Nanocrystalline Core Analyzer Tool

Professional nanocrystalline core analyzer for calculating B-H curves, magnetic permeability, and transformer core specifications. Free online tool for engineers designing EV chargers, current transformers, and EMI filters.

Instant Calculations

Calculate Ae, Le, weight, and B-H data in real-time

Professional Reports

Download detailed PDF analysis reports

Free Engineering Tool

No registration required, completely free

Applications for Nanocrystalline Core Analysis

  • EV Charger Transformers - Optimize core selection for high-frequency switching
  • Current Transformers (CTs) - Analyze linearity and accuracy for metering applications
  • EMI Filter Cores - Design common mode chokes for electromagnetic compatibility
  • Power Electronics - High-frequency transformer design and analysis
  • Renewable Energy - Solar inverter and wind turbine transformer cores
  • Industrial Motors - Variable frequency drive applications

Core Parameters

Cross-Sectional Area (Ac): 1.069 cm²

Mean Magnetic Path Length (Le): 10.21 cm

Weight: 83.9 g

B-H Test Data

B (T)Target V_s (V)Measured V_s (V)Measured I_p (mA)H (A/cm)μr
0.1000
0.3000
0.5000
0.7000
0.9000
1.1000
1.3000
1.5000
1.7000
1.9000

B-H Curve

Download Professional Analysis Report

Download a comprehensive PDF report with B-H curve analysis and core specifications. Data is automatically saved to our database and email notifications are sent.

Frequently Asked Questions

How to measure B-H curve for nanocrystalline cores?

To measure the B-H curve, apply a sinusoidal voltage to the primary winding and measure both the secondary voltage (proportional to flux density B) and primary current (proportional to magnetic field H). Our tool calculates the exact relationships using Faraday's law and Ampère's law.

What makes nanocrystalline cores better than ferrite for EMI filters?

Nanocrystalline cores offer superior performance in EMI filter applications due to their high permeability (up to 100,000), excellent frequency stability, and lower core losses compared to ferrite cores. They maintain stable performance across wide temperature ranges.

How accurate are the calculated core specifications?

Our calculations use industry-standard formulas with typical material properties. Results are suitable for initial design and analysis, but should be validated through physical testing for critical applications. The tool provides ±5% accuracy for most parameters.

Can I use this tool for current transformer design?

Yes, this analyzer is excellent for current transformer applications. Input your CT core dimensions and test parameters to analyze linearity, saturation characteristics, and accuracy class compliance for revenue metering and protection applications.

How to Use the Nanocrystalline Core Analyzer

Step-by-Step Instructions

  1. 1
    Input Core Dimensions: Enter outer diameter (OD), inner diameter (ID), and height (HT) in millimeters
  2. 2
    Set Test Parameters: Specify test frequency and number of primary turns
  3. 3
    Enter Measurements: Input measured secondary voltage and primary current for each flux density level
  4. 4
    Analyze Results: Review calculated B-H curve and download professional report

Key Parameters Calculated

  • Cross-Sectional Area (Ae): Effective magnetic cross-section
  • Mean Path Length (Le): Average magnetic path through the core
  • Core Weight: Total mass based on material density
  • Magnetic Field Strength (H): Calculated from primary current
  • Relative Permeability (μr): Material's magnetic permeability
  • B-H Curve: Complete magnetization characteristic

Nanocrystalline vs. Other Core Materials

PropertyNanocrystallineFerriteSilicon Steel
Initial Permeability50,000 - 100,0001,000 - 10,0001,000 - 5,000
Saturation Flux Density1.2 - 1.3 T0.3 - 0.5 T1.8 - 2.0 T
Core Losses (50Hz)Very LowLowMedium
Temperature StabilityExcellentGoodFair

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