Quantum Dot Optical Properties

Quantum Dot Optical Properties MCP Connector for Claude

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Calculate quantum dot band gaps, emission wavelengths, and confinement energies.

4 tools Official Updated Oct 1, 2026 Official Vinkius Partner

This MCP server provides precise calculations for the optical characteristics of semiconductor quantum dots. By applying quantum confinement equations and the effective mass approximation, it allows AI agents to determine the bandGap, emissionWavelength, and confinementEnergy for specific materials like CdSe or InP. Use calculate_optical_properties for a full profile, get_confinement_energy to isolate the energy shift, or predict_emission_color to find the visible color of a dot based on its diameter.

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

calculate_optical_properties

Provides a complete profile of the quantum dot's optical characteristics

compare_materials_for_size

Compares how different materials respond to the same physical diameter

get_confinement_energy

Isolates the specific energy shift caused by quantum confinement

predict_emission_color

Translates the calculated wavelength into a human-readable color description

See how to talk to your AI agent using Quantum Dot Optical Properties.

What are the optical properties of a 5nm CdSe quantum dot using the spherical-ema model?

For a 5nm CdSe quantum dot, the band gap is 2.55 eV, the emission wavelength is 486.3 nm, and the confinement energy is 0.42 eV.

What color will a 3nm InP quantum dot emit?

A 3nm InP quantum dot will emit blue light.

Compare the band gap of CdSe and PbS at a diameter of 6nm.

At 6nm, CdSe has a band gap of 2.12 eV, while PbS has a band gap of 0.95 eV.

You must provide the dot diameter in nanometers, the semiconductor material identifier, and the specific confinement model to be used.

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