Corten Steel Weight Calculator

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Corten Steel Weight Calculator

Easily calculate the weight of Corten steel for your projects.

Corten Steel Weight Calculator

Sheet Plate Bar Tube Select the form of Corten steel.
Enter the length of the steel in meters.
Enter the width of the steel in meters.
Enter the thickness of the steel in millimeters.
Enter the length of the bar or tube in meters.
Enter the diameter (for round bars/tubes) or side length (for square bars) in millimeters.
Enter the wall thickness of the tube in millimeters. For solid bars, enter 0.

Your Corten Steel Weight Calculation

— kg
Volume: — m³
Surface Area: — m²
Steel Density: 7850 kg/m³
Formula Used: Weight = Volume × Density. Volume is calculated based on the dimensions and shape of the steel.

Weight vs. Dimensions

Explore the world of Corten steel, from its unique properties to practical applications and how its weight influences project planning.

What is Corten Steel Weight Calculator?

A Corten steel weight calculator is a specialized tool designed to estimate the mass of Corten steel components based on their dimensions and shape. Corten steel, also known as weathering steel, is renowned for its distinctive rust-like appearance that forms a protective patina over time, shielding it from further corrosion. This makes it ideal for architectural features, sculptures, landscaping, and industrial applications where aesthetics and durability are paramount. The weight of Corten steel is a crucial factor in project planning, influencing structural integrity, transportation costs, material handling, and overall project budget. Accurately calculating this weight ensures efficient resource allocation and avoids costly over- or under-estimations. This Corten steel weight calculator simplifies this process, providing precise figures for sheets, plates, bars, and tubes.

Who should use it: Architects, structural engineers, fabricators, construction managers, artists, designers, DIY enthusiasts, and anyone involved in projects utilizing Corten steel. Anyone needing to quantify material for procurement, structural calculations, or shipping will find this Corten steel weight calculator invaluable.

Common misconceptions: A common misconception is that Corten steel is just 'rusty steel.' While it does develop a rust-like appearance, the patina is a stable, protective layer, unlike the destructive rust on regular carbon steel. Another misconception is that its weight is significantly different from regular steel; the density is virtually the same (around 7850 kg/m³). The difference lies in its alloying elements and how it weathers.

Corten Steel Weight Formula and Mathematical Explanation

The fundamental principle behind calculating the weight of any material, including Corten steel, is the relationship between its volume, density, and mass. The formula is straightforward:

Weight (kg) = Volume (m³) × Density (kg/m³)

The density of Corten steel is a standard physical property, consistent with other types of steel, typically around 7850 kg/m³.

Step-by-step derivation for different shapes:

  1. For Sheets/Plates:
    • Volume = Length × Width × Thickness
    • Ensure all dimensions are in the same unit (meters). If thickness is in millimeters, convert it to meters (e.g., 5 mm = 0.005 m).
  2. For Bars (Solid Rectangular/Square):
    • Volume = Length × Side × Side
    • Ensure all dimensions are in meters.
  3. For Bars (Solid Round):
    • Volume = π × (Diameter/2)² × Length
    • Ensure diameter and length are in meters.
  4. For Tubes (Hollow Rectangular/Square):
    • Volume = (Outer Width × Outer Height × Length) – (Inner Width × Inner Height × Length)
    • Or Volume = (Outer Width – 2 × Wall Thickness) × (Outer Height – 2 × Wall Thickness) × Length (if thickness is uniform)
    • Ensure all dimensions are in meters.
  5. For Tubes (Hollow Round):
    • Volume = [π × (Outer Diameter/2)² – π × (Inner Diameter/2)²] × Length
    • Where Inner Diameter = Outer Diameter – 2 × Wall Thickness.
    • Ensure all dimensions are in meters.

Variable Explanations

The calculator requires specific inputs to determine the volume, which is then used to calculate the total weight.

Corten Steel Weight Calculator Variables
Variable Meaning Unit Typical Range / Input Type
Steel Type The form of the Corten steel being measured. N/A Sheet, Plate, Bar, Tube
Length The longest dimension of the steel component. Meters (m) Positive Number (e.g., 0.1 – 10+)
Width The second longest dimension, applicable to sheets and plates. Meters (m) Positive Number (e.g., 0.1 – 3+)
Thickness The smallest dimension, applicable to sheets and plates. Millimeters (mm) Positive Number (e.g., 1 – 20+)
Diameter/Side The dimension for round bars (diameter) or square bars (side length). Millimeters (mm) Positive Number (e.g., 5 – 100+)
Wall Thickness The thickness of the material forming the wall of a tube. Millimeters (mm) Non-negative Number (e.g., 0 for solid bars, 1 – 10+ for tubes)
Density The mass per unit volume of Corten steel. kg/m³ Constant (7850 kg/m³)
Volume The amount of space the steel occupies. Cubic Meters (m³) Calculated Value
Weight The total mass of the Corten steel component. Kilograms (kg) Calculated Value (Primary Result)

Practical Examples (Real-World Use Cases)

Example 1: Corten Steel Planter Box

A landscape designer is planning a series of planter boxes for a modern garden. Each box will be made from Corten steel sheets with the following dimensions:

  • Steel Type: Sheet
  • Length: 1.5 meters
  • Width: 0.5 meters
  • Thickness: 3 mm

Using the Corten steel weight calculator:

  • Thickness is converted to meters: 3 mm = 0.003 m
  • Calculated Volume: 1.5 m × 0.5 m × 0.003 m = 0.00225 m³
  • Calculated Weight: 0.00225 m³ × 7850 kg/m³ = 17.66 kg

Interpretation: Each Corten steel planter box will weigh approximately 17.66 kg. This information is crucial for ordering the correct amount of steel, estimating shipping costs, and planning installation, especially if the boxes need to be moved into place before soil is added.

Example 2: Corten Steel Support Beam

An architect is using Corten steel square bars as decorative support beams for an outdoor patio canopy. The specifications for each bar are:

  • Steel Type: Bar (Square)
  • Length: 4 meters
  • Side: 50 mm
  • Wall Thickness: 5 mm (This indicates a hollow square tube, not a solid bar, which is common for structural elements to reduce weight)

Using the Corten steel weight calculator (assuming a square tube):

  • Convert dimensions to meters: Length = 4 m, Side = 0.05 m, Wall Thickness = 0.005 m
  • Calculate outer and inner dimensions: Outer side = 0.05 m. Inner side = 0.05 m – (2 * 0.005 m) = 0.04 m
  • Calculate outer and inner cross-sectional areas: Outer Area = 0.05m * 0.05m = 0.0025 m². Inner Area = 0.04m * 0.04m = 0.0016 m².
  • Calculate Volume = (Outer Area – Inner Area) * Length = (0.0025 m² – 0.0016 m²) * 4 m = 0.0009 m² * 4 m = 0.0036 m³.
  • Calculated Weight: 0.0036 m³ × 7850 kg/m³ = 28.26 kg

Interpretation: Each Corten steel support beam weighs approximately 28.26 kg. This allows the engineering team to verify structural load capacities and plan for safe lifting and installation procedures. The weight calculation confirms Corten steel's suitability for aesthetic structural elements without being excessively heavy.

How to Use This Corten Steel Weight Calculator

Our Corten steel weight calculator is designed for simplicity and accuracy. Follow these steps to get your weight estimate:

  1. Select Steel Type: Choose the form of Corten steel you are using from the dropdown menu (Sheet, Plate, Bar, or Tube). The calculator will adjust the input fields accordingly.
  2. Enter Dimensions: Input the relevant measurements for your steel component. Ensure you use the correct units as specified (meters for length/width, millimeters for thickness/diameter/side).
    • For Sheets/Plates: Enter Length, Width, and Thickness.
    • For Bars/Tubes: Enter Length, Diameter/Side, and Wall Thickness (use 0 for solid bars).
  3. Validate Inputs: The calculator performs inline validation. If you enter an invalid value (e.g., negative number, empty field), an error message will appear below the respective input field. Correct these errors before proceeding.
  4. Calculate Weight: Click the "Calculate Weight" button. The results will update instantly.

How to Read Results:

  • Main Result (Calculated Weight): This is the primary output, displayed prominently in kilograms (kg).
  • Intermediate Values: You'll see the calculated Volume (m³) and Surface Area (m²) for reference.
  • Steel Density: Confirms the standard density used in the calculation (7850 kg/m³).
  • Formula Explanation: Provides a brief overview of the calculation method.

Decision-Making Guidance: Use the calculated weight to inform purchasing decisions, compare material costs, plan transportation logistics, and ensure compliance with structural engineering requirements. For example, knowing the weight helps obtain accurate shipping quotes or determine if manual handling is feasible.

Key Factors That Affect Corten Steel Weight Results

While the Corten steel weight calculator provides a precise estimate based on geometry, several real-world factors can influence the *actual* weight or the *perceived* weight in project costs:

  1. Dimensional Accuracy: Manufacturing tolerances can lead to slight variations in the actual dimensions of steel products compared to specifications. While our Corten steel weight calculator uses exact inputs, real-world materials might vary by a small percentage.
  2. Density Variations: Although Corten steel has a standard density, minor variations can occur due to the precise alloy composition and manufacturing process. However, 7850 kg/m³ is a widely accepted and accurate figure for practical purposes.
  3. Surface Patina Thickness: Corten steel develops a protective oxide layer (patina). This layer adds a negligible amount of weight, far less than typical manufacturing tolerances. The calculator does not account for this microscopic addition.
  4. Cut-offs and Waste: Projects rarely use steel components perfectly. Fabrication processes involve cutting, drilling, and welding, which generate scrap material. Your total purchased weight will be higher than the calculated weight of the finished components due to this unavoidable waste. Factor this into your material procurement.
  5. Transportation Weight Limits: The calculated weight is critical for adhering to weight restrictions on vehicles, bridges, and handling equipment. Exceeding these limits due to inaccurate weight estimations can lead to project delays, fines, or safety hazards.
  6. Project Budgeting and Costing: Steel is often priced per kilogram or ton. An accurate weight calculation is fundamental for creating precise project budgets, obtaining quotes from suppliers, and managing costs effectively. Underestimating weight can lead to budget overruns.
  7. Structural Load Calculations: For load-bearing applications, the exact weight of Corten steel elements is essential for structural integrity analysis. Engineers use these figures to ensure the supporting structures can safely handle the load, preventing potential failures.

Frequently Asked Questions (FAQ)

Q1: Is Corten steel heavier than regular steel?

A: No, Corten steel has the same density as regular carbon steel, approximately 7850 kg/m³. The difference lies in its atmospheric corrosion resistance due to added alloying elements.

Q2: What is the standard density of Corten steel used in calculations?

A: The standard density typically used for steel, including Corten steel, is 7850 kilograms per cubic meter (kg/m³).

Q3: Do I need to convert my measurements before using the calculator?

A: The calculator is designed to handle common units. Length and width are entered in meters (m). Thickness, Diameter, and Side are entered in millimeters (mm) and are converted internally. Always ensure you are entering values in the prompted units.

Q4: Can I calculate the weight of curved Corten steel?

A: This calculator is primarily for standard geometric shapes (sheets, plates, bars, tubes). For complex curves or custom shapes, you would need to approximate the volume using simpler geometric breakdowns or consult specialized engineering software.

Q5: How does wall thickness affect the weight of Corten steel tubes?

A: A thicker wall increases the volume of steel material, thus increasing the overall weight. Conversely, a thinner wall reduces the weight. Our calculator accounts for this by subtracting the inner volume from the outer volume.

Q6: What if my Corten steel dimensions are slightly different from the standard?

A: Always use the actual measured dimensions for the most accurate calculation. Manufacturing tolerances exist, so measuring your specific material is recommended for critical applications.

Q7: Does the calculator account for any coatings or treatments on Corten steel?

A: This calculator estimates the weight based on the steel's core material and dimensions. It does not factor in potential minor weight additions from coatings or treatments, which are typically negligible compared to the base material weight.

Q8: Can I use the calculated weight for shipping cost estimation?

A: Yes, the calculated weight is a primary factor in determining shipping costs. However, remember to add an allowance for packaging, dunnage, and potential freight carrier surcharges.

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var selectedSteelType = 'sheet'; var steelDensity = 7850; // kg/m³ function updateSteelProperties() { var selectElement = document.getElementById('steelType'); selectedSteelType = selectElement.value; var density = parseFloat(selectElement.options[selectElement.selectedIndex].getAttribute('data-density')); // For simplicity, assuming density is constant across types for now, but could be dynamic document.getElementById('density').innerText = "Steel Density: " + density + " kg/m³"; if (selectedSteelType === 'sheet' || selectedSteelType === 'plate') { document.getElementById('sheetPlateInputs').style.display = 'block'; document.getElementById('barTubeInputs').style.display = 'none'; } else { document.getElementById('sheetPlateInputs').style.display = 'none'; document.getElementById('barTubeInputs').style.display = 'block'; } calculateWeight(); // Recalculate on type change } function validateInput(inputId, errorId, minValue = 0, maxValue = null) { var input = document.getElementById(inputId); var errorElement = document.getElementById(errorId); var value = parseFloat(input.value); var isValid = true; errorElement.innerText = "; errorElement.classList.remove('visible'); input.style.borderColor = '#ced4da'; // Reset border color if (input.value === " || isNaN(value)) { errorElement.innerText = 'This field is required.'; isValid = false; } else if (value maxValue) { errorElement.innerText = 'Value exceeds maximum limit.'; isValid = false; } if (!isValid) { errorElement.classList.add('visible'); input.style.borderColor = '#dc3545'; } return isValid; } function calculateWeight() { var inputsValid = true; var length, width, thickness, barTubeLength, barTubeDiameterOrSide, barTubeWallThickness; var volume = 0; var surfaceArea = 0; // Added for chart data // Clear previous results document.getElementById('calculatedWeight').innerText = '– kg'; document.getElementById('volume').innerText = 'Volume: — m³'; document.getElementById('surfaceArea').innerText = 'Surface Area: — m²'; // Validate inputs based on selected type if (selectedSteelType === 'sheet' || selectedSteelType === 'plate') { inputsValid = validateInput('length', 'lengthError') && validateInput('width', 'widthError') && validateInput('thickness', 'thicknessError'); if (inputsValid) { length = parseFloat(document.getElementById('length').value); width = parseFloat(document.getElementById('width').value); thickness = parseFloat(document.getElementById('thickness').value) / 1000; // Convert mm to m // Sheet/Plate Volume and Surface Area volume = length * width * thickness; surfaceArea = 2 * (length * width + length * thickness + width * thickness); // Total surface area including edges } } else { // Bar or Tube inputsValid = validateInput('barTubeLength', 'barTubeLengthError') && validateInput('barTubeDiameterOrSide', 'barTubeDiameterOrSideError') && validateInput('barTubeWallThickness', 'barTubeWallThicknessError'); if (inputsValid) { barTubeLength = parseFloat(document.getElementById('barTubeLength').value); barTubeDiameterOrSide = parseFloat(document.getElementById('barTubeDiameterOrSide').value); barTubeWallThickness = parseFloat(document.getElementById('barTubeWallThickness').value); var radius = barTubeDiameterOrSide / 2000; // Convert mm to m var wallThicknessM = barTubeWallThickness / 1000; // Convert mm to m if (selectedSteelType === 'bar' && barTubeWallThickness === 0) { // Solid round bar volume = Math.PI * Math.pow(radius, 2) * barTubeLength; surfaceArea = (2 * Math.PI * radius * barTubeLength) + (2 * Math.PI * Math.pow(radius, 2)); // Cylindrical surface area } else { // Tube (round or square assumed for simplicity, but diameter/side implies round) var outerRadius = radius; var innerRadius = outerRadius – wallThicknessM; if (innerRadius 0) { var weight = volume * steelDensity; document.getElementById('calculatedWeight').innerText = weight.toFixed(2) + ' kg'; document.getElementById('volume').innerText = 'Volume: ' + volume.toFixed(4) + ' m³'; document.getElementById('surfaceArea').innerText = 'Surface Area: ' + surfaceArea.toFixed(3) + ' m²'; updateChart(length || barTubeLength, weight); // Pass relevant length/dimension and weight } else { document.getElementById('calculatedWeight').innerText = '– kg'; document.getElementById('volume').innerText = 'Volume: — m³'; document.getElementById('surfaceArea').innerText = 'Surface Area: — m²'; clearChart(); } } function resetCalculator() { document.getElementById('steelType').value = 'sheet'; document.getElementById('length').value = "; document.getElementById('width').value = "; document.getElementById('thickness').value = "; document.getElementById('barTubeLength').value = "; document.getElementById('barTubeDiameterOrSide').value = "; document.getElementById('barTubeWallThickness').value = "; // Reset errors and styles document.getElementById('lengthError').innerText = "; document.getElementById('lengthError').classList.remove('visible'); document.getElementById('widthError').innerText = "; document.getElementById('widthError').classList.remove('visible'); document.getElementById('thicknessError').innerText = "; document.getElementById('thicknessError').classList.remove('visible'); document.getElementById('barTubeLengthError').innerText = "; document.getElementById('barTubeLengthError').classList.remove('visible'); document.getElementById('barTubeDiameterOrSideError').innerText = "; document.getElementById('barTubeDiameterOrSideError').classList.remove('visible'); document.getElementById('barTubeWallThicknessError').innerText = "; document.getElementById('barTubeWallThicknessError').classList.remove('visible'); document.getElementById('length').style.borderColor = '#ced4da'; document.getElementById('width').style.borderColor = '#ced4da'; document.getElementById('thickness').style.borderColor = '#ced4da'; document.getElementById('barTubeLength').style.borderColor = '#ced4da'; document.getElementById('barTubeDiameterOrSide').style.borderColor = '#ced4da'; document.getElementById('barTubeWallThickness').style.borderColor = '#ced4da'; // Reset default display updateSteelProperties(); // This will also trigger recalculateWeight document.getElementById('calculatedWeight').innerText = '– kg'; document.getElementById('volume').innerText = 'Volume: — m³'; document.getElementById('surfaceArea').innerText = 'Surface Area: — m²'; clearChart(); } function copyResults() { var mainResult = document.getElementById('calculatedWeight').innerText; var volumeResult = document.getElementById('volume').innerText; var surfaceAreaResult = document.getElementById('surfaceArea').innerText; var densityResult = document.getElementById('density').innerText; var resultsText = "Corten Steel Weight Calculation:\n"; resultsText += "———————————-\n"; resultsText += "Weight: " + mainResult + "\n"; resultsText += volumeResult + "\n"; resultsText += surfaceAreaResult + "\n"; resultsText += densityResult + "\n"; resultsText += "\nAssumptions:\n"; resultsText += "Steel Type: " + document.getElementById('steelType').options[document.getElementById('steelType').selectedIndex].text + "\n"; if (selectedSteelType === 'sheet' || selectedSteelType === 'plate') { resultsText += "Length: " + document.getElementById('length').value + " m\n"; resultsText += "Width: " + document.getElementById('width').value + " m\n"; resultsText += "Thickness: " + document.getElementById('thickness').value + " mm\n"; } else { resultsText += "Length: " + document.getElementById('barTubeLength').value + " m\n"; resultsText += "Diameter/Side: " + document.getElementById('barTubeDiameterOrSide').value + " mm\n"; resultsText += "Wall Thickness: " + document.getElementById('barTubeWallThickness').value + " mm\n"; } try { navigator.clipboard.writeText(resultsText).then(function() { alert('Results copied to clipboard!'); }).catch(function(err) { console.error('Failed to copy results: ', err); alert('Failed to copy results. Please copy manually.'); }); } catch (e) { console.error('Clipboard API not available: ', e); alert('Clipboard API not available. Please copy results manually.'); } } // Charting Logic var weightChartInstance = null; var chartCanvas = document.getElementById('weightChart'); function updateChart(dimensionValue, weightValue) { if (!chartCanvas) return; var ctx = chartCanvas.getContext('2d'); if (weightChartInstance) { weightChartInstance.destroy(); // Destroy previous chart instance } // Sample data: Create hypothetical points for illustration // For a real dynamic chart, you'd need to simulate multiple calculations // based on varying inputs related to the primary input (e.g., varying thickness for a fixed length/width) var labels = []; var weights = []; var relatedDimensions = []; // e.g., Thickness for sheet/plate, Diameter for bar var baseLength = parseFloat(document.getElementById('length')?.value || document.getElementById('barTubeLength')?.value || 1); var baseWidth = parseFloat(document.getElementById('width')?.value || 0); var baseThickness = parseFloat(document.getElementById('thickness')?.value || 0) / 1000; // in meters var baseDiameterOrSide = parseFloat(document.getElementById('barTubeDiameterOrSide')?.value || 0) / 1000; // in meters var baseWallThickness = parseFloat(document.getElementById('barTubeWallThickness')?.value || 0) / 1000; // in meters var chartDimensionLabel = "; if (selectedSteelType === 'sheet' || selectedSteelType === 'plate') { chartDimensionLabel = 'Thickness (m)'; for (var i = 1; i 0) { var currentVolume = baseLength * baseWidth * currentThickness; var currentWeight = currentVolume * steelDensity; labels.push(currentThickness.toFixed(4)); weights.push(currentWeight); relatedDimensions.push(currentThickness * 1000); // Show in mm } } if (weights.length === 0) { // If base thickness is 0 or too small, use default increments for (var i = 1; i <= 10; i++) { var currentThickness = i * 0.001; // 1mm increments var currentVolume = baseLength * baseWidth * currentThickness; var currentWeight = currentVolume * steelDensity; labels.push(currentThickness.toFixed(4)); weights.push(currentWeight); relatedDimensions.push(currentThickness * 1000); } } } else { // Bar or Tube chartDimensionLabel = 'Diameter (m)'; // Assuming round bars/tubes for (var i = 1; i 0) { var currentRadius = currentDiameter / 2; var currentVolume; if (selectedSteelType === 'bar' && baseWallThickness === 0) { // Solid bar currentVolume = Math.PI * Math.pow(currentRadius, 2) * baseLength; } else { // Tube var currentInnerRadius = currentRadius – baseWallThickness; if (currentInnerRadius < 0) currentInnerRadius = 0; currentVolume = Math.PI * (Math.pow(currentRadius, 2) – Math.pow(currentInnerRadius, 2)) * baseLength; } var currentWeight = currentVolume * steelDensity; labels.push(currentDiameter.toFixed(3)); weights.push(currentWeight); relatedDimensions.push(currentDiameter * 1000); // Show in mm } } if (weights.length === 0) { // If base diameter is 0 or too small, use default increments for (var i = 1; i <= 10; i++) { var currentDiameter = i * 0.01; // 10mm increments var currentRadius = currentDiameter / 2; var currentVolume; if (selectedSteelType === 'bar' && baseWallThickness === 0) { // Solid bar currentVolume = Math.PI * Math.pow(currentRadius, 2) * baseLength; } else { // Tube var currentInnerRadius = currentRadius – baseWallThickness; if (currentInnerRadius 0 ? baseThickness.toFixed(4) : baseDiameterOrSide.toFixed(3)); if (currentIndex === -1 && weightValue > 0) { labels.push(baseThickness > 0 ? baseThickness.toFixed(4) : baseDiameterOrSide.toFixed(3)); weights.push(weightValue); relatedDimensions.push(parseFloat(currentLabel)); } else if (weightValue > 0) { weights[currentIndex] = weightValue; // Update if exists } weightChartInstance = new Chart(ctx, { type: 'line', data: { labels: labels, datasets: [{ label: 'Corten Steel Weight (kg)', data: weights, borderColor: 'var(–primary-color)', backgroundColor: 'rgba(0, 74, 153, 0.2)', fill: true, tension: 0.1 }, { label: chartDimensionLabel.replace(' (m)', "), // Clean label data: relatedDimensions, // Using dimensions for the second series to show correlation borderColor: 'var(–success-color)', backgroundColor: 'rgba(40, 167, 69, 0.2)', fill: false, tension: 0.1, yAxisID: 'y1', // Assign to a secondary Y-axis if needed, or just show alongside hidden: true // Hide this series by default unless needed for comparison }] }, options: { responsive: true, maintainAspectRatio: true, plugins: { title: { display: true, text: 'Weight vs. ' + chartDimensionLabel.replace(' (m)', ") + ' Variation', color: 'var(–primary-color)', font: { size: 16 } }, legend: { display: true, position: 'top', } }, scales: { x: { title: { display: true, text: chartDimensionLabel, color: '#444' }, ticks: { // auto Skip } }, y: { title: { display: true, text: 'Weight (kg)', color: 'var(–primary-color)' }, beginAtZero: true } // Optional: Add a second Y-axis if showing dimensions here meaningfully // y1: { // type: 'linear', // position: 'right', // title: { // display: true, // text: chartDimensionLabel.replace(' (m)', "), // color: 'var(–success-color)' // }, // beginAtZero: true // } } } }); } function clearChart() { if (weightChartInstance) { weightChartInstance.destroy(); weightChartInstance = null; } if (chartCanvas) { var ctx = chartCanvas.getContext('2d'); ctx.clearRect(0, 0, chartCanvas.width, chartCanvas.height); } } // Initialize chart context and potentially draw a placeholder/initial state document.addEventListener('DOMContentLoaded', function() { // Set initial state for calculator UI updateSteelProperties(); // Initialize chart canvas size chartCanvas.width = chartCanvas.offsetWidth; chartCanvas.height = chartCanvas.offsetHeight; // Initial calculation on load if default values were present calculateWeight(); // Add event listeners for all relevant inputs to trigger recalculation document.getElementById('steelType').addEventListener('change', calculateWeight); document.getElementById('length').addEventListener('input', calculateWeight); document.getElementById('width').addEventListener('input', calculateWeight); document.getElementById('thickness').addEventListener('input', calculateWeight); document.getElementById('barTubeLength').addEventListener('input', calculateWeight); document.getElementById('barTubeDiameterOrSide').addEventListener('input', calculateWeight); document.getElementById('barTubeWallThickness').addEventListener('input', calculateWeight); // FAQ toggling var faqItems = document.querySelectorAll('.faq-item strong'); for (var i = 0; i < faqItems.length; i++) { faqItems[i].addEventListener('click', function() { var parent = this.parentElement; parent.classList.toggle('visible'); }); } });

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