Description

The nanoBIO Node at Illinois is a resource for understanding and designing nanoBIO devices and systems. This NSF funded activity is a collaboration between the University of Illinois at Urbana-Champaign and the University of California at Merced. The node provides simulation building blocks and educational resources for use in nanoBIO device engineering.

Resources (741-757 of 757)

1. [Illinois] ECE 398 Lecture 12: Radiative Recombination

   Online Presentations | 02 Jan 2011 | Contributor(s):: Kent D Choquette

2. [Illinois] ECE 398 Lecture 13: Electron/Hole Quantum Wells

   Online Presentations | 02 Jan 2011 | Contributor(s):: Kent D Choquette

3. [Illinois] ECE 398 Lecture 14: Electron Momentum

   Online Presentations | 02 Jan 2011 | Contributor(s):: Kent D Choquette

4. Illinois Tool: FIONA (Fluorescence Imaging with One Nanometer Accuracy)

   Tools | 01 Nov 2010 | Contributor(s):: Paul R Selvin, Raheem Syed, Nahil Sobh

   Fluorescence Imaging with One Nanometer Accuracy

5. [Illinois] ECE 398 Lecture 8: Semiconductor Electronic Properties - Carrier Distribution

   Online Presentations | 06 Dec 2010 | Contributor(s):: Kent D Choquette

6. [Illinois] ECE 398 Lecture 7: Semiconductor Electronic Properties - Charge Carriers

   Online Presentations | 10 Nov 2010 | Contributor(s):: Kent D Choquette

7. [Illinois] ECE 398 Lecture 6: Heterostructure Energy Bands & Quantum Wells

   Online Presentations | 08 Nov 2010 | Contributor(s):: Kent D Choquette

8. [Illinois] ECE 398 Lecture 5: Semiconductor Electronic Properties

   Online Presentations | 28 Oct 2010 | Contributor(s):: Kent D Choquette

9. 2010 Nano-Biophotonics Summer School at the University of Illinois at Urbana-Champaign

   Workshops | 26 Aug 2010 | Contributor(s):: Gabriel Popescu, Stephen Boppart, Rohit Bhargava, Logan Liu, Nahil Sobh

   The 2010 summer school covers: Principles of Nano-Biophotonics Technology and methods of investigation Current research (e.g. biomolecular sensing, nanoprobes, nonlinear microscopy, nanoscopy, nanoplasmonics)

10. Illinois iOptics Lecture 1: Super Accuracy and Super-Resolution of Molecular Motors and Ion Channels

    Online Presentations | 15 Apr 2010 | Contributor(s):: Paul R Selvin

    The standard diffraction limit of light is about 250 nm, meaning that you cannot "resolve" objects closer than this distance. Despite this, we have come up with a method to measure individual biomolecules with 1.5 nm spatial localization in x-y plane and 1-500 msec temporal resolution,...

11. Lecture 22: Conformational Changes in Ion Channels

    0.0 out of 5 stars 

    Online Presentations | 24 Apr 2008 | Contributor(s):: Paul R Selvin

    Voltage dependence, Spontaneous shut-off, Nerve Impulse propagation, Structure Pore Domain, Voltage Sensor

12. Lecture 12: Ultra-Resolution

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    Online Presentations | 11 Apr 2008 | Contributor(s):: Paul R Selvin

    SHREC (Single molecule High Resolution Co localization), SHRIMP (Super-High Resolution Imaging with Photobleaching), DOPI (Defocused Orientation Position Imaging), PALM (PhotoActivated Localization Microscopy), Enhancing Resolution

13. Lecture 14: FRET and Helicase Activity

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    Online Presentations | 15 Apr 2008 | Contributor(s):: Paul R Selvin

    FRET: measuring conformational changes of (single) biomolecules, Unzipping mystery of helicases

14. Lecture 9: X-ray Structure and FIONA

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    Online Presentations | 07 Apr 2008 | Contributor(s):: Paul R Selvin

    Accuracy vs. Resolution Measuring atomic distances Biomolecular Motors: Intra- AND Extra-Cellular Motion

15. Lecture 10: Mutagenesis

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    Online Presentations | 07 Apr 2008 | Contributor(s):: Paul R Selvin

    Site-Directed Mutagenesis to Isolate and Mutate DNA (for FIONA)

16. Illinois Physics 498: Introduction to Biological Physics

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    Courses | 07 Apr 2008 | Contributor(s):: Paul R Selvin

    We will apply simple yet powerful ideas of physics to gain some understanding of biology. (What is the inertia of a bacteria and how does this affect its behavior?) We will begin with atoms, move to molecules, then macromolecules, then cells, and finally whole systems. For example, how do we...

17. BioSensorLab

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    Tools | 14 Aug 2006 | Contributor(s):: Pradeep R. Nair, Jonghyun Go, Graeme John Landells, Tejas Rajiv Pandit, Muhammad Alam, Xin Jin, Piyush Dak, Ankit Jain, Mohammad Ryyan Khan, Mohammad Ryyan Khan

    BioSensorLab is a tool to evaluate and predict the performance parameters of Biosensors.