This sounds like a question from a sheet I did or actually had for HW the answer is they eliminated the heat sensitive components
That will depend on the integrated circuit.
Transistor are DC output, Triac are AC output.
This mechanism is how a transistor works.
Including a series capacitor in the input and/or output circuit of the transistor. If the capacitor in the output circuit is omitted there will be a dc component in the output.
Selection and setting of a transistor's operating pointto meet circuit functional requirements.
A transistor.
resistor
A transistor on an integrated circuit is typically around 14 nanometers in size, while a human hair is about 50,000-100,000 nanometers thick. This means that a transistor is much smaller than a human hair by several orders of magnitude.
One significant disadvantage of transistors is their susceptibility to thermal instability, which can lead to fluctuations in performance as temperature changes. The circuit design may incorporate feedback mechanisms or temperature compensation techniques to stabilize the transistor's operation, thus mitigating issues like thermal runaway. Additionally, certain circuits may use complementary pairs of transistors to balance performance and improve efficiency, further addressing the inherent limitations of individual transistor components.
A PNP transistor has no advantage or disadvantage over an NPN transistor in its ability as an amplifier. Rather, the current-handling capacities of the transistor determine if it's usable as an amplifier.
Integrated Circuit is not exactly correct. The circuit contains 100s and even 1000s of Transistors. The transistor is the basic building block.
Basically a transistor is just one single component and has no function by itself, while an IC is composed of several components of various types (transistors, diodes, resistors, and capacitors) pre-wired into a specific circuit having a specific function that it performs.An IC can now have as few as two components in it to hundreds of billions of components in it, soon the technology for making ICs will probably be able to put hundreds of trillions of components in one IC and the ultimate limit is still uncertain.
Transistor transistor logic is one type of many different types of bipolar transistor based digital logic circuitry. It is very efficiently implemented in integrated circuit chips, needs only one power supply voltage, and operates at reasonably high speeds. Transistor transistor logic was first developed in the middle 1960s as a modification of the diode transistor logic, then in use in some digital logic integrated circuit chips but dating back to the earliest discrete bipolar transistor logic developed in the late 1950s and derived from vacuum tube point contact diode logic used in many early first generation computers. Transistor transistor logic integrated circuits dominated the computer and electronic digital controller market from the late 1960s until the middle 1980s, when metal oxide semiconductor field effect transistor based microprocessors and microcontrollers began to replace it. By the early 1990s transistor transistor logic and other bipolar transistor based digital logic integrated circuits had been replaced with equivalent complementary metal oxide semiconductor field effect transistor integrated circuits that were both faster and consumed less power (thus running much cooler) or with programmable logic devices of various types. In general transistor transistor logic is now considered obsolete.
The symbol of a transistor is often drawn within a circle to denote that it is an integrated or encapsulated electronic component. The circle helps to visually distinguish the transistor from other circuit elements, emphasizing its role as a discrete device. Additionally, the circular symbol can indicate that the transistor is part of a larger circuit or system, highlighting its function in controlling current flow within that context.
An electronic component, such as a resistor, capacitor, transistor, or integrated circuit, usually controls the flow of current in an electrical circuit. It can either amplify, switch, or modulate the flow of electricity to achieve specific functions within the circuit.
1)Transistors 2)Capacitors 3)Resistors
integrated circuit computer or microprocessor