From WikiChip
MOSFET - Metal-Oxide-Semiconductor Field-Effect-Transistor

MOSFET (Metal-Oxide-Semiconductor Field-Effect-Transistor), also known as the MOS transistor (metal–oxide–silicon transistor) or IGFET (Insulated-Gate Field-Effect Transistor), is a type of insulated-gate field-effect transistor that is fabricated by the controlled oxidation of a semiconductor (typically silicon) and utilizes an insulator (such as SiO2) between the gate and the body. Today, the MOSFET is the most common type of transistor for both digital and analog circuits. The voltage of the gate terminal determines the electrical conductivity of the device; this ability to change conductivity with the amount of applied voltage can be used for amplifying or switching electronic signals.

The MOSFET was invented by Mohamed M. Atalla and Dawon Kahng at Bell Labs in 1959, and first presented in 1960. It is the basic building block of modern electronics, and the most frequently manufactured device in history, with an estimated total of 13 sextillion (1022) MOSFETs manufactured between 1960 and 2018.[1] It is the dominant semiconductor device in digital and analog integrated circuits (ICs),[2] and the most common power device.[3] It is a compact transistor that has been miniaturised and mass-produced for a wide range of applications, revolutionizing the electronics industry and the world economy, and being central to the digital revolution, silicon age and information age. MOSFET scaling and miniaturization has been driving the rapid exponential growth of electronic semiconductor technology since the 1960s, and enables high-density ICs such as memory chips and microprocessors.

A key advantage of a MOSFET is that it requires almost no input current to control the load current, when compared with bipolar junction transistors (BJTs). In an enhancement mode MOSFET, voltage applied to the gate terminal can increase the conductivity from the "normally off" state. In a depletion mode MOSFET, voltage applied at the gate can reduce the conductivity from the "normally on" state.[4] MOSFETs are also capable of high scalability, with increasing miniaturization, and can be easily scaled down to smaller dimensions. They also have faster switching speed (ideal for digital signals), much smaller size, consume significantly less power, and allow much higher density (ideal for large-scale integration), compared to BJTs. MOSFETs are also cheaper and have relatively simple processing steps, resulting in high manufacturing yield.

MOSFETs can either be manufactured as part of MOS integrated circuit chips or as discrete MOSFET devices (such as a power MOSFET), and can take the form of single-gate or multi-gate transistors. Since MOSFETs can be made with either p-type or n-type semiconductors (PMOS or NMOS logic, respectively), complementary pairs of MOSFETs can be used to make switching circuits with very low power consumption: CMOS (Complementary MOS) logic.

The name "metal–oxide–semiconductor" (MOS) typically refers to a metal gate, oxide insulation, and semiconductor (typically silicon).[5] However, the "metal" in the name MOSFET is sometimes a misnomer, because the gate material can also be a layer of polysilicon (polycrystalline silicon). Because originally the gate was made from metal, the name metal-oxide semiconductor (MOS) stuck, as today the gates are typically made of polycrystalline sillicon, although in recent years, advancements in technology reintroduced metallic gates in order to solve various performance issues. Along with oxide, different dielectric materials can also be used with the aim of obtaining strong channels with smaller applied voltages. The MOS capacitor is also part of the MOSFET structure.

Overview

Process

Further information: doping, n-type semiconductor, and p-type semiconductor

The basic starting material for most integrated circuits based on MOSFET technology is typically Silicon (Si); though other processes such as silicon-germanium (Si1−xGex) also exist. Silicon is a very brittle metalloid. It has the same structure as a diamond in elemental form (the actual structure is a 3D tetrahedral, just like carbon). It's a Group IV element - each silicon forming single covalent bonds with four adjacent silicon atoms. Because all of its valence electrons are involved in chemical bonds, pure silicon is quite a poor conductor of electricity. It's possible to raise the conductivity of silicon by introducing impurities, known as dopants, into the silicon lattice through a processes known as doping. Similar results can also be achieved by adding group V elements (which have 5 bonding electrons vs 4 for Si) such as phosphorus or arsenic. By inserting those group V elements into the silicon lattice it can still bond to the 4 original silicon atoms neighbors. The 5th valence electron is loosely bound to that group V element. The thermal vibrations is enough make that electron free to move - leaving positive ions and a free electron. It is this free electron that can carry current thereby increasing the conductivity of the lattice. The process forms a new semiconductor called an n-type semiconductor. The processes can be done with a group III element as well. This creates a situation where each atom is now short by an electron. The missing electron (or hole) propagates about the lattice. The hole acts as a positive carrier gaining the name p-type semiconductor.

A diode is the junction between p-type semiconductors and n-type semiconductors. When the voltage on the p-type semiconductors, known as anode, is raised above the n-type semiconductors, known as a cathode, the diode is said to be forward biased. When that happens, current flows. When the anode voltage is equal to or less than the cathode voltage, the diode is reverse biased - at which point very little current flows. Varying the voltage between the gate and body modulates the conductivity of this layer effectively controlling the current flow between drain and source.

MOS sandwich-like structure is created by superimposing several layers of conducting and insulating together. The actual process involves oxidation of the silicon, doping of the silicon using dopants, and etching of metal wires and contacts. Transistors are built on a pure and flawless single crystals of silicon. Each transistor consists of a body - the silicon wafer. The body is often grounded, often considered the reference node. Each transistor has a stack of the conducting gate that sits on top of an isolating glass (SiO2), and the substrate (also known as the body).

An nMOS transistor is built with a p-type body with two regions of n-type semiconductor adjacent to the gate called the source and the drain. For all practical purposes they are physically equivalent and can be used interchangeably. A pMOS transistor is built with an n-type body with two regions of p-type semiconductors adjacent to the gate.

Controlling Gate

Both pMOS and nMOS have a controlling gate. The controlling gate, as the name implies, controls the flow of electrons between the source and drain.

nMOS gate behavior

Main article: nMOS transistor

In the nMOS transistor, since the body is grounded, the p-n junctions of the source and drain to body are reverse-biased. If the voltage at the gate is raised, an electric field starts to build up - attracting free electrons to the underside of the Si-SiO2 interface. When the voltage is high enough, the electrons end up filling all the holes and a thin region under the gate called the channel gets inverted to act as an n-type semiconductor - creating a conducting path from the source to the drain, allowing current to flow. When the transistor is at that state, we say the transistor is ON. If the gate is grounded, little to no current flows through the reverse-biased junction. When that happens, we say the transistor is OFF.

pMOS gate behavior

Main article: pMOS transistor

In the pMOS transistor, the behavior and setup is the complement of the nMOS transistor. The body is held at positive voltage. When the gate is also positive - the source and drain are reverse-biased. When that happens, no current flows and we say the transistor is OFF.

When the voltage at the gate is lowered, positive charges are attracted to the underside of the Si-SiO2 interface. When the voltage gets sufficiently low the channel gets inverted - creating a conducting path from the source to the drain, allowing current to flow. Because the behavior of a pMOS transistor is the opposite of that of an nMOS transistor, the symbol for pMOS transistor is identical to that of nMOS with an additional bubble on the gate. That bubble is known as an inversion bubble.

MOSFET flow.svg

When dealing with digital logic there are generally only have two distinct values - ON and OFF, 1 and 0, or HIGH and LOW. The positive voltage of the transistor is called VDD (or POWER or PWR). VDD represents the logic 1 value in digital circuits. In TTL logic, the VDD voltage levels were usually around 5 volts. Today's transistors cannot really withstand such high voltages - they are typically in the 1.5V to 3.3V range. The low voltage is often called GROUND (or GND or VSS). VSS represents the logic 0. It is also normally set to 0 volts.

Modes of operation

The operation of a MOSFET can be separated into three different modes, depending on the voltages at the terminals. In the following discussion, a simplified algebraic model is used.[6] Modern MOSFET characteristics are more complex than the algebraic model presented here.[7]

For an enhancement-mode, n-channel MOSFET, the three operational modes are:

Cutoff, subthreshold, and weak-inversion mode (n-channel MOSFET)

When VGS < Vth:

where is gate-to-source bias and Equation upper V Subscript th is the threshold voltage of the device.

According to the basic threshold model, the transistor is turned off, and there is no conduction between drain and source. A more accurate model considers the effect of thermal energy on the Fermi–Dirac distribution of electron energies which allow some of the more energetic electrons at the source to enter the channel and flow to the drain. This results in a subthreshold current that is an exponential function of gate–source voltage. While the current between drain and source should ideally be zero when the transistor is being used as a turned-off switch, there is a weak-inversion current, sometimes called subthreshold leakage.

In weak inversion where the source is tied to bulk, the current varies exponentially with as given approximately by:[8][9]

where = current at , the thermal voltage and the slope factor n is given by:

with = capacitance of the depletion layer and = capacitance of the oxide layer. This equation is generally used, but is only an adequate approximation for the source tied to the bulk. For the source not tied to the bulk, the subthreshold equation for drain current in saturation is[10][11]

where the is the channel divider that is given by:

with = capacitance of the depletion layer and = capacitance of the oxide layer. In a long-channel device, there is no drain voltage dependence of the current once , but as channel length is reduced drain-induced barrier lowering introduces drain voltage dependence that depends in a complex way upon the device geometry (for example, the channel doping, the junction doping and so on). Frequently, threshold voltage Vth for this mode is defined as the gate voltage at which a selected value of current ID0 occurs, for example, ID0 = 1 μA, which may not be the same Vth-value used in the equations for the following modes.

Some micropower analog circuits are designed to take advantage of subthreshold conduction.[12][13][14] By working in the weak-inversion region, the MOSFETs in these circuits deliver the highest possible transconductance-to-current ratio, namely: , almost that of a bipolar transistor.[15]

The subthreshold I–V curve depends exponentially upon threshold voltage, introducing a strong dependence on any manufacturing variation that affects threshold voltage; for example: variations in oxide thickness, junction depth, or body doping that change the degree of drain-induced barrier lowering. The resulting sensitivity to fabricational variations complicates optimization for leakage and performance.[16][17]

Triode mode or linear region, also known as the ohmic mode[18][19] (n-channel MOSFET)

When VGS > Vth and VDS < VGS − Vth:

The transistor is turned on, and a channel has been created which allows current between the drain and the source. The MOSFET operates like a resistor, controlled by the gate voltage relative to both the source and drain voltages. The current from drain to source is modeled as:

where Equation mu Subscript n is the charge-carrier effective mobility, is the gate width, is the gate length and is the gate oxide capacitance per unit area. The transition from the exponential subthreshold region to the triode region is not as sharp as the equations suggest.

Saturation or active mode[20][21] (n-channel MOSFET)

When VGS > Vth and VDS ≥ (VGS – Vth):

The switch is turned on, and a channel has been created, which allows current between the drain and source. Since the drain voltage is higher than the source voltage, the electrons spread out, and conduction is not through a narrow channel but through a broader, two- or three-dimensional current distribution extending away from the interface and deeper in the substrate. The onset of this region is also known as pinch-off to indicate the lack of channel region near the drain. Although the channel does not extend the full length of the device, the electric field between the drain and the channel is very high, and conduction continues. The drain current is now weakly dependent upon drain voltage and controlled primarily by the gate–source voltage, and modeled approximately as:

The additional factor involving λ, the channel-length modulation parameter, models current dependence on drain voltage due to the channel length modulation, effectively similar to the Early effect seen in bipolar devices. According to this equation, a key design parameter, the MOSFET transconductance is:

where the combination Vov = VGS − Vth is called the overdrive voltage,[22] and where VDSsat = VGS − Vth accounts for a small discontinuity in which would otherwise appear at the transition between the triode and saturation regions.

Another key design parameter is the MOSFET output resistance given by:

.

rout is the inverse of gDS where . ID is the expression in saturation region.

If λ is taken as zero, the resulting infinite output resistance can simplify circuit analysis, however this may lead to unrealistic circuit predictions, particularly in analog circuits.

As the channel length becomes very short, these equations become quite inaccurate. New physical effects arise. For example, carrier transport in the active mode may become limited by velocity saturation. When velocity saturation dominates, the saturation drain current is more nearly linear than quadratic in VGS. At even shorter lengths, carriers transport with near zero scattering, known as quasi-ballistic transport. In the ballistic regime, the carriers travel at an injection velocity that may exceed the saturation velocity and approaches the Fermi velocity at high inversion charge density. In addition, drain-induced barrier lowering increases off-state (cutoff) current and requires an increase in threshold voltage to compensate, which in turn reduces the saturation current.

Symbols

There is no one standard that is commonly accepted across all organizations. Typically individual design groups adopt their own notations. Generally speaking, however, most follow the designs shown below which consists of a lone for the channel with the source and drain leaving it at right angles and then bending back at right angles outwards. Each device has a gate (G), drain (D), and a source (S), A distinction is sometimes made for enhancement mode where the channel is broken down into three smaller lines; it is sometimes drawn as a dotted line instead as well. Depletion mode devices have a solid line instead, this is due to the channel existing prior to power being applied.

Sometimes a fourth terminal for the body (B) is show. In discrete MOSFETs, the body lead is connected internally to the source. When that's the case, the body is also omitted from the symbol. When the bulk is shown, it is sometimes sometimes angled to meet up with the source. In ICs with a common bulk, the bulk is typically not shown and instead an inverting bubble is used to represent a PMOS.

Channel Depletion MOSFET Enhancement MOSFT
W/ bulk W/O bulk W/ bulk W/O bulk
N-type Nmos,dep,body.svg Nmos,dep.svg Nmos,en,body.svg Nmos,en.svg
Nmos,dep,body2.svg Nmos,en,body,2.svg Nmos,en,2.svg
P-type Pmos,dep,body.svg Pmos,dep.svg Pmos,en,body.svg Pmos,en.svg
Pmos,dep,body,2.svg Pmos,en,body,2.svg Pmos,en,2.svg

Early history

Background

Main article: Field-effect transistor


The basic principle of the field-effect transistor (FET) was first proposed by Austrian physicist Julius Edgar Lilienfeld in 1926, when he filed the first patent for an insulated-gate field-effect transistor.[23] Over the course of next two years he described various FET structures. In his configuration, aluminum formed the metal and aluminum oxide the oxide, while copper sulfide was used as a semiconductor. However, he was unable to build a practical working device.[24] The FET concept was later also theorized by German engineer Oskar Heil in the 1930s and American physicist William Shockley in the 1940s.[25] There was no working practical FET built at the time, and none of these early FET proposals involved thermally oxidized silicon.[24]

Semiconductor companies initially focused on bipolar junction transistors (BJTs) in the early years of the semiconductor industry. However, the junction transistor was a relatively bulky device that was difficult to manufacture on a mass-production basis, which limited it to a number of specialised applications. FETs were theorized as potential alternatives to junction transistors, but researchers were unable to build practical FETs, largely due to the troublesome surface state barrier that prevented the external electric field from penetrating into the material.[26] In the 1950s, researchers had largely given up on the FET concept, and instead focused on BJT technology.[27]

Invention

Mohamed M. Atalla at Bell Labs was dealing with the problem of surface states in the late 1950s. He attempted to passivate the surface of silicon through the formation of oxide layer over it. He thought that growing a very thin high quality thermally grown SiO2 on top of a clean silicon wafer would neutralize surface states enough to make a practical working field-effect transistor. He wrote his findings in his BTL memos in 1957, before presenting his work at an Electrochemical Society meeting in 1958.[28][29][30][31][25] This was an important development that enabled MOS technology and silicon integrated circuit (IC) chips.[32]

The MOSFET was invented when Mohamed Atalla and Dawon Kahng[29][28] successfully fabricated the first working MOSFET device in November 1959.[33] The device is covered by two patents, each filed separately by Atalla and Kahng in March 1960.[34][35][36][37] They published their results in June 1960,[38] at the Solid-State Device Conference held at Carnegie Mellon University.[39] The same year, Atalla proposed the use of MOSFETs to build MOS integrated circuit (MOS IC) chips, noting the MOSFET's ease of fabrication.[26]

Commercialization

The advantage of the MOSFET was that it was relatively compact and easy to mass-produce compared to the competing planar junction transistor,[40] but the MOSFET represented a radically new technology, the adoption of which would have required spurning the progress that Bell had made with the bipolar junction transistor (BJT). The MOSFET was also initially slower and less reliable than the BJT.[41]

In the early 1960s, MOS technology research programs were established by Fairchild Semiconductor, RCA Laboratories, General Microelectronics (led by former Fairchild engineer Frank Wanlass) and IBM.[42] In 1962, Steve R. Hofstein and Fred P. Heiman at RCA built the first MOS integrated circuit chip. The following year, they collected all previous works on FETs and gave a theory of operation of the MOSFET.[43] CMOS was developed by Chih-Tang Sah and Frank Wanlass at Fairchild in 1963.[44] The first CMOS integrated circuit was later built in 1968 by Albert Medwin.[45]

The first formal public announcement of the MOSFET's existence as a potential technology was made in 1963. It was then first commercialized by General Microelectronics in May 1964, followed Fairchild in October 1964. GMe's first MOS contract was with NASA, which used MOSFETs for spacecraft and satellites in the Interplanetary Monitoring Platform (IMP) program and Explorers Program.[42] The early MOSFETs commercialized by General Microelectronics and Fairchild were p-channel (PMOS) devices for logic and switching applications.[25] By the mid-1960s, RCA were using MOSFETs in their consumer products, including FM radio, television and amplifiers.[46] In 1967, Bell Labs researchers Robert Kerwin, Donald Klein and John Sarace developed the self-aligned gate (silicon-gate) MOS transistor, which Fairchild researchers Federico Faggin and Tom Klein adapted for integrated circuits in 1968.[47]

MOS revolution

Main article: MOS revolution


The development of the MOSFET led to a revolution in electronics technology, called the MOS revolution[48] or MOSFET revolution,[49] fuelling the technological and economic growth of the early semiconductor industry.

The impact of the MOSFET became commercially significant from the late 1960s onwards.[50] This led to a revolution in the electronics industry, which has since impacted daily life in almost every way.[51] The invention of the MOSFET has been cited as the birth of modern electronics[52] and was central to the microcomputer revolution.[53]

Importance

The MOSFET forms the basis of modern electronics,[54] and is the basic element in most modern electronic equipment.[55] It is the most common transistor in electronics,[28] and the most widely used semiconductor device in the world.[56] It has been described as the "workhorse of the electronics industry"[57] and "the base technology" of the late 20th to early 21st centuries.[27] MOSFET scaling and miniaturization (see List of semiconductor scale examples) have been the primary factors behind the rapid exponential growth of electronic semiconductor technology since the 1960s,[58] as the rapid miniaturization of MOSFETs has been largely responsible for the increasing transistor density, increasing performance and decreasing power consumption of integrated circuit chips and electronic devices since the 1960s.[59]

MOSFETs are capable of high scalability (Moore's law and Dennard scaling),[60] with increasing miniaturization,[61] and can be easily scaled down to smaller dimensions.[62] They consume significantly less power, and allow much higher density, than bipolar transistors.[63] MOSFETs can be much smaller than BJTs,[64] about one-twentieth of the size by the early 1990s.[64] MOSFETs also have faster switching speed,[3] with rapid on–off electronic switching that makes them ideal for generating pulse trains,[65] the basis for digital signals.[66][67] In contrast to BJTs, which more slowly generate analog signals resembling sine waves,[65] MOSFETs are also cheaper[68] and have relatively simple processing steps, resulting in higher manufacturing yield.[62] MOSFETs thus enable large-scale integration (LSI), and are ideal for digital circuits,[69] as well as linear analog circuits.[65]

The MOSFET has been variously described as the most important transistor,[2] the most important device in the electronics industry,[70] arguably the most important device in the computing industry,[71] one of the most important developments in semiconductor technology,[72] and possibly the most important invention in electronics.[73] The MOSFET has been the fundamental building block of modern digital electronics,[27] during the digital revolution,[74] information revolution, information age,[75] and silicon age.[76][77] MOSFETs have been the driving force behind the computer revolution, and the technologies enabled by it.[78][79][80] The rapid progress of the electronics industry during the late 20th to early 21st centuries was achieved by rapid MOSFET scaling (Dennard scaling and Moore's law), down to the level of nanoelectronics in the early 21st century.[81] The MOSFET revolutionized the world during the information age, with its high density enabling a computer to exist on a few small IC chips rather than filling a room,[82] and later making possible digital communications technology such as smartphones.[78]

The MOSFET is the most widely manufactured device in history.[83][84] The MOSFET generates annual sales of $295 billion as of 2015.[85] Between 1960 and 2018, an estimated total of 13 sextillion MOS transistors have been manufactured, accounting for at least 99.9% of all transistors.[83] Digital integrated circuits such as microprocessors and memory devices contain thousands to billions of integrated MOSFETs on each device, providing the basic switching functions required to implement logic gates and data storage. There are also memory devices which contain at least a trillion MOS transistors, such as a 256 GB microSD memory card, larger than the number of stars in the Milky Way galaxy.[57] As of 2010, the operating principles of modern MOSFETs have remained largely the same as the original MOSFET first demonstrated by Mohamed Atalla and Dawon Kahng in 1960.[86][87]

The US Patent and Trademark Office calls the MOSFET a "groundbreaking invention that transformed life and culture around the world"[78] and the Computer History Museum credits it with "irrevocably changing the human experience."[27] The MOSFET was also the basis for Nobel Prize winning breakthroughs such as the quantum Hall effect[88] and the charge-coupled device (CCD),[89] though there was never any Nobel Prize given for the MOSFET itself.[90] In a 2018 note on Jack Kilby's Nobel Prize for Physics for his part in the invention of the integrated circuit, the Royal Swedish Academy of Sciences specifically mentioned the MOSFET and the microprocessor as other important inventions in the evolution of microelectronics.[91] The MOSFET is also included on the list of IEEE milestones in electronics,[92] and its inventors Mohamed Atalla and Dawon Kahng entered the National Inventors Hall of Fame in 2009.[28][29]

Types of MOSFET

PMOS and NMOS logic

Main articles: PMOS logic and NMOS logic
See also: Depletion-load NMOS logic


P-channel MOS (PMOS) logic uses p-channel MOSFETs to implement logic gates and other digital circuits. N-channel MOS (NMOS) logic uses n-channel MOSFETs to implement logic gates and other digital circuits.

For devices of equal current driving capability, n-channel MOSFETs can be made smaller than p-channel MOSFETs, due to p-channel charge carriers (holes) having lower mobility than do n-channel charge carriers (electrons), and producing only one type of MOSFET on a silicon substrate is cheaper and technically simpler. These were the driving principles in the design of NMOS logic which uses n-channel MOSFETs exclusively. However, unlike CMOS logic (neglecting leakage current), NMOS logic consumes power even when no switching is taking place.

Mohamed Atalla and Dawon Kahng originally demonstrated both pMOS and nMOS devices with 20 µm and then 10 µm gate lengths in 1960.[30][93] Their original MOSFET devices also had a gate oxide thickness of 100 nm.[94] However, the nMOS devices were impractical, and only the pMOS type were practical working devices.[30] A more practical NMOS process was developed several years later. NMOS was initially faster than CMOS, thus NMOS was more widely used for computers in the 1970s.[95] With advances in technology, CMOS logic displaced NMOS logic in the mid-1980s to become the preferred process for digital chips.

Complementary MOS (CMOS)

Main article: CMOS


The MOSFET is used in digital complementary metal–oxide–semiconductor (CMOS) logic,[96] which uses p- and n-channel MOSFETs as building blocks. Overheating is a major concern in integrated circuits since ever more transistors are packed into ever smaller chips. CMOS logic reduces power consumption because no current flows (ideally), and thus no power is consumed, except when the inputs to logic gates are being switched. CMOS accomplishes this current reduction by complementing every nMOSFET with a pMOSFET and connecting both gates and both drains together. A high voltage on the gates will cause the nMOSFET to conduct and the pMOSFET not to conduct and a low voltage on the gates causes the reverse. During the switching time as the voltage goes from one state to another, both MOSFETs will conduct briefly. This arrangement greatly reduces power consumption and heat generation.

CMOS was developed by Chih-Tang Sah and Frank Wanlass at Fairchild Semiconductor in 1963.[44] CMOS had lower power consumption, but was initially slower than NMOS, which was more widely used for computers in the 1970s. In 1978, Hitachi introduced the twin-well CMOS process, which allowed CMOS to match the performance of NMOS with less power consumption. The twin-well CMOS process eventually overtook NMOS as the most common semiconductor manufacturing process for computers in the 1980s.[95] By the 1970s–1980s, CMOS logic consumed over 7 times less power than NMOS logic,[95] and about 100,000 times less power than bipolar transistor-transistor logic (TTL).[97]

Depletion-mode

See also: Depletion and enhancement modes and Depletion-load NMOS logic


There are depletion-mode MOSFET devices, which are less commonly used than the standard enhancement-mode devices already described. These are MOSFET devices that are doped so that a channel exists even with zero voltage from gate to source. To control the channel, a negative voltage is applied to the gate (for an n-channel device), depleting the channel, which reduces the current flow through the device. In essence, the depletion-mode device is equivalent to a normally closed (on) switch, while the enhancement-mode device is equivalent to a normally open (off) switch.[98]

Due to their low noise figure in the RF region, and better gain, these devices are often preferred to bipolars in RF front-ends such as in TV sets.

Depletion-mode MOSFET families include BF960 by Siemens and Telefunken, and the BF980 in the 1980s by Philips (later to become NXP Semiconductors), whose derivatives are still used in AGC and RF mixer front-ends.

Metal–insulator–semiconductor FET (MISFET)

Metal–insulator–semiconductor field-effect-transistor,[99][100][101] or MISFET, is a more general term than MOSFET and a synonym to insulated-gate field-effect transistor (IGFET). All MOSFETs are MISFETs, but not all MISFETs are MOSFETs.

The gate dielectric insulator in a MISFET is silicon dioxide in a MOSFET, but other materials can also be employed. The gate dielectric lies directly below the gate electrode and above the channel of the MISFET. The term metal is historically used for the gate material, even though now it is usually highly doped polysilicon or some other non-metal.

Insulator types may be:

Floating-gate MOSFET (FGMOS)

Main article: Floating-gate MOSFET


The floating-gate MOSFET (FGMOS) is a type of MOSFET where the gate is electrically isolated, creating a floating node in DC and a number of secondary gates or inputs are deposited above the floating gate (FG) and are electrically isolated from it. The first report of a floating-gate MOSFET (FGMOS) was made by Dawon Kahng (co-inventor of the original MOSFET) and Simon Min Sze in 1967.[103]

The FGMOS is commonly used as a floating-gate memory cell, the digital storage element in EPROM, EEPROM and flash memories. Other uses of the FGMOS include a neuronal computational element in neural networks, analog storage element, digital potentiometers and single-transistor DACs.

Power MOSFET

Main article: Power MOSFET
See also: FET amplifier and Power electronics
Two power MOSFETs in D2PAK surface-mount packages. Operating as switches, each of these components can sustain a blocking voltage of 120 V in the off state, and can conduct a con­ti­nuous current of 30 A in the on state, dissipating up to about 100 W and controlling a load of over 2000 W. A matchstick is pictured for scale.

Power MOSFETs have a different structure.[104] As with most power devices, the structure is vertical and not planar. Using a vertical structure, it is possible for the transistor to sustain both high blocking voltage and high current. The voltage rating of the transistor is a function of the doping and thickness of the N-epitaxial layer (see cross section), while the current rating is a function of the channel width (the wider the channel, the higher the current). In a planar structure, the current and breakdown voltage ratings are both a function of the channel dimensions (respectively width and length of the channel), resulting in inefficient use of the "silicon estate". With the vertical structure, the component area is roughly proportional to the current it can sustain, and the component thickness (actually the N-epitaxial layer thickness) is proportional to the breakdown voltage.[105]

Power MOSFETs with lateral structure are mainly used in high-end audio amplifiers and high-power PA systems. Their advantage is a better behaviour in the saturated region (corresponding to the linear region of a bipolar transistor) than the vertical MOSFETs. Vertical MOSFETs are designed for switching applications.[106]

The power MOSFET, which is commonly used in power electronics, was developed in the early 1970s.[107] The power MOSFET enables low gate drive power, fast switching speed, and advanced paralleling capability.[3]

Double-diffused MOS (DMOS)

Main articles: Power MOSFET and LDMOS


There are VDMOS (vertical double-diffused metal oxide semiconductor) and LDMOS (lateral double-diffused metal oxide semiconductor). Most power MOSFETs are made using this technology.

MOS capacitor

The MOS capacitor is part of the MOSFET structure, where the MOS capacitor is flanked by two p–n junctions.[108] The MOS capacitor is widely used as a storage capacitor in memory chips, and as the basic building block of the charge-coupled device (CCD) in image sensor technology.[109] In DRAM (dynamic random-access memory), each memory cell typically consists of a MOSFET and MOS capacitor.[110]

Thin-film transistor (TFT)

Main article: Thin-film transistor


The thin-film transistor (TFT) is a type of MOSFET distinct from the standard bulk MOSFET.[111] The first TFT was invented by Paul K. Weimer at RCA in 1962, building on the earlier work of Atalla and Kahng on MOSFETs.[112]

The idea of a TFT-based liquid-crystal display (LCD) was conceived by Bernard Lechner of RCA Laboratories in 1968.[113] Lechner, F. J. Marlowe, E. O. Nester and J. Tults demonstrated the concept in 1968 with an 18x2 matrix dynamic scattering LCD that used standard discrete MOSFETs, as TFT performance was not adequate at the time.[114]

Bipolar–MOS transistors

Main articles: BiCMOS and Insulated-gate bipolar transistor


BiCMOS is an integrated circuit that combines BJT and CMOS transistors on a single chip.[115]

The insulated-gate bipolar transistor (IGBT) is a power transistor with characteristics of both a MOSFET and bipolar junction transistor (BJT).[116]

MOS sensors

A number of MOSFET sensors have been developed, for measuring physical, chemical, biological and environmental parameters.[117] The earliest MOSFET sensors include the open-gate FET (OGFET) introduced by Johannessen in 1970,[117] the ion-sensitive field-effect transistor (ISFET) invented by Piet Bergveld in 1970,[118] the adsorption FET (ADFET) patented by P.F. Cox in 1974, and a hydrogen-sensitive MOSFET demonstrated by I. Lundstrom, M.S. Shivaraman, C.S. Svenson and L. Lundkvist in 1975.[117] The ISFET is a special type of MOSFET with a gate at a certain distance,[117] and where the metal gate is replaced by an ion-sensitive membrane, electrolyte solution and reference electrode.[119]

By the mid-1980s, numerous other MOSFET sensors had been developed, including the gas sensor FET (GASFET), surface accessible FET (SAFET), charge flow transistor (CFT), pressure sensor FET (PRESSFET), chemical field-effect transistor (ChemFET), reference ISFET (REFET), biosensor FET (BioFET), enzyme-modified FET (ENFET) and immunologically modified FET (IMFET).[117] By the early 2000s, BioFET types such as the DNA field-effect transistor (DNAFET), gene-modified FET (GenFET) and cell-potential BioFET (CPFET) had been developed.[119]

The two main types of image sensors used in digital imaging technology are the charge-coupled device (CCD) and the active-pixel sensor (CMOS sensor). Both CCD and CMOS sensors are based on MOS technology, with the CCD based on MOS capacitors and the CMOS sensor based on MOS transistors.[89]

Multi-gate MOSFET (MuGFET)

Main article: Multigate device
See also: FinFET
A FinFET (fin field-effect transistor), a type of multi-gate MOSFET.

The dual-gate MOSFET (DGMOS) has a tetrode configuration, where both gates control the current in the device. It is commonly used for small-signal devices in radio frequency applications where biasing the drain-side gate at constant potential reduces the gain loss caused by Miller effect, replacing two separate transistors in cascode configuration. Other common uses in RF circuits include gain control and mixing (frequency conversion). The tetrode description, though accurate, does not replicate the vacuum-tube tetrode. Vacuum-tube tetrodes, using a screen grid, exhibit much lower grid-plate capacitance and much higher output impedance and voltage gains than triode vacuum tubes. These improvements are commonly an order of magnitude (10 times) or considerably more. Tetrode transistors (whether bipolar junction or field-effect) do not exhibit improvements of such a great degree.

The FinFET is a double-gate silicon-on-insulator device, one of a number of geometries being introduced to mitigate the effects of short channels and reduce drain-induced barrier lowering. The fin refers to the narrow channel between source and drain. A thin insulating oxide layer on either side of the fin separates it from the gate. SOI FinFETs with a thick oxide on top of the fin are called double-gate and those with a thin oxide on top as well as on the sides are called triple-gate FinFETs.[120][121]

A double-gate MOSFET transistor was first demonstrated in 1984 by Electrotechnical Laboratory researchers Toshihiro Sekigawa and Yutaka Hayashi.[122][123] A GAAFET (gate-all-around MOSFET), a type of multi-gate non-planar 3D transistor, was first demonstrated in 1988 by a Toshiba research team including Fujio Masuoka, H. Takato and K. Sunouchi.[124][125] The FinFET (fin field-effect transistor), a type of 3D non-planar double-gate MOSFET, originated from the research of Digh Hisamoto and his team at Hitachi Central Research Laboratory in 1989.[126][127] The development of nanowire multi-gate MOSFETs have since become fundamental to nanoelectronics.[128]

Quantum field-effect transistor (QFET)

Main article: QFET


A quantum field-effect transistor (QFET) or quantum well field-effect transistor (QWFET) is a type of MOSFET[129][130][131] that takes advantage of quantum tunneling to greatly increase the speed of transistor operation.[132]

Radiation-hardened-by-design (RHBD)

Semiconductor sub-micrometer and nanometer electronic circuits are the primary concern for operating within the normal tolerance in harsh radiation environments like outer space. One of the design approaches for making a radiation-hardened-by-design (RHBD) device is enclosed-layout-transistor (ELT). Normally, the gate of the MOSFET surrounds the drain, which is placed in the center of the ELT. The source of the MOSFET surrounds the gate. Another RHBD MOSFET is called H-Gate. Both of these transistors have very low leakage current with respect to radiation. However, they are large in size and take more space on silicon than a standard MOSFET. In older STI (shallow trench isolation) designs, radiation strikes near the silicon oxide region cause the channel inversion at the corners of the standard MOSFET due to accumulation of radiation induced trapped charges. If the charges are large enough, the accumulated charges affect STI surface edges along the channel near the channel interface (gate) of the standard MOSFET. Thus the device channel inversion occurs along the channel edges and the device creates an off-state leakage path, causing the device to turn on. So the reliability of circuits degrades severely. The ELT offers many advantages. These advantages include improvement of reliability by reducing unwanted surface inversion at the gate edges that occurs in the standard MOSFET. Since the gate edges are enclosed in ELT, there is no gate oxide edge (STI at gate interface), and thus the transistor off-state leakage is reduced considerably. Low-power microelectronic circuits including computers, communication devices and monitoring systems in the space shuttle and satellites are very different to what is used on earth. They require radiation (high-speed atomic particles like proton and neutron, solar flare magnetic energy dissipation in Earth's space, energetic cosmic rays like X-ray, gamma ray etc.) tolerant circuits. These special electronics are designed by applying different techniques using RHBD MOSFETs to ensure safer journeys and space-walks for astronauts.

Applications

Main article: MOS revolution


The MOSFET generally forms the basis of modern electronics,[54] as the dominant transistor in digital circuits as well as analog integrated circuits.[2] It is the basis for numerous modern technologies,[133] and is commonly used for a wide range of applications.[59] According to Jean-Pierre Colinge, numerous modern technologies would not exist without the MOSFET, such as the modern computer industry, digital telecommunication systems, video games, pocket calculators, and digital wristwatches, for example.[133]

Discrete MOSFET devices are widely used in applications such as switch mode power supplies, variable-frequency drives and other power electronics applications where each device may be switching thousands of watts. Radio-frequency amplifiers up to the UHF spectrum use MOSFET transistors as analog signal and power amplifiers. Radio systems also use MOSFETs as oscillators, or mixers to convert frequencies. MOSFET devices are also applied in audio-frequency power amplifiers for public address systems, sound reinforcement and home and automobile sound systems.

MOSFETs in integrated circuits are the primary elements of computer processors, semiconductor memory, image sensors, and most other types of integrated circuits.

MOS integrated circuit (MOS IC)

See also: Integrated circuit, Invention of the integrated circuit, and Three-dimensional integrated circuit


The MOSFET is the most widely used type of transistor and the most critical device component in integrated circuit (IC) chips.[134] The monolithic integrated circuit chip was enabled by the surface passivation process, which electrically stabilized silicon surfaces via thermal oxidation, making it possible to fabricate monolithic integrated circuit chips using silicon. The surface passivation process was developed by Mohamed M. Atalla at Bell Labs in 1957. This was the basis for the planar process, developed by Jean Hoerni at Fairchild Semiconductor in early 1959, which was critical to the invention of the monolithic integrated circuit chip by Robert Noyce later in 1959.[135][136][32] The same year,[25] Atalla used his surface passivation process to invent the MOSFET with Dawon Kahng at Bell Labs.[29][28] This was followed by the development of clean rooms to reduce contamination to levels never before thought necessary, and coincided with the development of photolithography[137] which, along with surface passivation and the planar process, allowed circuits to be made in few steps.

Mohamed Atalla first proposed the concept of the MOS integrated circuit (MOS IC) chip in 1960, noting that the MOSFET's ease of fabrication made it useful for integrated circuits.[26] In contrast to bipolar transistors which required a number of steps for the p–n junction isolation of transistors on a chip, MOSFETs required no such steps but could be easily isolated from each other.[41] Its advantage for integrated circuits was re-iterated by Dawon Kahng in 1961.[33] The SiSiO2 system possessed the technical attractions of low cost of production (on a per circuit basis) and ease of integration. These two factors, along with its rapidly scaling miniaturization and low energy consumption, led to the MOSFET becoming the most widely used type of transistor in IC chips.

The earliest experimental MOS IC to be demonstrated was a 16-transistor chip built by Fred Heiman and Steven Hofstein at RCA in 1962.[68] General Microelectronics later introduced the first commercial MOS integrated circuits in 1964, consisting of 120 p-channel transistors.[138] It was a 20-bit shift register, developed by Robert Norman[68] and Frank Wanlass.[139] In 1968, Fairchild Semiconductor researchers Federico Faggin and Tom Klein developed the first silicon-gate MOS IC.[47]

MOS large-scale integration (MOS LSI)

See also: Large-scale integration and Very large-scale integration


With its high scalability,[60] and much lower power consumption and higher density than bipolar junction transistors,[63] the MOSFET made it possible to build high-density IC chips.[5] By 1964, MOS chips had reached higher transistor density and lower manufacturing costs than bipolar chips. MOS chips further increased in complexity at a rate predicted by Moore's law, leading to large-scale integration (LSI) with hundreds of MOSFETs on a chip by the late 1960s.[140] MOS technology enabled the integration of more than 10,000 transistors on a single LSI chip by the early 1970s,[141] before later enabling very large-scale integration (VLSI).[62][142]

Microprocessors

See also: Microcontroller and Microprocessor chronology


The MOSFET was responsible for the invention of the microprocessor.[143] The origins of both the microprocessor and the microcontroller can be traced back to the invention and development of MOS technology. The application of MOS LSI chips to computing was the basis for the first microprocessors, as engineers began recognizing that a complete computer processor could be contained on a single MOS LSI chip.[140]

The earliest microprocessors were all MOS chips, built with MOS LSI circuits. The first multi-chip microprocessors, the Four-Phase Systems AL1 in 1969 and the Garrett AiResearch MP944 in 1970, were developed with multiple MOS LSI chips. The first commercial single-chip microprocessor, the Intel 4004, was developed by Federico Faggin, using his silicon-gate MOS IC technology, with Intel engineers Marcian Hoff and Stan Mazor, and Busicom engineer Masatoshi Shima.[144] With the arrival of CMOS microprocessors in 1975, the term "MOS microprocessors" began to refer to chips fabricated entirely from PMOS logic or fabricated entirely from NMOS logic, contrasted with "CMOS microprocessors" and "bipolar bit-slice processors".[145]

CMOS circuits

Main article: CMOS


Digital

The growth of digital technologies like the microprocessor has provided the motivation to advance MOSFET technology faster than any other type of silicon-based transistor.[146] A big advantage of MOSFETs for digital switching is that the oxide layer between the gate and the channel prevents DC current from flowing through the gate, further reducing power consumption and giving a very large input impedance. The insulating oxide between the gate and channel effectively isolates a MOSFET in one logic stage from earlier and later stages, which allows a single output to drive a much larger number of inputs (the fan-out capacity) than BJT-based logic (such as TTL). This isolation also helps designers ignore loading effects between logic stages, to an extent dependent on the operating frequency: as frequencies increase, the input impedance of the MOSFETs decreases.

Analog

Further information: CMOS amplifier, RF CMOS, and Mixed-signal integrated circuit


The MOSFET's advantages in digital circuits do not translate into supremacy in all analog circuits. The two types of circuit draw upon different features of transistor behavior. Digital circuits switch, spending most of their time either fully on or fully off. The transition from one to the other is only of concern with regards to speed and charge required. Analog circuits depend on operation in the transition region where small changes to Vgs can modulate the output (drain) current. The JFET and bipolar junction transistor (BJT) are preferred for accurate matching (of adjacent devices in integrated circuits), higher transconductance and certain temperature characteristics which simplify keeping performance predictable as circuit temperature varies.

Nevertheless, MOSFETs are widely used in many types of analog circuits because of their own advantages (zero gate current, high and adjustable output impedance and improved robustness vs. BJTs which can be permanently degraded by even lightly breaking down the emitter-base). The characteristics and performance of many analog circuits can be scaled up or down by changing the sizes (length and width) of the MOSFETs used. By comparison, in bipolar transistors the size of the device does not significantly affect its performance. MOSFETs' ideal characteristics regarding gate current (zero) and drain-source offset voltage (zero) also make them nearly ideal switch elements, and also make switched capacitor analog circuits practical. In their linear region, MOSFETs can be used as precision resistors, which can have a much higher controlled resistance than BJTs. In high power circuits, MOSFETs sometimes have the advantage of not suffering from thermal runaway as BJTs do. Also, MOSFETs can be configured to perform as capacitors and gyrator circuits which allow op-amps made from them to appear as inductors, thereby allowing all of the normal analog devices on a chip (except for diodes, which can be made smaller than a MOSFET anyway) to be built entirely out of MOSFETs. This means that complete analog circuits can be made on a silicon chip in a much smaller space and with simpler fabrication techniques. MOSFETS are ideally suited to switch inductive loads because of tolerance to inductive kickback.

Some ICs combine analog and digital MOSFET circuitry on a single mixed-signal integrated circuit, making the needed board space even smaller. This creates a need to isolate the analog circuits from the digital circuits on a chip level, leading to the use of isolation rings and silicon on insulator (SOI). Since MOSFETs require more space to handle a given amount of power than a BJT, fabrication processes can incorporate BJTs and MOSFETs into a single device. Mixed-transistor devices are called bi-FETs (bipolar FETs) if they contain just one BJT-FET and BiCMOS (bipolar-CMOS) if they contain complementary BJT-FETs. Such devices have the advantages of both insulated gates and higher current density.

In the late 1980s, Asad Abidi pioneered RF CMOS technology, which uses MOS VLSI circuits, while working at UCLA. This changed the way in which RF circuits were designed, away from discrete bipolar transistors and towards CMOS integrated circuits. As of 2008, the radio transceivers in all wireless networking devices and modern mobile phones are mass-produced as RF CMOS devices. RF CMOS is also used in nearly all modern Bluetooth and wireless LAN (WLAN) devices.[147]

MOS memory

Main article: MOS memory
Further information: Computer memory and Memory cell (computing)


The advent of the MOSFET enabled the practical use of MOS transistors as memory cell storage elements, a function previously served by magnetic cores in computer memory.[148] The first modern computer memory was introduced in 1965, when John Schmidt at Fairchild Semiconductor designed the first MOS semiconductor memory, a 64-bit MOS SRAM (static random-access memory).[149] SRAM became an alternative to magnetic-core memory, but required six MOS transistors for each bit of data.[150]

MOS technology is the basis for DRAM (dynamic random-access memory). In 1966, Dr. Robert H. Dennard at the IBM Thomas J. Watson Research Center was working on MOS memory. While examining the characteristics of MOS technology, he found it was capable of building capacitors, and that storing a charge or no charge on the MOS capacitor could represent the 1 and 0 of a bit, while the MOS transistor could control writing the charge to the capacitor. This led to his development of a single-transistor DRAM memory cell.[150] In 1967, Dennard filed a patent under IBM for a single-transistor DRAM (dynamic random-access memory) memory cell, based on MOS technology.[151] MOS memory enabled higher performance, was cheaper, and consumed less power, than magnetic-core memory, leading to MOS memory overtaking magnetic core memory as the dominant computer memory technology by the early 1970s.[152]

Frank Wanlass, while studying MOSFET structures in 1963, noted the movement of charge through oxide onto a gate. While he did not pursue it, this idea would later become the basis for EPROM (erasable programmable read-only memory) technology.[153] In 1967, Dawon Kahng and Simon Min Sze proposed that floating-gate memory cells, consisting of floating-gate MOSFETs (FGMOS), could be used to produce reprogrammable ROM (read-only memory).[154] Floating-gate memory cells later became the basis for non-volatile memory (NVM) technologies including EPROM, EEPROM (electrically erasable programmable ROM) and flash memory.[155]

Consumer electronics

MOSFETs are widely used in consumer electronics. One of the earliest influential consumer electronic products enabled by MOS LSI circuits was the electronic pocket calculator,[141] as MOS LSI technology enabled large amounts of computational capability in small packages.[156] In 1965, the Victor 3900 desktop calculator was the first MOS calculator, with 29 MOS chips.[157] In 1967, the Texas Instruments Cal-Tech was the first prototype electronic handheld calculator, with three MOS LSI chips, and it was later released as the Canon Pocketronic in 1970.[158] The Sharp QT-8D desktop calculator was the first mass-produced LSI MOS calculator in 1969,[159] and the Sharp EL-8 which used four MOS LSI chips was the first commercial electronic handheld calculator in 1970.[158] The first true electronic pocket calculator was the Busicom LE-120A HANDY LE, which used a single MOS LSI calculator-on-a-chip from Mostek, and was released in 1971.[158] By 1972, MOS LSI circuits were commercialized for numerous other applications.[160]

MOSFETs are fundamental to information and communications technology (ICT),[78][91] including modern computers,[161][133][142] modern computing,[162] telecommunications, the communications infrastructure,[161][163] the Internet,[161][84][164] digital telephony,[165] wireless telecommunications,[166][167] and mobile networks.[167] According to Colinge, the modern computer industry and digital telecommunication systems would not exist without the MOSFET.[133] Advances in MOS technology has been the most important contributing factor in the rapid rise of network bandwidth in telecommunication networks, with bandwidth doubling every 18 months, from bits per second to terabits per second (Edholm's law).[168]

MOS sensors

See also: Sensor, Image sensor, Charge-coupled device, and Active-pixel sensor


MOS sensors, also known as MOSFET sensors, are widely used to measure physical, chemical, biological and environmental parameters.[117] The ion-sensitive field-effect transistor (ISFET), for example, is widely used in biomedical applications.[119] MOS chemiresistors and MOSFETs have also been extensively shown to have promising applications is gas sensing either as single sensor devices or as components in chemical sensor arrays.[169]

MOSFETs are also widely used in microelectromechanical systems (MEMS), as silicon MOSFETs could interact and communicate with the surroundings and process things such as chemicals, motions and light.[170] An early example of a MEMS device is the resonant-gate transistor, an adaptation of the MOSFET, developed by Harvey C. Nathanson in 1965.[171]

MOS technology is the basis for modern image sensors, including the charge-coupled device (CCD) and the CMOS active-pixel sensor (CMOS sensor), used in digital imaging and digital cameras.[89] Willard Boyle and George E. Smith developed the CCD in 1969. While researching the MOS process, they realized that an electric charge was the analogy of the magnetic bubble and that it could be stored on a tiny MOS capacitor. As it was fairly straightforward to fabricate a series of MOS capacitors in a row, they connected a suitable voltage to them so that the charge could be stepped along from one to the next.[89] The CCD is a semiconductor circuit that was later used in the first digital video cameras for television broadcasting.[172]

The MOS active-pixel sensor (APS) was developed by Tsutomu Nakamura at Olympus in 1985.[173] The CMOS active-pixel sensor was later developed by Eric Fossum and his team at NASA's Jet Propulsion Laboratory in the early 1990s.[174]

MOS image sensors are widely used in optical mouse technology. The first optical mouse, invented by Richard F. Lyon at Xerox in 1980, used a 5 µm NMOS sensor chip.[175][176] Since the first commercial optical mouse, the IntelliMouse introduced in 1999, most optical mouse devices use CMOS sensors.[177]

Power MOSFETs

See also: Power MOSFET, LDMOS#Applications, VMOS, FET amplifier, IGBT, MOS-controlled thyristor, Power electronics, and Power semiconductor device


The power MOSFET is the most widely used power device in the world.[3] Advantages over bipolar junction transistors in power electronics include MOSFETs not requiring a continuous flow of drive current to remain in the ON state, offering higher switching speeds, lower switching power losses, lower on-resistances, and reduced susceptibility to thermal runaway.[178] The power MOSFET had an impact on power supplies, enabling higher operating frequencies, size and weight reduction, and increased volume production.[179]

Switching power supplies are the most common applications for power MOSFETs.[65] They are also widely used for MOS RF power amplifiers, which enabled the transition of mobile networks from analog to digital in the 1990s. This led to the wide proliferation of wireless mobile networks, which revolutionised telecommunication systems.[166] The LDMOS in particular is the most widely used power amplifier in mobile networks, such as 2G, 3G,[166] 4G, and 5G.[167] Over 50 billion discrete power MOSFETs are shipped annually, as of 2018. They are widely used for automotive, industrial and communications systems in particular.[180] Power MOSFETs are commonly used in automotive electronics, particularly as switching devices in electronic control units,[181] and as power converters in modern electric vehicles.[182] The insulated-gate bipolar transistor (IGBT), a hybrid MOS-bipolar transistor, is also used for a wide variety of applications.[183]

Timeline

Main article: List of semiconductor scale examples
See also: Semiconductor device fabrication and Transistor density


PMOS and NMOS

PMOS and NMOS demonstrations
Date Channel length Oxide thickness[184] MOSFET logic Researcher(s) Organization Ref
1960-06 20,000 nm 100 nm PMOS Mohamed M. Atalla, Dawon Kahng Bell Telephone Laboratories [185][186]
NMOS
10,000 nm 100 nm PMOS Mohamed M. Atalla, Dawon Kahng Bell Telephone Laboratories [187]
NMOS
1965-05 8,000 nm 150 nm NMOS Chih-Tang Sah, Otto Leistiko, A.S. Grove Fairchild Semiconductor [188]
5,000 nm 170 nm PMOS
1972-12 1,000 nm ? PMOS Hwa-Nien Yu, Robert H. Dennard, Fritz H. Gaensslen IBM T.J. Watson Research Center [189][190][191]
1973 7,500 nm ? NMOS Sohichi Suzuki NEC [192][193]
6,000 nm ? PMOS ? Toshiba [194][195]
1974-10 1,000 nm 35 nm NMOS Hwa-Nien Yu, Robert H. Dennard, Fritz H. Gaensslen IBM T.J. Watson Research Center [196]
500 nm
1975-09 1,500 nm 20 nm NMOS Ryoichi Hori, Hiroo Masuda, Osamu Minato Hitachi [190][197]
1976-03 3,000 nm ? NMOS ? Intel [198]
1979-04 1,000 nm 25 nm NMOS William R. Hunter, L. M. Ephrath, Alice Cramer IBM T.J. Watson Research Center [199]
1984-12 100 nm 5 nm NMOS Toshio Kobayashi, Seiji Horiguchi, K. Kiuchi Nippon Telegraph and Telephone [200]
1985-12 150 nm 2.5 nm NMOS Toshio Kobayashi, Seiji Horiguchi, M. Miyake, M. Oda Nippon Telegraph and Telephone [201]
75 nm ? NMOS Stephen Y. Chou, Henry I. Smith, Dimitri A. Antoniadis MIT [202]
1986-01 60 nm ? NMOS Stephen Y. Chou, Henry I. Smith, Dimitri A. Antoniadis MIT [203]
1986-12 60 nm ? ? Ghavam G. Shahidi, Dimitri A. Antoniadis, Henry I. Smith MIT [204][205][203]
1987-05 400 nm 10 nm NMOS Bijan Davari, Chung-Yu Ting, Kie Y. Ahn, S. Basavaiah IBM T.J. Watson Research Center [206]
1987-06 200 nm 3.5 nm PMOS Toshio Kobayashi, M. Miyake, K. Deguchi Nippon Telegraph and Telephone [207]
1993-12 40 nm ? NMOS Mizuki Ono, Masanobu Saito, Takashi Yoshitomi Toshiba [208]
1996-09 16 nm ? PMOS Hisao Kawaura, Toshitsugu Sakamoto, Toshio Baba NEC [209]
1998-06 50 nm 1.3 nm NMOS Khaled Z. Ahmed, Effiong E. Ibok, Miryeong Song Advanced Micro Devices (AMD) [210][211]
2002-12 6 nm ? PMOS Bruce Doris, Omer Dokumaci, Meikei Ieong IBM [212][213][214]
2003-12 3 nm  ? PMOS Hitoshi Wakabayashi, Shigeharu Yamagami NEC [215][213]
NMOS

CMOS (single-gate)

CMOS demonstrations (single-gate)
Date Channel length Oxide thickness[184] Researcher(s) Organization Ref
1963-02 ? ? Chih-Tang Sah, Frank Wanlass Fairchild Semiconductor [44][216]
1968 20,000 nm 100 nm ? RCA Laboratories [217]
1970 10,000 nm 100 nm ? RCA Laboratories [217]
1976-12 2,000 nm ? A. Aitken, R.G. Poulsen, A.T.P. MacArthur, J.J. White Mitel Semiconductor [218]
1978-02 3,000 nm ? Toshiaki Masuhara, Osamu Minato, Toshio Sasaki, Yoshio Sakai Hitachi Central Research Laboratory [219][220][221]
1983-02 1,200 nm 25 nm R.J.C. Chwang, M. Choi, D. Creek, S. Stern, P.H. Pelley Intel [222][223]
900 nm 15 nm Tsuneo Mano, J. Yamada, Junichi Inoue, S. Nakajima Nippon Telegraph and Telephone (NTT) [222][224]
1983-12 1,000 nm 22.5 nm G.J. Hu, Yuan Taur, Robert H. Dennard, Chung-Yu Ting IBM T.J. Watson Research Center [225]
1987-02 800 nm 17 nm T. Sumi, Tsuneo Taniguchi, Mikio Kishimoto, Hiroshige Hirano Matsushita [222][226]
700 nm 12 nm Tsuneo Mano, J. Yamada, Junichi Inoue, S. Nakajima Nippon Telegraph and Telephone (NTT) [222][227]
1987-09 500 nm 12.5 nm Hussein I. Hanafi, Robert H. Dennard, Yuan Taur, Nadim F. Haddad IBM T.J. Watson Research Center [228]
1987-12 250 nm ? Naoki Kasai, Nobuhiro Endo, Hiroshi Kitajima NEC [229]
1988-02 400 nm 10 nm M. Inoue, H. Kotani, T. Yamada, Hiroyuki Yamauchi Matsushita [222][230]
1990-12 100 nm ? Ghavam G. Shahidi, Bijan Davari, Yuan Taur, James D. Warnock IBM T.J. Watson Research Center [231]
1993 350 nm ? ? Sony [232]
1996 150 nm ? ? Mitsubishi Electric
1998 180 nm ? ? TSMC [233]
2003-12 5 nm ? Hitoshi Wakabayashi, Shigeharu Yamagami, Nobuyuki Ikezawa NEC [215][234]

Multi-gate MOSFET (MuGFET)

Multi-gate MOSFET demonstrations
Date Channel length MuGFET type Researcher(s) Organization Ref
1987 2,000 nm DGMOS Toshihiro Sekigawa Electrotechnical Laboratory (ETL) [235]
1988-12 250 nm DGMOS Bijan Davari, Wen-Hsing Chang, Matthew R. Wordeman, C.S. Oh IBM T.J. Watson Research Center [236][237]
180 nm
? GAAFET Fujio Masuoka, Hiroshi Takato, Kazumasa Sunouchi, N. Okabe Toshiba [238][239][240]
1989-12 200 nm FinFET Digh Hisamoto, Toru Kaga, Yoshifumi Kawamoto, Eiji Takeda Hitachi Central Research Laboratory [241][242][243]
1998-12 17 nm FinFET Digh Hisamoto, Chenming Hu, Tsu-Jae King Liu, Jeffrey Bokor University of California (Berkeley) [128][244]
2001 15 nm FinFET Chenming Hu, Yang‐Kyu Choi, Nick Lindert, Tsu-Jae King Liu University of California (Berkeley) [128][245]
2002-12 10 nm FinFET Shibly Ahmed, Scott Bell, Cyrus Tabery, Jeffrey Bokor University of California (Berkeley) [128][246]
2006-06 3 nm GAAFET Hyunjin Lee, Yang-kyu Choi, Lee-Eun Yu, Seong-Wan Ryu KAIST [247][248]

Other types of MOSFET

Other MOSFET demonstrations
Date Channel
length
(nm)
Oxide
thickness
(nm)
[184]
MOSFET
type
Researcher(s) Organization Ref
1962-10 ? ? TFT Paul K. Weimer RCA Laboratories [249][134]
1965 ? ? GaAs H. Becke, R. Hall, J. White RCA Laboratories [250]
1966-10 100,000 100 TFT T.P. Brody, H.E. Kunig Westinghouse Electric [251][252]
1967-08 ? ? FGMOS Dawon Kahng, Simon Min Sze Bell Telephone Laboratories [253]
1967-10 ? ? MNOS H.A. Richard Wegener, A.J. Lincoln, H.C. Pao Sperry Corporation [254]
1968-07 ? ? BiMOS Hung-Chang Lin, Ramachandra R. Iyer Westinghouse Electric [255][256]
1968-10 ? ? BiCMOS Hung-Chang Lin, Ramachandra R. Iyer, C.T. Ho Westinghouse Electric [257][256]
1969 ? ? VMOS ? Hitachi [258][259]
1969-09 ? ? DMOS Y. Tarui, Y. Hayashi, Toshihiro Sekigawa Electrotechnical Laboratory (ETL) [260][261]
1970-10 ? ? ISFET Piet Bergveld University of Twente [262][263]
1970-10 1000 ? DMOS Y. Tarui, Y. Hayashi, Toshihiro Sekigawa Electrotechnical Laboratory (ETL) [264]
1977 ? ? VDMOS John Louis Moll HP Labs [258]
? ? LDMOS ? Hitachi [265]
1979-07 ? ? IGBT Bantval Jayant Baliga, Margaret Lazeri General Electric [266]
1984-12 2000 ? BiCMOS H. Higuchi, Goro Kitsukawa, Takahide Ikeda, Y. Nishio Hitachi [267]
1985-05 300 ? ? K. Deguchi, Kazuhiko Komatsu, M. Miyake, H. Namatsu Nippon Telegraph and Telephone [268]
1985-02 1000 ? BiCMOS H. Momose, Hideki Shibata, S. Saitoh, Jun-ichi Miyamoto Toshiba [269]
1986-11 90 8.3 ? Han-Sheng Lee, L.C. Puzio General Motors [270]
1987-09 ? 10 ? Hussein I. Hanafi, Ting, Chung-Yu, Ahn, Kie Y. IBM T.J. Watson Research Center [271]
1987-12 800 ? BiCMOS Robert H. Havemann, R. E. Eklund, Hiep V. Tran Texas Instruments [272]
1997-06 30 ? EJ-MOSFET Hisao Kawaura, Toshitsugu Sakamoto, Toshio Baba NEC [273]
1998 32  ?  ?  ? NEC [213]
1999 8
2000-04 8 ? EJ-MOSFET Hisao Kawaura, Toshitsugu Sakamoto, Toshio Baba NEC [274]

See also

References

  1. Laws, David (April 2, 2018). 13 Sextillion & Counting: The Long & Winding Road to the Most Frequently Manufactured Human Artifact in History. Computer History Museum.
  2. 2.0 2.1 2.2 (2002) Analog Electronics with LabVIEW. Prentice Hall Professional, 10. ISBN 978-0130470652. "A recent textbook on the subject of analog integrated circuits (Jorns and Martin, 1997) takes the approach that such circuits are now totally dominated by MOSFETs but includes some BJT applications. (...) The MOSFET has gradually taken over as the most important transistor, with increased emphasis on integrated circuits and improved speeds."
  3. 3.0 3.1 3.2 3.3 Power MOSFET Basics
  4. (2007) "§8.2 The depletion mode MOSFET", Electronic Circuits. Technical Publications, 812. ISBN 978-81-8431-284-3.
  5. 5.0 5.1 Who Invented the Transistor?
  6. Modeling and simulation of insulated-gate field-effect transistor switching circuits. IEEE Journal of Solid-State Circuits. SC-3 (3): 285–89. doi:10.1109/JSSC.1968.1049902
  7. For example, see (1999) MOSFET modeling & BSIM3 user's guide. Springer. ISBN 978-0-7923-8575-2.. The most recent version of the BSIM model is described in BSIM-CMG 106.1.0beta Multi-Gate MOSFET Compact Model
  8. (2001) Analysis and Design of Analog Integrated Circuits, Fourth, New York: Wiley, 66–67. ISBN 978-0471321682.
  9. (2004) Low-Power Deep Sub-Micron CMOS Logic: Subthreshold Current Reduction. Dordrecht: Springer, 78. ISBN 978-1-4020-2848-9.
  10. Wikipedia fails subvt
  11. Mead, Carver (1989). Analog VLSI and Neural Systems. Reading, MA: Addison-Wesley, 370. ISBN 9780201059922.
  12. (1998) Neuromorphic Systems: Engineering Silicon from Neurobiology. World Scientific, 52–56. ISBN 978-981-02-3377-8.
  13. Kumar, Satish (2004). Neural Networks: A Classroom Approach. Tata McGraw-Hill, 688. ISBN 978-0-07-048292-0.
  14. (2002) Field-programmable Logic and Applications: 12th International Conference. Dordrecht: Springer, 425. ISBN 978-3-540-44108-3.
  15. Vittoz, Eric A. (1996). "The Fundamentals of Analog Micropower Design", Circuits and systems tutorials. John Wiley and Sons, 365–72. ISBN 978-0-7803-1170-1.
  16. (2004) Nano, Quantum and Molecular Computing. Springer, 10 and Fig. 1.4, p. 11. ISBN 978-1-4020-8067-8.
  17. (2005) Statistical Analysis and Optimization For VLSI: Timing and Power. Springer, 135. ISBN 978-0-387-25738-9.
  18. (2007) MOSFET modeling for circuit analysis and design. London/Singapore: World Scientific, 83. ISBN 978-981-256-810-6.
  19. Malik, Norbert R. (1995). Electronic circuits: analysis, simulation, and design. Englewood Cliffs, NJ: Prentice Hall, 315–16. ISBN 978-0-02-374910-0.
  20. (2001) §1.5.2 p. 45. ISBN 978-0-471-32168-2.
  21. (2004) Microelectronic circuits, Fifth, New York: Oxford, 552. ISBN 978-0-19-514251-8.
  22. (2004) p. 250, Eq. 4.14. ISBN 978-0-19-514251-8.
  23. Lilienfeld, Julius Edgar (1926-10-08) "Method and apparatus for controlling electric currents" (US patent 1745175A)
  24. 24.0 24.1 (1998) "Highlights Of Silicon Thermal Oxidation Technology", Silicon materials science and technology. The Electrochemical Society, 183. ISBN 978-1566771931.
  25. 25.0 25.1 25.2 25.3 1960: Metal Oxide Semiconductor (MOS) Transistor Demonstrated. The Silicon Engine: A Timeline of Semiconductors in Computers. {{{issue}}}
  26. 26.0 26.1 26.2 (2016) Advanced Materials Innovation: Managing Global Technology in the 21st century. John Wiley & Sons, 165–67. ISBN 978-0470508923.
  27. 27.0 27.1 27.2 27.3 The Foundation of Today's Digital World: The Triumph of the MOS Transistor
  28. 28.0 28.1 28.2 28.3 28.4 Dawon Kahng
  29. 29.0 29.1 29.2 29.3 Martin (John) M. Atalla
  30. 30.0 30.1 30.2 (2007) History of Semiconductor Engineering. Springer Science & Business Media, 321–23. ISBN 978-3540342588.
  31. (2005) High Dielectric Constant Materials: VLSI MOSFET Applications. Springer Science & Business Media, 34. ISBN 978-3540210818.
  32. 32.0 32.1 Evolution of the MOS transistor-from conception to VLSI. Proceedings of the IEEE. 76 (10): 1280–1326 [1290]. doi:10.1109/5.16328
  33. 33.0 33.1 (2007) To the Digital Age: Research Labs, Start-up Companies, and the Rise of MOS Technology. Johns Hopkins University Press, 22. ISBN 978-0801886393.
  34. US patent 3206670 (1960)
  35. US patent 3102230 (1960)
  36. 1948 – Conception of the Junction Transistor
  37. US patent 2953486
  38. Silicon–silicon dioxide field induced surface devices. IRE-AIEE Solid State Device Research Conference. {{{issue}}}
  39. Oral-History: Goldey, Hittinger and Tanenbaum
  40. (2016) Advanced Materials Innovation: Managing Global Technology in the 21st century. John Wiley & Sons, 165 & 181. ISBN 978-0470508923. "Despite its success, the planar junction transistor had its own problems with which to contend. Most importantly, it was a fairly bulky device and difficult to manufacture on a mass production basis, which limited it to a number of specialized applications. Scientists and engineers believed that only a field effect transistor (FET), the type that Shockley first conceived of in the late 1940s but never could get to work properly, held out the hope of a compact, truly mass produced transistor that could be miniaturized for a wide range of uses. (...) A major step in this direction was the invention of the "MOS" process. (...) But Moore particularly believed that the future of mass-produced, low-cost, and high-capacity semiconductor memories was in MOS integrated chips, that is, integrated circuits composed of MOS transistors. Here he thought Intel could really make its mark on a truly breakthrough innovation."
  41. 41.0 41.1 (2002) To the Digital Age: Research Labs, Start-up Companies, and the Rise of MOS Technology. Johns Hopkins University Press, 53–54. ISBN 978-0-8018-6809-2.
  42. 42.0 42.1 (2015) "Chapter 3: NASA's Role in the Manufacture of Integrated Circuits", Historical Studies in the Societal Impact of Spaceflight. NASA, 149-250 (239-42). ISBN 978-1-62683-027-1.
  43. (2007) Electronics: The Life Story of a Technology, 84.
  44. 44.0 44.1 44.2 1963: Complementary MOS Circuit Configuration is Invented
  45. Semiconductor translating circuit (US patent 3390314)
  46. (2005) Current Sources and Voltage References: A Design Reference for Electronics Engineers. Elsevier, 185. ISBN 978-0-08-045555-6.
  47. 47.0 47.1 1968: Silicon Gate Technology Developed for ICs
  48. (2007) To the Digital Age: Research Labs, Start-up Companies, and the Rise of MOS Technology. Johns Hopkins University Press, 3. ISBN 978-0801886393.
  49. (2003) ULSI Process Integration III: Proceedings of the International Symposium. The Electrochemical Society, 46. ISBN 978-1566773768.
  50. The other transistor: early history of the metal–oxide–semiconductor field-effect transistor. Engineering Science and Education Journal. 7 (5): 233–40. doi:10.1049/esej:19980509
  51. (1992) Studies of InAIAs/InGaAs and GaInP/GaAs heterostructure FET's for high speed applications. University of Michigan, 1. "The Si MOSFET has revolutionized the electronics industry and as a result impacts our daily lives in almost every conceivable way."
  52. (2015) "Application of Organic Semiconductors toward Transistors", Nanodevices for Photonics and Electronics: Advances and Applications. CRC Press, 355. ISBN 978-9814613750.
  53. (1994) Making the Right Connections: Microcomputers and Electronic Instrumentation. American Chemical Society, 389. ISBN 978-0841228610. "The relative simplicity and low power requirements of MOSFETs have fostered today's microcomputer revolution."
  54. 54.0 54.1 (2012) Dopants and Defects in Semiconductors. CRC Press, 3. ISBN 978-1439831533.
  55. Dr. Dawon Kahng, 61, Inventor In Field of Solid-State Electronics
  56. (2018) RF and Microwave Passive and Active Technologies. CRC Press, 18–12. ISBN 978-1420006728.
  57. 57.0 57.1 (2016) Nanowire Transistors: Physics of Devices and Materials in One Dimension. Cambridge University Press, 2. ISBN 978-1107052406.
  58. Quantum transport in silicon double-gate MOSFET. 2009 2nd International Workshop on Electron Devices and Semiconductor Technology. {{{issue}}}: 1–4. doi:10.1109/EDST.2009.5166116
  59. 59.0 59.1 (2015) Design of Arithmetic Circuits in Quantum Dot Cellular Automata Nanotechnology. Springer, 1. ISBN 978-3319166889.
  60. 60.0 60.1 Through-Silicon Via (TSV). Proceedings of the IEEE. 97 (1): 43–48. doi:10.1109/JPROC.2008.2007462
  61. (2006) Making Silicon Valley: Innovation and the Growth of High Tech, 1930-1970. Chemical Heritage Foundation, 273. ISBN 9780262122818.
  62. 62.0 62.1 62.2 Metal–oxide–semiconductor field-effect transistors
  63. 63.0 63.1 Transistors Keep Moore's Law Alive
  64. 64.0 64.1 (1992) Electronic Circuits and Systems : Analog and Digital,1e. Tata McGraw-Hill Education, 119. ISBN 978-0-07-460040-5.
  65. 65.0 65.1 65.2 65.3 Applying MOSFETs to Today's Power-Switching Designs
  66. B. SOMANATHAN NAIR (2002). Digital electronics and logic design. PHI Learning Pvt. Ltd., 289. ISBN 9788120319561. "Digital signals are fixed-width pulses, which occupy only one of two levels of amplitude."
  67. Joseph Migga Kizza (2005). Computer Network Security. Springer Science & Business Media. ISBN 978-0387204734.
  68. 68.0 68.1 68.2 Tortoise of Transistors Wins the Race – CHM Revolution
  69. (2005) 2000 Solved Problems in Digital Electronics. Tata McGraw-Hill Education, 151. ISBN 978-0-07-058831-8.
  70. Device scaling limits of Si MOSFETs and their application dependencies. Proceedings of the IEEE. 89 (3): 259–88. doi:10.1109/5.915374
  71. (2002) Plasma density control for reactive ion etch variation reduction in industrial microelectronics. University of Michigan, 2. ISBN 9780493885735. "Arguably the most important device breakthrough for the computing industry, however, occurred in 1960 when Kahng and Atalla proposed and fabricated the first metal–oxide–semiconductor field-effect-transistor, or MOSFET, using a thermally oxidized silicon structure."
  72. (1988) "The Thermal Oxidation of Silicon and Other Semiconductor Materials", Semiconductor Materials and Process Technology Handbook: For Very Large Scale Integration (VLSI) and Ultra Large Scale Integration (ULSI). Noyes Publications, 46. ISBN 978-0815511502.
  73. In search of "Forever," continued transistor scaling one new material at a time. IEEE Transactions on Semiconductor Manufacturing. 18 (1): 26–36. doi:10.1109/TSM.2004.841816
  74. (2009) Electrical Engineering – Volume II. EOLSS Publications, 7. ISBN 978-1905839780.
  75. (2009) The Silicon Web: Physics for the Internet Age. CRC Press, 365. ISBN 978-1439803127.
  76. (2001) "Introduction", Fundamental Aspects of Silicon Oxidation. Springer Science & Business Media, 1–11. ISBN 978-3540416821.
  77. (2000) "1.2. The Silicon Age", Silicon Surfaces and Formation of Interfaces: Basic Science in the Industrial World. World Scientific, 3–13. ISBN 978-9810232863.
  78. 78.0 78.1 78.2 78.3 Remarks by Director Iancu at the 2019 International Intellectual Property Conference
  79. (2013) Fundamentals of Ultra-Thin-Body MOSFETs and FinFETs. Cambridge University Press, vii. ISBN 978-1107434493.
  80. (2004) The Electrical Engineering Handbook. Elsevier, 109. ISBN 978-0080477480.
  81. (2013) Reliability of High Mobility SiGe Channel MOSFETs for Future CMOS Applications. Springer Science & Business Media, 1–2. ISBN 978-9400776630.
  82. (2017) Extreme Environment Electronics. CRC Press, 959. ISBN 978-1-351-83280-9. "While the bipolar junction transistor was the first transistor device to take hold in the integrated circuit world, there is no question that the advent of MOSFETs, an acronym for metal-oxide-semiconductor field-effect transistor, is what truly revolutionized the world in the so-called information age. The density with which these devices can be made has allowed entire computers to exist on a few small chips rather than filling a room."
  83. 83.0 83.1 13 Sextillion & Counting: The Long & Winding Road to the Most Frequently Manufactured Human Artifact in History
  84. 84.0 84.1 (2011) CMOS: Circuit Design, Layout, and Simulation. John Wiley & Sons, 7. ISBN 978-1118038239.
  85. (2016) "History of Electronic Devices", A Short History of Circuits and Systems: From Green, Mobile, Pervasive Networking to Big Data Computing. IEEE Circuits and Systems Society, 59-70 (65-6). ISBN 978-8793609860.
  86. (2010) Nanometer CMOS. Pan Stanford Publishing, 5. ISBN 978-9814241083.
  87. The Nanosheet Transistor Is the Next (and Maybe Last) Step in Moore's Law. IEEE Spectrum. {{{issue}}}. doi:10.1109/MSPEC.2019.8784120
  88. Focus: Landmarks – Accidental Discovery Leads to Calibration Standard. Physics. 8 ({{{issue}}}). doi:10.1103/Physics.8.46
  89. 89.0 89.1 89.2 89.3 (2017) The Electronics Revolution: Inventing the Future. Springer, 245, 249–50. ISBN 978-3319490885.
  90. (2010) Fundamentals of III-V Semiconductor MOSFETs. Springer Science & Business Media, 2. ISBN 978-1441915474.
  91. 91.0 91.1 Advanced information on the Nobel Prize in Physics 2000
  92. Milestones:List of IEEE Milestones
  93. (2013) High-Frequency Integrated Circuits. Cambridge University Press, 164. ISBN 978-0521873024.
  94. (2002) Semiconductor Devices: Physics and Technology, 2nd, Wiley, 4. ISBN 0-471-33372-7.
  95. 95.0 95.1 95.2 1978: Double-well fast CMOS SRAM (Hitachi)
  96. Computer History Museum – The Silicon Engine | 1963 – Complementary MOS Circuit Configuration is Invented
  97. (1983) Electronics with digital and analog integrated circuits. Prentice-Hall, 101. ISBN 978-0132507042. "The dominant difference is power: CMOS gates can consume about 100,000 times less power than their TTL equivalents!"
  98. Depletion Mode
  99. MIS
  100. (2007) Semiconducting polymers: chemistry, physics and engineering. Wiley-VCH. ISBN 978-3-527-31271-9.
  101. 101.0 101.1 Jones, William (1997). Organic Molecular Solids: Properties and Applications. CRC Press. ISBN 978-0-8493-9428-7.
  102. High performance organic field-effect transistors using cyanoethyl pullulan (CEP) high-k polymer cross-linked with trimethylolpropane triglycidyl ether (TTE) at low temperatures. Journal of Materials Chemistry C. 1 (25): 3955. doi:10.1039/C3TC30134F
  103. D. Kahng and S. M. Sze, "A floating-gate and its application to memory devices", The Bell System Technical Journal, vol. 46, no. 4, 1967, pp. 1288–95
  104. Baliga, B. Jayant (1996). Power Semiconductor Devices. Boston: PWS publishing Company. ISBN 978-0-534-94098-0.
  105. Power MOSFET Basics: Understanding MOSFET Characteristics Associated With The Figure of Merit
  106. Power MOSFET Basics: Understanding Gate Charge and Using It To Assess Switching Performance
  107. (1997) The Industrial Electronics Handbook. CRC Press, 218. ISBN 978-0849383434.
  108. MOS Capacitor
  109. (May 2012) "MOS Capacitor and MOSFET", Semiconductor Devices: Physics and Technology. John Wiley & Sons. ISBN 978-0470537947.
  110. (2002) Semiconductor Devices: Physics and Technology, 2nd, Wiley, 214. ISBN 0-471-33372-7.
  111. (2016) Physics and Technology of Crystalline Oxide Semiconductor CAAC-IGZO: Fundamentals. John Wiley & Sons, 217. ISBN 978-1119247401.
  112. The TFT A New Thin-Film Transistor. Proceedings of the IRE. 50 (6): 1462–69. doi:10.1109/JRPROC.1962.288190
  113. The Inventors of TFT Active-Matrix LCD Receive the 2011 IEEE Nishizawa Medal. Journal of Display Technology. 8 (1): 3–4. doi:10.1109/JDT.2011.2177740
  114. (2005) Liquid Gold: The Story of Liquid Crystal Displays and the Creation of an Industry. World Scientific, 176–77. ISBN 978-9812389565.
  115. (1990) "Introduction To BiCMOS", BiCMOS Technology and Applications. Springer Science & Business Media, 1-20 (2). doi:10.1007/978-1-4757-2029-7_1. ISBN 978-0792393849.
  116. IGBT Definition
  117. 117.0 117.1 117.2 117.3 117.4 117.5 The impact of MOSFET-based sensors. Sensors and Actuators. 8 (2): 109–27. doi:10.1016/0250-6874(85)87009-8
  118. 40 years of ISFET technology:From neuronal sensing to DNA sequencing. Electronics Letters. {{{issue}}}
  119. 119.0 119.1 119.2 Recent advances in biologically sensitive field-effect transistors (BioFETs). Analyst. 127 (9): 1137–51. doi:10.1039/B204444G
  120. (2002) "Figure 12: Simplified cross section of FinFET double-gate MOSFET.", Frontiers in electronics: future chips : proceedings of the 2002 Workshop on Frontiers in Electronics (WOFE-02), St Croix, Virgin Islands, US, 6–11 January 2002. World Scientific, 82. ISBN 978-981-238-222-1.
  121. (2009) "Comparison of SOI FinFETs and bulk FinFETs: Figure 2", Silicon-on-Insulator Technology and Devices. The Electrochemical Society, 102. ISBN 978-1-56677-712-4.
  122. (2008) FinFETs and Other Multi-Gate Transistors. Springer Science & Business Media, 11. ISBN 978-0387717517.
  123. Calculated threshold-voltage characteristics of an XMOS transistor having an additional bottom gate. Solid-State Electronics. 27 (8): 827–28. doi:10.1016/0038-1101(84)90036-4
  124. High performance CMOS surrounding-gate transistor (SGT) for ultra high density LSIs. Technical Digest., International Electron Devices Meeting. {{{issue}}}: 222–25. doi:10.1109/IEDM.1988.32796
  125. (2017) Micro- and Nanoelectronics: Emerging Device Challenges and Solutions. CRC Press, 117. ISBN 978-1351831345.
  126. IEEE Andrew S. Grove Award Recipients
  127. The Breakthrough Advantage for FPGAs with Tri-Gate Technology
  128. 128.0 128.1 128.2 128.3 FinFET: History, Fundamentals and Future
  129. III–V tri-gate quantum well MOSFET: Quantum ballistic simulation study for 10nm technology and beyond. Solid-State Electronics. 118 ({{{issue}}}): 66–77. doi:10.1016/j.sse.2015.11.034
  130. (2010) "Technology/Circuit Co-Design for III-V FETs", Fundamentals of III-V Semiconductor MOSFETs. Springer Science & Business Media, 423–42. doi:10.1007/978-1-4419-1547-4_14. ISBN 978-1-4419-1547-4.
  131. InGaAs Quantum-Well MOSFETs for logic applications
  132. WHAT'S NEWS: A review of the latest happenings in electronics
  133. 133.0 133.1 133.2 133.3 (2005) Physics of Semiconductor Devices. Springer Science & Business Media, 165. ISBN 978-0387285238. "Without the MOSFET there would be no computer industry, no digital telecommunication systems, no video games, no pocket calculators and no digital wristwatches."
  134. 134.0 134.1 Thin Film Transistor Technology—Past, Present, and Future. The Electrochemical Society Interface. 22 (1): 55–61. doi:10.1149/2.F06131if
  135. (2007) History of Semiconductor Engineering. Springer Science & Business Media, 120, 321–23. ISBN 978-3540342588.
  136. (2007) To the Digital Age: Research Labs, Start-up Companies, and the Rise of MOS Technology. Johns Hopkins University Press, 46. ISBN 978-0801886393.
  137. Computer History Museum – The Silicon Engine | 1955 – Photolithography Techniques Are Used to Make Silicon Devices
  138. 1964 – First Commercial MOS IC Introduced
  139. Miniaturized electronic circuits [US Patent No. 3,138, 743]. IEEE Solid-State Circuits Society Newsletter. 12 (2): 44–54. doi:10.1109/N-SSC.2007.4785580
  140. 140.0 140.1 The Surprising Story of the First Microprocessors. IEEE Spectrum. 53 (9): 48–54. doi:10.1109/MSPEC.2016.7551353
  141. 141.0 141.1 Metal–Oxide–Semiconductor Technology. Scientific American. 229 (2): 48–59. doi:10.1038/scientificamerican0873-48
  142. 142.0 142.1 (1989) Power MOSFETS: theory and applications. Wiley, 1. ISBN 978-0471828679. "The metal–oxide–semiconductor field-effect transistor (MOSFET) is the most commonly used active device in the very-large-scale integration of digital integrated circuits (VLSI). During the 1970s these components revolutionized electronic signal processing, control systems and computers."
  143. (2014) Handbook of VLSI Chip Design and Expert Systems. Academic Press, 16. ISBN 978-1483258058.
  144. 1971: Microprocessor Integrates CPU Function onto a Single Chip
  145. 2-1/2-generation μP's-$10 parts that perform like low-end mini's
  146. Computer History Museum – Exhibits – Microprocessors
  147. Asad Abidi Recognized for Work in RF-CMOS. IEEE Solid-State Circuits Society Newsletter. 13 (1): 57–58. doi:10.1109/N-SSC.2008.4785694
  148. Transistors – an overview
  149. (1965) Solid State Design – Vol. 6. Horizon House.
  150. 150.0 150.1 DRAM
  151. Robert Dennard
  152. 1970: MOS Dynamic RAM Competes with Magnetic Core Memory on Price
  153. People
  154. 1971: Reusable semiconductor ROM introduced
  155. (2019) Advances in Non-Volatile Memory and Storage Technology. Woodhead Publishing. ISBN 978-0081025857.
  156. A calculator option for the Tektronix 4010 computer graphics terminal. Compilation of Abstracts of Dissertations, Theses and Research Papers Submitted by Candidates for Degrees. {{{issue}}}
  157. Victor 3900
  158. 158.0 158.1 158.2 Hand-held Calculators
  159. Sharp QT-8D "micro Compet"
  160. Design News. Design News. 27 (1–8)
  161. 161.0 161.1 161.2 (2017) MOS Devices for Low-Voltage and Low-Energy Applications. John Wiley & Sons, 53. ISBN 978-1119107354.
  162. (1996) "Integrated Circuits", The Electronics Handbook. CRC Press, 644. ISBN 978-0-8493-8345-8.
  163. (2002) Technology, Entrepreneurs, and Silicon Valley. Institute for the History of Technology. ISBN 978-0964921719. "These active electronic components, or power semiconductor products, from Siliconix are used to switch and convert power in a wide range of systems, from portable information appliances to the communications infrastructure that enables the Internet. The company's power MOSFETs – tiny solid-state switches, or metal oxide semiconductor field-effect transistors – and power integrated circuits are widely used in cell phones and notebook computers to manage battery power efficiently"
  164. An overview on wireline communication systems for high-speed broadband communication. Proceedings of Papers 5th European Conference on Circuits and Systems for Communications (ECCSC'10). {{{issue}}}: 1–8
  165. (2016) "Switched Capacitor Filters", A Short History of Circuits and Systems: From Green, Mobile, Pervasive Networking to Big Data Computing. IEEE Circuits and Systems Society, 105–10. ISBN 978-8793609860.
  166. 166.0 166.1 166.2 (2005) Silicon RF Power MOSFETS. World Scientific. ISBN 978-9812561213.
  167. 167.0 167.1 167.2 (2018) 5G Mobile Communications: Concepts and Technologies. CRC Press, 128–34. ISBN 978-0429881343.
  168. From millibits to terabits per second and beyond – Over 60 years of innovation. 2009 2nd International Workshop on Electron Devices and Semiconductor Technology. {{{issue}}}: 1–6. doi:10.1109/EDST.2009.5166093
  169. Cross-Reactive Chemical Sensor Arrays. Chemical Reviews. 100 (7): 2595–2626. doi:10.1021/cr980102w
  170. (2000) MEMS and MOEMS Technology and Applications. SPIE Press, ix, 3–4. ISBN 978-0819437167.
  171. A Resonant-Gate Silicon Surface Transistor with High-Q Band-Pass Properties. Appl. Phys. Lett.. 7 (4): 84–86. doi:10.1063/1.1754323
  172. Charge Coupled Semiconductor Devices. Bell Syst. Tech. J.. 49 (4): 587–93. doi:10.1002/j.1538-7305.1970.tb01790.x
  173. A new MOS phototransistor operating in a non-destructive readout mode. Japanese Journal of Applied Physics. 24 (5A). doi:10.1143/JJAP.24.L323
  174. Eric R. Fossum (1993), "Active Pixel Sensors: Are CCD's Dinosaurs?" Proc. SPIE Vol. 1900, pp. 2–14, Charge-Coupled Devices and Solid State Optical Sensors III, Morley M. Blouke; Ed.
  175. (2014) "The Optical Mouse: Early Biomimetic Embedded Vision", Advances in Embedded Computer Vision. Springer, 3-22 (3). ISBN 978-3319093871.
  176. (August 1981) "The Optical Mouse, and an Architectural Methodology for Smart Digital Sensors", VLSI Systems and Computations. Computer Science Press, 1–19. doi:10.1007/978-3-642-68402-9_1. ISBN 978-3-642-68404-3.
  177. How Computer Mice Work
  178. Power Supply Technology – Buck DC/DC Converters
  179. (1989) Power MOSFETS: theory and applications. Wiley, 239. ISBN 9780471828679.
  180. Buyers can expect 30-week lead times and higher tags to continue for MOSFETs. Electronics Sourcing. {{{issue}}}: 18–19
  181. Automotive Power MOSFETs
  182. Modern Electric Vehicle Technology using an AC Motor Drive. Journal of Electrical and Electronics Engineering. 10 (1): 21–27
  183. NIHF Inductee Bantval Jayant Baliga Invented IGBT Technology
  184. 184.0 184.1 184.2 Angstrom
  185. (2002) Semiconductor Devices: Physics and Technology, 2nd, Wiley, 4. ISBN 0-471-33372-7.
  186. Silicon–silicon dioxide field induced surface devices. IRE-AIEE Solid State Device Research Conference. {{{issue}}}
  187. (2013) High-Frequency Integrated Circuits. Cambridge University Press, 164. ISBN 9780521873024.
  188. Electron and hole mobilities in inversion layers on thermally oxidized silicon surfaces. IEEE Transactions on Electron Devices. 12 (5): 248–254. doi:10.1109/T-ED.1965.15489
  189. Design of micron MOS switching devices. 1972 International Electron Devices Meeting. {{{issue}}}: 168–170. doi:10.1109/IEDM.1972.249198
  190. 190.0 190.1 Short Channel MOS-IC Based on Accurate Two Dimensional Device Design. Japanese Journal of Applied Physics. 15 (S1): 193. doi:10.7567/JJAPS.15S1.193
  191. Recollections on MOSFET Scaling. IEEE Solid-State Circuits Society Newsletter. 12 (1): 19–22. doi:10.1109/N-SSC.2007.4785536
  192. 1970s: Development and evolution of microprocessors
  193. NEC 751 (uCOM-4)
  194. 1973: 12-bit engine-control microprocessor (Toshiba)
  195. (1978) Encyclopedia of Computer Science and Technology: Volume 10 – Linear and Matrix Algebra to Microorganisms: Computer-Assisted Identification. CRC Press, 402. ISBN 9780824722609.
  196. Design of ion-implanted MOSFET's with very small physical dimensions. IEEE Journal of Solid-State Circuits. 9 (5): 256–268. doi:10.1109/JSSC.1974.1050511
  197. A threshold voltage controlling circuit for short channel MOS integrated circuits. 1976 IEEE International Solid-State Circuits Conference. Digest of Technical Papers. XIX ({{{issue}}}): 54–55. doi:10.1109/ISSCC.1976.1155515
  198. Intel Microprocessor Quick Reference Guide
  199. 1 /spl mu/m MOSFET VLSI technology. V. A single-level polysilicon technology using electron-beam lithography. IEEE Journal of Solid-State Circuits. 14 (2): 275–281. doi:10.1109/JSSC.1979.1051174
  200. Deep-submicron MOSFET characteristics with 5 nm gate oxide. 1984 International Electron Devices Meeting. {{{issue}}}: 414–417. doi:10.1109/IEDM.1984.190738
  201. Extremely high transconductance (above 500 mS/mm) MOSFET with 2.5 nm gate oxide. 1985 International Electron Devices Meeting. {{{issue}}}: 761–763. doi:10.1109/IEDM.1985.191088
  202. Observation of electron velocity overshoot in sub-100-nm-channel MOSFET's in Silicon. IEEE Electron Device Letters. 6 (12): 665–667. doi:10.1109/EDL.1985.26267
  203. 203.0 203.1 Sub‐100‐nm channel‐length transistors fabricated using x‐ray lithography. Journal of Vacuum Science & Technology B: Microelectronics Processing and Phenomena. 4 (1): 253–255. doi:10.1116/1.583451
  204. G. G. Shahidi, D. A. Antoniadis, and H. I. Smith, "A 60-nm Silicon MOSFET," in 1986 International Electron Devices Meeting, Dec 1986, pp. 222–225.
  205. Electron velocity overshoot at 300 K and 77 K in silicon MOSFETs with submicron channel lengths. 1986 International Electron Devices Meeting. {{{issue}}}: 824–825. doi:10.1109/IEDM.1986.191325
  206. Submicron Tungsten Gate MOSFET with 10 nm Gate Oxide. 1987 Symposium on VLSI Technology. Digest of Technical Papers. {{{issue}}}: 61–62
  207. Subhalf-micrometer p-channel MOSFET's with 3.5-nm gate Oxide fabricated using X-ray lithography. IEEE Electron Device Letters. 8 (6): 266–268. doi:10.1109/EDL.1987.26625
  208. Sub-50 nm gate length n-MOSFETs with 10 nm phosphorus source and drain junctions. Proceedings of IEEE International Electron Devices Meeting. {{{issue}}}: 119–122. doi:10.1109/IEDM.1993.347385
  209. Proposal of Pseudo Source and Drain MOSFETs for Evaluating 10-nm Gate MOSFETs. Japanese Journal of Applied Physics. 36 (3S): 1569. doi:10.1143/JJAP.36.1569
  210. Performance and reliability of sub-100 nm MOSFETs with ultra thin direct tunneling gate oxides. 1998 Symposium on VLSI Technology Digest of Technical Papers (Cat. No.98CH36216). {{{issue}}}: 160–161. doi:10.1109/VLSIT.1998.689240
  211. Sub-100 nm nMOSFETs with direct tunneling thermal, nitrous and nitric oxides. 56th Annual Device Research Conference Digest (Cat. No.98TH8373). {{{issue}}}: 10–11. doi:10.1109/DRC.1998.731099
  212. Extreme scaling with ultra-thin Si channel MOSFETs. Digest. International Electron Devices Meeting. {{{issue}}}: 267–270. doi:10.1109/IEDM.2002.1175829
  213. 213.0 213.1 213.2 (2010) Nanometer CMOS (in en). Pan Stanford Publishing, 17. ISBN 9789814241083.
  214. IBM claims world's smallest silicon transistor – TheINQUIRER
  215. 215.0 215.1 Sub-10-nm planar-bulk-CMOS devices using lateral junction control. IEEE International Electron Devices Meeting 2003. {{{issue}}}: 20.7.1–20.7.3. doi:10.1109/IEDM.2003.1269446
  216. Nanowatt logic using field-effect metal–oxide semiconductor triodes. 1963 IEEE International Solid-State Circuits Conference. Digest of Technical Papers. VI ({{{issue}}}): 32–33. doi:10.1109/ISSCC.1963.1157450
  217. 217.0 217.1 (2007) History of Semiconductor Engineering. Springer Science & Business Media, 330. ISBN 9783540342588.
  218. A fully plasma etched-ion implanted CMOS process. 1976 International Electron Devices Meeting. {{{issue}}}: 209–213. doi:10.1109/IEDM.1976.189021
  219. 1978: Double-well fast CMOS SRAM (Hitachi)
  220. A high-speed, low-power Hi-CMOS 4K static RAM. 1978 IEEE International Solid-State Circuits Conference. Digest of Technical Papers. XXI ({{{issue}}}): 110–111. doi:10.1109/ISSCC.1978.1155749
  221. Short Channel Hi-CMOS Device and Circuits. ESSCIRC 78: 4th European Solid State Circuits Conference – Digest of Technical Papers. {{{issue}}}: 131–132
  222. 222.0 222.1 222.2 222.3 222.4 Impact of Processing Technology on DRAM Sense Amplifier Design
  223. A 70ns high density CMOS DRAM. 1983 IEEE International Solid-State Circuits Conference. Digest of Technical Papers. XXVI ({{{issue}}}): 56–57. doi:10.1109/ISSCC.1983.1156456
  224. Submicron VLSI memory circuits. 1983 IEEE International Solid-State Circuits Conference. Digest of Technical Papers. XXVI ({{{issue}}}): 234–235. doi:10.1109/ISSCC.1983.1156549
  225. A self-aligned 1-μm CMOS technology for VLSI. 1983 International Electron Devices Meeting. {{{issue}}}: 739–741. doi:10.1109/IEDM.1983.190615
  226. A 60ns 4Mb DRAM in a 300mil DIP. 1987 IEEE International Solid-State Circuits Conference. Digest of Technical Papers. XXX ({{{issue}}}): 282–283. doi:10.1109/ISSCC.1987.1157106
  227. Circuit technologies for 16Mb DRAMs. 1987 IEEE International Solid-State Circuits Conference. Digest of Technical Papers. XXX ({{{issue}}}): 22–23. doi:10.1109/ISSCC.1987.1157158
  228. 0.5 μm CMOS Device Design and Characterization. ESSDERC '87: 17th European Solid State Device Research Conference. {{{issue}}}: 91–94
  229. 0.25 μm CMOS technology using P+polysilicon gate PMOSFET. 1987 International Electron Devices Meeting. {{{issue}}}: 367–370. doi:10.1109/IEDM.1987.191433
  230. A 16mb Dram with an Open Bit-Line Architecture. 1988 IEEE International Solid-State Circuits Conference, 1988 ISSCC. Digest of Technical Papers. {{{issue}}}: 246–. doi:10.1109/ISSCC.1988.663712
  231. Fabrication of CMOS on ultrathin SOI obtained by epitaxial lateral overgrowth and chemical-mechanical polishing. International Technical Digest on Electron Devices. {{{issue}}}: 587–590. doi:10.1109/IEDM.1990.237130
  232. Memory
  233. 0.18-micron Technology
  234. NEC test-produces world's smallest transistor
  235. Primary Consideration on Compact Modeling of DG MOSFETs with Four-terminal Operation Mode. TechConnect Briefs. 2 (2003): 330–333
  236. A high performance 0.25 mu m CMOS technology. Technical Digest., International Electron Devices Meeting. {{{issue}}}: 56–59. doi:10.1109/IEDM.1988.32749
  237. Doping of n/sup +/ and p/sup +/ polysilicon in a dual-gate CMOS process. Technical Digest., International Electron Devices Meeting. {{{issue}}}: 238–241. doi:10.1109/IEDM.1988.32800
  238. High performance CMOS surrounding-gate transistor (SGT) for ultra high density LSIs. Technical Digest., International Electron Devices Meeting. {{{issue}}}: 222–225. doi:10.1109/IEDM.1988.32796
  239. (2017) Micro- and Nanoelectronics: Emerging Device Challenges and Solutions. CRC Press, 117. ISBN 9781351831345.
  240. (2017) Novel Compound Semiconductor Nanowires: Materials, Devices, and Applications. CRC Press, 457. ISBN 9781315340722.
  241. (2008) FinFETs and Other Multi-Gate Transistors. Springer Science & Business Media, 11. ISBN 9780387717517.
  242. A fully depleted lean-channel transistor (DELTA): a novel vertical ultra thin SOI MOSFET. International Technical Digest on Electron Devices Meeting. {{{issue}}}: 833–836. doi:10.1109/IEDM.1989.74182
  243. IEEE Andrew S. Grove Award Recipients
  244. A folded-channel MOSFET for deep-sub-tenth micron era. International Electron Devices Meeting 1998. Technical Digest (Cat. No.98CH36217). {{{issue}}}: 1032–1034. doi:10.1109/IEDM.1998.746531
  245. Sub-20 nm CMOS FinFET technologies. International Electron Devices Meeting. Technical Digest (Cat. No.01CH37224). {{{issue}}}: 19.1.1–19.1.4. doi:10.1109/IEDM.2001.979526
  246. FinFET scaling to 10 nm gate length. Digest. International Electron Devices Meeting. {{{issue}}}: 251–254. doi:10.1109/IEDM.2002.1175825
  247. Sub-5nm All-Around Gate FinFET for Ultimate Scaling. Symposium on VLSI Technology, 2006. {{{issue}}}: 58–59. doi:10.1109/VLSIT.2006.1705215
  248. Still Room at the Bottom (nanometer transistor developed by Yang-kyu Choi from the Korea Advanced Institute of Science and Technology )
  249. The TFT A New Thin-Film Transistor. Proceedings of the IRE. 50 (6): 1462–1469. doi:10.1109/JRPROC.1962.288190
  250. (2010) "Atomic-Layer Deposited High-k/III-V Metal-Oxide-Semiconductor Devices and Correlated Empirical Model", Fundamentals of III-V Semiconductor MOSFETs. Springer Science & Business Media, 173–194. doi:10.1007/978-1-4419-1547-4_7. ISBN 978-1-4419-1547-4.
  251. A HIGH‐GAIN InAs THIN‐FILM TRANSISTOR. Applied Physics Letters. 9 (7): 259–260. doi:10.1063/1.1754740
  252. (2010) Fundamentals of III-V Semiconductor MOSFETs. Springer Science & Business Media, 2–3. ISBN 9781441915474.
  253. A floating gate and its application to memory devices. The Bell System Technical Journal. 46 (6): 1288–1295. doi:10.1002/j.1538-7305.1967.tb01738.x
  254. The variable threshold transistor, a new electrically-alterable, non-destructive read-only storage device. 1967 International Electron Devices Meeting. 13 ({{{issue}}}): 70. doi:10.1109/IEDM.1967.187833
  255. A Monolithic Mos-Bipolar Audio Amplifier. IEEE Transactions on Broadcast and Television Receivers. 14 (2): 80–86. doi:10.1109/TBTR1.1968.4320132
  256. 256.0 256.1 (1990) "Introduction To BiCMOS", BiCMOS Technology and Applications. Springer Science & Business Media, 1–20 (2). doi:10.1007/978-1-4757-2029-7_1. ISBN 9780792393849.
  257. Complementary MOS-bipolar structure. 1968 International Electron Devices Meeting. {{{issue}}}: 22–24. doi:10.1109/IEDM.1968.187949
  258. 258.0 258.1 Advances in Discrete Semiconductors March On. Power Electronics Technology. {{{issue}}}: 52–6
  259. (1988) Fet Technology and Application. CRC Press, 18. ISBN 9780824780500.
  260. Diffusion Self-Aligned MOST; A New Approach for High Speed Device. Proceedings of the 1st Conference on Solid State Devices. {{{issue}}}. doi:10.7567/SSDM.1969.4-1
  261. Modelling of the double-diffused MOST's with self-aligned gates. 1972 International Electron Devices Meeting. {{{issue}}}: 24–26. doi:10.1109/IEDM.1972.249241
  262. Development of an Ion-Sensitive Solid-State Device for Neurophysiological Measurements. IEEE Transactions on Biomedical Engineering. BME-17 (1): 70–71. doi:10.1109/TBME.1970.4502688
  263. 40 years of ISFET technology: From neuronal sensing to DNA sequencing. Electronics Letters. {{{issue}}}. doi:10.1049/el.2011.3231
  264. DSA enhancement – Depletion MOS IC. 1970 International Electron Devices Meeting. {{{issue}}}: 110. doi:10.1109/IEDM.1970.188299
  265. (1996) High Performance Audio Power Amplifiers. Elsevier, 177–8, 406. ISBN 9780080508047.
  266. (2015) The IGBT Device: Physics, Design and Applications of the Insulated Gate Bipolar Transistor. William Andrew, xxviii, 5–12. ISBN 9781455731534.
  267. Performance and structures of scaled-down bipolar devices merged with CMOSFETs. 1984 International Electron Devices Meeting. {{{issue}}}: 694–697. doi:10.1109/IEDM.1984.190818
  268. Step-and-Repeat X-ray/Photo Hybrid Lithography for 0.3 μm Mos Devices. 1985 Symposium on VLSI Technology. Digest of Technical Papers. {{{issue}}}: 74–75
  269. 1.0-/spl mu/m n-Well CMOS/Bipolar Technology. IEEE Journal of Solid-State Circuits. 20 (1): 137–143. doi:10.1109/JSSC.1985.1052286
  270. The electrical properties of subquarter-micrometer gate-length MOSFET's. IEEE Electron Device Letters. 7 (11): 612–614. doi:10.1109/EDL.1986.26492
  271. Submicron Tungsten Gate MOSFET with 10 nm Gate Oxide. 1987 Symposium on VLSI Technology. Digest of Technical Papers. {{{issue}}}: 61–62
  272. An 0.8 #181;m 256K BiCMOS SRAM technology. 1987 International Electron Devices Meeting. {{{issue}}}: 841–843. doi:10.1109/IEDM.1987.191564
  273. Transistor operations in 30-nm-gate-length EJ-MOSFETs. 1997 55th Annual Device Research Conference Digest. {{{issue}}}: 14–15. doi:10.1109/DRC.1997.612456
  274. Observation of source-to-drain direct tunneling current in 8 nm gate electrically variable shallow junction metal–oxide–semiconductor field-effect transistors. Applied Physics Letters. 76 (25): 3810–3812. doi:10.1063/1.126789