Short column around Transistor. 12/22/2017 JC special topic

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Short column around Transistor 12/22/2017 JC special topic

Transistor, FET, CMOS D G S FET Transistor CMOS You can refer, such as, https://www.allaboutcircuits.com/textbook/semiconductors/

Timeline 1925: Julius Edgar Lilienfeld s MESFET patent 1935: Oskar Heil s MOSFET patent 194?: Unpublished Bell Labs MESFET 1947: Ge BJT (Bardeen, Brattain, Shockley, Bell Labs) 1954: Si BJT (Teal, Bell Labs) 1960: MOSFET (Atalla&Khang, Bell Labs) 1961: Integrated circuit (Kilby, TI) 1963: CMOS (Sah&Wanlass, Fairchild) 1964: Commercial CMOS IC (RCA) 1965: DRAM (Fairchild) 1968: Poly-Si gate (Faggin&Klein, Fairchild) 1968: 1-FET DRAM cell (Dennard, IBM) 1971: UV EPROM (Frohman, Intel) 1971: Full CPU in chip, Intel 8008 (Faggin, Intel) 1974: Digital watch 1974: Scaling theory (Gänsslen&Dennard, IBM) 1978: Use of ion implanter 1978: Flotox EEPROM (Perlegos, Intel) 1980: Ion-implanted CMOS IC 1980: Plasma etching 1984: Scaling theory <0.25 μm (Baccarani, U. Bologna) 1986: 0.1 μm Si MOSFET (Sai-Halasz, IBM) 1991: CMOS replaces BJT also at high-end 1993: DGFET scalable to 30 nm (theory, Frank et al.) 2007: Non-SiO 2 (HfO 2 based) MOSFET (Intel) # Left list is taken from a slide made by M. Fischetti, history of the MOSFET from a physicist s perspective

Reference : Nobel Prize List awarded to scientists working at Bell Laboratories (from https://www.bell-labs.com/our-people/recognition/ ) Nobel Prize in Physics total 7 2009 Willard S. Boyle and George E. Smith Invention of the charge-coupled device (CCD), for electronic memory, which made the Charge Coupled Device (CCD) image sensor possible. 1998 Horst Störmer, Daniel Tsui, and Robert Laughlin Discovery and explanation of a new form of quantum fluid with fractionally charged excitations (the Fractional Quantum Hall Effect.) 1978 Arno A. Penzias and Robert W. Wilson Discovery of the cosmic microwave background radiation that in turn provided clear substantiation of the "big bang" theory of how the universe began. 1997 Steven Chu Development of methods to cool and trap atoms with laser light. (Prize shared with Claude Cohen-Tannoudji and William D. Phillips.) 1977 Philip W. Anderson Fundamental theoretical insights into the electronic structure of magnetic and disordered systems". (Prize shared with Sir Nevill Francis Mott and John Hasbrouck van Vleck.)

1956 John Bardeen, Walter H. Brattain and William Shockley Research on semiconductors that led to the invention of the transistor in 1947. 1937 Clinton J. Davisson Discovery of the diffraction of electrons by crystals and demonstrated the wave nature of matter. (Prize shared with George Paget Thomson.) Nobel Prize in Chemistry total 1 2014 Eric Betzig Eric Betzig was awarded 2014 Nobel Prize in Chemistry For the Development of Super- Resolved Fluorescence Microscopy which is capable of measuring images of molecules from within living cells.

Transistor prehistory FET? 1935 Heil s patent 1947 First BJT 1960 Atalla s MOSFET Bardeen, Shockley, Brattain (Bell Labs) #Figures are taken from a slide made by M. Fischetti, history of the MOSFET from a physicist s perspective

... World without semiconductor (transistor) is outside of our imagination now... Everyday Life Science

Moore s law Gordon Moore 1965: Cost vs time Moore s law 1960-1975 Moore s law = number of transistors in an IC has been increasing exponentially with time (usually, the rate is double within 2-3 years.)

Plot s with Moore s law #1 Transistors are almost replaced with CMOS #2 The (minimum) size/scale of the first generation transistor is 10 mm #3 Gradually, feature size and the minimum size do not coincide. But feature size is still a good benchmark. From Lidia Lukasiak and Andrzej Jakubowski, History of Semiconductors

IRDS: a committee to make a roadmap for semiconductor See https://irds.ieee.org/reports......

Personal attention -- Carbon material for future solution Carbon is one of candidates for future material, and experts point out that it has huge advantages over current silicon base. However, practical application is expected 15~20 years later... discovered in 1985 discovered in 1991 discovered in 2004 proposed in 1991 (not discovered)

Advantage of carbon material for semi-conductor Low Power operation: Power = V 2 ~ 1/100 of current silicon base. Low Resistivity when the size is closing to nano-scale.

Summary Number/Size etc. of Transistor(semiconductor) follows so-called Moore s Law It is expected that current Si technology is closing to the both of physical and technical limit. Many solutions are considered and tested. Graphene Wiring How about carbon materials? Transistor 1947 (discovery) - 1971 (Intel 8008)? 1980 (SSD at CERN)? 33 years nano carbon 1991 (discovery) - 20xx? if 33 years,,, = 2024 Graphene Transistor CNT plug CNT: Carbon nano tube Example Design: Application of nano-carbon material to the semiconductor http://www.tel.co.jp/museum/magazine/material/150227_interview/02.html