Gallium Antimonide (GaSb) Wafer for University Student Research

Gallium Antimide Solar Cell Efficiency

GaSb solar cells have proven to be the most efficient semiconductors. The biggest drawback is pricing. GaSb high prices make the wafers unprofitable compared to silicon based solar cells. But researchers should not shy away from researching these solar cells. There may be a day when a homeowner's roof could be considered a solar commodity and higher-efficiency cells could make a smaller roof as profitable as a larger roof with silicon solar panels.

Let us know if we can quote you on GaSb and GaAs solar wafers and start your research today!

What Is the Infrared Spectrum of a Compound?

The infrared spectrum consists of bands that represents a specific functional group and are characterized by several chemical compounds. These bands help scientists determine the structure and properties of an unknown compound that they may be researching. Infrared (IR) spectroscopy can be used to identify the functional groups of gases and liquids. 

 

Indium Gallium Antimonide Solar Cells

Indium-gallium-antimonide (GaSb) solar cells are excellent at light-trapping and absorption properties. The wafers and are particularly good in the infrared spectrum. They can also be made to use the energy from the sun's ultraviolet and infrared rays. They have several advantages over other types of silicon-based solar cells, including their high-temperature thermometers and ability to detect IR radiation.

Unlike Silicon, GaSb solar cells are much more expensive.

GaSb solar cells low resistance to heat and light extremely high thermal resistance make them a perfect fit for solar research. Their efficiency make GaSb solar cells better than indium-based solar cells.

What is the Band Gap of Gallium Antimonide

Gallium antimonide (GaSb) band gap of has the same lattice constants of other wafers in the III-V wafer group. This property makes GaSb an excellent substrate for solar cells. GaSb's energy density and efficiency of these materials makes the substrate a great, but expensive choice for solar cell applications. Gasb wafers are also used in infrared detectors and lasers. Tellerium-doped GaSb wafers can fabricat ethermal photovoltaic and microwave devices.

GaSb Band Gap is 0.7eV at -196 degC and the band edge energy is 0.8 eV at 650 degC.

Gallium Antimonide Wafers (GaSb) Inventory

We have a large selection fo GaSb Substrates in stock. Below are just a few.

 

Lot #	Size	Specs
	2"	2 Polished
GASB1	1.75"	P-Type (100)
GASB2	2" x 4 mm	Te/N-Type (100) Blanks, R < 1017, EPD < 104
GASB0677	50.8 mm x 450 um	P/Si (100) cc: 1-3x1018, EPD < 1x104, EPI, 1 pol
GASB5467	50.8 mm x 500 um	N/Te (100), cc = 6-8x1017, EPD < 1x103, 1 pol

What is Gallium Antimonide Wafers (GaSb)?

What is gallium antimonide wafers? GaSb is a semiconducting substrate that has the highest refractive index. Gallium antimonide is highly-conductive making idea for thermal photovoltaic cells and detectors.

GaSb Wafer Applications Include:

• Infrared LEDs
• Detectors
• Potoresistors
• Lasers
• Thermocouple Sensors

The latest research on gallium antimonide (GaSb)-Wafers is crucial for the development of a smart, high-performing semiconductor. In the last few years, the market has seen enormous growth, making the supply of these materials essential for the semiconductor industry. Using this material is an excellent way to develop new technologies and stay competitive. The latest report focuses on current trends and the drivers of the global market.

This material is very useful for a wide range of applications. It can be used in infrared LEDs, thermo-photovoltaic systems, photoresistors, and other devices. It is a good option for many semiconductors because it is light and robust. It can also handle high voltage. These characteristics make gallium antimonide a highly sought-after material. And as a result, it is an ideal material for a variety of uses.

These compounds are highly resistant to heat, moisture, and chemicals. They are particularly useful for infrared detectors. They are also used in thermophotovoltaic systems. The wide frequency response, low energy consumption, and high sensitivity of these materials make them an excellent choice for many different technologies. This is a semiconductor that is used in a wide range of applications. If you are interested in learning more about this material, it is an excellent candidate for research.

These materials are used in a variety of applications. They are useful in semiconductor devices, including infrared-emitting devices, laser diodes, and photodetectors. The materials are also highly oriented and can be used in various other types of electronics. This is an important attribute for a semiconductor. These components are essential for a number of other technologies. So, if you are considering buying these products, the right materials are a must-have.

The most common uses for gallium antimonide are in semiconductor devices. Its high refractive index makes it ideal for LEDs, thermo-photovoltaic systems, and photoresists. Its use in semiconductors is growing as it is a non-toxic semiconductor. It is classified as a hazardous substance to human health. Aside from semiconductors, this material is also used in high-frequency radios.

The semiconductor gallium antimonide is used in thermophotovoltaic devices. Its high-performance properties make it an excellent candidate for these devices. Its high sensitivity and wide frequency range make it a great choice for these applications. Moreover, it is also useful in several other applications. Its plasmonic and photonic properties make it ideal for use in semiconductors. This material is a good candidate for photovoltaics.

Silicon doped gallium antimonide is a common semiconductor material. The compound of gallium and antimony is used in semiconductor applications. The latter is most commonly used in infrared detectors. The semiconductors containing octahedral oxides are a good choice for thermoelectrics. They can detect both heat and cold temperatures. These devices are ideal for solar cells because they are so transparent and low-power.

It is widely used in semiconductor devices. Its broad frequency response and low power consumption make it a useful semiconductor. The material can also be used in thermocouple sensors and lasers. The optical properties of gallium antimonide wafers are explored in this article. Its advantages and disadvantages are discussed. It is worth studying the materials in this compound. This chemical is a valuable and versatile material.