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Convert Statmhos to Microsiemens

Statmho (statmho) to Microsiemens (µS) electric conductance conversion — enter any value below to get an instant result, or use the table for common values.

Results from this calculator are estimates provided for general informational purposes only, based on formulas, rates, and standards commonly accepted as of 2026. Figures may differ slightly from other calculators or professional sources due to rounding methods, differing assumptions, or regional regulations, and rules may change over time. Always consult a qualified professional — such as a financial advisor, healthcare provider, or other relevant specialist — before making decisions based on these results.

The numeric value you want to convert. Decimals are accepted.

Result

1 Statmho = 1.11235E-06 Microsiemens

1 Microsiemens = 899000 Statmhos

1 statmho in every supported unit

Conversion chart: Statmho to Microsiemens

Conversion table

Statmho (statmho) Microsiemens (µS)
0.01 statmho 1.11235E-08 µS
0.1 statmho 1.11235E-07 µS
1 statmho 1.11235E-06 µS
2 statmho 2.22469E-06 µS
3 statmho 3.33704E-06 µS
5 statmho 5.56174E-06 µS
10 statmho 1.11235E-05 µS
20 statmho 2.22469E-05 µS
50 statmho 5.56174E-05 µS
100 statmho 0.00011123471 µS
1000 statmho 0.0011123471 µS

Statmho (statmho)

Definition: A unit of conductance from the CGS-ESU (centimeter-gram-second, electrostatic) system of units, equal to roughly 1.11 × 10⁻¹² siemens. It is the reciprocal of the statohm, the CGS-ESU unit of resistance, and its value derives from the relationship between the electrostatic and SI unit systems (ultimately tied to the speed of light).

History: Like the abmho, the statmho dates to 19th-century CGS electromagnetic theory, but from the electrostatic (ESU) branch rather than the electromagnetic (EMU) branch — physicists of the era maintained both parallel CGS variants depending on whether a calculation was framed around electric charge or magnetic effects.

Current use: Almost exclusively a historical and theoretical-physics unit today, appearing in older electrostatics literature and in derivations that still favor Gaussian/CGS-ESU units over SI.

Microsiemens (µS)

Definition: One-millionth of a siemens, the SI-prefixed submultiple most often used for the low conductance values typical of insulators, dilute solutions, and leakage-current measurements.

History: The micro- prefix was formally adopted into the metric system in 1873 by the British Association for the Advancement of Science and carried into the modern SI; it became the standard companion prefix for the siemens once that unit replaced the older micromho in technical usage after 1971.

Current use: Widely used today in water-quality and laboratory instrumentation (often alongside its per-length cousin, microsiemens per centimeter, on the companion Electric Conductivity Converter) and in specifying leakage conductance of insulation and dielectric materials.

Supported Units

Unit Symbol In Siemens
Siemens S 1 S
Megasiemens MS 1000000 S
Kilosiemens kS 1000 S
Millisiemens mS 0.001 S
Microsiemens µS 1E-06 S
Ampere/Volt A/V 1 S
Mho 1 S
Gemmho gemmho 1E-06 S
Micromho µmho 1E-06 S
Abmho abmho 1E+09 S
Statmho statmho 1.11235E-12 S
Quantized Hall Conductance e²/h 3.87405E-05 S

About These Parameters

Value
The conductance value you want to convert, expressed in the "From" unit. Accepts decimals, and can represent anything from a picosiemens-level insulator leakage figure to a gigasiemens-scale superconductor measurement.
From Unit
The unit your input value is currently measured in — a modern component datasheet's siemens (S) rating, or a legacy figure quoted in mho, abmho, or statmho.
To Unit
The unit you want the result converted into. Use the swap button to flip From and To instantly, which is handy when translating an older mho-based figure into the modern siemens or vice versa.

How Electric Conductance Conversion Works

The Formula

Every unit here is defined by a fixed multiplier relative to the siemens. To convert a value from one unit to another:

result = value × (factor of "From" unit ÷ factor of "To" unit)

For Statmho → Microsiemens: multiply by 1.11235E-06. For example, 1 statmho × 1.11235E-06 = 1.11235E-06 µS.

Conductance Is the Reciprocal of Resistance

Conductance and resistance describe the same physical relationship between voltage and current from opposite directions: resistance (ohms) measures how strongly a component opposes current flow, while conductance (siemens) measures how readily it allows current through. Because they are exact reciprocals (G = 1/R), a very good conductor — a thick copper busbar, for example — has a tiny resistance and a correspondingly large conductance, while a good insulator has a huge resistance and a conductance so small it is usually expressed in picosiemens or smaller. This reciprocal relationship is also why conductances of components wired in parallel simply add together, while their resistances do not.

From Mho to Siemens

Before 1971, the unit of conductance had no single settled name: engineers commonly called it the "mho" — "ohm" spelled backwards, with an upside-down omega (℧) as its symbol — to emphasize that it was resistance's reciprocal. The International Electrotechnical Commission formally adopted "siemens," named for Ernst Werner von Siemens, in 1935, and the unit was folded into the International System of Units in 1971, gradually displacing "mho" in textbooks, standards, and datasheets over the following decades. The two units remain numerically identical (1 mho = 1 S), so older equipment and literature that still uses "mho" converts to the modern siemens with a factor of exactly 1.

Example

A conductance of 1 statmho equals 1.11235E-06 µS. For scale, a typical incandescent light bulb filament has a conductance around 0.08 siemens (roughly 12 ohms of resistance), a thick copper ground strap can exceed several thousand siemens, and a high-quality electrical insulator's leakage conductance is often measured in picosiemens or smaller.

Frequently Asked Questions

How many Microsiemens are in 1 Statmho?

1 Statmho (statmho) equals exactly 1.11235E-06 Microsiemens (µS).

What is the difference between conductance and conductivity?

Conductance (siemens) describes a specific object or component's ability to conduct current — it depends on that object's size, shape, and material. Conductivity (siemens per meter) is a material property that strips out size and shape, describing how well a material conducts current per unit length regardless of the particular sample. Use this converter for whole-component conductance; use the companion Electric Conductivity Converter for the size-independent material property.

Is mho the same as siemens?

Yes — mho and siemens are numerically identical (1 mho = 1 S). "Mho" was the informal, widely used name for the unit before the International Electrotechnical Commission standardized "siemens" in 1935, and it still appears in older equipment, textbooks, and some U.S. water-quality literature.

Why is the quantized Hall conductance such a small, oddly specific number?

The quantized Hall conductance (e²/h ≈ 3.87405 × 10⁻⁵ S) is a fundamental physical constant, not a rounded engineering unit — it's built from the elementary charge (e) and the Planck constant (h). Discovered by Klaus von Klitzing in 1980, it's the exact step size by which conductance jumps in the quantum Hall effect, and because it depends only on fundamental constants, it's used today as a precision reference for realizing the ohm and siemens in metrology labs.

What are abmho and statmho used for today?

Abmho (from the CGS-EMU system) and statmho (from the CGS-ESU system) are both 19th-century units of conductance that predate the SI. They're rarely used in modern engineering, but still appear occasionally in historical physics literature and in theoretical work that frames electromagnetic calculations natively in CGS units rather than SI.

Convert Statmho to Other Electric Conductance Units

Possible Electric Conductance Conversions

Statmho to Abmhos Millisiemens to Quantized Hall Conductances Siemens to Mhos Kilosiemens to Megasiemens Statmho to Gemmhos Quantized Hall Conductance to Statmhos Statmho to Siemens Millisiemens to Microsiemens Kilosiemens to Mhos Megasiemens to Gemmhos Gemmho to Siemens Microsiemens to Mhos Mho to Statmhos Siemens to Microsiemens Abmho to Quantized Hall Conductances Mho to Kilosiemens Abmho to Gemmhos Gemmho to Statmhos Mho to Millisiemens Microsiemens to Kilosiemens Statmho to Megasiemens Microsiemens to Megasiemens Abmho to Siemens Micromho to Amperes/Volt Kilosiemens to Gemmhos Quantized Hall Conductance to Kilosiemens Mho to Abmhos Gemmho to Millisiemens Kilosiemens to Micromhos Quantized Hall Conductance to Amperes/Volt Siemens to Amperes/Volt Micromho to Millisiemens Siemens to Quantized Hall Conductances Ampere/Volt to Statmhos Megasiemens to Mhos Siemens to Abmhos Micromho to Mhos Statmho to Mhos Millisiemens to Megasiemens Kilosiemens to Millisiemens Mho to Megasiemens Microsiemens to Quantized Hall Conductances Statmho to Microsiemens Ampere/Volt to Mhos Siemens to Megasiemens Statmho to Millisiemens Microsiemens to Amperes/Volt Megasiemens to Siemens Ampere/Volt to Quantized Hall Conductances Gemmho to Mhos Statmho to Quantized Hall Conductances Microsiemens to Siemens Kilosiemens to Siemens Quantized Hall Conductance to Micromhos Micromho to Quantized Hall Conductances Mho to Quantized Hall Conductances Quantized Hall Conductance to Megasiemens Megasiemens to Kilosiemens Millisiemens to Siemens Quantized Hall Conductance to Siemens Quantized Hall Conductance to Gemmhos Ampere/Volt to Gemmhos Millisiemens to Kilosiemens Mho to Micromhos Quantized Hall Conductance to Millisiemens Abmho to Mhos Siemens to Millisiemens Micromho to Kilosiemens Ampere/Volt to Kilosiemens Quantized Hall Conductance to Microsiemens Gemmho to Megasiemens Ampere/Volt to Siemens Mho to Amperes/Volt Kilosiemens to Microsiemens Micromho to Statmhos Abmho to Millisiemens Siemens to Micromhos Megasiemens to Statmhos Micromho to Megasiemens Siemens to Kilosiemens Abmho to Statmhos Millisiemens to Mhos Micromho to Siemens Millisiemens to Statmhos Microsiemens to Millisiemens Ampere/Volt to Abmhos Millisiemens to Amperes/Volt Microsiemens to Abmhos Megasiemens to Millisiemens Statmho to Micromhos Megasiemens to Microsiemens Ampere/Volt to Millisiemens Kilosiemens to Quantized Hall Conductances Microsiemens to Micromhos Megasiemens to Micromhos Abmho to Microsiemens Abmho to Micromhos Statmho to Kilosiemens Ampere/Volt to Microsiemens Statmho to Amperes/Volt Microsiemens to Statmhos Micromho to Microsiemens Mho to Gemmhos Gemmho to Abmhos Quantized Hall Conductance to Mhos Gemmho to Kilosiemens Ampere/Volt to Megasiemens Megasiemens to Abmhos Microsiemens to Gemmhos Gemmho to Microsiemens Mho to Microsiemens Megasiemens to Quantized Hall Conductances Millisiemens to Abmhos Kilosiemens to Abmhos Gemmho to Amperes/Volt Kilosiemens to Statmhos Millisiemens to Gemmhos Siemens to Statmhos Siemens to Gemmhos Micromho to Gemmhos Gemmho to Quantized Hall Conductances Ampere/Volt to Micromhos Mho to Siemens Quantized Hall Conductance to Abmhos Abmho to Kilosiemens Micromho to Abmhos Megasiemens to Amperes/Volt Abmho to Megasiemens Kilosiemens to Amperes/Volt Gemmho to Micromhos Millisiemens to Micromhos Abmho to Amperes/Volt

See also