Tags: circuits

Description

In 1973, SPICE was introduced to the world by Professor Donald O. Pederson of the University of California at Berkeley, and a new era of computer-aided design (CAD) tools was born. As its name implies, SPICE is a "Simulation Program with Integrated Circuit Emphasis." You give it a description of an electrical circuit, made up of resistors, capacitors, inductors, and power sources, and SPICE will predict the performance of that circuit. Instead of bread-boarding new designs in the lab, circuit designers found they could optimize their designs on computers–in effect, using computers to build better computers. Since its introduction, SPICE has been commercialized and released in a dozen variants, such as H-SPICE, P-SPICE, and ADVICE.

Learn more about circuit simulation from the resources on this site, listed below. You might even acquire a taste for SPICE by running examples online.

Online Presentations (21-39 of 39)

  1. ECE 612 Lecture 2: Introduction to Device Simulation

    08 Aug 2006 | | Contributor(s):: Mark Lundstrom

  2. Nanotubes and Nanowires: One-dimensional Materials

    17 Jul 2006 | | Contributor(s)::

    What is a nanowire? What is a nanotube? Why are they interesting and what are their potential applications? How are they made? This presentation is intended to begin to answer these questions while introducing some fundamental concepts such as wave-particle duality, quantum confinement, the...

  3. History of Semiconductor Engineering

    28 Jun 2006 | | Contributor(s):: Bo Lojek

    When basic researchers started working on semiconductors during the late nineteen thirties and on integrated circuits at the end of the nineteen fifties, they did not know that their work would change the lives of future generations. Very few people at that time recognized the significance of...

  4. Logic Devices and Circuits on Carbon Nanotubes

    05 Apr 2006 | | Contributor(s):: Joerg Appenzeller

    Over the last years carbon nanotubes (CNs) have attracted an increasing interest as building blocks for nano-electronics applications. Due to their unique properties enabling e.g. ballistic transport at room-temperature over several hundred nanometers, high performance CN field-effect...

  5. Switching Energy in CMOS Logic: How far are we from physical limit?

    24 Apr 2006 | | Contributor(s):: Saibal Mukhopadhyay

    Aggressive scaling of CMOS devices in technology generation has resulted in exponential growth in device performance, integration density and computing power. However, the power dissipated by a silicon chip is also increasing in every generation and emerging as a major bottleneck to technology...

  6. Thermal Microsystems for On-Chip Thermal Engineering

    04 Apr 2006 | | Contributor(s):: Suresh V. Garimella

    Electro-thermal co-design at the micro- and nano-scales is critical for achieving desired performance and reliability in microelectronic circuits. Emerging thermal microsystems technologies for this application area are discussed, with specific examples including a novel micromechanical...

  7. Molecular Transport Structures: Elastic Scattering, Vibronic Effects and Beyond

    13 Feb 2006 | | Contributor(s):: Mark Ratner, Abraham Nitzan,

    Current experimental efforts are clarifying quite beautifully the nature of charge transport in so-called molecular junctions, in which a single molecule provides the channel for current flow between two electrodes. The theoretical modeling of such structures is challenging, because of the...

  8. A Primer on Semiconductor Device Simulation

    23 Jan 2006 | | Contributor(s):: Mark Lundstrom

    Computer simulation is now an essential tool for the research and development of semiconductor processes and devices, but to use a simulation tool intelligently, one must know what's "under the hood." This talk is a tutorial introduction designed for someone using semiconductor device simulation...

  9. Atomic Force Microscopy

    01 Dec 2005 | | Contributor(s):: Arvind Raman

    Atomic Force Microscopy (AFM) is an indispensible tool in nano science for the fabrication, metrology, manipulation, and property characterization of nanostructures. This tutorial reviews some of the physics of the interaction forces between the nanoscale tip and sample, the dynamics of the...

  10. An Electrical Engineering Perspective on Molecular Electronics

    26 Oct 2005 | | Contributor(s):: Mark Lundstrom

    After forty years of advances in integrated circuit technology, microelectronics is undergoing a transformation to nanoelectronics. Modern day MOSFETs now have channel lengths that are less than 50 nm long, and billion transistor logic chips have arrived. Moore's Law continues, but the end of...

  11. Wireless Integrated MicroSystems (WIMS): Coming Revolution in the Gathering of Information

    01 Sep 2005 | | Contributor(s)::

    Wireless integrated microsystems promise to become pervasive during the coming decade in applications ranging from health care and environmental monitoring to homeland security. Merging low-power embedded computing, wireless interfaces, and wafer-level packaging with microelectromechanical...

  12. Plasmonic Nanophotonics: Coupling Light to Nanostructure via Plasmons

    03 Oct 2005 | | Contributor(s):: Vladimir M. Shalaev

    The photon is the ultimate unit of information because it packages data in a signal of zero mass and has unmatched speed. The power of light is driving the photonicrevolution, and information technologies, which were formerly entirely electronic, are increasingly enlisting light to communicate...

  13. On the Reliability of Micro-Electronic Devices: An Introductory Lecture on Negative Bias Temperature Instability

    28 Sep 2005 | | Contributor(s):: Muhammad A. Alam

    In 1930s Bell Labs scientists chose to focus on Siand Ge, rather than better known semiconductors like Ag2S and Cu2S, mostly because of their reliable performance. Their choice was rewarded with the invention of bipolar transistors several years later. In 1960s, scientists at Fairchild worked...

  14. Moore's Law Forever?

    13 Jul 2005 | | Contributor(s):: Mark Lundstrom

    This talk covers the big technological changes in the 20th and 21st century that were correctly predicted by Gordon Moore in 1965. Moore's Law states that the number of transistors on a silicon chip doubles every technology generation. In 1960s terms that meant every 12 months and currently this...

  15. Nanoelectronics: The New Frontier?

    18 Apr 2005 | | Contributor(s):: Mark Lundstrom

    After forty years of advances in integrated circuit technology, microelectronics is undergoing a transformation to nanoelectronics. Modern day MOSFETs now have channel lengths of only 50 nm, and billion transistor logic chips have arrived. Moore’s Law continues, but the end of MOSFET scaling is...

  16. CMOS Nanotechnology

    07 Jul 2004 | | Contributor(s):: Mark Lundstrom

    In non-specialist language, this talk introduces CMOS technology used for modern electronics. Beginning with an explanation of "CMOS," the speaker relates basic system considerations of transistor design and identifies future challenges for CMOS electronics. Anyone with an elementary...

  17. Transistors

    04 Aug 2004 | | Contributor(s):: Mark Lundstrom

    The transistor is the basic element of electronic systems. The integrated circuits inside today's personal computers, cell phones, PDA's, etc., contain hundreds of millions of transistors on a chip of silicon about 2 cm on a side. Each technology generation, engineers shrink the size of...

  18. Exponential Challenges, Exponential Rewards - The Future of Moore's Law

    14 Dec 2004 | | Contributor(s)::

    Three exponentials have been the foundation of today's electronics, which are often taken for granted—namely transistor density, performance, and energy. Moore's Law captures the impact of these exponentials. Exponentially increasing transistor integration capacity, and exponentially...

  19. Nanoelectronics and the Future of Microelectronics

    22 Aug 2002 | | Contributor(s):: Mark Lundstrom

    Progress in silicon technology continues to outpace the historic pace of Moore's Law, but the end of device scaling now seems to be only 10-15 years away. As a result, there is intense interest in new, molecular-scale devices that might complement a basic silicon platform by providing it with...