Mostly because of their cost but also because silicon transistor have faster switching properties and are far more resistant to damage by heat. Silicon transistor also have a much wider operating band.
semi-conducting
* Times Magazine - 'the largest dollar order for electronic equipment' * M. McLuhan - 'the new electronic and organic age' * Physics Bulletin - ' the central part to be played by the electronics industry' * British Medical Journal - ' the launch of an electronic journal'
Some of the best electronic billing systems include Sage and QuickBooks. These have been the industry leaders for a number of years. Both offer free trial versions to potential customers.
The generic term for equipment that displays electronic charts is "Electronic Chart Display and Information System" (ECDIS). ECDIS integrates navigation information with electronic charts, providing real-time data to enhance situational awareness for maritime navigation. It is widely used in the shipping industry to improve safety and efficiency at sea.
Programmable logic devices were invented in the late seventies and since then have proved to be very popular and are now one of the largest growing sectors in the semiconductor industry. Why are programmable logic devices so widely used? Programmable logic devices provide designers ultimate flexibility, time to market advantage, design integration, are easy to design with and can be reprogrammed time and time again even in the field to upgrade system functionality.
Boron and germanium are both metalloids located in group 14 of the periodic table. They have similar electronic configurations with boron having 3 valence electrons and germanium having 4. Both elements are used in the semiconductor industry for different purposes.
Germanium chloride is mainly used in the production of high-purity germanium metal for semiconductor applications, such as in the electronics industry. It is also used in some chemical research applications and as a precursor for other germanium compounds.
Germanium is primarily recycled by specialized recycling companies that focus on electronic waste and semiconductor materials. These companies extract germanium from discarded electronics, such as old semiconductors, fiber optics, and solar panels. Additionally, some manufacturers may recycle germanium from their own production processes to minimize waste and reduce costs. Overall, the recycling of germanium is part of efforts to promote sustainability in the electronics industry.
Germanium is primarily used in semiconductor technology, particularly in the production of transistors and diodes, where it serves as a key material for electronic devices. Additionally, it is employed in fiber optics and infrared optics due to its transparency to infrared light. Germanium compounds are also used in the manufacture of solar cells and in various alloys to improve their properties. Furthermore, germanium plays a role in catalysts for the petrochemical industry.
Silicon was first used in the semiconductor industry in the late 1940s and early 1950s to create the first silicon transistors. It replaced germanium as the primary material for semiconductor devices due to its superior electrical properties. Silicon is now widely used in various electronic applications due to its abundance and versatility.
Two molecules that contain germanium are germanium dioxide (GeO2) and germane (GeH4). Germanium dioxide is used in the production of optical materials, while germane is a toxic gas used in the semiconductor industry for the deposition of germanium-containing thin films.
Germanium and arsenic are both metalloids, but they have different physical and chemical properties. Germanium is a semiconductor commonly used in electronics, while arsenic is a toxic element with various applications in industry and agriculture. Their atomic structures and properties are not closely related, making them dissimilar.
Silicon (Si) and germanium (Ge) are primarily used as elemental semiconductors due to their favorable electronic properties and abundant availability. Both materials have a diamond cubic crystal structure, allowing for efficient charge carrier mobility and effective doping, which is essential for semiconductor applications. Silicon, in particular, has a wide bandgap and excellent thermal stability, making it ideal for various electronic devices. Additionally, the well-established manufacturing processes and cost-effectiveness of silicon further contribute to its dominance in the semiconductor industry.
Germanium has limited use in modern electronics primarily due to its higher thermal sensitivity and lower electron mobility compared to silicon. While it was once used in transistors and diodes, its performance in high-temperature environments and power applications is inferior to silicon. Additionally, the cost and availability of germanium make it less attractive for widespread use in today's semiconductor industry, which favors silicon-based technologies.
Silicon is preferred over germanium primarily due to its superior thermal stability and larger energy bandgap, which make it more suitable for high-temperature applications and reduce leakage currents in electronic devices. Additionally, silicon has a well-established manufacturing infrastructure and a lower cost, making it more accessible for widespread use in semiconductor technology. Furthermore, silicon's native oxide (silicon dioxide) allows for better insulation and passivation in integrated circuits. These factors contribute to silicon's dominance in the electronics industry.
Metalloids such as silicon and germanium are used in the electronic goods industry because they exhibit properties of both metals and nonmetals. They are semiconductors, which means they can conduct electricity under certain conditions. This property is essential for the fabrication of electronic components like transistors and diodes.
It's where electronics begin. You cannnot have any electronic device without having a chip inside it, and without the heros of this industry we would be far behind where we are in the digital world of today.