What is the Difference Between Semiconductor and Superconductor?
🆚 Go to Comparative Table 🆚The main difference between semiconductors and superconductors lies in their electrical conductivity and the temperature at which they operate. Here are the key differences between the two:
- Semiconductors:
- Have an intermediate conducting capacity, between that of insulators and conductors.
- Their conductivity ranges between conductors and insulators.
- Energy consumption is moderate.
- They can only handle a fixed level of current.
- Semiconductors are formed by mixing or doping impurity atoms with pure semiconductor elements, such as silicon (Si) and germanium (Ge).
- Superconductors:
- Have conductivity greater than that of normal conductors, as they have zero resistance.
- Their conductivity ranges from near-zero to the highest observed values for metals.
- Negligible energy consumption.
- They can withstand very high values of current.
- Superconductors are materials that become perfect conductors when cooled down to a certain temperature, known as their critical temperature.
In summary, semiconductors have an intermediate conducting capacity, while superconductors have a much higher conductivity and can operate at very low temperatures. The energy consumption and current-handling capabilities also differentiate these two types of conducting materials.
Comparative Table: Semiconductor vs Superconductor
Here is a table highlighting the differences between semiconductors and superconductors:
Parameter | Semiconductor | Superconductor |
---|---|---|
Definition | Semiconductors have an intermediate conducting capacity, between that of insulators and conductors. | Superconductors have conductivity greater than that of normal conductors, as they have zero resistance to the flow of electricity at low temperatures. |
Conductivity Range | Conductivity ranges between conductors and insulators. | Conductivity is larger than conductors. |
Band Gap | The band gap of a semiconductor is between 0.25 and 2.5 eV. | The band gap of a superconductor is larger than 2 eV. |
Examples | Pure atomic elements such as silicon (Si) and germanium (Ge) are the most popularly used. | Some examples of superconductors are aluminum, mercury, niobium, barium copper oxide, etc.. |
Doping | Semiconductors can be doped to create an excess or deficiency of electrons. | Superconductors cannot be doped. |
Energy Consumption | Intermediate energy consumption is involved. | Negligible energy consumption. |
In summary, semiconductors have an intermediate conducting capacity between that of insulators and conductors, while superconductors have zero resistance to the flow of electricity at low temperatures. Semiconductors can be doped, and their conductivity can be adjusted, whereas superconductors cannot be doped and have a fixed conductivity.
- Superconductor vs Perfect Conductor
- Conductor Semiconductor vs Insulator
- Superfluidity vs Superconductivity
- Semiconductor vs Metal
- Degenerate vs Non-degenerate Semiconductor
- Electrical Conductor vs Insulator
- Thermal Insulator vs Thermal Conductor
- Conductivity vs Conductance
- Solid State Physics vs Condensed Matter Physics
- Capacitors vs Supercapacitors
- Conduction vs Induction
- Transistor vs Thyristor
- BJT vs FET
- Ohmic vs Non Ohmic Conductors
- Electronic vs Ionic Conduction
- Hall Effect vs Quantum Hall Effect
- Intrinsic vs Extrinsic Semiconductor
- MOSFET vs BJT
- Paramagnetic vs Superparamagnetic