Conductance - Measurement Units, Conversion Chart and Calculator

Conductance Conversion Calculator

Use Conductance Calculator to convert between different conductance measurement units.

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Conductance Conversion Chart

Following is conductance conversion chart based on the SI unit siemens :

Unit and Converted Value
1 attomho = 1e-18 siemens
1 attosiemens = 1e-18 siemens
1 centimho = 0.01 siemens
1 centisiemens = 0.01 siemens
1 decamho = 10 siemens
1 decasiemens = 10 siemens
1 decimho = 0.1 siemens
1 decisiemens = 0.1 siemens
1 examho = 1.00000e+18 siemens
1 exasiemens = 1.00000e+18 siemens
1 femtomho = 1e-15 siemens
1 femtosiemens = 1e-15 siemens
1 gigamho = 1.00000e+9 siemens
1 gigasiemens = 1.00000e+9 siemens
1 hectomho = 100 siemens
1 hectosiemens = 100 siemens
1 kilomho = 1000 siemens
1 kilosiemens = 1000 siemens
1 megamho = 1.00000e+6 siemens
1 megasiemens = 1.00000e+6 siemens
1 mho = 1 siemens
Unit and Converted Value
1 micromho = 0.000001 siemens
1 microsiemens = 0.000001 siemens
1 millimho = 0.001 siemens
1 millisiemens = 0.001 siemens
1 nanomho = 1e-9 siemens
1 nanosiemens = 1e-9 siemens
1 petamho = 1.00e+15 siemens
1 petasiemens = 1.00e+15 siemens
1 picomho = 1e-12 siemens
1 picosiemens = 1e-12 siemens
1 teramho = 1.00e+12 siemens
1 terasiemens = 1.00e+12 siemens
1 yoctomho = 1e-24 siemens
1 yoctosiemens = 1e-24 siemens
1 yottamho = 1.00e+24 siemens
1 yottasiemens = 1.00e+24 siemens
1 zeptomho = 1e-21 siemens
1 zeptosiemens = 1e-21 siemens
1 zettamho = 1.00e+21 siemens
1 zettasiemens = 1.00e+21 siemens

What is Conductance?

Conductance is the measure of a material's ability to conduct an electric current. It is the reciprocal of resistance, with the unit of conductance being the siemens (S). Conductance is a key concept in electrical engineering and physics, helping to quantify how easily electricity can flow through a material.

How Conductance is Useful in Real Life:

  • Electrical Circuits: Conductance plays a role in circuit design, allowing engineers to understand how much current will flow through a circuit under a given voltage, which is essential for designing safe and efficient circuits.
  • Power Distribution Systems: Conductance is used to assess the ability of materials to carry electrical power in power grids, ensuring efficient energy transmission from power plants to homes and industries.
  • Medical Equipment: In medical devices, conductance is used in systems such as ECGs (electrocardiograms) and pacemakers, which rely on electrical currents to monitor and regulate the heart's activity.
  • Water Quality Testing: Conductance is used to measure the ion concentration in water, providing valuable data for testing water quality in environmental science, especially in measuring salinity and pollution levels.
  • Material Science: Conductance is important in evaluating the conductive properties of materials used in electronics, sensors, and other technologies, helping engineers select the right materials for various applications.
  • Battery Efficiency: The conductance of battery materials helps determine their performance, especially in high-efficiency and fast-charging battery technologies, which are essential for smartphones, electric vehicles, and renewable energy systems.

In summary, conductance is crucial in a wide range of applications, from electrical and power systems to medical devices and environmental monitoring. Measured in units like siemens, millisiemens, and microsiemens, conductance helps us understand how easily electrical currents can flow through materials, allowing for efficient design and operation of electrical systems and devices.

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