Quantized Hall Conductance to Microsiemens Conversion

Convert between Quantized Hall Conductance and Microsiemens quickly and accurately.

e²/h
µS

How to Convert Quantized Hall Conductance to Microsiemens

Conversion Formula

1 e²/h = 38.741 µS
1 µS = 0.026 e²/h

Example

Convert 15 e²/h to µS:

15 e²/h = 15 × 38.741 µS = 581.108 µS

Unit Information

Learn about the electric conductance units you're converting between

Quantized Hall Conductance

e²/h

Definition

A fundamental unit of electric conductance based on quantum mechanics, equal to approximately 3.87405E-5 siemens. Used in quantum Hall effect measurements and fundamental physics research.

History/Origin

Derived from the quantum Hall effect discovered by Klaus von Klitzing in 1980. The quantized Hall conductance represents a fundamental constant in quantum mechanics and is used in precision electrical measurements.

Current Use

Used in fundamental physics research, quantum Hall effect studies, and precision electrical measurements. Essential for defining the ohm in terms of fundamental physical constants and quantum mechanical principles.

Multiplier

0

Offset

0

Microsiemens

µS

Definition

A metric unit of electric conductance equal to one millionth of a siemens. Used for measuring low conductance values in electronics, water quality testing, and semiconductor applications.

History/Origin

Derived from the siemens unit with the micro prefix, representing 10^-6 siemens. Widely used in electronics, water quality analysis, and semiconductor research for measuring low conductance values.

Current Use

Extensively used in water quality testing, electronics, and semiconductor manufacturing for measuring low conductance values. Essential for characterizing semiconductor materials and water conductivity measurements.

Multiplier

0

Offset

0

Quantized Hall Conductance to Microsiemens Conversion Table

Quantized Hall Conductance [e²/h] Microsiemens [µS]
1 e²/h 38.7405 µS
10 e²/h 387.405 µS
25 e²/h 968.5125 µS
50 e²/h 1937.025 µS
100 e²/h 3874.05 µS
0 e²/h 0E+0 µS
-10 e²/h -387.405 µS
-40 e²/h -1549.62 µS