That depends:
Moore's Law. And it's actually 12 months, now. But yes, the original theory was that the overall number of transistors on a CPU die would double every year and a half. The correction to Moore's Law is influenced, among other things, also by the reduction in size of the dies and the transistors themselves.
By the year 2015 transistors as small as 14 nanometers ('nm') were being manufactured for CPUs. 14 nanometers is much smaller than the average-sized virus. For example, the influenza-A virus is between 58 - 100 nm in size.
Transistor Applications Transistors have a multitude of applications, among which are: Amplification of all kinds ( radio , television , instrumentation ) Signal generation (oscillators, wave generators , radio frequency emission) Switching, acting switches (relay control, supplies power switched, control lamps, modulation pulse width PWM) Detection of light radiation (phototransistors) Junction transistors (one of the most basic types) have 3 terminals called Base, Collector and Emitter , which depending on the encapsulation of the transistor can be distributed in various ways. Transistor Encapsulation Now we are going to see the transistors from the outside. They are encapsulated in different shapes and sizes, depending on the function they are going to perform. There are several standard packages and each package has a terminal assignment that can be found in a general catalog of transistors. Regardless of the capsule they have, all transistors have their data printed on their body , that is, the reference that indicates the transistor model . For example, the transistors shown on the right have the reference "MC 140". TO-3 capsule . It is used for high- power transistors , which always have an aluminum radiator that helps dissipate the power generated in it.On the top left we see its distribution of terminals, noting that the collector is the chassis of the transistor. Note that the other terminals are not the same distance from the two holes. On the right we see how to place it on a radiator, with its screws and the insulating mica. The function of mica is that of an electrical insulator and at the same time a thermal conductor. TO-220 capsule . It is used for transistors of less power, for voltage regulators in power supplies and for low power thyristors and triacs. Generally they need an aluminum radiator, although sometimes it is not necessary, if the power they are going to dissipate is low. Below we see how to place the radiator and the fixing screw. An insulating mica is usually placed between the transistor and the radiator, as well as a plastic spacer for the screw, since the metal part is connected to the central terminal and sometimes it does not interest that it comes into electrical contact with the radiator. TO-126 capsule . It is used in low power transistors, which generally do not need a radiator. At the top left we see the terminal assignment of a BJT transistor and a Thyristor. Below we see two transistors that have this capsule placed on small aluminum radiators and fixed with their corresponding screw. TO-92 capsule . It is widely used in small signal transistors. In the center we see the terminal assignments in some models of transistors, seen from below. Below we see two such transistors mounted on a printed circuit board. Note the indication "TR5" on the silkscreen , which indicates that transistor number 5 of the circuit is mounted in that place, according to the electronic diagram. TO-18 capsule . It is used in small signal transistors. Its body is formed by a metal casing that has a protrusion that indicates the terminal of the Emitter Miniature capsule . It is used in small signal transistors. Like the previous one, they are quite small in size.
It all depends on the size of the box!!!! It all depends on the size of the box!!!!
Depends on the size. A standard size(Home made) idly is around 60cals.
10-20 nanometers
A microchip typically weighs just a few grams, less than a paper clip or a AAA battery. The weight can vary slightly depending on the specific size and components of the microchip.
The invention of the microchip in 1949 - dramatically reduced the physical size of computers.
The discovery and development of microchips and micro technology
Transistors were shortly thereafter replaced by integrated circuits, which further minimized size and lessened power requirements.
it was called Ralph and he was 0.000123mmcubed, but someone put him down and never seen again.
About the size of a penny or coin.
Core i5-655K features an unlocked multiplier. FSB has been replaced with DMI. Transistors: 382 million; Die size: 81 mm²; Transistors: 177 million
A pet microchip is about the size of a grain of rice and is typically encased in a biocompatible glass casing. It is inserted under the skin of a pet, usually between the shoulder blades. The microchip contains a unique identification number that can be read using a special scanner.
Red Blood cells are not known to shrink in size as fast and as often as all of the component parts of the modern microchip. Blood cells can be seen by the visible light microscope, microchip pats can only be seen with and electron microscope set to see things far smaller
In value, a penny is smaller. In size, a dime is smaller.
Theoretically possible - yes. The microchip used to identify animals is about the size of a grain of rice, simply injected under the skin. It might be difficult to do in something as small as a bird - have a word with your local vet to get an accurate answer.