The GSA (General Semiconductor Association) and GSG (General Semiconductor Group) fuses from GE differ primarily in their design and application specifications. GSA fuses are typically used for general-purpose applications, offering higher interrupting ratings and broader voltage ratings. In contrast, GSG fuses are designed for specific industrial applications, focusing on enhanced performance in circuits with higher inrush currents. Each type is optimized for particular operational environments and safety standards.
at higher values of temperature the intrinsic carrier concentration become comparable to or greater than doping concentration in extrinsic semiconductors. thus majority and minority carrier concentration increases with increase in temperature and it behaves like intrinsic semiconductor.
p-type or n-type semiconductor alone is of very limited use in chips -- you can only make a thin-film resistor or parallel-plate capacitor with it. You also need the opposite type, the n-type semiconductor, to make junction diodes and MOS or bipolar transistors, which are essential components in an integrated circuit. ================================
germanium
Lithography is a technique used to make patterns on semiconductor materials.
intrinsic semiconductor is an un-doped semiconductor, in which there is no impurities added where as extrinsic semiconductor is a doped semiconductor, which has impurities in it. Doping is a process, involving adding dopant atoms to the intrinsic semiconductor, there by gives different electrical characteristics
A semiconductor slice is used to make integrated circuits or ICs. It is also known as a semiconductor wafer or a semiconductor substrate.
the impurity add here is 1 atom of per million atoms of semiconductor.......
* silicon * germanium * gallium arsenide * etc.
silicon is intrinsic semiconductor until we add some impurities in it. the impurities are either of group 3 called acceptors which make p type or of group 5 called donors which make n type semiconductor.
Arsenic is not a semiconductor by itself, but it is commonly used as a dopant in semiconductor materials like silicon to alter their electrical properties. Arsenic increases the number of available charge carriers in the material, which can make it conduct electricity more effectively.
at higher values of temperature the intrinsic carrier concentration become comparable to or greater than doping concentration in extrinsic semiconductors. thus majority and minority carrier concentration increases with increase in temperature and it behaves like intrinsic semiconductor.
SILICON or common sand with doping of the right ratio to make a transistor. three layers of semiconductor material
Gain varies from one to another, and there is a broad range.
Using the correct fuse for the equipment in use is very important as should a fault occur using the wrong fuse could be the difference between a blown fuse or an electrical fire / severe electric shock
Carbon has unique properties that make it challenging to use as a semiconductor material. It can exist in multiple structures (diamond, graphite, etc.) with varying electrical properties, making it difficult to control and predict its behavior as a semiconductor. Additionally, fabricating carbon-based semiconductor devices is technologically complex and expensive compared to traditional semiconductor materials like silicon.
p-type or n-type semiconductor alone is of very limited use in chips -- you can only make a thin-film resistor or parallel-plate capacitor with it. You also need the opposite type, the n-type semiconductor, to make junction diodes and MOS or bipolar transistors, which are essential components in an integrated circuit. ================================
Silicon the element is used in electronicsto make microchips. Si is a semiconductor.