Bodybuilding Max Potential Calculator Weight

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Bodybuilding Max Potential Calculator Weight

Estimate your maximum potential weight for key bodybuilding exercises based on your current performance and training factors. Understand your genetic ceiling and optimize your journey.

Max Potential Weight Calculator

Your current bodyweight in kilograms.
How many years you've been training seriously and consistently.
Your one-rep maximum (1RM) for the specific exercise (e.g., Bench Press, Squat).
How many days per week you train the specific muscle group or lift.
Rate your sleep, nutrition, and stress management (1=Poor, 10=Excellent).
A multiplier reflecting your genetic predisposition for muscle and strength gain (lower=less responsive, higher=more responsive).

Your Estimated Max Potential

— kg Max Potential Weight
Potential Gain — kg
Strength Ratio
Training Efficiency Score

Formula Used: The Max Potential Weight is estimated using a multi-factor model that considers your current strength, training age, bodyweight, training frequency, recovery quality, and a genetics multiplier. The core idea is that strength potential increases with training age but plateaus based on genetics and recovery.

Potential Gain = (Base Gain Factor * Training Age ^ Exponent) * Genetics Factor
Max Potential Weight = Current Max Lift + Potential Gain
Strength Ratio = Max Potential Weight / Current Bodyweight
Training Efficiency Score = (Training Frequency * Recovery Quality) / 10

Potential Strength Progression

Estimated strength progression over training years.

Key Variables Explained

Variable Meaning Unit Typical Range
Current Bodyweight Your current mass. Influences strength-to-weight ratios. kg 50 – 150+
Years of Consistent Training Duration of dedicated training. Crucial for adaptation. Years 0.5 – 20+
Current Max Lift (1RM) Your peak performance on a single repetition. kg 20 – 500+
Training Frequency How often you train the specific lift/muscle group. Days/Week 1 – 7
Recovery Quality Overall effectiveness of sleep, nutrition, and stress management. 1-10 Scale 1 – 10
Genetics Factor Individual genetic predisposition for muscle and strength. Multiplier 0.5 – 1.5

What is Bodybuilding Max Potential Weight?

The concept of bodybuilding max potential weight refers to the theoretical maximum weight an individual can lift for a specific exercise (like the bench press, squat, or deadlift) or the maximum muscle mass they can realistically achieve, considering a multitude of biological and training factors. It's not just about how much you can lift today, but understanding the upper limits of your strength and physique development. This isn't a fixed number but rather an evolving estimate that changes with training, nutrition, recovery, and time.

Who should use it? This calculator and the underlying concept are valuable for:

  • Serious Bodybuilders and Strength Athletes: To set realistic long-term goals and track progress towards their genetic ceiling.
  • Fitness Enthusiasts: To understand how their current training habits and lifestyle impact their potential for strength and muscle gain.
  • Coaches and Trainers: To help clients set achievable targets and tailor training programs more effectively.
  • Individuals Curious about Genetics: To gauge how their natural predisposition might influence their results compared to others.

Common Misconceptions:

  • "My potential is limitless." While dedication is key, genetics, age, and biological factors impose realistic limits.
  • "I'll reach my potential quickly." Significant strength and muscle gains often slow down considerably after the initial beginner phase.
  • "Potential is only about genetics." Training intensity, consistency, nutrition, and recovery play equally, if not more, significant roles, especially in the early to intermediate stages.
  • "The calculator gives an exact number." This is an estimation tool. Individual responses vary greatly.

Bodybuilding Max Potential Weight Formula and Mathematical Explanation

Estimating bodybuilding max potential weight involves a complex interplay of factors. While no single formula can perfectly predict an individual's absolute limit, a practical approach combines established principles of strength progression with individual variables. The formula used in this calculator aims to provide a reasonable estimate by considering:

  1. Current Strength Level: Your starting point is crucial.
  2. Training Age: The longer you train consistently, the more potential you unlock, though gains slow over time.
  3. Bodyweight: Influences strength-to-weight ratios and potential for muscle mass.
  4. Training Frequency & Recovery: Optimized training and recovery are essential for adaptation and growth.
  5. Genetics: A significant, albeit hard-to-quantify, factor influencing muscle fiber type, hormonal response, and structural limits.

The Calculation Breakdown:

1. Potential Gain Calculation: This estimates how much more weight you might be able to lift beyond your current maximum. It's modeled as:
Potential Gain = (Base Gain Factor * (Training Age ^ Exponent)) * Genetics Factor
Here, the Base Gain Factor and Exponent are constants derived from general strength progression models (e.g., gains are rapid initially and slow down). The Training Age is raised to a power less than 1 (e.g., 0.5 for square root) to reflect diminishing returns. The Genetics Factor scales this potential gain up or down.

2. Max Potential Weight: This is the sum of your current strength and the estimated potential gain:
Max Potential Weight = Current Max Lift + Potential Gain

3. Strength Ratio: A common metric to compare strength relative to body size:
Strength Ratio = Max Potential Weight / Current Bodyweight

4. Training Efficiency Score: A simple score reflecting how well your training and recovery habits support progress:
Training Efficiency Score = (Training Frequency * Recovery Quality) / 10

Variables Table

Variable Meaning Unit Typical Range
Current Bodyweight Your current mass. Influences strength-to-weight ratios and potential for muscle mass. kg 50 – 150+
Years of Consistent Training Duration of dedicated training. Crucial for adaptation and reaching higher strength levels. Years 0.5 – 20+
Current Max Lift (1RM) Your peak performance on a single repetition for a specific exercise. The baseline for potential calculation. kg 20 – 500+
Training Frequency How often you train the specific lift or muscle group per week. Higher frequency can accelerate progress if recovery allows. Days/Week 1 – 7
Recovery Quality Subjective rating (1-10) of sleep, nutrition, and stress management. Crucial for muscle repair and growth. 1-10 Scale 1 – 10
Genetics Factor A multiplier (0.5-1.5) reflecting individual genetic predisposition for muscle hypertrophy and strength gains. Lower values indicate less genetic potential, higher values indicate more. Multiplier 0.5 – 1.5

Practical Examples (Real-World Use Cases)

Understanding bodybuilding max potential weight is best illustrated with examples. Let's see how different individuals might fare:

Example 1: The Dedicated Intermediate Lifter

Scenario: Alex has been training consistently for 5 years, focusing on strength. He weighs 85kg and his current bench press 1RM is 120kg. He trains chest twice a week and rates his recovery as good (7/10). He believes his genetics are average (1.0).

Inputs:

  • Current Bodyweight: 85 kg
  • Years of Consistent Training: 5
  • Current Max Lift: 120 kg
  • Training Frequency: 4 (assuming chest is trained twice a week, and this is a general frequency multiplier)
  • Recovery Quality: 7
  • Genetics Factor: 1.0

Calculator Output (Illustrative):

  • Max Potential Weight: 175 kg
  • Potential Gain: 55 kg
  • Strength Ratio: 2.06
  • Training Efficiency Score: 2.8

Interpretation: Alex has significant potential to increase his bench press. The calculator suggests he could potentially reach around 175kg. His strength ratio of 2.06 indicates he's strong relative to his bodyweight. The lower training efficiency score suggests that improving recovery or optimizing frequency could yield better results.

Example 2: The Genetic Freak with Less Training

Scenario: Ben is naturally gifted, weighing 100kg. He's only been training seriously for 2 years but has already hit a 150kg bench press 1RM. He trains chest once a week but has excellent recovery (9/10) and knows he responds exceptionally well to training (Genetics Factor: 1.3).

Inputs:

  • Current Bodyweight: 100 kg
  • Years of Consistent Training: 2
  • Current Max Lift: 150 kg
  • Training Frequency: 1 (assuming chest is trained once a week)
  • Recovery Quality: 9
  • Genetics Factor: 1.3

Calculator Output (Illustrative):

  • Max Potential Weight: 210 kg
  • Potential Gain: 60 kg
  • Strength Ratio: 2.10
  • Training Efficiency Score: 0.9

Interpretation: Despite less training experience, Ben's high genetics and recovery allow for a high potential estimate (210kg). His strength ratio is comparable to Alex's. However, his low training frequency results in a very low training efficiency score, indicating that increasing training frequency (if recovery can handle it) could significantly boost his progress towards his potential. This highlights how different factors contribute to reaching bodybuilding max potential weight.

How to Use This Bodybuilding Max Potential Calculator

Using the bodybuilding max potential calculator is straightforward. Follow these steps to get your personalized estimate:

  1. Input Your Current Bodyweight: Enter your weight in kilograms. This helps contextualize strength relative to size.
  2. Enter Years of Consistent Training: Be honest about how long you've been training seriously and consistently. This is a key factor in long-term adaptation.
  3. Input Your Current Max Lift (1RM): This is the most critical input. It should be your true one-rep maximum for the specific exercise you're analyzing (e.g., Squat, Bench Press, Deadlift). If you don't know your exact 1RM, use a reliable estimate from a recent heavy set.
  4. Specify Training Frequency: Enter how many days per week you train the relevant muscle group or perform the specific lift.
  5. Rate Your Recovery Quality: On a scale of 1 to 10, rate how well you typically sleep, manage stress, and adhere to a nutritious diet. Higher scores mean better recovery.
  6. Adjust the Genetics Factor: Use the slider or input value between 0.5 and 1.5. 1.0 represents average genetic potential. Values below 1.0 suggest lower potential, while values above 1.0 suggest higher potential for muscle and strength gains. This is subjective but can be adjusted based on your progress rate.
  7. Click "Calculate Max Potential": The calculator will process your inputs and display your estimated maximum potential weight.

How to Read Results:

  • Primary Result (Max Potential Weight): This is the main output – the estimated maximum weight you could potentially lift.
  • Potential Gain: The difference between your estimated max potential and your current max lift.
  • Strength Ratio: Your estimated max potential weight divided by your current bodyweight. Higher ratios indicate greater relative strength.
  • Training Efficiency Score: A score reflecting how well your current training frequency and recovery habits are supporting progress. Higher is generally better.

Decision-Making Guidance:

  • If your potential gain is very high, it suggests you have significant room for improvement. Focus on consistency, progressive overload, and optimizing recovery.
  • If your training efficiency score is low, consider if you can safely increase training frequency or improve your sleep, nutrition, and stress management.
  • Use this as a guide, not a definitive limit. Your actual potential may vary. Focus on consistent effort and smart training.

Key Factors That Affect Bodybuilding Max Potential Results

Several factors influence your bodybuilding max potential weight and overall physique development. Understanding these can help you optimize your training and nutrition strategies:

  1. Genetics: This is arguably the most significant long-term factor. It influences muscle fiber type distribution (fast-twitch vs. slow-twitch), bone structure, tendon insertion points, hormonal response to training, and the inherent capacity for muscle hypertrophy and strength gains. Some individuals are naturally predisposed to build muscle and strength faster and reach higher peaks.
  2. Training Age and Consistency: The longer you have trained consistently and progressively, the closer you are likely to be to your natural potential. Beginners experience rapid "newbie gains," while advanced lifters see slower, harder-won progress. Consistency is paramount; sporadic training yields minimal results.
  3. Nutrition: Adequate protein intake is essential for muscle repair and growth. Sufficient calories (a surplus for muscle gain) are needed to fuel intense workouts and provide the building blocks for new tissue. Micronutrients also play a vital role in overall health and recovery. Poor nutrition will cap your potential.
  4. Recovery (Sleep & Stress Management): Muscle growth and strength adaptation occur during rest, not during training. Quality sleep (7-9 hours) is critical for hormone regulation (like growth hormone and testosterone) and tissue repair. Chronic stress elevates cortisol, which can hinder muscle growth and increase fat storage.
  5. Training Program Design: The effectiveness of your training program is crucial. This includes principles like progressive overload (gradually increasing demands), proper exercise selection, appropriate volume and intensity, and adequate rest periods between sets and workouts. A poorly designed program will limit progress.
  6. Age: While training can be effective at almost any age, hormonal profiles change over time. Testosterone levels naturally decline with age, which can make muscle and strength gains slower and harder to achieve compared to younger years. However, significant progress is still possible with dedicated effort.
  7. Injury History: Past injuries can affect biomechanics, limit training intensity, or even necessitate avoiding certain exercises altogether, thereby capping potential strength and development in specific areas.
  8. Hormonal Profile: Natural levels of hormones like testosterone and growth hormone play a significant role in muscle protein synthesis and recovery. While training and lifestyle can influence these, individual baseline levels vary greatly.

Frequently Asked Questions (FAQ)

Q1: Is this calculator accurate for everyone?

A: This calculator provides an estimate based on common models and your inputs. Individual responses to training vary significantly due to genetics, lifestyle, and adherence to the program. It's a tool for guidance, not a definitive prediction.

Q2: What is a 'good' strength ratio?

A: A strength ratio of 1.5 to 2.0 times bodyweight for lifts like the bench press is often considered good for intermediate lifters. Elite athletes can achieve ratios of 2.5 to 3.0+ times bodyweight. For squats and deadlifts, these ratios are typically higher.

Q3: How do I improve my 'Recovery Quality' score?

A: Focus on consistent, high-quality sleep (7-9 hours), a balanced diet rich in protein and whole foods, stress reduction techniques (meditation, mindfulness), and active recovery methods like stretching or foam rolling.

Q4: Can I use this for bodybuilding physique potential, not just weightlifting?

A: While this calculator focuses on lifting potential (weight), the underlying principles of training age, genetics, recovery, and nutrition heavily influence physique development. Higher strength potential often correlates with higher muscle mass potential, but body composition (fat vs. muscle) is a separate factor.

Q5: What if my genetics factor is unknown?

A: Start with 1.0 (average). If you find you gain muscle and strength much faster or slower than peers with similar training, you can adjust this factor up or down accordingly. It's a subjective adjustment based on your observed progress rate.

Q6: Should I use my bodyweight or lean body mass in the calculator?

A: For simplicity and consistency with common strength-to-weight ratio calculations, use your total bodyweight. Lean body mass is a better indicator of muscle mass, but total bodyweight is more readily available and used in many benchmarks.

Q7: How often should I update my inputs?

A: Re-evaluate your inputs whenever you achieve a significant new personal record (PR), your bodyweight changes substantially, or you make major changes to your training or recovery habits. Aim to recalculate every 3-6 months.

Q8: Does this calculator account for different exercises?

A: Yes, but you must input the 'Current Max Lift' specific to the exercise you are analyzing (e.g., Bench Press 1RM, Squat 1RM). The potential calculated will be specific to that lift's progression.

Related Tools and Internal Resources

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var baseGainFactor = 20; // Base potential gain scaling factor var exponent = 0.45; // Diminishing returns exponent for training age function validateInput(id, min, max, errorId, isRequired = true) { var input = document.getElementById(id); var errorElement = document.getElementById(errorId); var value = parseFloat(input.value); errorElement.textContent = "; // Clear previous error if (isRequired && (input.value === null || input.value.trim() === ")) { errorElement.textContent = 'This field is required.'; return false; } if (isNaN(value)) { errorElement.textContent = 'Please enter a valid number.'; return false; } if (value max) { errorElement.textContent = 'Value cannot be greater than ' + max + '.'; return false; } return true; } function calculateMaxPotential() { // Clear all previous errors document.getElementById('currentWeightError').textContent = "; document.getElementById('trainingAgeError').textContent = "; document.getElementById('currentMaxLiftError').textContent = "; document.getElementById('trainingFrequencyError').textContent = "; document.getElementById('recoveryQualityError').textContent = "; document.getElementById('geneticsFactorError').textContent = "; // Validate inputs var isValid = true; isValid = validateInput('currentWeight', 30, 300, 'currentWeightError') && isValid; isValid = validateInput('trainingAge', 0, 50, 'trainingAgeError') && isValid; isValid = validateInput('currentMaxLift', 10, 1000, 'currentMaxLiftError') && isValid; isValid = validateInput('trainingFrequency', 1, 7, 'trainingFrequencyError') && isValid; isValid = validateInput('recoveryQuality', 1, 10, 'recoveryQualityError') && isValid; isValid = validateInput('geneticsFactor', 0.5, 1.5, 'geneticsFactorError') && isValid; if (!isValid) { return; // Stop calculation if any input is invalid } var currentWeight = parseFloat(document.getElementById('currentWeight').value); var trainingAge = parseFloat(document.getElementById('trainingAge').value); var currentMaxLift = parseFloat(document.getElementById('currentMaxLift').value); var trainingFrequency = parseFloat(document.getElementById('trainingFrequency').value); var recoveryQuality = parseFloat(document.getElementById('recoveryQuality').value); var geneticsFactor = parseFloat(document.getElementById('geneticsFactor').value); // — Calculation Logic — // Ensure training age doesn't cause issues with exponentiation if it's 0 var effectiveTrainingAge = Math.max(trainingAge, 0.1); // Use a small minimum value if training age is 0 var potentialGain = (baseGainFactor * Math.pow(effectiveTrainingAge, exponent)) * geneticsFactor; var maxPotentialWeight = currentMaxLift + potentialGain; var strengthRatio = maxPotentialWeight / currentWeight; var trainingEfficiencyScore = (trainingFrequency * recoveryQuality) / 10; // Clamp values to reasonable limits if needed (optional) maxPotentialWeight = Math.max(maxPotentialWeight, currentMaxLift); // Potential gain shouldn't be negative strengthRatio = Math.max(strengthRatio, currentMaxLift / currentWeight); // Ratio shouldn't decrease // — Display Results — document.getElementById('highlightedResult').innerHTML = maxPotentialWeight.toFixed(1) + ' kg Max Potential Weight'; document.getElementById('potentialGain').textContent = potentialGain.toFixed(1) + ' kg'; document.getElementById('strengthRatio').textContent = strengthRatio.toFixed(2); document.getElementById('trainingEfficiencyScore').textContent = trainingEfficiencyScore.toFixed(1); // Store results for copy functionality var resultsData = { "Max Potential Weight": maxPotentialWeight.toFixed(1) + " kg", "Potential Gain": potentialGain.toFixed(1) + " kg", "Strength Ratio": strengthRatio.toFixed(2), "Training Efficiency Score": trainingEfficiencyScore.toFixed(1), "Assumptions": { "Current Bodyweight": currentWeight + " kg", "Years of Consistent Training": trainingAge, "Current Max Lift (1RM)": currentMaxLift + " kg", "Training Frequency": trainingFrequency + " days/week", "Recovery Quality": recoveryQuality + "/10", "Genetics Factor": geneticsFactor } }; document.getElementById('results-data').textContent = JSON.stringify(resultsData, null, 2); // Update Chart updateChart(trainingAge, maxPotentialWeight, currentMaxLift); } function resetCalculator() { document.getElementById('currentWeight').value = 80; document.getElementById('trainingAge').value = 5; document.getElementById('currentMaxLift').value = 100; document.getElementById('trainingFrequency').value = 4; document.getElementById('recoveryQuality').value = 7; document.getElementById('geneticsFactor').value = 1.0; // Clear errors document.getElementById('currentWeightError').textContent = "; document.getElementById('trainingAgeError').textContent = "; document.getElementById('currentMaxLiftError').textContent = "; document.getElementById('trainingFrequencyError').textContent = "; document.getElementById('recoveryQualityError').textContent = "; document.getElementById('geneticsFactorError').textContent = "; // Reset results display document.getElementById('highlightedResult').innerHTML = '– kg Max Potential Weight'; document.getElementById('potentialGain').textContent = '– kg'; document.getElementById('strengthRatio').textContent = '–'; document.getElementById('trainingEfficiencyScore').textContent = '–'; document.getElementById('results-data').textContent = "; // Reset chart if (window.strengthChartInstance) { window.strengthChartInstance.destroy(); } var ctx = document.getElementById('strengthChart').getContext('2d'); ctx.clearRect(0, 0, ctx.canvas.width, ctx.canvas.height); ctx.font = "16px Segoe UI"; ctx.fillStyle = "#333"; ctx.textAlign = "center"; ctx.fillText("Enter values and click Calculate to see the chart.", ctx.canvas.width / 2, ctx.canvas.height / 2); } function copyResults() { var resultsDataString = document.getElementById('results-data').textContent; if (!resultsDataString) { alert("Please calculate the results first."); return; } try { var data = JSON.parse(resultsDataString); var textToCopy = "— Bodybuilding Max Potential Results —\n\n"; textToCopy += "Estimated Max Potential Weight: " + data["Max Potential Weight"] + "\n"; textToCopy += "Potential Gain: " + data["Potential Gain"] + "\n"; textToCopy += "Strength Ratio: " + data["Strength Ratio"] + "\n"; textToCopy += "Training Efficiency Score: " + data["Training Efficiency Score"] + "\n\n"; textToCopy += "— Key Assumptions —\n"; for (var key in data.Assumptions) { textToCopy += key + ": " + data.Assumptions[key] + "\n"; } // Use a temporary textarea to copy text var textArea = document.createElement("textarea"); textArea.value = textToCopy; textArea.style.position = "fixed"; // Avoid scrolling to bottom of page textArea.style.opacity = 0; document.body.appendChild(textArea); textArea.focus(); textArea.select(); try { var successful = document.execCommand('copy'); var msg = successful ? 'Results copied successfully!' : 'Failed to copy results.'; console.log('Copy command was ' + msg); var copyButton = document.querySelector('button.success'); copyButton.textContent = successful ? 'Copied!' : 'Copy Failed'; copyButton.classList.add(successful ? 'copied' : 'error'); // Add error class if needed setTimeout(function() { copyButton.textContent = 'Copy Results'; copyButton.classList.remove('copied', 'error'); }, 2000); } catch (err) { console.error('Unable to copy', err); alert("Failed to copy results. Please copy manually."); } finally { document.body.removeChild(textArea); } } catch (e) { console.error("Error parsing results data:", e); alert("Could not format results for copying. Please copy manually."); } } // — Charting Logic — var strengthChartInstance = null; function updateChart(currentTrainingAge, currentMaxPotential, currentMaxLift) { var ctx = document.getElementById('strengthChart').getContext('2d'); // Destroy previous chart instance if it exists if (strengthChartInstance) { strengthChartInstance.destroy(); } var labels = []; var currentMaxLiftData = []; var maxPotentialData = []; // Generate data points for the chart up to a reasonable future training age var maxChartAge = Math.max(currentTrainingAge + 10, 20); // Show at least 10 years past current, or up to 20 years total var step = maxChartAge / 20; // Aim for around 20 data points for (var age = 0; age <= maxChartAge; age += step) { labels.push(age.toFixed(1)); // Calculate potential lift at this age var effectiveAge = Math.max(age, 0.1); var potentialGainAtAge = (baseGainFactor * Math.pow(effectiveAge, exponent)) * parseFloat(document.getElementById('geneticsFactor').value); var potentialLiftAtAge = parseFloat(document.getElementById('currentMaxLift').value) + potentialGainAtAge; maxPotentialData.push(potentialLiftAtAge); // Calculate current max lift progression (simplified linear or slightly slower) // This assumes current max lift also grows, but slower than potential var currentLiftProgression = parseFloat(document.getElementById('currentMaxLift').value) * Math.pow(1 + (0.05 * (age / Math.max(currentTrainingAge, 1))), 1); // Example: 5% annual growth initially, slowing down if (age 0 && currentMaxLiftData[currentMaxLiftData.length – 1] < parseFloat(document.getElementById('currentMaxLift').value)) { currentMaxLiftData[currentMaxLiftData.length – 1] = parseFloat(document.getElementById('currentMaxLift').value); } } // Ensure the current max lift and potential are represented accurately at currentTrainingAge if (labels.indexOf(currentTrainingAge.toFixed(1)) === -1) { labels.push(currentTrainingAge.toFixed(1)); var effectiveCurrentAge = Math.max(currentTrainingAge, 0.1); var potentialGainAtCurrentAge = (baseGainFactor * Math.pow(effectiveCurrentAge, exponent)) * parseFloat(document.getElementById('geneticsFactor').value); maxPotentialData.push(parseFloat(document.getElementById('currentMaxLift').value) + potentialGainAtCurrentAge); currentMaxLiftData.push(parseFloat(document.getElementById('currentMaxLift').value)); } // Sort data points by age to ensure correct chart rendering var combinedData = []; for (var i = 0; i < labels.length; i++) { combinedData.push({ label: parseFloat(labels[i]), current: currentMaxLiftData[i], potential: maxPotentialData[i] }); } combinedData.sort(function(a, b) { return a.label – b.label; }); labels = combinedData.map(function(item) { return item.label.toFixed(1); }); currentMaxLiftData = combinedData.map(function(item) { return item.current; }); maxPotentialData = combinedData.map(function(item) { return item.potential; }); strengthChartInstance = new Chart(ctx, { type: 'line', data: { labels: labels, datasets: [{ label: 'Current Max Lift Progression', data: currentMaxLiftData, borderColor: 'var(–primary-color)', backgroundColor: 'rgba(0, 74, 153, 0.1)', fill: true, tension: 0.3 }, { label: 'Estimated Max Potential', data: maxPotentialData, borderColor: 'var(–success-color)', backgroundColor: 'rgba(40, 167, 69, 0.1)', fill: true, tension: 0.3 }] }, options: { responsive: true, maintainAspectRatio: true, scales: { x: { title: { display: true, text: 'Years of Consistent Training' } }, y: { title: { display: true, text: 'Weight (kg)' }, beginAtZero: false // Start y-axis appropriately } }, plugins: { tooltip: { mode: 'index', intersect: false }, legend: { position: 'top' } }, hover: { mode: 'nearest', intersect: true } } }); } // Initial calculation on load document.addEventListener('DOMContentLoaded', function() { calculateMaxPotential(); // Add event listeners for real-time updates var inputs = document.querySelectorAll('.loan-calc-container input'); inputs.forEach(function(input) { input.addEventListener('input', calculateMaxPotential); }); }); // FAQ Toggle Function function toggleFaq(element) { var content = element.nextElementSibling; if (content.style.display === "block") { content.style.display = "none"; } else { content.style.display = "block"; } } // Include Chart.js library dynamically var script = document.createElement('script'); script.src = 'https://cdn.jsdelivr.net/npm/chart.js@3.7.0/dist/chart.min.js'; script.onload = function() { console.log('Chart.js loaded.'); // Ensure initial calculation happens after chart library is loaded if (document.readyState === 'loading') { document.addEventListener('DOMContentLoaded', function() { calculateMaxPotential(); var inputs = document.querySelectorAll('.loan-calc-container input'); inputs.forEach(function(input) { input.addEventListener('input', calculateMaxPotential); }); }); } else { // DOMContentLoaded has already fired calculateMaxPotential(); var inputs = document.querySelectorAll('.loan-calc-container input'); inputs.forEach(function(input) { input.addEventListener('input', calculateMaxPotential); }); } }; document.head.appendChild(script);

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