Hittorf Method Analyzer

Hittorf Method Analyzer MCP Connector for Claude

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Calculates ionic transference numbers and verifies mass balance for Hittorf method experiments.

4 tools Official Updated Oct 1, 2026 Official Vinkius Partner

This MCP server provides specialized electrochemical analysis tools for the Hittorf method. It allows AI agents to determine the relative mobility of ions by processing concentration changes in anode and cathode compartments. Key capabilities include using calculate_transference_numbers to find cation and anion mobility, verify_mass_balance to ensure conservation of mass, and get_electrode_impact to account for electrode reactions. Finally, summarize_hittorf_experiment generates a comprehensive report of the experimental findings.

hittorftransferenceelectrochemistryion-mobilitymass-balance

4 tools expose this connector's capabilities to your AI agent.

summarize_hittorf_experiment

Provides a complete high-level report of the experiment's findings

get_electrode_impact

Calculates the theoretical concentration shift caused specifically by the electrode reaction

verify_mass_balance

Validates whether the observed concentration changes respect the law of conservation of mass

calculate_transference_numbers

Calculates the transference numbers for both cations and anions based on concentration changes

See how to talk to your AI agent using Hittorf Method Analyzer.

Calculate the transference numbers for an electrolyte with an initial concentration of 0.5 mol/L, an anode change of -0.05 mol/L, a cathode change of 0.05 mol/L, and an ion charge of 1.

The cation transference number is 0.5 and the anion transference number is 0.5.

Check the mass balance for an experiment with an anode change of -0.02 mol/L, a cathode change of 0.02 mol/L, and a total volume of 2.0 liters.

The mass balance is verified as balanced.

What is the concentration shift for a 1A current applied for 100 seconds with an ion charge of 1 in a 1L volume?

The theoretical concentration shift is 0.0016 mol/L.

You can use the `calculate_transference_numbers` tool by providing the initial concentration, the concentration changes at both the anode and cathode, and the ion charge.

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