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Progress in technology has brought microelectronics to the nanoscale, but nanoelectronics is not yet a well-defined engineering discipline with a coherent, experimentally verified, theoretical framework. The NCN has a vision for a new, 'bottom-up' approach to electronics, which involves: understanding electronic conduction at the atomistic level; formulating new simulation techniques; developing a new generation of software tools; and bringing this new understanding and perspective into the classroom. We address problems in atomistic phenomena, quantum transport, percolative transport in inhomogeneous media, reliability, and the connection of nanoelectronics to new problems such as biology, medicine, and energy. We work closely with experimentalists to understand nanoscale phenomena and to explore new device concepts. In the course of this work, we produce open source software tools and educational resources that we share with the community through the nanoHUB.
This page is a starting point for nanoHUB users interested in nanoelectronics. It lists key resources developed by the NCN Nanoelectronics team. The nanoHUB contains many more resources for nanoelectronics, and they can be located with the nanoHUB search function. To find all nanoelectronics resources, search for 'nanoelectronics.' To find those contributed by the NCN nanoelectronics team, search for 'NCNnanoelectronics.'
More information on Nanoelectronics can be found here.
ECE 659 Lecture 11: Self Consistent Field: Bonding
5.0 out of 5 stars
20 Jul 2006 | Online Presentations | Contributor(s): Supriyo Datta
Reference Chapter 3.3
ECE 659 Lecture 10: Self Consistent Field: Relation to the Multi-Electron Picture
0.0 out of 5 stars
Reference Chapter 3.2
ECE 659 Lecture 9: Self Consistent Field: Basic Concept
Reference Chapter 3.1
ECE 659 Lecture 8: Schrödinger Equation: Examples
Reference Chapter 2.3
ECE 659 Lecture 6: Schrödinger Equation: Basic Concepts
4.5 out of 5 stars
Reference Chapter 2.1
ECE 659 Lecture 2: What Makes Electrons Flow?
Reference Chapter 1.2
ECE 659 Lecture 20: Subbands: Quantum Wells, Wires, Dots and Nano-Tubes
Reference Chapter 6.1
ECE 659 Lecture 21: Subbands: Density of States
Reference Chapter 6.2
ECE 659 Lecture 22: Subbands: Minimum Resistance of a Wire
Reference Chapter 6.3 and 6.4
ECE 659 Lecture 35: Non-Coherent Transport: Radiative Lifetime
Reference Chapter 10.1 and 10.2
ECE 659 Lecture 23: Capacitance: Model Hamiltonian
Reference Chapter 7.1
ECE 659 Lecture 26: Level Broadening: Open Systems and Local Density of States
Reference Chapter 8.1 and 8.2
ECE 659 Lecture 27: Level Broadening: Self Energy
Reference Chapter 8.2
ECE 659 Lecture 28: Level Broadening: Lifetime
Reference Chapter 8.3
ECE 659 Lecture 29: Level Broadening: Irreversibility
Reference Chapter 8.4
ECE 659 Lecture 36: Non-Coherent Transport: Radiative Transitions
ECE 659 Lecture 37: Non-Coherent Transport: Phonons, Emission and Absorption
Reference Chapter 10.2 and 10.4
ECE 659 Lecture 25: Capacitance: Quantum vs. Electrostatic Capacitance
Reference Chapter 7.3
ECE 659 Lecture 30: Coherent Transport: Overview
Reference Chapter 9.1
ECE 659 Lecture 31: Coherent Transport: Transmission and Examples
Reference Chapter 9.4 and 9.5