Calculating Weight Measurement Copper

Copper Weight Measurement Calculator & Guide :root { –primary-color: #004a99; –success-color: #28a745; –background-color: #f8f9fa; –text-color: #333; –border-color: #ccc; –input-bg: #fff; –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: 0; display: flex; flex-direction: column; align-items: center; } .container { width: 100%; max-width: 980px; margin: 20px auto; padding: 20px; background-color: #fff; box-shadow: 0 2px 10px rgba(0, 0, 0, 0.1); border-radius: 8px; display: flex; flex-direction: column; align-items: center; } h1, h2, h3 { color: var(–primary-color); text-align: center; } h1 { font-size: 2.5em; margin-bottom: 10px; } h2 { font-size: 1.8em; margin-top: 30px; margin-bottom: 15px; } h3 { font-size: 1.4em; margin-top: 20px; margin-bottom: 10px; } .calculator-wrapper { background-color: var(–background-color); padding: 30px; border-radius: 8px; 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Copper Weight Measurement Calculator

Easily calculate the weight of copper based on its dimensions and the standard density of copper. Understand the underlying principles and get accurate results for your projects.

Wire Rod Sheet Rectangular Bar Pipe Select the shape of the copper.
Enter the diameter in centimeters (cm).
Enter the length in centimeters (cm).
Enter the width in centimeters (cm).
Enter the thickness in centimeters (cm).
Enter the wall thickness in centimeters (cm).
Standard density for copper is 8.96 g/cm³.

Total Copper Weight

0.00

Kilograms (kg)

Volume

0.00

cm³

Density Used

8.96

g/cm³

Unit Weight

0.00

kg/m
How it's Calculated:

Weight = Volume × Density. First, the volume of the copper shape is calculated based on its dimensions. Then, this volume is multiplied by the copper's density (in g/cm³). The result, initially in grams, is converted to kilograms for the final output.

Copper Weight Volume
Copper Weight vs. Volume for Varying Length/Width
Dimension Value Unit
Shape Wire
Dimension 1 1 cm
Dimension 2 100 cm
Dimension 3 10 cm
Dimension 4 0.5 cm
Pipe Wall Thickness 0.1 cm
Density 8.96 g/cm³

Understanding Copper Weight Measurement

What is Copper Weight Measurement?

Copper weight measurement refers to the process of accurately determining the mass of a copper component or material using its physical dimensions and its inherent density. Copper, a highly conductive and versatile metal, is used extensively in various industries, from electrical wiring and plumbing to electronics and decorative arts. Knowing its weight is crucial for inventory management, cost estimation, shipping calculations, material sourcing, and ensuring structural integrity in applications where weight is a factor. This calculation is fundamental for anyone working with copper in bulk or in precisely measured quantities.

Who should use it: Manufacturers, electricians, plumbers, scrap metal dealers, engineers, DIY enthusiasts, material suppliers, and anyone involved in the trade or utilization of copper in any form will find this calculation essential. It provides a reliable way to quantify the amount of copper being used or stored.

Common misconceptions: A common misconception is that all copper has the exact same density. While pure copper has a standard density, alloys like brass or bronze (which contain copper) have different densities. Another misconception is that visual estimation of weight is sufficient; for any precise application, dimensional measurement and density calculation are necessary for accuracy.

{primary_keyword} Formula and Mathematical Explanation

The core principle behind calculating the weight of copper is the relationship between mass, volume, and density. The formula is straightforward:

Weight = Volume × Density

Let's break down the calculation:

  1. Calculate Volume: The first step is to determine the volume of the copper object. This depends on its shape.
    • Wire/Rod (Cylinder): Volume = π × (Diameter/2)² × Length
    • Sheet (Rectangular Prism): Volume = Length × Width × Thickness
    • Rectangular Bar (Rectangular Prism): Volume = Length × Width × Thickness
    • Pipe (Hollow Cylinder): Volume = π × (Outer_Diameter/2)² × Length – π × (Inner_Diameter/2)² × Length. Or more practically, Volume = π × (Outer_Diameter² – Inner_Diameter²) / 4 × Length. Where Inner_Diameter = Outer_Diameter – 2 × Wall_Thickness.
  2. Apply Density: Once the volume is calculated (typically in cubic centimeters, cm³), it's multiplied by the density of copper. The standard density of pure copper is approximately 8.96 grams per cubic centimeter (g/cm³).
  3. Convert to Desired Units: The result of Volume × Density will be in grams. Since larger quantities are often measured in kilograms, a final conversion is typically performed: Weight (kg) = Weight (g) / 1000.

Variables Table:

Variable Meaning Unit Typical Range
Shape The geometric form of the copper (e.g., wire, sheet). Wire, Rod, Sheet, Bar, Pipe
Dimension 1 Key dimension (e.g., Diameter for wire/rod). cm 0.0001 – 1000+
Dimension 2 Length (common for most shapes). cm 0.0001 – 1000+
Dimension 3 Width (for sheets, bars). cm 0.0001 – 1000+
Dimension 4 Thickness (for sheets, bars). cm 0.0001 – 100+
Pipe Wall Thickness Thickness of the pipe's wall. cm 0.0001 – 50+
Copper Density Mass per unit volume of the copper. g/cm³ 8.96 (pure copper); Varies for alloys
Volume The space occupied by the copper. cm³ Calculated
Weight The mass of the copper. kg Calculated

Practical Examples (Real-World Use Cases)

Here are a couple of practical scenarios demonstrating how to use the copper weight measurement calculator:

Example 1: Electrical Wire Coil

An electrician has a coil of pure copper wire with a diameter of 0.5 cm and a total length of 50 meters (5000 cm). They need to estimate the weight of this wire for installation planning.

  • Inputs:
    • Shape: Wire
    • Diameter: 0.5 cm
    • Length: 5000 cm
    • Density: 8.96 g/cm³
  • Calculation:
    • Radius = 0.5 cm / 2 = 0.25 cm
    • Volume = π × (0.25 cm)² × 5000 cm ≈ 3.14159 × 0.0625 cm² × 5000 cm ≈ 981.75 cm³
    • Weight (g) = 981.75 cm³ × 8.96 g/cm³ ≈ 8796.9 grams
    • Weight (kg) = 8796.9 g / 1000 ≈ 8.80 kg
  • Result: The coil of copper wire weighs approximately 8.80 kg. This helps in determining load capacity for installation supports and ordering the correct amount.

Example 2: Copper Sheet for Art Project

A metal artist is using a sheet of copper that measures 60 cm in width, 100 cm in length, and has a thickness of 0.2 cm. They want to know its weight for material cost calculation.

  • Inputs:
    • Shape: Sheet
    • Length: 100 cm
    • Width: 60 cm
    • Thickness: 0.2 cm
    • Density: 8.96 g/cm³
  • Calculation:
    • Volume = 100 cm × 60 cm × 0.2 cm = 1200 cm³
    • Weight (g) = 1200 cm³ × 8.96 g/cm³ = 10752 grams
    • Weight (kg) = 10752 g / 1000 = 10.75 kg
  • Result: The copper sheet weighs approximately 10.75 kg. This information is vital for budgeting the material cost for the art project.

How to Use This Copper Weight Measurement Calculator

Using our calculator is designed to be intuitive and straightforward. Follow these steps to get your weight measurements quickly:

  1. Select Copper Shape: Choose the specific shape of your copper material from the dropdown menu (Wire, Rod, Sheet, Rectangular Bar, Pipe).
  2. Enter Dimensions: Based on the selected shape, input the relevant dimensions. The calculator will prompt you for the necessary values (e.g., diameter and length for wire, length, width, and thickness for a sheet). Ensure all measurements are in centimeters (cm) for consistency.
  3. Input Density: Enter the density of the copper. For pure copper, the default value of 8.96 g/cm³ is usually accurate. If you are working with a specific copper alloy, you may need to find its precise density and input it here.
  4. Calculate: Click the "Calculate Weight" button.

How to Read Results:

  • Total Copper Weight: This is the primary result, displayed prominently in kilograms (kg).
  • Volume: Shows the calculated volume of the copper in cubic centimeters (cm³).
  • Density Used: Confirms the density value (g/cm³) that was used in the calculation.
  • Unit Weight: Provides the weight per meter (kg/m) for shapes like wire, rod, or pipe, which can be useful for inventory tracking or ordering.

Decision-Making Guidance: The calculated weight can help you make informed decisions regarding purchasing the correct quantity of material, verifying shipments, estimating project costs, and ensuring that the material's weight is suitable for its intended application. For instance, if you need to purchase 100 kg of copper wire, you can use the unit weight to determine the total length required.

Key Factors That Affect Copper Weight Results

While the basic formula is simple, several factors can influence the accuracy and relevance of copper weight calculations:

  1. Copper Purity and Alloys: The most significant factor is the composition of the copper. Pure copper has a density of approximately 8.96 g/cm³. However, copper alloys like brass (copper and zinc) or bronze (copper and tin) have different densities, which will alter the weight calculation. Always verify if you are using pure copper or an alloy.
  2. Dimensional Accuracy: The precision of your measurements directly impacts the calculated volume and, consequently, the weight. Slight inaccuracies in measuring diameter, length, width, or thickness can lead to noticeable differences in the final weight, especially for large quantities.
  3. Temperature Variations: Metals expand when heated and contract when cooled. While the effect on density for typical ambient temperature changes is minor for copper, extreme temperature variations could theoretically lead to slight changes in volume and thus weight. For most practical applications, this is negligible.
  4. Manufacturing Tolerances: Industrial manufacturing processes have tolerances. A "1 cm diameter" rod might actually be 1.01 cm or 0.99 cm. These small variations, common in production, can accumulate and affect the total weight of multiple components.
  5. Presence of Coatings or Finishes: If the copper is plated (e.g., with tin or nickel) or has a significant coating, the weight of the coating will be added to the copper's weight, leading to an overestimation if only copper density is used. Conversely, oxidation or surface patina typically adds negligible weight.
  6. Measurement Units Consistency: Inconsistent use of units (e.g., mixing meters and centimeters) is a common source of significant errors. Ensuring all dimensions are converted to a single unit (like centimeters) before calculation is vital.
  7. Hollow vs. Solid Structures: For pipes or hollow bars, correctly accounting for the inner diameter or wall thickness is crucial. Calculating the weight of a solid bar instead of a hollow pipe of the same outer dimensions would yield a significantly incorrect, higher weight.
  8. Scrap Copper Impurities: When dealing with scrap copper, the material is rarely pure. It can contain contaminants, solder, insulation, or be mixed with other metals. Accurately determining the weight of usable copper requires careful sorting and cleaning.

Frequently Asked Questions (FAQ)

What is the standard density of copper?
The standard density for pure copper is approximately 8.96 grams per cubic centimeter (g/cm³) or 8960 kilograms per cubic meter (kg/m³). This value can vary slightly for different purities and slightly for different alloys.
Can I use this calculator for copper alloys like brass or bronze?
Yes, but you need to input the correct density for that specific alloy. Brass typically has a density between 8.4 to 8.7 g/cm³, and bronze varies more widely, often around 7.4 to 8.9 g/cm³. Always look up the precise density for the alloy you are using.
What units should I use for the dimensions?
The calculator is designed to accept dimensions in centimeters (cm). Ensure all your measurements are converted to centimeters before entering them for accurate results.
How does temperature affect the weight of copper?
Temperature affects the volume of copper through thermal expansion. As copper heats up, it expands slightly, increasing its volume and slightly decreasing its density. Conversely, cooling causes contraction. For most practical applications at typical ambient temperatures, this effect is very small and often negligible for weight calculations.
What if my copper piece is an irregular shape?
This calculator is designed for standard geometric shapes (wire, rod, sheet, bar, pipe). For irregularly shaped pieces, you would need to approximate the volume using methods like water displacement (if the piece can be submerged) or by breaking down the irregular shape into simpler geometric components and summing their volumes.
How accurate are the results?
The accuracy of the results depends primarily on the accuracy of your input dimensions and the correct density value used. The calculation itself is precise based on the formula Volume × Density.
What is the difference between weight and mass?
Technically, mass is the amount of matter in an object, while weight is the force of gravity on that mass. In common usage, "weight" often refers to mass, especially when measured in kilograms or grams. This calculator calculates the mass of the copper, which is what is typically meant by "weight" in industrial and trade contexts.
Where can I find density data for specific copper alloys?
Density data for specific copper alloys can be found in metallurgical handbooks, online material databases, manufacturer specifications, or by consulting with a materials science expert. Reputable online resources often provide comprehensive tables of material properties.

© 2023 Copper Insights. All rights reserved.

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// keep length constant labelText = 'Outer Diam: ' + currentDim1.toFixed(2) + 'cm'; break; } var volume = calculateVolume(selectedShape, currentDim1, currentDim2, currentDim3, currentDim4, currentPipeWall); var weightGrams = volume * density; var weightKg = weightGrams / 1000; labels.push(labelText); volumes.push(volume); copperWeights.push(weightKg); } if (chartInstance) { chartInstance.destroy(); } chartInstance = new Chart(ctx, { type: 'bar', // Changed to bar for better comparison of two series data: { labels: labels, datasets: [{ label: 'Copper Weight (kg)', data: copperWeights, backgroundColor: 'rgba(0, 74, 153, 0.7)', borderColor: 'rgba(0, 74, 153, 1)', borderWidth: 1, yAxisID: 'y-weight' }, { label: 'Volume (cm³)', data: volumes, backgroundColor: 'rgba(108, 117, 125, 0.7)', borderColor: 'rgba(108, 117, 125, 1)', borderWidth: 1, yAxisID: 'y-volume' }] }, options: { responsive: true, maintainAspectRatio: false, scales: { x: { title: { display: true, text: 'Varying Dimension' } }, y-weight: { type: 'linear', position: 'left', title: { display: true, text: 'Weight (kg)' }, grid: { drawOnChartArea: false, } }, y-volume: { type: 'linear', position: 'right', title: { display: true, text: 'Volume (cm³)' }, grid: { color: 'rgba(200, 200, 200, 0.2)' } } }, plugins: { title: { display: true, text: 'Copper Weight and Volume Comparison' }, tooltip: { mode: 'index', intersect: false, } }, hover: { mode: 'index', intersect: false } } }); } function updateShapeInputs() { var shape = document.getElementById('copperShape').value; selectedShape = shape; document.getElementById('dimension1Group').style.display = 'none'; document.getElementById('dimension2Group').style.display = 'none'; document.getElementById('dimension3Group').style.display = 'none'; document.getElementById('dimension4Group').style.display = 'none'; document.getElementById('pipeWallThicknessGroup').style.display = 'none'; document.getElementById('dimensionsTableBody').innerHTML = ` Shape${shape.charAt(0).toUpperCase() + shape.slice(1)}– Dimension 1 Dimension 2 Dimension 3 Dimension 4 Pipe Wall Thickness Densityg/cm³ `; var label1 = document.querySelector('#dimension1Group label'); var label2 = document.querySelector('#dimension2Group label'); var label3 = document.querySelector('#dimension3Group label'); var label4 = document.querySelector('#dimension4Group label'); var labelPipeWall = document.querySelector('#pipeWallThicknessGroup label'); var unit1 = document.querySelector('#dimension1Group .helper-text'); 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var innerDiameter = outerDiameter – (2 * wallThickness); if (innerDiameter <= 0) { // Handle case where wall thickness is too large return 0; // Invalid pipe geometry } var innerRadius = innerDiameter / 2; volume = Math.PI * (Math.pow(outerRadius, 2) – Math.pow(innerRadius, 2)) * length; break; } return volume; } function calculateWeight() { var errors = false; var shape = document.getElementById('copperShape').value; var dim1Val = parseFloat(document.getElementById('dimension1').value); var dim2Val = parseFloat(document.getElementById('dimension2').value); var dim3Val = parseFloat(document.getElementById('dimension3').value); var dim4Val = parseFloat(document.getElementById('dimension4').value); var pipeWallVal = parseFloat(document.getElementById('pipeWallThickness').value); var densityVal = parseFloat(document.getElementById('copperDensity').value); // Clear previous errors document.getElementById('dimension1Error').innerText = ''; document.getElementById('dimension2Error').innerText = ''; document.getElementById('dimension3Error').innerText = ''; document.getElementById('dimension4Error').innerText = ''; document.getElementById('pipeWallThicknessError').innerText = ''; document.getElementById('copperDensityError').innerText = ''; // Validation if (isNaN(dim1Val) || dim1Val <= 0) { document.getElementById('dimension1Error').innerText = 'Please enter a valid positive number.'; errors = true; } if (isNaN(densityVal) || densityVal <= 0) { document.getElementById('copperDensityError').innerText = 'Please enter a valid positive density.'; errors = true; } var validDim2 = true; if (shape === 'wire' || shape === 'rod' || shape === 'sheet' || shape === 'rectangularBar' || shape === 'pipe') { if (isNaN(dim2Val) || dim2Val <= 0) { document.getElementById('dimension2Error').innerText = 'Please enter a valid positive number.'; errors = true; validDim2 = false; } } var validDim3 = true; if (shape === 'sheet' || shape === 'rectangularBar') { if (isNaN(dim3Val) || dim3Val <= 0) { document.getElementById('dimension3Error').innerText = 'Please enter a valid positive number.'; errors = true; validDim3 = false; } } var validDim4 = true; if (shape === 'sheet' || shape === 'rectangularBar') { if (isNaN(dim4Val) || dim4Val <= 0) { document.getElementById('dimension4Error').innerText = 'Please enter a valid positive number.'; errors = true; validDim4 = false; } } var validPipeWall = true; if (shape === 'pipe') { if (isNaN(pipeWallVal) || pipeWallVal <= 0) { document.getElementById('pipeWallThicknessError').innerText = 'Please enter a valid positive number.'; errors = true; validPipeWall = false; } // Additional check for pipe: Outer Diameter must be greater than 2 * Wall Thickness if (validDim1 && dim1Val 0 && dim2Val > 0) ? (volume * densityVal) / dim2Val : 0; unitWeightKgPerM = unitWeightGramsPerCm * 100; // Convert g/cm to kg/m (1000g/kg * 100cm/m) } else if (shape === 'sheet' || shape === 'rectangularBar') { document.getElementById('dim2Row').style.display = 'table-row'; document.getElementById('dim3Row').style.display = 'table-row'; document.getElementById('tableDim2').innerText = dim2Val.toFixed(4); // Length document.getElementById('tableDim3').innerText = dim3Val.toFixed(4); // Width document.getElementById('tableDim4').innerText = dim4Val.toFixed(4); // Thickness document.getElementById('tableDim2Unit').innerText = 'cm'; document.getElementById('tableDim3Unit').innerText = 'cm'; document.getElementById('tableDim4Unit').innerText = 'cm'; document.getElementById('dimension1Group').querySelector('.helper-text').innerText = 'Enter the length in centimeters (cm).'; document.getElementById('dimension2Group').querySelector('.helper-text').innerText = 'Enter the width in centimeters (cm).'; document.getElementById('dimension3Group').querySelector('.helper-text').innerText = 'Enter the thickness in centimeters (cm).'; volume = calculateVolume(shape, dim1Val, dim2Val, dim3Val, dim4Val, 0); // dim3 is width, dim4 is thickness for sheet/bar unitWeightKgPerM = 0; // Not applicable for flat sheets in kg/m } else if (shape === 'pipe') { document.getElementById('dim2Row').style.display = 'table-row'; document.getElementById('pipeWallRow').style.display = 'table-row'; document.getElementById('tableDim2').innerText = dim2Val.toFixed(4); // Length document.getElementById('tablePipeWall').innerText = pipeWallVal.toFixed(4); // Wall thickness document.getElementById('tableDim2Unit').innerText = 'cm'; document.getElementById('tablePipeWallUnit').innerText = 'cm'; document.getElementById('dimension1Group').querySelector('.helper-text').innerText = 'Enter the outer diameter in centimeters (cm).'; document.getElementById('dimension2Group').querySelector('.helper-text').innerText = 'Enter the length in centimeters (cm).'; document.getElementById('pipeWallThicknessGroup').querySelector('.helper-text').innerText = 'Enter the wall thickness in centimeters (cm).'; volume = calculateVolume(shape, dim1Val, dim2Val, 0, 0, pipeWallVal); // dim1 is outer diameter unitWeightGramsPerCm = (volume > 0 && dim2Val > 0) ? (volume * densityVal) / dim2Val : 0; unitWeightKgPerM = unitWeightGramsPerCm * 100; // Convert g/cm to kg/m } var weightGrams = volume * densityVal; var weightKg = weightGrams / 1000; // Update results display document.getElementById('mainResultValue').innerText = weightKg.toFixed(4); // Display with higher precision document.getElementById('volumeResult').innerText = volume.toFixed(4); document.getElementById('densityUsedResult').innerText = densityVal.toFixed(2); document.getElementById('unitWeightResult').innerText = unitWeightKgPerM.toFixed(4); document.getElementById('weightResult').style.display = 'block'; document.querySelector('.intermediate-results').style.display = 'flex'; // Update chart initializeChart(); } function resetCalculator() { document.getElementById('copperShape').value = 'wire'; document.getElementById('dimension1').value = '1'; document.getElementById('dimension2').value = '100'; document.getElementById('dimension3′).value = '10'; document.getElementById('dimension4').value = '0.5'; document.getElementById('pipeWallThickness').value = '0.1'; document.getElementById('copperDensity').value = standardDensity; // Clear errors document.getElementById('dimension1Error').innerText = "; document.getElementById('dimension2Error').innerText = "; document.getElementById('dimension3Error').innerText = "; document.getElementById('dimension4Error').innerText = "; document.getElementById('pipeWallThicknessError').innerText = "; document.getElementById('copperDensityError').innerText = "; updateShapeInputs(); // This will also call updateCalculator } function updateCalculator() { // Validate inputs on the fly and update results if valid var shape = document.getElementById('copperShape').value; var dim1Val = parseFloat(document.getElementById('dimension1').value); var dim2Val = parseFloat(document.getElementById('dimension2').value); var dim3Val = parseFloat(document.getElementById('dimension3').value); var dim4Val = parseFloat(document.getElementById('dimension4').value); var pipeWallVal = parseFloat(document.getElementById('pipeWallThickness').value); var densityVal = parseFloat(document.getElementById('copperDensity').value); var errors = false; // Clear errors first document.getElementById('dimension1Error').innerText = "; document.getElementById('dimension2Error').innerText = "; document.getElementById('dimension3Error').innerText = "; document.getElementById('dimension4Error').innerText = "; document.getElementById('pipeWallThicknessError').innerText = "; document.getElementById('copperDensityError').innerText = "; // Perform validation if (isNaN(dim1Val) || dim1Val <= 0) { document.getElementById('dimension1Error').innerText = 'Please enter a valid positive number.'; errors = true; } if (isNaN(densityVal) || densityVal <= 0) { document.getElementById('copperDensityError').innerText = 'Please enter a valid positive density.'; errors = true; } if (shape === 'wire' || shape === 'rod' || shape === 'sheet' || shape === 'rectangularBar' || shape === 'pipe') { if (isNaN(dim2Val) || dim2Val <= 0) { document.getElementById('dimension2Error').innerText = 'Please enter a valid positive number.'; errors = true; } } if (shape === 'sheet' || shape === 'rectangularBar') { if (isNaN(dim3Val) || dim3Val <= 0) { document.getElementById('dimension3Error').innerText = 'Please enter a valid positive number.'; errors = true; } } if (shape === 'sheet' || shape === 'rectangularBar') { if (isNaN(dim4Val) || dim4Val <= 0) { document.getElementById('dimension4Error').innerText = 'Please enter a valid positive number.'; errors = true; } } if (shape === 'pipe') { if (isNaN(pipeWallVal) || pipeWallVal <= 0) { document.getElementById('pipeWallThicknessError').innerText = 'Please enter a valid positive number.'; errors = true; } if (errors === false && dim1Val 0) { copyText += "Unit Weight: " + unitWeight + " kg/m\n"; } copyText += "\n"; copyText += "Assumptions & Inputs:\n"; copyText += "Shape: " + shape + "\n"; copyText += "Dimension 1: " + dim1 + " " + dim1Unit + "\n"; if (dim2) copyText += "Dimension 2: " + dim2 + " " + dim2Unit + "\n"; if (dim3) copyText += "Dimension 3: " + dim3 + " " + dim3Unit + "\n"; if (dim4) copyText += "Dimension 4: " + dim4 + " " + dim4Unit + "\n"; if (pipeWall) copyText += "Pipe Wall Thickness: " + pipeWall + " " + pipeWallUnit + "\n"; copyText += "Density: " + density + " g/cm³\n"; // Use a temporary textarea to copy text var textArea = document.createElement("textarea"); textArea.value = copyText; textArea.style.position = "fixed"; textArea.style.left = "-9999px"; document.body.appendChild(textArea); textArea.focus(); textArea.select(); try { document.execCommand('copy'); alert('Results copied to clipboard!'); } catch (err) { alert('Failed to copy results. Please copy manually.'); } document.body.removeChild(textArea); } // Initialize chart and event listeners on load document.addEventListener('DOMContentLoaded', function() { // Add event listener for FAQ toggles var faqQuestions = document.querySelectorAll('.faq-question'); faqQuestions.forEach(function(question) { question.addEventListener('click', function() { var faqItem = this.parentElement; faqItem.classList.toggle('open'); }); }); updateShapeInputs(); // Initialize inputs based on default shape initializeChart(); // Initialize the chart updateCalculator(); // Initial calculation on load }); // Add Chart.js (needed for the canvas chart) // In a real-world scenario, you'd include this via a CDN or a local file. // For this single-file output, we'll assume it's available or add a placeholder comment. // NOTE: This script assumes Chart.js is loaded. For a self-contained file, // you would typically embed Chart.js via a tag // before this script block, or inline its code. For this example, we assume it's present. //

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