Monel 400 Weight Calculator

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Monel 400 Weight Calculator

Accurate Weight Calculations for Monel 400 Alloys

Monel 400 Weight Calculator

Rod Plate Sheet Pipe Tube Bar Flat Bar Square Bar
Select the form of Monel 400.
Enter the diameter in inches.
Enter the thickness in inches.
Enter the width in inches.
Enter the length in inches.
Pounds (lbs) Kilograms (kg)
Select the desired unit for the calculated weight.

Calculation Results

Estimated Weight:
Volume:
Cubic inches
Density Used:
lbs/in³
Material Form:
Formula Used: Weight = Volume × Density. Volume calculation varies by shape (e.g., Cylinder: πr²h, Rectangle: l×w×t).

Weight vs. Dimension Variation

Comparing weight for different lengths at a constant width/diameter.

Monel 400 Properties
Property Value (Imperial) Value (Metric)
Density (Nominal) 0.303 lbs/in³ 8.38 g/cm³
Melting Point 2372 – 2460 °F 1300 – 1350 °C
Tensile Strength (min) 70 ksi 485 MPa
Yield Strength (min) 25 ksi 170 MPa

What is a Monel 400 Weight Calculator?

A Monel 400 weight calculator is a specialized tool designed to accurately estimate the mass of Monel 400 alloy components based on their dimensions and specific form (e.g., rod, plate, pipe). Monel 400 is a high-performance nickel-copper alloy renowned for its exceptional corrosion resistance, particularly in marine environments, and its strength over a wide temperature range. This calculator simplifies the process of determining the weight of fabricated or raw Monel 400 parts, which is crucial for material procurement, project budgeting, shipping calculations, and structural integrity assessments.

Who should use it: Engineers, procurement specialists, fabricators, project managers, and anyone involved in projects utilizing Monel 400 will find this calculator invaluable. Whether you're ordering custom components, planning a large-scale installation, or simply need to verify material quantities, this tool provides quick and reliable weight estimations.

Common misconceptions: A common misconception is that all metal weight calculators are the same. However, the specific density of the alloy is paramount. Monel 400 has a unique density (approximately 0.303 lbs/in³ or 8.38 g/cm³), distinct from other metals like stainless steel or aluminum. Another misconception is that simple geometric formulas always suffice; the calculator must account for various shapes and their specific volume formulas, as well as the chosen unit of measurement.

Monel 400 Weight Calculator Formula and Mathematical Explanation

The fundamental principle behind the Monel 400 weight calculator is the relationship between volume, density, and mass. The formula is straightforward:

Weight = Volume × Density

However, the complexity lies in accurately calculating the Volume, which depends entirely on the shape of the Monel 400 component.

Step-by-Step Derivation:

  1. Determine Material Shape: The first step is identifying the geometric form of the Monel 400 (e.g., rod, plate, pipe, sheet).
  2. Measure Dimensions: Accurately measure all relevant dimensions (e.g., diameter, length, width, thickness) in a consistent unit, typically inches for imperial calculations.
  3. Calculate Volume: Apply the appropriate geometric volume formula based on the shape.
    • Rod/Bar/Tube (Cylindrical): Volume = π × (Diameter/2)² × Length
    • Plate/Sheet/Flat Bar (Rectangular Prism): Volume = Length × Width × Thickness
    • Square Bar: Volume = Side² × Length
  4. Apply Alloy Density: Use the established nominal density of Monel 400. The standard density is approximately 0.303 pounds per cubic inch (lbs/in³).
  5. Calculate Weight: Multiply the calculated volume by the density. Weight = Volume (in³) × Density (lbs/in³).
  6. Unit Conversion: If required, convert the final weight from pounds to kilograms (1 lb ≈ 0.453592 kg).

Variable Explanations:

Variable Meaning Unit (Typical) Typical Range
Diameter (D) The external diameter of a round component (rod, pipe, tube). Inches (in) 0.125 in – 24 in+
Thickness (T) The thickness of a flat component (plate, sheet). Inches (in) 0.0625 in – 6 in+
Width (W) The width of a flat component (plate, sheet, flat bar). Inches (in) 1 in – 72 in+
Length (L) The linear dimension of the component. Inches (in) 1 in – 144 in+
Radius (r) Half of the diameter for round components. r = D/2. Inches (in) 0.0625 in – 12 in+
Volume (V) The three-dimensional space occupied by the component. Cubic Inches (in³) Calculated
Density (ρ) Mass per unit volume of Monel 400 alloy. lbs/in³ Nominal: 0.303
Weight (W) The mass of the Monel 400 component. Pounds (lbs) or Kilograms (kg) Calculated

The calculator uses these principles, converting dimensions to cubic inches to calculate volume, then multiplying by the standard density of Monel 400 (0.303 lbs/in³) to determine the weight in pounds. It can then convert this to kilograms if selected.

Practical Examples (Real-World Use Cases)

Understanding the practical application of the Monel 400 weight calculator is key. Here are two examples:

Example 1: Calculating Weight for a Marine Propeller Shaft Component

A marine engineering firm needs to fabricate a solid Monel 400 shaft component with a diameter of 8 inches and a length of 48 inches. They need to know the weight for shipping and handling logistics.

  • Inputs:
    • Material Shape: Rod
    • Diameter (dimension1): 8 inches
    • Length (length): 48 inches
    • Unit of Result: Pounds (lbs)
  • Calculation:
    • Radius (r) = Diameter / 2 = 8 in / 2 = 4 in
    • Volume (V) = π × r² × Length = π × (4 in)² × 48 in ≈ 3.14159 × 16 in² × 48 in ≈ 2412.74 in³
    • Weight = Volume × Density = 2412.74 in³ × 0.303 lbs/in³ ≈ 731.16 lbs
  • Outputs:
    • Estimated Weight: 731.16 lbs
    • Volume: 2412.74 in³
    • Density Used: 0.303 lbs/in³
    • Material Form: Rod

Interpretation: The firm knows this specific shaft component weighs approximately 731 pounds. This information is vital for planning crane lifts, transport vehicle capacity, and ensuring the structural design can accommodate this load.

Example 2: Estimating Weight for a Corrosion-Resistant Plate

A chemical processing plant requires a Monel 400 plate for a new tank lining. The plate measures 60 inches in length, 36 inches in width, and is 0.5 inches thick. They need the weight in kilograms.

  • Inputs:
    • Material Shape: Plate
    • Length (length): 60 inches
    • Width (width): 36 inches
    • Thickness (dimension2): 0.5 inches
    • Unit of Result: Kilograms (kg)
  • Calculation:
    • Volume (V) = Length × Width × Thickness = 60 in × 36 in × 0.5 in = 1080 in³
    • Weight (lbs) = Volume × Density = 1080 in³ × 0.303 lbs/in³ ≈ 327.24 lbs
    • Weight (kg) = Weight (lbs) × 0.453592 ≈ 327.24 lbs × 0.453592 kg/lb ≈ 148.43 kg
  • Outputs:
    • Estimated Weight: 148.43 kg
    • Volume: 1080 in³
    • Density Used: 0.303 lbs/in³
    • Material Form: Plate

Interpretation: The plant can accurately budget for the material cost and shipping, knowing the plate weighs approximately 148.43 kg. This weight is also considered when designing the support structure for the tank.

How to Use This Monel 400 Weight Calculator

Using this Monel 400 weight calculator is designed to be intuitive and straightforward. Follow these steps:

  1. Select Material Shape: Choose the specific form of Monel 400 you are working with from the dropdown menu (e.g., Rod, Plate, Pipe, Sheet). This action will adjust the visible input fields to match the required dimensions for that shape.
  2. Enter Dimensions: Input the correct measurements for your Monel 400 component. Ensure you use the specified units (inches for dimensions). Helper text will guide you on what each input field represents for the selected shape.
  3. Choose Output Unit: Select your preferred unit for the final weight calculation (Pounds or Kilograms).
  4. Calculate: Click the "Calculate Weight" button. The calculator will process your inputs using the appropriate geometric formula and the standard density of Monel 400.

How to Read Results:

The results section will display:

  • Estimated Weight: This is the primary, highlighted result showing the total calculated weight of your Monel 400 component in your chosen unit.
  • Volume: Displays the calculated volume in cubic inches. This intermediate value is crucial for understanding the material's bulk.
  • Density Used: Confirms the standard density value (0.303 lbs/in³) applied in the calculation.
  • Material Form: Reaffirms the shape selected for the calculation.

Decision-Making Guidance:

Use the calculated weight to inform critical decisions:

  • Procurement: Ensure you are ordering the correct amount of material.
  • Budgeting: Estimate costs associated with material purchase, transportation, and handling.
  • Logistics: Plan shipping methods, vehicle capacity, and required lifting equipment.
  • Engineering: Verify if structural supports can handle the component's weight.
  • Inventory: Keep accurate records of material stock.

The "Reset" button clears all fields and restores default values, allowing you to quickly perform new calculations. The "Copy Results" button copies all calculated values and key assumptions to your clipboard for easy pasting into documents or reports.

Key Factors That Affect Monel 400 Weight Results

While the Monel 400 weight calculator provides a precise estimate based on geometric formulas and standard density, several real-world factors can subtly influence the actual weight of a component. Understanding these factors helps in refining estimations for critical applications:

  1. Dimensional Tolerances: Manufacturing processes always have slight variations. Actual dimensions (length, width, thickness, diameter) may deviate slightly from specified values due to manufacturing tolerances. A component manufactured slightly larger in dimension will weigh more, and vice versa. This calculator assumes nominal dimensions.
  2. Hollow Sections & Internal Features: The calculator is primarily designed for solid forms. If the Monel 400 component is hollow (like a pipe or tube with a specific wall thickness) or has complex internal machining, the calculated weight will be higher than the actual weight. For pipes and tubes, using an internal diameter or wall thickness input would be more accurate, which this calculator supports through different shape selections.
  3. Alloy Composition Variations: While Monel 400 has a defined composition range, slight variations in the proportions of nickel, copper, and other elements can lead to minor density differences. However, for practical purposes, the nominal density of 0.303 lbs/in³ is highly representative.
  4. Surface Finish and Coatings: Minor weight differences can arise from the surface finish (e.g., polished vs. mill finish) or if the component has a coating (e.g., plating, paint). These are typically negligible for bulk weight calculations unless the coating is substantial.
  5. Temperature Effects: Metals expand when heated and contract when cooled. While Monel 400's thermal expansion coefficient is relatively low, significant temperature differences between measurement and reference (e.g., measuring cold and calculating for a hot application) could theoretically alter dimensions slightly. This effect is usually minimal for weight calculations.
  6. Machining Allowances: If the calculated weight is for a raw material that will be subsequently machined, the initial weight estimate will be higher than the final finished part weight. It's important to distinguish between the weight of the raw stock and the weight of the final component after fabrication.

For most standard applications, the calculator provides a sufficiently accurate estimate. However, for highly critical or highly precise applications, consulting material specifications and considering these factors might be necessary.

Frequently Asked Questions (FAQ)

  • Q1: What is the standard density of Monel 400 used in this calculator? A1: This calculator uses the nominal density of Monel 400, which is approximately 0.303 pounds per cubic inch (lbs/in³) or 8.38 grams per cubic centimeter (g/cm³).
  • Q2: Can this calculator handle non-standard shapes like custom castings? A2: No, this calculator is designed for common geometric shapes (rod, plate, sheet, pipe, tube, bar). For custom castings or complex geometries, you would need to calculate the volume separately and then use the density to find the weight.
  • Q3: What units does the calculator accept for dimensions? A3: The calculator accepts dimensions primarily in inches (in). Ensure all your measurements are converted to inches before entering them for accurate results.
  • Q4: Does the calculator account for wall thickness in pipes and tubes? A4: Yes, when you select "Pipe" or "Tube," the calculator implicitly assumes a solid form or uses simplified volume calculation. For precise calculations involving specific wall thicknesses, you'd calculate the volume of the outer cylinder and subtract the volume of the inner hollow cylinder. However, the default shapes are often sufficient for initial estimates.
  • Q5: How accurate is the weight calculation? A5: The calculation is highly accurate for solid components based on nominal dimensions and standard density. Real-world variations due to tolerances, coatings, or internal features might cause slight discrepancies.
  • Q6: Can I calculate the weight of a forged Monel 400 part? A6: If the forged part approximates a standard shape (like a disc or a block), you can use the relevant shape in the calculator. For irregular forged shapes, you'll need to determine the volume through other means (e.g., CAD model) and then apply the density.
  • Q7: What is the difference between Monel 400 and other alloys like Inconel or Hastelloy in terms of weight? A7: Different alloys have different densities. Monel 400 (Nickel-Copper) has a density of ~0.303 lbs/in³. Inconel (Nickel-Chromium-Iron) alloys typically range from 0.300-0.315 lbs/in³, and Hastelloy (Nickel-Molybdenum-Chromium) alloys can range from 0.300-0.330 lbs/in³. The calculator is specific to Monel 400's density.
  • Q8: Does the "Copy Results" button copy the formula explanation? A8: No, the "Copy Results" button copies the main result, intermediate values (Volume, Density, Form), and key assumptions (like the density value used). It does not copy the textual explanations or the table data.

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Explore other resources that complement your understanding of material properties and calculations:

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document.querySelector('#dimension1Group .helper-text').innerText = 'Enter the diameter in inches.'; document.querySelector('#dimension2Group label').innerText = 'Thickness (for Plate/Sheet):'; document.querySelector('#dimension2Group .helper-text').innerText = 'Enter the thickness in inches.'; document.querySelector('#widthGroup label').innerText = 'Width (for Plate/Sheet/Flat Bar):'; document.querySelector('#widthGroup .helper-text').innerText = 'Enter the width in inches.'; if (shape === 'rod' || shape === 'pipe' || shape === 'tube') { document.getElementById('dimension1Group').style.display = 'flex'; // Use flex to maintain structure } else if (shape === 'plate' || shape === 'sheet') { document.getElementById('dimension1Group').style.display = 'flex'; // Diameter becomes thickness for plate/sheet document.querySelector('#dimension1Group label').innerText = 'Thickness (for Plate/Sheet):'; document.querySelector('#dimension1Group .helper-text').innerText = 'Enter the thickness in inches.'; document.getElementById('widthGroup').style.display = 'flex'; document.getElementById('dimension2Group').style.display = 'none'; // Thickness is handled by dimension1 in this case } else if (shape === 'bar' || shape === 'flatBar') { document.getElementById('dimension1Group').style.display = 'flex'; // Diameter becomes thickness for bars document.querySelector('#dimension1Group label').innerText = 'Thickness (for Bar/Flat Bar):'; document.querySelector('#dimension1Group .helper-text').innerText = 'Enter the thickness in inches.'; document.getElementById('widthGroup').style.display = 'flex'; } else if (shape === 'squareBar') { document.getElementById('dimension1Group').style.display = 'flex'; // Diameter becomes side length for square bar document.querySelector('#dimension1Group label').innerText = 'Side Length (for Square Bar):'; document.querySelector('#dimension1Group .helper-text').innerText = 'Enter the side length in inches.'; document.getElementById('widthGroup').style.display = 'none'; // Width is same as side length } calculateMonelWeight(); // Recalculate if shape changes } function validateInput(value, min, max, fieldName, errorId) { if (value === null || value === undefined) { setErrorMessage(errorId, `${fieldName} is required.`); return false; } if (value max) { setErrorMessage(errorId, `${fieldName} cannot exceed ${max}.`); return false; } setErrorMessage(errorId, "); return true; } function calculateMonelWeight() { var shape = document.getElementById('materialShape').value; var unit = document.getElementById('unit').value; var dim1 = getInputValue('dimension1'); var dim2 = getInputValue('dimension2'); // Only used for plate/sheet thickness if dimension1 is diameter var width = getInputValue('width'); var length = getInputValue('length'); var isValid = true; var volume = 0; // Reset all errors first setErrorMessage('dimension1Error', "); setErrorMessage('dimension2Error', "); setErrorMessage('widthError', "); setErrorMessage('lengthError', "); if (shape === 'rod' || shape === 'pipe' || shape === 'tube') { if (!validateInput(dim1, 0.001, null, 'Diameter', 'dimension1Error')) isValid = false; if (!validateInput(length, 0.001, null, 'Length', 'lengthError')) isValid = false; if (isValid) { var radius = dim1 / 2; volume = Math.PI * Math.pow(radius, 2) * length; } } else if (shape === 'plate' || shape === 'sheet') { // For plate/sheet, dim1 is thickness, width is width, length is length if (!validateInput(dim1, 0.001, null, 'Thickness', 'dimension1Error')) isValid = false; if (!validateInput(width, 0.001, null, 'Width', 'widthError')) isValid = false; if (!validateInput(length, 0.001, null, 'Length', 'lengthError')) isValid = false; if (isValid) { volume = dim1 * width * length; } } else if (shape === 'bar') { // Assuming a rectangular bar for simplicity // dim1 is thickness, width is width, length is length if (!validateInput(dim1, 0.001, null, 'Thickness', 'dimension1Error')) isValid = false; if (!validateInput(width, 0.001, null, 'Width', 'widthError')) isValid = false; if (!validateInput(length, 0.001, null, 'Length', 'lengthError')) isValid = false; if (isValid) { volume = dim1 * width * length; } } else if (shape === 'flatBar') { // dim1 is thickness, width is width, length is length if (!validateInput(dim1, 0.001, null, 'Thickness', 'dimension1Error')) isValid = false; if (!validateInput(width, 0.001, null, 'Width', 'widthError')) isValid = false; if (!validateInput(length, 0.001, null, 'Length', 'lengthError')) isValid = false; if (isValid) { volume = dim1 * width * length; } } else if (shape === 'squareBar') { // dim1 is side length if (!validateInput(dim1, 0.001, null, 'Side Length', 'dimension1Error')) isValid = false; if (!validateInput(length, 0.001, null, 'Length', 'lengthError')) isValid = false; if (isValid) { volume = Math.pow(dim1, 2) * length; } } var calculatedWeight = 0; var displayDensity = "; if (isValid) { var weightInLbs = volume * densityLbsPerCuIn; if (unit === 'lbs') { calculatedWeight = weightInLbs; displayDensity = densityLbsPerCuIn.toFixed(3); } else { calculatedWeight = weightInLbs * lbsToKgConversion; displayDensity = (densityLbsPerCuIn * lbsToKgConversion / Math.pow(inchToCmConversion, 3)).toFixed(3); // Approx kg/cm³ } document.getElementById('primaryResult').innerText = calculatedWeight.toFixed(2) + ' ' + unit; document.getElementById('volumeResult').innerText = volume.toFixed(2); document.getElementById('densityResult').innerText = displayDensity; document.getElementById('shapeResult').innerText = shape.charAt(0).toUpperCase() + shape.slice(1); // Capitalize shape name updateChart(shape, dim1, width, length, unit); } else { document.getElementById('primaryResult').innerText = '–'; document.getElementById('volumeResult').innerText = '–'; document.getElementById('densityResult').innerText = '–'; document.getElementById('shapeResult').innerText = '–'; clearChart(); } } function resetForm() { document.getElementById('materialShape').value = 'rod'; document.getElementById('dimension1').value = '1'; document.getElementById('dimension2').value = '0.25'; document.getElementById('width').value = '12'; document.getElementById('length').value = '36'; document.getElementById('unit').value = 'lbs'; // Reset error messages setErrorMessage('dimension1Error', "); setErrorMessage('dimension2Error', "); setErrorMessage('widthError', "); setErrorMessage('lengthError', "); updateInputVisibility(); calculateMonelWeight(); document.getElementById('copyMessage').style.display = 'none'; } function copyResults() { var primaryResult = document.getElementById('primaryResult').innerText; var volumeResult = document.getElementById('volumeResult').innerText; var densityResult = document.getElementById('densityResult').innerText; var shapeResult = document.getElementById('shapeResult').innerText; var unit = document.getElementById('unit').value; var shape = document.getElementById('materialShape').value; var shapeLabel = shape.charAt(0).toUpperCase() + shape.slice(1); var resultText = `Monel 400 Weight Calculation Results:\n\n`; resultText += `Shape: ${shapeLabel}\n`; resultText += `Estimated Weight: ${primaryResult}\n`; resultText += `Volume: ${volumeResult} cubic inches\n`; resultText += `Density Used: ${densityResult} ${unit === 'lbs' ? 'lbs/in³' : 'kg/cm³'}\n`; resultText += `\nKey Assumptions:\n`; resultText += `- Alloy: Monel 400\n`; resultText += `- Nominal Density: 0.303 lbs/in³\n`; try { navigator.clipboard.writeText(resultText).then(function() { var copyMessage = document.getElementById('copyMessage'); copyMessage.innerText = 'Results copied successfully!'; copyMessage.style.display = 'block'; setTimeout(function() { copyMessage.style.display = 'none'; }, 3000); }).catch(function(err) { console.error('Failed to copy results: ', err); var copyMessage = document.getElementById('copyMessage'); copyMessage.innerText = 'Failed to copy. Please copy manually.'; copyMessage.style.display = 'block'; copyMessage.style.color = '#dc3545'; }); } catch (e) { console.error('Clipboard API not available: ', e); var copyMessage = document.getElementById('copyMessage'); copyMessage.innerText = 'Clipboard API not supported. Please copy manually.'; copyMessage.style.display = 'block'; copyMessage.style.color = '#dc3545'; } } // Charting Logic var myChart = null; // To hold the chart instance function updateChart(shape, dim1, width, length, unit) { var ctx = document.getElementById('weightChart').getContext('2d'); if (myChart) { myChart.destroy(); // Destroy previous chart if it exists } var labels = []; var dataPoints = []; var referenceDimension = 0; // e.g., length for rod, width for plate var fixedDimension = 0; // e.g., diameter for rod, thickness for plate var scaleFactor = 1; // To control the range of the x-axis // Determine the main variable dimension and the fixed dimensions based on shape if (shape === 'rod' || shape === 'pipe' || shape === 'tube') { referenceDimension = length; fixedDimension = dim1; // Diameter labels = [referenceDimension * 0.5, referenceDimension, referenceDimension * 1.5, referenceDimension * 2]; // Vary length scaleFactor = 2; document.querySelector('#weightChart').nextElementSibling.innerText = 'Comparing weight for different lengths (at fixed diameter) based on your input.'; } else if (shape === 'plate' || shape === 'sheet') { referenceDimension = length; fixedDimension = width; // Width labels = [referenceDimension * 0.5, referenceDimension, referenceDimension * 1.5, referenceDimension * 2]; // Vary length scaleFactor = 2; document.querySelector('#weightChart').nextElementSibling.innerText = 'Comparing weight for different lengths (at fixed width and thickness) based on your inputs.'; } else if (shape === 'bar' || shape === 'flatBar') { referenceDimension = length; fixedDimension = width; // Width labels = [referenceDimension * 0.5, referenceDimension, referenceDimension * 1.5, referenceDimension * 2]; // Vary length scaleFactor = 2; document.querySelector('#weightChart').nextElementSibling.innerText = 'Comparing weight for different lengths (at fixed width and thickness) based on your inputs.'; } else if (shape === 'squareBar') { referenceDimension = length; fixedDimension = dim1; // Side length labels = [referenceDimension * 0.5, referenceDimension, referenceDimension * 1.5, referenceDimension * 2]; // Vary length scaleFactor = 2; document.querySelector('#weightChart').nextElementSibling.innerText = 'Comparing weight for different lengths (at fixed side length) based on your inputs.'; } // Calculate weights for different lengths for (var i = 0; i < labels.length; i++) { var currentLength = labels[i]; var currentVolume = 0; if (shape === 'rod' || shape === 'pipe' || shape === 'tube') { var radius = fixedDimension / 2; currentVolume = Math.PI * Math.pow(radius, 2) * currentLength; } else if (shape === 'plate' || shape === 'sheet') { currentVolume = dim1 * fixedDimension * currentLength; // dim1 is thickness here } else if (shape === 'bar' || shape === 'flatBar') { currentVolume = dim1 * fixedDimension * currentLength; // dim1 is thickness here } else if (shape === 'squareBar') { currentVolume = Math.pow(fixedDimension, 2) * currentLength; } var weight = currentVolume * densityLbsPerCuIn; if (unit === 'kg') { weight *= lbsToKgConversion; } dataPoints.push(weight); } // Adjust chart labels if width/thickness were the primary dimension // For now, focus on varying length as the x-axis. myChart = new Chart(ctx, { type: 'line', data: { labels: labels.map(function(val) { return val.toFixed(1); }), datasets: [{ label: 'Estimated Weight (' + unit + ')', data: dataPoints.map(function(val) { return val.toFixed(2); }), borderColor: 'rgb(0, 74, 153)', backgroundColor: 'rgba(0, 74, 153, 0.1)', fill: true, tension: 0.1 }] }, options: { responsive: true, maintainAspectRatio: false, scales: { y: { beginAtZero: true, title: { display: true, text: 'Weight (' + unit + ')' } }, x: { title: { display: true, text: 'Length (in)' } } }, plugins: { title: { display: true, text: 'Weight Variation vs. Length' }, tooltip: { callbacks: { label: function(context) { var label = context.dataset.label || ''; if (label) { label += ': '; } if (context.parsed.y !== null) { label += context.parsed.y + ' ' + unit; } return label; } } } } } }); } function clearChart() { var ctx = document.getElementById('weightChart').getContext('2d'); if (myChart) { myChart.destroy(); myChart = null; } // Optionally clear canvas or leave it blank ctx.clearRect(0, 0, ctx.canvas.width, ctx.canvas.height); } // Initialize the form on load window.onload = function() { updateInputVisibility(); calculateMonelWeight(); // Calculate initial values based on defaults };

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