Kiloohms to Gigaohms Converter

Convert kiloohms to gigaohms instantly with our free electrical resistance conversion calculator. Enter any value for accurate results.

=
1.0000E-6
Gigaohms (GΩ)
1 kΩ = 1.0000E-6 GΩ
🔄 Swap Units (Gigaohms → Kiloohms)
1 kΩ
=
1.0000E-6 GΩ
1 Kiloohm = 0.000001 Gigaohms

How to Convert Kiloohms to Gigaohms

To convert an electrical resistance measurement from kiloohms to gigaohms, divide the resistance value by the conversion factor. Since one kiloohm is equal to 0.000001 gigaohms, you can use this formula:

gigaohms = kiloohms ÷ 1,000,000

The resistance in gigaohms is equal to the kiloohms divided by 1,000,000.

Example: Convert 5 kiloohms to gigaohms.

Using the formula: gigaohms = kiloohms ÷ 1,000,000

gigaohms = 5 kΩ ÷ 1,000,000 = 5.0000E-6 GΩ

Therefore, 5 kiloohms equals 5.0000E-6 gigaohms.

How Many Gigaohms Are in a Kiloohm?

There are 0.000001 gigaohms in one kiloohm.

1 kΩ = 0.000001 GΩ

What Is a Kiloohm?

The kiloohm (symbol: kΩ) is a unit of electrical resistance equal to one thousand (103) ohms. The prefix “kilo” denotes a factor of 1,000 in the International System of Units. Kiloohms are among the most commonly used resistance values in electronics. Pull-up and pull-down resistors, voltage dividers, biasing networks, and feedback resistors in analogue circuits frequently have values in the kiloohm range. Standard resistor values in the kiloohm range include 1 kΩ, 2.2 kΩ, 4.7 kΩ, 10 kΩ, 47 kΩ, and 100 kΩ. The popular 10 kΩ resistor is one of the most commonly used components in electronics, serving as a default pull-up/pull-down resistor, voltage divider element, and signal conditioning component. In sensor circuits, thermistors and photoresistors typically have resistances in the kiloohm range. A standard NTC thermistor might be rated at 10 kΩ at 25 °C, while a light-dependent resistor (LDR) might range from 1 kΩ (bright light) to several hundred kiloohms (darkness). In audio electronics, potentiometers for volume control are typically 10–100 kΩ, and the input impedance of audio amplifiers is usually 10–47 kΩ.

One kiloohm is equal to:

  • 1,000 ohms (Ω)
  • 106 milliohms (mΩ)
  • 0.001 megaohms (MΩ)
  • 1012 nanoohms (nΩ)
  • 1012 abohms (abΩ)
  • 1.1127 × 10−9 statohms (statΩ)

What Is a Gigaohm?

The gigaohm (symbol: GΩ) is a unit of electrical resistance equal to one billion (109) ohms. The prefix “giga” denotes a factor of 109 in the International System of Units. Gigaohms are used to measure very high resistances encountered in insulation systems, high-value resistors, and electrostatic applications. The resistance of clean, dry insulation materials, the leakage resistance of high-voltage cables, and the surface resistance of static-dissipative materials are often in the gigaohm range. In electrostatics, the surface resistance of materials determines their electrostatic dissipation properties. Conductive materials have surface resistance below 105 Ω, static-dissipative materials range from 105 to 1012 Ω (0.001–1,000 GΩ), and insulative materials exceed 1012 Ω. In semiconductor testing, the leakage resistance of capacitors and the input resistance of MOSFET gate circuits can be in the gigaohm to teraohm range. Measuring such high resistances requires electrometers and guarded measurement fixtures. In biological measurements, the seal resistance in patch-clamp electrophysiology should be at least 1 GΩ (a “gigaohm seal” or “giga-seal”) to ensure low-noise recordings of single ion channel currents.

One gigaohm is equal to:

  • 109 ohms (Ω)
  • 1,000 megaohms (MΩ)
  • 106 kiloohms (kΩ)
  • 1012 milliohms (mΩ)
  • 1018 abohms (abΩ)
  • 0.001113 statohms (statΩ)

Understanding Electrical Resistance Units

Electrical resistance is a measure of the opposition to the flow of electric current through a conductor. It is defined by Ohm’s law as the ratio of voltage to current (R = V/I). Resistance depends on the material’s resistivity, the length of the conductor, and its cross-sectional area (R = ρL/A).

Resistance converts electrical energy into heat, which is the basis of resistive heating in toasters, electric heaters, and incandescent light bulbs. In electronic circuits, resistors are used to control current flow, divide voltages, bias active components, and set time constants.

Major Resistance Unit Families

  • SI units: The ohm (Ω) is the SI unit of resistance, with standard metric prefixes: nanoohm (nΩ = 10−9 Ω), microohm (μΩ = 10−6 Ω), milliohm (mΩ = 10−3 Ω), kiloohm (kΩ = 103 Ω), megaohm (MΩ = 106 Ω), and gigaohm (GΩ = 109 Ω).
  • CGS-EMU unit: The abohm (abΩ) is the resistance unit in the electromagnetic CGS system. 1 abΩ = 10−9 Ω = 1 nΩ.
  • CGS-ESU unit: The statohm (statΩ) is the resistance unit in the electrostatic CGS system. 1 statΩ ≈ 8.988 × 1011 Ω, an extremely large value reflecting the different scaling of ESU electrical quantities.

Resistance in Everyday Life

  • Wiring: Household copper wiring has very low resistance (milliohms per metre) to minimise voltage drops and heating.
  • Electronics: Resistors in circuits range from fractions of an ohm (current sense) to megaohms (high-impedance inputs).
  • Insulation: Good electrical insulation has resistance in the megaohm to gigaohm range, preventing current leakage.
  • Human body: Dry skin has a resistance of 10,000–100,000 Ω, but wet skin can be as low as 1,000 Ω, which is why water and electricity are dangerous together.

Converting Between Resistance Units

All resistance units measure the same physical quantity, so converting between them requires multiplying by the appropriate conversion factor. For SI prefixed units, each step is a factor of 1,000. The CGS units involve the speed of light constant for the statohm, while the abohm is simply 10−9 ohms.

Tips for Resistance Conversions

  • For SI prefix conversions (nΩ, μΩ, mΩ, Ω, kΩ, MΩ, GΩ), each step is a factor of 1,000. So 1 kΩ = 1,000 Ω = 1,000,000 mΩ.
  • The abohm is exactly equal to the nanoohm: 1 abΩ = 1 nΩ = 10−9 Ω. They’re interchangeable.
  • The statohm is an enormous unit: 1 statΩ ≈ 899 GΩ. It is rarely used in modern practice.
  • To convert ohms to kiloohms, divide by 1,000. To convert kiloohms to megaohms, divide by 1,000 again.
  • Resistor colour codes and standard values (E-series) are always expressed in ohms. A “4.7k” resistor is 4,700 Ω = 4.7 kΩ.
  • In schematics, resistance values are often shortened: 4k7 = 4.7 kΩ, 2M2 = 2.2 MΩ, 47R = 47 Ω.
  • The relationship between statohm and abohm involves the speed of light squared: 1 statΩ = c² × 1 abΩ (in CGS units), or about 8.988 × 1020 abohms.
  • When measuring very low resistances (milliohms and below), always use four-terminal (Kelvin) connections to eliminate lead resistance errors.

Kiloohms to Gigaohms Conversion Table

The following table shows conversions from kiloohms to gigaohms.

KiloohmsGigaohms (GΩ)
1 kΩ1.0000E-6
2 kΩ2.0000E-6
3 kΩ3.0000E-6
4 kΩ4.0000E-6
5 kΩ5.0000E-6
6 kΩ6.0000E-6
7 kΩ7.0000E-6
8 kΩ8.0000E-6
9 kΩ9.0000E-6
10 kΩ1.0000E-5
11 kΩ1.1000E-5
12 kΩ1.2000E-5
13 kΩ1.3000E-5
14 kΩ1.4000E-5
15 kΩ1.5000E-5
16 kΩ1.6000E-5
17 kΩ1.7000E-5
18 kΩ1.8000E-5
19 kΩ1.9000E-5
20 kΩ2.0000E-5
21 kΩ2.1000E-5
22 kΩ2.2000E-5
23 kΩ2.3000E-5
24 kΩ2.4000E-5
25 kΩ2.5000E-5
26 kΩ2.6000E-5
27 kΩ2.7000E-5
28 kΩ2.8000E-5
29 kΩ2.9000E-5
30 kΩ3.0000E-5
31 kΩ3.1000E-5
32 kΩ3.2000E-5
33 kΩ3.3000E-5
34 kΩ3.4000E-5
35 kΩ3.5000E-5
36 kΩ3.6000E-5
37 kΩ3.7000E-5
38 kΩ3.8000E-5
39 kΩ3.9000E-5
40 kΩ4.0000E-5

Related Resistance Converters

Convert from Kiloohms

Convert to Gigaohms