Transistor and Integrated Circuits: History

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Course Objective Review and practice fundamental chemical engineering concepts (mass, energy, and momentum transport coupled with heterogeneous and homogeneous reactions and thermodynamics). Apply these concepts to problems in unit operations for fabrication of integrated circuits and electronic and optoelectronic devices. Learn about the field of microelectronics processing, its history, and its future.

Transistor and Integrated Circuits: History 1906: Lee DeForest developed the triode in vacuum tube that could amplify signals. Killer Application = transcontinental telephone service. It worked but was unreliable, used and produced too much power. 1915: Coast-to-coast telephone system. 1920-30: Quantum mechanics 1930s: Mervin Kelly, Bell Labs Director of Research envisioned something made of semiconductors to replace the vacuum tube. 1940: Russel Ohl discovered p-n junction. 1945: Bill Shockley assembles solid state research team at Bell Labs 1946: ENIAC, the 1 st digital computer, uses 18,000 vacuum tubes

Transistor and Integrated Circuits: History 1947: Christmas Eve; Bill Shockley, John Bardeen & Walter Brattain invented the point contact transistor http://www.pbs.org/transistor/science/index.html

Transistor and Integrated Circuits: History 1948: Shockley invents the junction transistor 1952: Dummer suggested that electronic equipment can be manufactured in solid block without connecting wires 1953: First commercial application of transistors: hearing aids 1950s: Czochralski growth and Bridgman growth techniques invented 1954: First transistor radio; first fully transistorized computer 1954: Texas instruments makes first Si transistor 1956: Nobel Prize in Physics to Bill Shockley, John Bardeen & Walter Brattain for inventing the transistor 1957: Shockley leaves Bell labs and establishes Shockley semiconductor in Palo Alto, CA 1958: Traitorous Eight leave Shockley Semiconductor to form Fairchild Semiconductor and Intel (Robert Noyce and Gordon Moore) 1958: Bill Pfan invented purification by zone melting

The First Integrated Circuit 1958: Jack Kilby at Texas Instruments and Robert Noyce at Fairchild invent the integrated circuit. An integrated circuit is a collection of electronic devices such as transistors, diodes, capacitors, and resistors in a small(~1-20 cm 2, thin (0.5-1 mm) semiconducting substrate such as Si or GaAs. The devices are interconnected using metal lines ( wires ) to perform a variety of functions (microprocessors) or to store information (memory). http://www.ti.com/corp/docs/company/history/tihistory.htm

Intel and the First Microprocessor 1965: Andy Grove and Bruce Deal study Silicon Oxidation 1968: First use of plasmas in integrated circuit fabrication 1968: Robert Noyce, Gordon Moore and Andy Grove leave Fairchild to cofound Intel (short for integrated electronics). Grove later becomes the CEO. 1971: A Japanese company named BUSICOM hired Intel to build a circuit to run its calculators. 1971: In response to BUSICOM Ted Hof invents the first microprocessor at Intel 4004. 1/8" 1/16" with 2300 transistors on silicon. 4004 was as powerful as ENIAC; ENIAC weighed 30 tons and had 18,000 vacuum tubes. 1971: A bad business decision; BUSICOM, unsatisfied with slow progress, asks for their investment refund. Intel gives their $ 40,000 back and retain all the rights to the microprocessor.

The First Microprocessor: Intel 4004 The 4-bit Intel 4004 ran at a clock speed of 108 khz and contained 2300 transistors. The 4004 addressed up to 1 Kb of program memory and up to 4 Kb of data memory.

Moore s law

Moore s law

Memory

Decreasing transistor size

Microprocessor Technology

Microelectronics Manufacturing: Overview ¾ ICs are produced layer by layer on the top few microns (10-6 m) of a ~ 0.5 mm thick substrate using a series of processing steps. ¾ In 99% of the ICs the substrate is Si. Glass (for displays) and GaAs are the next common substrates.

Unit Operations of Microelectronics Manufacturing Crystal Growth Oxidation Chemical Vapor Deposition (Thermal CVD) Plasma Enhanced Chemical Vapor Deposition (PECVD) Epitaxy Lithography Diffusion Ion Implantation Plasma Etching Evaporation Sputtering Wet Etching/Cleaning Electrochemical Deposition Chemical-Mechanical Polishing

Example: Voltage Divider

Voltage Divider Technology

Pattern Transfer Using Lithography