volume and total volume/weight.
Q6: Should I round up the calculated weight for ordering?
A6: It's generally advisable to add a small buffer (e.g., 5-10%) to the calculated weight when ordering materials. This accounts for manufacturing tolerances, potential cutting waste, and ensures you have a slight excess rather than falling short.
Q7: Does the calculator consider the jacket on armored cable?
A7: No, this calculator primarily focuses on standard insulated wires. It does not calculate the weight of additional metallic armor or heavy-duty outer jacketing found on specific types of industrial or armored cables. These would require specialized calculators.
Q8: What units are the results provided in?
A8: The primary result, Total Weight, is provided in kilograms (kg). Intermediate values like Conductor Diameter are in millimeters (mm), and Conductor Volume is in cubic centimeters (cm³).

Related Tools and Internal Resources

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// Data for AWG sizes (diameters in mm, approximate weights per km in kg for solid conductors) // Format: { "AWG_string": { diameter_mm: value, weight_per_km_copper: value, weight_per_km_aluminum: value, outer_diameter_ins_mm: { pvc: val, xlpe: val, rubber: val } } } // Sources: Engineering Toolbox, Wirecalc.com, standard electrical handbooks. Densities used: Copper (8.96 g/cm³), Aluminum (2.70 g/cm³), PVC (1.35 g/cm³), XLPE (0.96 g/cm³), Rubber (1.1 g/cm³) var awgData = { "4/0": { diameter_mm: 10.12, weight_per_km_copper: 670.9, weight_per_km_aluminum: 204.5, outer_diameter_ins_mm: { pvc: 13.0, xlpe: 12.5, rubber: 13.5 } }, "3/0": { diameter_mm: 9.07, weight_per_km_copper: 537.2, weight_per_km_aluminum: 163.7, outer_diameter_ins_mm: { pvc: 11.8, xlpe: 11.3, rubber: 12.3 } }, "2/0": { diameter_mm: 8.04, weight_per_km_copper: 426.1, weight_per_km_aluminum: 129.8, outer_diameter_ins_mm: { pvc: 10.8, xlpe: 10.3, rubber: 11.3 } }, "1/0": { diameter_mm: 7.11, weight_per_km_copper: 337.8, weight_per_km_aluminum: 102.8, outer_diameter_ins_mm: { pvc: 9.8, xlpe: 9.3, rubber: 10.3 } }, "1": { diameter_mm: 6.28, weight_per_km_copper: 267.5, weight_per_km_aluminum: 81.3, outer_diameter_ins_mm: { pvc: 8.8, xlpe: 8.3, rubber: 9.3 } }, "2": { diameter_mm: 5.59, weight_per_km_copper: 211.4, weight_per_km_aluminum: 64.4, outer_diameter_ins_mm: { pvc: 8.0, xlpe: 7.5, rubber: 8.5 } }, "3": { diameter_mm: 5.00, weight_per_km_copper: 167.5, weight_per_km_aluminum: 50.9, outer_diameter_ins_mm: { pvc: 7.4, xlpe: 6.9, rubber: 7.9 } }, "4": { diameter_mm: 4.46, weight_per_km_copper: 132.6, weight_per_km_aluminum: 40.3, outer_diameter_ins_mm: { pvc: 6.8, xlpe: 6.3, rubber: 7.3 } }, "5": { diameter_mm: 3.97, weight_per_km_copper: 105.1, weight_per_km_aluminum: 31.9, outer_diameter_ins_mm: { pvc: 6.3, xlpe: 5.8, rubber: 6.8 } }, "6": { diameter_mm: 3.52, weight_per_km_copper: 83.3, weight_per_km_aluminum: 25.3, outer_diameter_ins_mm: { pvc: 5.8, xlpe: 5.3, rubber: 6.3 } }, "7": { diameter_mm: 3.14, weight_per_km_copper: 66.0, weight_per_km_aluminum: 20.0, outer_diameter_ins_mm: { pvc: 5.4, xlpe: 4.9, rubber: 5.9 } }, "8": { diameter_mm: 2.82, weight_per_km_copper: 52.3, weight_per_km_aluminum: 15.9, outer_diameter_ins_mm: { pvc: 5.0, xlpe: 4.5, rubber: 5.5 } }, "9": { diameter_mm: 2.52, weight_per_km_copper: 41.5, weight_per_km_aluminum: 12.6, outer_diameter_ins_mm: { pvc: 4.6, xlpe: 4.1, rubber: 5.1 } }, "10": { diameter_mm: 2.588, weight_per_km_copper: 41.5, weight_per_km_aluminum: 12.6, outer_diameter_ins_mm: { pvc: 4.7, xlpe: 4.2, rubber: 5.2 } }, // Using a more precise value for 10 AWG "11": { diameter_mm: 2.29, weight_per_km_copper: 32.9, weight_per_km_aluminum: 10.0, outer_diameter_ins_mm: { pvc: 4.3, xlpe: 3.8, rubber: 4.8 } }, "12": { diameter_mm: 2.05, weight_per_km_copper: 26.0, weight_per_km_aluminum: 7.9, outer_diameter_ins_mm: { pvc: 4.0, xlpe: 3.5, rubber: 4.5 } }, "13": { diameter_mm: 1.83, weight_per_km_copper: 20.6, weight_per_km_aluminum: 6.2, outer_diameter_ins_mm: { pvc: 3.7, xlpe: 3.2, rubber: 4.2 } }, "14": { diameter_mm: 1.628, weight_per_km_copper: 16.4, weight_per_km_aluminum: 4.9, outer_diameter_ins_mm: { pvc: 3.4, xlpe: 2.9, rubber: 3.9 } }, // Using a more precise value for 14 AWG "15": { diameter_mm: 1.45, weight_per_km_copper: 13.0, weight_per_km_aluminum: 3.9, outer_diameter_ins_mm: { pvc: 3.1, xlpe: 2.6, rubber: 3.6 } }, "16": { diameter_mm: 1.29, weight_per_km_copper: 10.3, weight_per_km_aluminum: 3.1, outer_diameter_ins_mm: { pvc: 2.8, xlpe: 2.3, rubber: 3.3 } }, "17": { diameter_mm: 1.15, weight_per_km_copper: 8.1, weight_per_km_aluminum: 2.5, outer_diameter_ins_mm: { pvc: 2.6, xlpe: 2.1, rubber: 3.1 } }, "18": { diameter_mm: 1.02, weight_per_km_copper: 6.4, weight_per_km_aluminum: 1.9, outer_diameter_ins_mm: { pvc: 2.4, xlpe: 1.9, rubber: 2.9 } }, "19": { diameter_mm: 0.912, weight_per_km_copper: 5.1, weight_per_km_aluminum: 1.5, outer_diameter_ins_mm: { pvc: 2.2, xlpe: 1.7, rubber: 2.7 } }, "20": { diameter_mm: 0.812, weight_per_km_copper: 4.0, weight_per_km_aluminum: 1.2, outer_diameter_ins_mm: { pvc: 2.0, xlpe: 1.5, rubber: 2.5 } }, "21": { diameter_mm: 0.723, weight_per_km_copper: 3.2, weight_per_km_aluminum: 0.96, outer_diameter_ins_mm: { pvc: 1.9, xlpe: 1.4, rubber: 2.4 } }, "22": { diameter_mm: 0.644, weight_per_km_copper: 2.5, weight_per_km_aluminum: 0.76, outer_diameter_ins_mm: { pvc: 1.8, xlpe: 1.3, rubber: 2.3 } }, "23": { diameter_mm: 0.574, weight_per_km_copper: 2.0, weight_per_km_aluminum: 0.60, outer_diameter_ins_mm: { pvc: 1.7, xlpe: 1.2, rubber: 2.2 } }, "24": { diameter_mm: 0.511, weight_per_km_copper: 1.6, weight_per_km_aluminum: 0.48, outer_diameter_ins_mm: { pvc: 1.5, xlpe: 1.0, rubber: 2.0 } }, "25": { diameter_mm: 0.455, weight_per_km_copper: 1.2, weight_per_km_aluminum: 0.38, outer_diameter_ins_mm: { pvc: 1.4, xlpe: 0.9, rubber: 1.9 } }, "26": { diameter_mm: 0.405, weight_per_km_copper: 0.98, weight_per_km_aluminum: 0.30, outer_diameter_ins_mm: { pvc: 1.3, xlpe: 0.8, rubber: 1.8 } }, "27": { diameter_mm: 0.361, weight_per_km_copper: 0.78, weight_per_km_aluminum: 0.24, outer_diameter_ins_mm: { pvc: 1.2, xlpe: 0.7, rubber: 1.7 } }, "28": { diameter_mm: 0.321, weight_per_km_copper: 0.61, weight_per_km_aluminum: 0.19, outer_diameter_ins_mm: { pvc: 1.1, xlpe: 0.6, rubber: 1.6 } }, "29": { diameter_mm: 0.286, weight_per_km_copper: 0.48, weight_per_km_aluminum: 0.15, outer_diameter_ins_mm: { pvc: 1.0, xlpe: 0.5, rubber: 1.5 } }, "30": { diameter_mm: 0.255, weight_per_km_copper: 0.38, weight_per_km_aluminum: 0.12, outer_diameter_ins_mm: { pvc: 0.9, xlpe: 0.4, rubber: 1.4 } }, "31": { diameter_mm: 0.227, weight_per_km_copper: 0.30, weight_per_km_aluminum: 0.09, outer_diameter_ins_mm: { pvc: 0.8, xlpe: 0.3, rubber: 1.3 } }, "32": { diameter_mm: 0.202, weight_per_km_copper: 0.24, weight_per_km_aluminum: 0.07, outer_diameter_ins_mm: { pvc: 0.7, xlpe: 0.2, rubber: 1.2 } }, "33": { diameter_mm: 0.179, weight_per_km_copper: 0.19, weight_per_km_aluminum: 0.057, outer_diameter_ins_mm: { pvc: 0.6, xlpe: 0.1, rubber: 1.1 } }, "34": { diameter_mm: 0.159, weight_per_km_copper: 0.15, weight_per_km_aluminum: 0.045, outer_diameter_ins_mm: { pvc: 0.5, xlpe: 0.0, rubber: 1.0 } }, "35": { diameter_mm: 0.141, weight_per_km_copper: 0.12, weight_per_km_aluminum: 0.036, outer_diameter_ins_mm: { pvc: 0.4, xlpe: 0.0, rubber: 0.9 } }, "36": { diameter_mm: 0.127, weight_per_km_copper: 0.095, weight_per_km_aluminum: 0.029, outer_diameter_ins_mm: { pvc: 0.3, xlpe: 0.0, rubber: 0.8 } }, "37": { diameter_mm: 0.113, weight_per_km_copper: 0.075, weight_per_km_aluminum: 0.023, outer_diameter_ins_mm: { pvc: 0.2, xlpe: 0.0, rubber: 0.7 } }, "38": { diameter_mm: 0.101, weight_per_km_copper: 0.060, weight_per_km_aluminum: 0.018, outer_diameter_ins_mm: { pvc: 0.1, xlpe: 0.0, rubber: 0.6 } }, "39": { diameter_mm: 0.090, weight_per_km_copper: 0.048, weight_per_km_aluminum: 0.014, outer_diameter_ins_mm: { pvc: 0.0, xlpe: 0.0, rubber: 0.5 } }, "40": { diameter_mm: 0.079, weight_per_km_copper: 0.038, weight_per_km_aluminum: 0.011, outer_diameter_ins_mm: { pvc: 0.0, xlpe: 0.0, rubber: 0.4 } } }; var densities = { copper: 8.96, // g/cm³ aluminum: 2.70, // g/cm³ pvc: 1.35, // g/cm³ xlpe: 0.96, // g/cm³ rubber: 1.1 // g/cm³ }; var chartInstance = null; // To hold chart instance function calculateGaugeWeight() { // Clear previous errors document.getElementById('wireGaugeError').textContent = "; document.getElementById('wireLengthError').textContent = "; document.getElementById('wireMaterialError').textContent = "; document.getElementById('insulationTypeError').textContent = "; var gaugeSelect = document.getElementById('wireGauge'); var lengthInput = document.getElementById('wireLength'); var materialSelect = document.getElementById('wireMaterial'); var insulationSelect = document.getElementById('insulationType'); var gaugeStr = gaugeSelect.value; var lengthM = parseFloat(lengthInput.value); var material = materialSelect.value; var insulation = insulationSelect.value; var isValid = true; // Input validation if (isNaN(lengthM) || lengthM conductorDiameterMm) { var insulationOuterRadiusMm = insulationOuterDiameterMm / 2; var totalAreaMm2 = Math.PI * Math.pow(insulationOuterRadiusMm, 2); var insulationAreaMm2 = totalAreaMm2 – conductorAreaMm2; var insulationVolumeM3 = (insulationAreaMm2 / 1e6) * lengthM; var insulationVolumeCm3 = insulationVolumeM3 * 1e6; // Convert m³ to cm³ var insulationDensityG_cm3 = densities[insulation]; insulationWeightKg = (insulationVolumeCm3 * insulationDensityG_cm3) / 1000; // Convert g to kg } else { // Fallback or warning if insulation data is missing or illogical console.warn("Insulation outer diameter data missing or invalid for gauge " + gaugeStr + " and insulation " + insulation); } } var totalWeightKg = conductorWeightKg + insulationWeightKg; document.getElementById('conductorDiameter').textContent = conductorDiameterMm.toFixed(2) + ' mm'; document.getElementById('conductorVolume').textContent = conductorVolumeCm3.toFixed(2) + ' cm³'; document.getElementById('insulationWeight').textContent = insulationWeightKg.toFixed(2) + ' kg'; document.getElementById('totalWeight').textContent = totalWeightKg.toFixed(2) + ' kg'; updateChart(); // Update chart when inputs change } else { // Clear results if validation fails document.getElementById('conductorDiameter').textContent = '–.– mm'; document.getElementById('conductorVolume').textContent = '–.– cm³'; document.getElementById('insulationWeight').textContent = '–.– kg'; document.getElementById('totalWeight').textContent = '–.– kg'; } } function resetCalculator() { document.getElementById('wireGauge').value = '10'; // Sensible default document.getElementById('wireLength').value = '100'; document.getElementById('wireMaterial').value = 'copper'; document.getElementById('insulationType').value = 'none'; // Clear errors document.getElementById('wireGaugeError').textContent = "; document.getElementById('wireLengthError').textContent = "; document.getElementById('wireMaterialError').textContent = "; document.getElementById('insulationTypeError').textContent = "; calculateGaugeWeight(); // Recalculate with defaults } function copyResults() { var mainResult = document.getElementById('totalWeight').textContent; var conductorDiameter = document.getElementById('conductorDiameter').textContent; var conductorVolume = document.getElementById('conductorVolume').textContent; var insulationWeight = document.getElementById('insulationWeight').textContent; var gauge = document.getElementById('wireGauge').value; var length = document.getElementById('wireLength').value; var material = document.getElementById('wireMaterial').value; var insulation = document.getElementById('insulationType').value; var resultText = "Gauge Weight Calculation Results:\n\n" + "Input Parameters:\n" + "- Wire Gauge: " + gauge + "\n" + "- Wire Length: " + length + " meters\n" + "- Conductor Material: " + material.charAt(0).toUpperCase() + material.slice(1) + "\n" + "- Insulation Type: " + insulation.charAt(0).toUpperCase() + insulation.slice(1) + "\n\n" + "Calculated Values:\n" + "Total Weight: " + mainResult + "\n" + "Conductor Diameter: " + conductorDiameter + "\n" + "Conductor Volume: " + conductorVolume + "\n" + "Insulation Weight: " + insulationWeight + "\n\n" + "Formula Used: Total Weight = (Conductor Volume × Conductor Density) + Insulation Weight"; // Use Clipboard API navigator.clipboard.writeText(resultText).then(function() { // Optional: Show a temporary success message var copyButton = document.querySelector('button.btn-success'); var originalText = copyButton.textContent; copyButton.textContent = 'Copied!'; copyButton.style.backgroundColor = 'var(–success-color)'; setTimeout(function() { copyButton.textContent = originalText; copyButton.style.backgroundColor = '#6c757d'; // Reset to secondary button color }, 2000); }).catch(function(err) { console.error('Failed to copy results: ', err); // Fallback for older browsers or environments where clipboard API is restricted alert('Failed to copy results. Please copy manually:\n' + resultText); }); } // Charting Logic function setupChart() { var ctx = document.getElementById('weightLengthChart').getContext('2d'); var chartData = { labels: [], datasets: [{ label: 'Copper Weight (kg)', data: [], borderColor: 'rgb(75, 192, 192)', backgroundColor: 'rgba(75, 192, 192, 0.2)', fill: false, tension: 0.1 }, { label: 'Aluminum Weight (kg)', data: [], borderColor: 'rgb(255, 99, 132)', backgroundColor: 'rgba(255, 99, 132, 0.2)', fill: false, tension: 0.1 }] }; var chartOptions = { responsive: true, maintainAspectRatio: false, scales: { x: { title: { display: true, text: 'Wire Length (meters)' } }, y: { title: { display: true, text: 'Estimated Weight (kg)' } } }, plugins: { title: { display: true, text: 'Estimated Wire Weight vs. Length (10 AWG, PVC Insulation)' } } }; chartInstance = new Chart(ctx, { type: 'line', data: chartData, options: chartOptions }); } function updateChart() { if (!chartInstance) { setupChart(); } var chart = chartInstance; var selectedGauge = document.getElementById('wireGauge').value; var selectedInsulation = document.getElementById('insulationType').value; var lengthValues = [50, 100, 150, 200, 250, 300]; // Example lengths for chart var copperWeights = []; var aluminumWeights = []; var awgInfo = awgData[selectedGauge]; if (!awgInfo) return; // Exit if gauge data is invalid var conductorDensityCopper = densities['copper']; var conductorDensityAluminum = densities['aluminum']; var insulationDensity = (selectedInsulation !== 'none') ? densities[selectedInsulation] : 0; lengthValues.forEach(function(length) { var conductorDiameterMm = awgInfo.diameter_mm; var conductorRadiusMm = conductorDiameterMm / 2; var conductorAreaMm2 = Math.PI * Math.pow(conductorRadiusMm, 2); var conductorAreaM2 = conductorAreaMm2 / 1e6; var conductorVolumeM3 = conductorAreaM2 * length; var conductorVolumeCm3 = conductorVolumeM3 * 1e6; var copperWeightKg = (conductorVolumeCm3 * conductorDensityCopper) / 1000; var aluminumWeightKg = (conductorVolumeCm3 * conductorDensityAluminum) / 1000; var insulationWeightKg = 0; if (selectedInsulation !== 'none') { var insulationOuterDiameterMm = awgInfo.outer_diameter_ins_mm[selectedInsulation]; if (insulationOuterDiameterMm !== undefined && insulationOuterDiameterMm > conductorDiameterMm) { var insulationOuterRadiusMm = insulationOuterDiameterMm / 2; var totalAreaMm2 = Math.PI * Math.pow(insulationOuterRadiusMm, 2); var insulationAreaMm2 = totalAreaMm2 – conductorAreaMm2; var insulationVolumeM3 = (insulationAreaMm2 / 1e6) * length; var insulationVolumeCm3 = insulationVolumeM3 * 1e6; insulationWeightKg = (insulationVolumeCm3 * insulationDensity) / 1000; } } copperWeights.push(copperWeightKg + insulationWeightKg); aluminumWeights.push(aluminumWeightKg + insulationWeightKg); }); chart.data.labels = lengthValues.map(function(len) { return len.toString(); }); chart.data.datasets[0].data = copperWeights; chart.data.datasets[1].data = aluminumWeights; chart.options.plugins.title.text = 'Estimated Wire Weight vs. Length (' + selectedGauge + ' AWG, ' + (selectedInsulation.charAt(0).toUpperCase() + selectedInsulation.slice(1)) + ' Insulation)'; chart.update(); } // Initial calculation and chart setup on page load window.onload = function() { resetCalculator(); // Sets defaults and runs initial calculation setupChart(); // Sets up the chart structure updateChart(); // Populates the chart with initial data };

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