Calculator Pro+

Calculator Pro+: Advanced Performance & Efficiency Analysis :root { –primary-color: #004a99; –success-color: #28a745; –background-color: #f8f9fa; –text-color: #333; –border-color: #ccc; –card-background: #fff; –shadow: 0 2px 5px rgba(0,0,0,0.1); } 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; padding-top: 20px; padding-bottom: 40px; } .container { width: 100%; max-width: 960px; background-color: var(–card-background); padding: 30px; border-radius: 8px; box-shadow: var(–shadow); margin: 0 auto; box-sizing: border-box; } h1, h2, h3 { color: var(–primary-color); text-align: center; margin-bottom: 20px; } h1 { font-size: 2.5em; margin-bottom: 10px; } h2 { font-size: 1.8em; margin-top: 30px; margin-bottom: 15px; text-align: left; } h3 { font-size: 1.4em; margin-top: 20px; margin-bottom: 10px; text-align: left; 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Calculator Pro+: Advanced Performance & Efficiency Analysis

Analyze complex systems, optimize resource allocation, and understand efficiency metrics with our advanced Calculator Pro+. Input your system parameters to get detailed insights.

Calculator Pro+ Inputs

Enter the main quantitative measure for your system (e.g., total units processed, energy consumed).
Enter a related quantitative measure (e.g., resources utilized, time spent).
A decimal value (0 to 1) representing how complex or interconnected the system is. Higher values mean more complexity.
Enter any fixed costs or overhead associated with operating the system.

Analysis Results

Efficiency Score:
Resource Utilization Ratio:
Complexity Adjusted Output:
Total System Cost:
Formula Used:
The Calculator Pro+ analyzes performance using a multi-faceted approach. The primary output is a composite 'Efficiency Score' derived from the ratio of Primary Input Value to a complexity-adjusted operational cost. Resource Utilization Ratio is calculated as Secondary Input Value divided by Primary Input Value. Complexity Adjusted Output factors in the System Complexity Factor to scale the Primary Input Value. Total System Cost is the sum of Operational Overhead and a cost derived from Input B and Input C.
Performance Metrics Over Varying Complexity
Key Performance Indicators
Metric Value Unit
Primary Input Value Unit A
Secondary Input Value Unit B
System Complexity Factor Dimensionless
Operational Overhead Unit D
Efficiency Score Score
Resource Utilization Ratio Ratio
Complexity Adjusted Output Unit A (Adjusted)
Total System Cost Unit D (Total)

What is Calculator Pro+?

The Calculator Pro+ is an advanced analytical tool designed to quantify and assess the performance and efficiency of complex systems. Unlike basic calculators, it integrates multiple input variables, including quantitative measures, complexity factors, and operational overhead, to provide a holistic view of system effectiveness. It's built for professionals who need to understand the intricate relationships between inputs, outputs, and inherent system complexities.

Who should use it: This tool is invaluable for system architects, performance engineers, operations managers, researchers, and business analysts who are involved in designing, managing, or optimizing any system with multiple interacting components. This could range from software architectures and manufacturing processes to logistical networks and even complex biological or ecological models. Anyone needing to move beyond simple metrics to a deeper understanding of system dynamics will benefit from the Calculator Pro+.

Common misconceptions: A frequent misunderstanding is that the Calculator Pro+ is solely for financial calculations. While it can be applied to financial systems, its core design is agnostic to the domain, focusing on the mathematical relationships between variables. Another misconception is that it provides a single, definitive "best" value. Instead, it offers insights and comparative metrics that aid decision-making, highlighting trade-offs and areas for improvement within the context of the provided inputs. It's a diagnostic tool, not a prescriptive oracle.

Calculator Pro+ Formula and Mathematical Explanation

The Calculator Pro+ employs a proprietary algorithm to synthesize various inputs into meaningful performance metrics. The core idea is to normalize outputs against complexity and overhead, providing a clearer picture of true efficiency.

Key Calculations:

  1. Efficiency Score (ES): This is a primary metric indicating overall system effectiveness. It's calculated as: $$ ES = \frac{\text{Input A}}{\text{Input D} + (\text{Input B} \times (1 – \text{Input C}))} $$ This formula divides the primary output (Input A) by the total adjusted cost, which includes fixed overhead (Input D) and a variable cost component (Input B) scaled down by the complexity factor (1 – Input C). A higher ES suggests better performance relative to cost and complexity.
  2. Resource Utilization Ratio (RUR): This metric shows how effectively the secondary input is being used relative to the primary output. $$ RUR = \frac{\text{Input B}}{\text{Input A}} $$ A lower RUR might indicate efficient use of resources (Input B) to achieve the primary output (Input A), depending on the system's goals.
  3. Complexity Adjusted Output (CAO): This metric provides a normalized view of the primary output, accounting for system complexity. $$ CAO = \text{Input A} \times \text{Input C} $$ This value represents the 'effective' output considering the system's inherent complexity. A higher Input C means more of Input A is considered 'realized' output.
  4. Total System Cost (TSC): This represents the overall cost associated with the system's operation based on the inputs. $$ TSC = \text{Input D} + (\text{Input B} \times (1 – \text{Input C})) $$ This is the denominator used in the Efficiency Score calculation, representing the total operational expenditure.

Variables Table:

Calculator Pro+ Variables
Variable Meaning Unit Typical Range
Input A Primary Input Value Unit A Positive numbers (e.g., 100 – 100000)
Input B Secondary Input Value Unit B Positive numbers (e.g., 50 – 50000)
Input C System Complexity Factor Dimensionless 0.0 to 1.0
Input D Operational Overhead Unit D Positive numbers (e.g., 10 – 10000)
ES Efficiency Score Score (Unit A / Unit D) Varies widely based on inputs
RUR Resource Utilization Ratio Ratio (Unit B / Unit A) Varies widely based on inputs
CAO Complexity Adjusted Output Unit A (Adjusted) Varies based on Input A and C
TSC Total System Cost Unit D (Total) Positive numbers

Practical Examples (Real-World Use Cases)

Example 1: Software Development Team Performance

A software development team is evaluating its efficiency. They process a certain number of features (Input A) using developer hours (Input B). Their project management methodology adds a layer of complexity (Input C), and they have fixed monthly infrastructure costs (Input D).

  • Inputs:
    • Primary Input Value (Features Processed): 1200 (Unit A: Features)
    • Secondary Input Value (Developer Hours): 4000 (Unit B: Hours)
    • System Complexity Factor (Methodology Complexity): 0.75
    • Operational Overhead (Infrastructure Costs): 15000 (Unit D: USD)
  • Calculator Pro+ Results:
    • Primary Result (Efficiency Score): 4.80
    • Efficiency Score: 4.80
    • Resource Utilization Ratio: 3.33
    • Complexity Adjusted Output: 840 Features
    • Total System Cost: 25000 USD
  • Financial Interpretation: An Efficiency Score of 4.80 suggests a reasonably efficient process. The Resource Utilization Ratio of 3.33 indicates that for every feature, approximately 3.33 developer hours were spent. The Total System Cost is $25,000. This data helps management understand the cost per 'effective' feature and identify if optimizing the complexity factor or reducing developer hours per feature could improve the score. This analysis is crucial for understanding the true cost and output of software development efforts, making the Calculator Pro+ a vital tool.

Example 2: Manufacturing Plant Output

A manufacturing plant analyzes its production line. They measure total units produced (Input A) against energy consumed (Input B). The automation level contributes to complexity (Input C), and fixed factory maintenance costs are constant (Input D).

  • Inputs:
    • Primary Input Value (Units Produced): 50000 (Unit A: Units)
    • Secondary Input Value (Energy Consumed): 20000 (Unit B: kWh)
    • System Complexity Factor (Automation Level): 0.90
    • Operational Overhead (Maintenance Costs): 8000 (Unit D: USD)
  • Calculator Pro+ Results:
    • Primary Result (Efficiency Score): 2.50
    • Efficiency Score: 2.50
    • Resource Utilization Ratio: 0.40
    • Complexity Adjusted Output: 45000 Units
    • Total System Cost: 10000 USD
  • Financial Interpretation: An Efficiency Score of 2.50 indicates moderate efficiency. The Resource Utilization Ratio of 0.40 suggests that 0.40 kWh of energy are consumed per unit produced, which might be high or low depending on industry benchmarks. The Total System Cost is $10,000. The high complexity factor (0.90) means most of the output is considered 'realized'. This analysis helps plant managers pinpoint areas for improvement, such as reducing energy consumption per unit or evaluating the impact of automation on overall cost-effectiveness. Understanding these dynamics is key to optimizing manufacturing output, a core function where the Calculator Pro+ excels.

How to Use This Calculator Pro+

Using the Calculator Pro+ is straightforward. Follow these steps to gain valuable insights into your system's performance:

  1. Input Primary Value: Enter the main measure of your system's output or primary function into the 'Primary Input Value (Unit A)' field.
  2. Input Secondary Value: Provide the corresponding measure of resources consumed or a related operational metric in the 'Secondary Input Value (Unit B)' field.
  3. Set Complexity Factor: Input a decimal value between 0 and 1 for 'System Complexity Factor'. A value closer to 1 indicates a highly complex or interconnected system, while a value closer to 0 suggests a simpler, more linear system.
  4. Enter Operational Overhead: Input any fixed costs or baseline expenses associated with running the system into the 'Operational Overhead (Unit D)' field.
  5. Calculate: Click the 'Calculate' button. The results will update instantly.

How to Read Results:

  • Primary Result (Efficiency Score): This is your main indicator of performance. Higher scores generally mean better efficiency relative to costs and complexity. Compare this score against benchmarks or previous calculations.
  • Intermediate Values:
    • Efficiency Score: The detailed score.
    • Resource Utilization Ratio: Understand the relationship between your secondary input and primary output.
    • Complexity Adjusted Output: See the 'effective' output after accounting for system complexity.
    • Total System Cost: The total calculated cost based on your inputs.
  • Table and Chart: Review the detailed table for a breakdown of all inputs and outputs. The chart visualizes how key metrics might change, offering dynamic insights.

Decision-Making Guidance:

Use the results to identify areas for improvement. If the Efficiency Score is low, consider:

  • Reducing Operational Overhead (Input D).
  • Optimizing the use of Secondary Input Value (Input B) relative to Primary Input Value (Input A).
  • Evaluating if the System Complexity Factor (Input C) can be reduced without sacrificing quality or output.

The Calculator Pro+ provides the data; your expertise guides the strategic decisions.

Key Factors That Affect Calculator Pro+ Results

Several factors significantly influence the outcomes generated by the Calculator Pro+. Understanding these is crucial for accurate analysis and effective decision-making:

  1. Input Data Accuracy: The most critical factor. Inaccurate or outdated figures for Input A, B, C, or D will lead to misleading results. Ensure all data is precise and relevant to the period or system being analyzed.
  2. System Complexity (Input C): A higher complexity factor directly impacts the 'Complexity Adjusted Output' and 'Total System Cost'. Highly complex systems often require more resources (Input B) and have higher overheads (Input D) relative to their raw output (Input A), potentially lowering the Efficiency Score.
  3. Operational Overhead (Input D): Fixed costs form a baseline for the Total System Cost. High overheads can significantly reduce the Efficiency Score, even if the variable costs are well-managed. Reducing fixed costs or increasing the primary output (Input A) is key to mitigating this.
  4. Resource Efficiency (Input B vs. Input A): The ratio between the secondary input and primary output is vital. If Input B increases disproportionately to Input A, the Resource Utilization Ratio (RUR) will rise, potentially indicating inefficiency and lowering the Efficiency Score.
  5. Scalability: How the system performs as inputs change is not directly modeled but influences the choice of inputs. A system that becomes exponentially more complex or costly to scale might show a lower Efficiency Score at higher volumes.
  6. External Economic Factors: While not direct inputs, inflation, market demand, and regulatory changes can affect the 'real' value of Input A and the 'real' cost of Input B and D. The calculator provides a snapshot based on provided numbers; external context is needed for full interpretation.
  7. Interdependencies: In complex systems, changes in one variable can have cascading effects. The complexity factor (Input C) attempts to capture this, but subtle interdependencies might not be fully represented, affecting the nuanced interpretation of the Efficiency Score.
  8. Time Horizon: The results reflect a specific point in time or period. Long-term efficiency might differ due to wear and tear, technological advancements, or evolving operational strategies.

Frequently Asked Questions (FAQ)

What is the ideal range for the System Complexity Factor (Input C)?

There isn't a single "ideal" range, as it depends entirely on the system being analyzed. A value of 0.9 might be typical for a highly automated factory, while 0.3 could be normal for a simple service process. The key is consistency and accurate representation of your system's structure.

Can the Calculator Pro+ be used for personal finance?

While designed for broader systems, you could adapt it. For instance, Input A could be savings generated, Input B could be hours spent managing finances, Input C the complexity of your investment portfolio, and Input D your fixed financial overheads. However, dedicated personal finance calculators might be more suitable for specific tasks like budgeting or loan calculations.

What does a negative value in the inputs mean?

Negative values are generally not permissible for most inputs in the Calculator Pro+, as they don't represent quantifiable system metrics in this context. The calculator includes validation to prevent negative entries for most fields.

How often should I update my inputs?

Update your inputs whenever there's a significant change in your system's operation, costs, or outputs. For ongoing monitoring, regular intervals like weekly, monthly, or quarterly are recommended, depending on the system's dynamics and reporting needs.

Is the Efficiency Score a percentage?

No, the Efficiency Score is not a percentage. It's a composite metric derived from the ratio of primary output to adjusted costs. Its scale is relative and depends heavily on the units and values of the inputs. Focus on trends and comparisons rather than absolute values.

What if my system has multiple primary outputs?

The Calculator Pro+ is designed for a single primary output (Input A). If you have multiple distinct outputs, you may need to run the calculator separately for each or aggregate them into a single, meaningful metric if possible. Analyzing each output stream individually often yields clearer insights.

Can the chart show historical data?

The provided chart dynamically updates based on the *current* inputs. It does not store or display historical data. To visualize trends over time, you would need to record the results from different calculation runs and plot them externally or use a more advanced dashboarding tool.

How does the 'Copy Results' button work?

The 'Copy Results' button formats the main result, intermediate values, and key assumptions (like the formula used) into a plain text string. This text is then copied to your clipboard, allowing you to easily paste it into documents, emails, or reports.

Related Tools and Internal Resources

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var chartInstance = null; // Global variable to hold chart instance function getElement(id) { return document.getElementById(id); } function validateInput(value, id, min, max, name) { var errorElement = getElement("error" + id.charAt(id.length – 1).toUpperCase()); if (value === "") { errorElement.textContent = name + " cannot be empty."; return false; } var numValue = parseFloat(value); if (isNaN(numValue)) { errorElement.textContent = name + " must be a valid number."; return false; } if (min !== null && numValue max) { errorElement.textContent = name + " cannot be greater than " + max + "."; return false; } errorElement.textContent = ""; // Clear error return true; } function calculateProPlus() { var inputA = getElement("inputA").value; var inputB = getElement("inputB").value; var inputC = getElement("inputC").value; var inputD = getElement("inputD").value; var isValid = true; isValid = validateInput(inputA, "inputA", 0, null, "Primary Input Value") && isValid; isValid = validateInput(inputB, "inputB", 0, null, "Secondary Input Value") && isValid; isValid = validateInput(inputC, "inputC", 0, 1, "System Complexity Factor") && isValid; isValid = validateInput(inputD, "inputD", 0, null, "Operational Overhead") && isValid; if (!isValid) { // Clear results if validation fails getElement("primaryResult").textContent = "–"; getElement("intermediate1").textContent = "–"; getElement("intermediate2").textContent = "–"; getElement("intermediate3").textContent = "–"; getElement("intermediate4").textContent = "–"; updateTable("–", "–", "–", "–", "–", "–", "–", "–"); updateChart([], []); // Clear chart return; } var numA = parseFloat(inputA); var numB = parseFloat(inputB); var numC = parseFloat(inputC); var numD = parseFloat(inputD); // Calculations var totalSystemCost = numD + (numB * (1 – numC)); var efficiencyScore = numA / totalSystemCost; var resourceUtilizationRatio = numB / numA; var complexityAdjustedOutput = numA * numC; // Handle potential division by zero or NaN results if (isNaN(efficiencyScore) || !isFinite(efficiencyScore)) efficiencyScore = 0; if (isNaN(resourceUtilizationRatio) || !isFinite(resourceUtilizationRatio)) resourceUtilizationRatio = 0; if (isNaN(complexityAdjustedOutput) || !isFinite(complexityAdjustedOutput)) complexityAdjustedOutput = 0; if (isNaN(totalSystemCost) || !isFinite(totalSystemCost)) totalSystemCost = 0; // Format results var formattedEfficiencyScore = efficiencyScore.toFixed(2); var formattedResourceUtilizationRatio = resourceUtilizationRatio.toFixed(2); var formattedComplexityAdjustedOutput = complexityAdjustedOutput.toFixed(2); var formattedTotalSystemCost = totalSystemCost.toFixed(2); // Display results getElement("primaryResult").textContent = formattedEfficiencyScore; getElement("intermediate1").textContent = formattedEfficiencyScore; getElement("intermediate2").textContent = formattedResourceUtilizationRatio; getElement("intermediate3").textContent = formattedComplexityAdjustedOutput; getElement("intermediate4").textContent = formattedTotalSystemCost; // Update table updateTable(inputA, inputB, inputC, inputD, formattedEfficiencyScore, formattedResourceUtilizationRatio, formattedComplexityAdjustedOutput, formattedTotalSystemCost); // Update chart updateChart([numA, numB, numC, numD], [efficiencyScore, resourceUtilizationRatio, complexityAdjustedOutput, totalSystemCost]); } function updateTable(valA, valB, valC, valD, res1, res2, res3, res4) { getElement("tableInputA").textContent = valA === "–" ? "–" : parseFloat(valA).toFixed(2); getElement("tableInputB").textContent = valB === "–" ? "–" : parseFloat(valB).toFixed(2); getElement("tableInputC").textContent = valC === "–" ? "–" : parseFloat(valC).toFixed(3); getElement("tableInputD").textContent = valD === "–" ? "–" : parseFloat(valD).toFixed(2); getElement("tableResult1").textContent = res1; getElement("tableResult2").textContent = res2; getElement("tableResult3").textContent = res3; getElement("tableResult4").textContent = res4; } function resetCalculator() { getElement("inputA").value = "1500"; getElement("inputB").value = "750"; getElement("inputC").value = "0.85"; getElement("inputD").value = "50"; // Clear errors getElement("errorA").textContent = ""; getElement("errorB").textContent = ""; getElement("errorC").textContent = ""; getElement("errorD").textContent = ""; calculateProPlus(); // Recalculate with defaults } function copyResults() { var primaryResult = getElement("primaryResult").textContent; var intermediate1 = getElement("intermediate1").textContent; var intermediate2 = getElement("intermediate2").textContent; var intermediate3 = getElement("intermediate3").textContent; var intermediate4 = getElement("intermediate4").textContent; var formula = getElement(".formula-explanation").textContent.replace("Formula Used:", "Formula:\n"); var resultText = "Calculator Pro+ Analysis Results:\n\n"; resultText += "Primary Result (Efficiency Score): " + primaryResult + "\n"; resultText += "Efficiency Score: " + intermediate1 + "\n"; resultText += "Resource Utilization Ratio: " + intermediate2 + "\n"; resultText += "Complexity Adjusted Output: " + intermediate3 + "\n"; resultText += "Total System Cost: " + intermediate4 + "\n\n"; resultText += formula + "\n\n"; resultText += "Key Assumptions:\n"; resultText += "Input A (Primary Input Value): " + getElement("inputA").value + "\n"; resultText += "Input B (Secondary Input Value): " + getElement("inputB").value + "\n"; resultText += "Input C (System Complexity Factor): " + getElement("inputC").value + "\n"; resultText += "Input D (Operational Overhead): " + getElement("inputD").value + "\n"; try { navigator.clipboard.writeText(resultText).then(function() { // Optionally provide user feedback, e.g., a temporary message var copyButton = getElement("results-container").querySelector('button.success'); var originalText = copyButton.textContent; copyButton.textContent = 'Copied!'; setTimeout(function() { copyButton.textContent = originalText; }, 1500); }).catch(function(err) { console.error('Failed to copy text: ', 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.'); } } function updateChart(inputs, results) { var ctx = getElement('performanceChart').getContext('2d'); // Destroy previous chart instance if it exists if (chartInstance) { chartInstance.destroy(); } // Prepare data for chart var labels = ['Input A', 'Input B', 'Input C', 'Input D']; var data1 = inputs; // Raw inputs var data2 = results; // Calculated results // Normalize data for better visualization if ranges are very different // Simple normalization: scale each dataset to 0-100 range var normalizedData1 = normalizeDataset(data1); var normalizedData2 = normalizeDataset(data2); chartInstance = new Chart(ctx, { type: 'bar', // Changed to bar for better comparison of different metrics data: { labels: ['Primary Input', 'Secondary Input', 'Complexity', 'Overhead', 'Efficiency Score', 'Resource Ratio', 'Adj. Output', 'Total Cost'], datasets: [{ label: 'Normalized Input Values', data: [ normalizedData1[0], normalizedData1[1], normalizedData1[2], normalizedData1[3], null, null, null, null // Placeholder for results ], backgroundColor: 'rgba(0, 74, 153, 0.6)', borderColor: 'rgba(0, 74, 153, 1)', borderWidth: 1 }, { label: 'Normalized Result Metrics', data: [ null, null, null, null, // Placeholder for inputs normalizedData2[0], normalizedData2[1], normalizedData2[2], normalizedData2[3] ], backgroundColor: 'rgba(40, 167, 69, 0.6)', borderColor: 'rgba(40, 167, 69, 1)', borderWidth: 1 }] }, options: { responsive: true, maintainAspectRatio: false, scales: { y: { beginAtZero: true, ticks: { callback: function(value) { return value + '%'; // Show as percentage } } } }, plugins: { tooltip: { callbacks: { label: function(context) { var label = context.dataset.label || "; if (label) { label += ': '; } if (context.parsed.y !== null) { // Try to map back to original values for tooltip clarity var originalValue = context.dataset.label.includes('Input') ? inputs[context.dataIndex] : results[context.dataIndex – 4]; // Adjust index for results if (context.dataset.label.includes('Input') && context.dataIndex = 4) { originalValue = results[context.dataIndex – 4]; } else { originalValue = context.raw; // Fallback } label += originalValue.toFixed(2); } return label; } } } } } }); } // Helper function to normalize a dataset to a 0-100 range function normalizeDataset(data) { var min = Math.min.apply(null, data.filter(d => d !== null && d !== undefined)); var max = Math.max.apply(null, data.filter(d => d !== null && d !== undefined)); if (min === max) return data.map(() => 50); // Handle case where all values are the same return data.map(value => { if (value === null || value === undefined) return null; return ((value – min) / (max – min)) * 100; }); } function toggleFaq(element) { var content = element.nextElementSibling; if (content.style.display === "block") { content.style.display = "none"; } else { content.style.display = "block"; } } // Initial calculation on page load window.onload = function() { // Ensure canvas element exists before trying to get context var canvas = getElement('performanceChart'); if (canvas) { var ctx = canvas.getContext('2d'); // Initialize chart with placeholder data or clear state chartInstance = new Chart(ctx, { type: 'bar', data: { labels: ['Primary Input', 'Secondary Input', 'Complexity', 'Overhead', 'Efficiency Score', 'Resource Ratio', 'Adj. Output', 'Total Cost'], datasets: [{ label: 'Normalized Input Values', data: [null, null, null, null, null, null, null, null], backgroundColor: 'rgba(0, 74, 153, 0.6)', }, { label: 'Normalized Result Metrics', data: [null, null, null, null, null, null, null, null], backgroundColor: 'rgba(40, 167, 69, 0.6)', }] }, options: { responsive: true, maintainAspectRatio: false, scales: { y: { beginAtZero: true } } } }); } calculateProPlus(); // Perform initial calculation with default values }; // Add event listeners for input changes to update results in real-time var inputs = document.querySelectorAll('.loan-calc-container input[type="number"], .loan-calc-container input[type="text"], .loan-calc-container select'); for (var i = 0; i < inputs.length; i++) { inputs[i].addEventListener('input', calculateProPlus); }

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