Yes
yes it is stored in CMOS
The CMOS is a physical part of the motherboard: it is a memory chip that houses setting configurations and is powered by the on board battery.
Complimentary Metal Oxide SemiconductorActually, if you are referring to where your computer stores the data for hardware configurations; the CMOS is actually called nonvolatile BIOS memory. It used to be called CMOS RAM in the early days of computing, but we still call it the CMOS.
The complementary metal–oxide–semiconductor (CMOS) power comes from the CMOS battery located on the motherboard. This battery powers the Basic Input Output System (BIOS) and stores the start-up config for the computer.
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PMOS transistors are typically larger than NMOS transistors in CMOS design because the mobility of holes (the charge carriers in PMOS) is lower than that of electrons (the charge carriers in NMOS). This means that a larger current-carrying area is needed in the PMOS to achieve the same performance as the NMOS transistor. By making the PMOS larger, designers can balance the drive strengths of the two types of transistors in a CMOS circuit.
I am not to sure about Static Ram but in CMOS RAM, 1GB of RAM would contain about 137438953472 transistors because 1 bit of CMOS RAM contains 16 Transistors, 8 bits in a byte and 1073741824 bytes in a gigabyte. I am 100% sure about this and these are just estimations. Static RAM uses about 6 times as many transistors as dynamic RAM for the same amount of storage. Dynamic RAM uses 1 or 2 transistors per bit in typical implementations. Add to this transistors for address decode, bus interface, etc.
CMOS and NMOS are two logic families. As the name itself indicates, CMOS is complementary Metal Oxide Semiconductor technology. It uses both PMOS and NMOS transistors for design. Whereas, NMOS logic family uses only NMOS FETs for design.
In what?this is true in TTL logic ICs because the pulldown drive transistor is strong and the pullup drive transistor is weakthis is false in CMOS logic ICs because both pulldown and pullup transistors are identicalin other devices it varies
A CMOS logic gate typically consists of 4 to 6 transistors. This includes both NMOS (n-channel metal-oxide-semiconductor) and PMOS (p-channel metal-oxide-semiconductor) transistors that are used in a complementary pair configuration to implement the logical function.
CMOS technology consumes less power compared to MOS technology due to its ability to switch off transistors when not in use. This results in better energy efficiency. In terms of performance, CMOS technology generally offers faster operation and higher speed compared to MOS technology.
False. Although they can be set to the same password, they are not otherwise connected.
No. CMOS stands for Complementary Metal Oxide Semiconductor. Basically, it is a transistor formed by semiconductor bar to which an electrode (gate) attaches. This gate is isolated from the bar. A voltage on the the gate will create an electrostatic field that will prevent the current to circulate along the semiconductor bar. CMOS transistors are mostly used for digital (binary) application and consume very little current.
CMOS is not RAM. While it is memory, unlike main system RAM, CMOS is very tiny and only holds the BIOS configuration, nothing else. RAM is made from transistors and capacitors, which must be recharged. CMOS is made from several transistors wired as flip flops. It only needs a tiny amount of power to hold its data, and that comes from a small battery. If you remove the battery, it will lose everything.
CMOS (Complementary Metal-Oxide-Semiconductor) technology encompasses several subfamilies, primarily categorized into standard, low-power, and high-speed CMOS. Standard CMOS is widely used for general applications, while low-power CMOS is designed for energy-efficient devices, making it suitable for battery-operated applications. High-speed CMOS, on the other hand, is optimized for fast switching and high-frequency performance, often used in high-speed digital circuits. Additionally, there are specialized variants like RF-CMOS for radio frequency applications and mixed-signal CMOS for combining analog and digital functions.
CMOS loading is primarily affected by the capacitance of the interconnects, the number of inputs and outputs connected to a CMOS gate, and the operating frequency. Increased capacitance from longer interconnects or more connected gates leads to higher loading, resulting in slower switching speeds and increased power consumption. Additionally, the gate capacitances of the transistors themselves also contribute to the overall loading effect. Overall, these factors influence the performance and efficiency of CMOS circuits.
Yes