Convert between different units of electric conductance including siemens, megasiemens, kilosiemens, millisiemens, microsiemens, ampere/volt, mho, gemmho, micromho, abmho, statmho, and quantized Hall conductance. Essential for electrical engineering and circuit analysis.
Base Unit: Siemens [S] = 1/Ohm | Common: 1 S = 1000 mS = 1,000,000 µS
Electric conductance is the reciprocal of electrical resistance, measuring how easily electric current flows through a material or component. It is measured in siemens (S) in the SI system, where 1 siemens equals 1 ampere per volt (A/V).
Conductance is fundamental in electrical engineering for analyzing circuits, designing electrical systems, and understanding material properties. Different units like mho (obsolete term for siemens), microsiemens, and specialized units like quantized Hall conductance are used depending on the application and measurement scale.
Supports 12 different conductance units including SI units, legacy units (mho), and specialized quantum units.
Get instant results as you type with automatic calculations for precise engineering applications.
Optimized interface that works seamlessly across all devices from desktop to smartphone.
Handles very large and very small values with appropriate scientific notation and decimal precision.
Conductance (G) is the reciprocal of resistance (R), expressed as G = 1/R. While resistance opposes current flow, conductance measures how easily current flows. Higher conductance means lower resistance and easier current flow.
Mho (ohm spelled backward) was the original unit for conductance before it was renamed to siemens in honor of Ernst Werner von Siemens. Both units are identical: 1 mho = 1 siemens. Modern usage prefers siemens.
Quantized Hall conductance (e²/h ≈ 3.87405×10⁻⁵ S) is a fundamental quantum mechanical unit used in quantum Hall effect measurements and metrological standards for electrical conductance. It's essential in quantum electronics and precision measurements.
Our converter uses internationally recognized conversion factors with high precision. Results are accurate for all practical engineering, scientific, and educational applications, including research requiring precise conductance measurements.
Typical ranges: Insulators (pS to nS), semiconductors (µS to mS), electrolytes (mS to S), and good conductors like copper (kS to MS). The tool handles this entire range with appropriate unit scaling.
Absolutely! The converter is excellent for physics and electrical engineering students learning about Ohm's law, circuit analysis, and the relationship between resistance and conductance. It provides immediate feedback for problem-solving.