Tags: materials

Online Presentations (1-20 of 101)

  1. An Introduction to Colloidal and Self-Assembled Materials I

    05 May 2015 | | Contributor(s):: Travis L. Benati, NACK Network

    OutlineReview of SolutionsColloids and Colloidal ChemistrySelf-Assembly

  2. An Introduction to Colloidal and Self-Assembled Materials II

    26 May 2015 | | Contributor(s):: Travis L. Benati, NACK Network

    Outline Review of Solutions Colloids and Colloid Chemistry Self-Assembly What is it? Forces and interactions Examples from nature Nanotechnology examples

  3. An Introduction to Nanoparticle Synthesis and Applications

    26 May 2015 | | Contributor(s):: Sebastien Maeder, NACK Network

    OutlineNanoparticle SynthesisColloidal Chemical MethodsAttritionPyrolysisRF PlasmaThermal decompositionPulsed Laser MethodSome Nanoparticle Applications

  4. An Introduction to Nanoparticles and Nanostructures

    26 May 2015 | | Contributor(s):: Sebastien Maeder, NACK Network

    OutlineDefinition and ExamplesPhysical PropertiesSizeCrystalStructureMelting PointMechanical StrengthOptical PropertiesSurface PlasmonsQuantum Confinement EffectsElectrical PropertiesHealth Concerns

  5. Biocompatibility and Cellular Overview I

    28 Nov 2017 | | Contributor(s):: Terry Kuzma, NACK Network

    Outline:BiocompatibilityQuick overview of cellular interactionscale, size, generic animal cellNanoscale materials for biological interactionLiposomesMetal NanoparticlesNanoshellsExamples of bionano applicationsLectures:Biocompatibility and Cellular Overview I (this lecture)Biocompatibility and...

  6. Biocompatibility and Cellular Overview II: Role of Proteins and Cellular Junctions

    28 Nov 2017 | | Contributor(s):: Terry Kuzma, NACK Network

    Outline:BiocompatibilityQuick overview of cellular interactionscale, size, generic animal cellNanoscale materials for biological interactionLiposomesMetal NanoparticlesNanoshellsExamples of bionano applicationsLectures:Biocompatibility and Cellular Overview IBiocompatibility and Cellular Overview...

  7. Biocompatibility and Cellular Overview III: Nanoparticles for Biological Applications Including Liposomes

    28 Nov 2017 | | Contributor(s):: Terry Kuzma, NACK Network

    Outline:BiocompatibilityQuick overview of cellular interactionscale, size, generic animal cellNanoscale materials for biological interactionLiposomesMetal NanoparticlesNanoshellsExamples of bionano applicationsLectures:Biocompatibility and Cellular Overview IBiocompatibility and Cellular Overview...

  8. Biocompatibility and Cellular Overview IV: Role of Metal Nanoparticles in Biological Applications

    28 Nov 2017 | | Contributor(s):: Terry Kuzma, NACK Network

    Outline:BiocompatibilityQuick overview of cellular interactionscale, size, generic animal cellNanoscale materials for biological interactionLiposomesMetal NanoparticlesNanoshellsExamples of bionano applicationsLectures:Biocompatibility and Cellular Overview IBiocompatibility and Cellular Overview...

  9. DragonflyTV Nano – Using the Power of Television to Introduce Middle School Children to Nanotechnology

    15 Jan 2009 | | Contributor(s):: Richard Hudson, Joan Freese, Angie Prindle, Lisa Regalla

    DragonflyTV is a PBS science series for children, broadcast nationwide and on the internet. DragonflyTV models authentic science inquiry through its unique approach: In each episode, ordinary kids conduct their own inquiry-based investigations, modeling the inquiry process and communicating the...

  10. Exascale Co-design for Materials in Extreme Environments: Heterogeneous Algorithms for Heterogeneous Architectures

    30 May 2012 | | Contributor(s):: Timothy C. Germann

    Computational materials scientists have been among the earliest and heaviest users of leadership-class supercomputers. The codes and algorithms which have been developed span a wide range of physical scales and have been useful not only for gaining scientific insight, but also as testbeds for...

  11. Illinois Center for Cellular Mechanics: Discovery through the Computational Microscope

    11 Feb 2009 | | Contributor(s):: Klaus Schulten

    Computational MicroscopeAll-atom molecular dynamics simulations have become increasingly popular as a toolto investigate protein function and dynamics. However, researchers are usuallyconcerned about the short time scales covered by simulations, the apparentimpossibility to model large and...

  12. Illinois ECE 598EP Lecture 1 - Hot Chips: Atoms to Heat Sinks

    29 Jan 2009 | | Contributor(s):: Eric Pop

    IntroductionContent: The Big Picture Another CPU without a Heat Sink Thermal Management Methods Impact on People and Environment Packaging cost IBM S/390 refrigeration and processor packaging Intel Itanium and Pentium 4packaging Graphics Cards Under/Overclocking Environment A More Detailed Look...

  13. Illinois ECE 598EP Lecture 3.1 - Hot Chips: Electrons and Phonons

    11 Feb 2009 | | Contributor(s):: Eric Pop, Omar N Sobh

    Electrons and Phonons

  14. Illinois MatSE 280 Introduction to Engineering Materials, Lecture 1: Materials: Their Properties and Failures

    14 Aug 2008 | | Contributor(s):: Duane Douglas Johnson, Omar N Sobh

    "Because without materials, there is no engineering"In this lecture we will discuss the following:- Units of Length- Six Major Classes of Materials- Periodic Table of Elements- Properties of Materials- Materials Science and Engineering in a Nutshell

  15. Illinois MatSE 280 Introduction to Engineering Materials, Lecture 2: Atomic Structure and Interatomic Bonding

    18 Aug 2008 | | Contributor(s):: Duane Douglas Johnson, Omar N Sobh

    Refortify your chemistry - Atomic scale structuresGoals Define basic concepts: Filling of Atomic Energy Levels: Pauli Exclusion Principle Atomic Orbitals (s-, p-, d-, and f- type electrons) Types of Bonding between Atoms The Periodic Table (and solid state structures) Bond Energy Curves Describe...

  16. Illinois MATSE 280 Introduction to Engineering Materials, Lecture 3 Part 1: Structure of Metals and Ceramics

    19 Sep 2008 | | Contributor(s):: Duane Douglas Johnson, Omar N Sobh

    Structures of Metals and CeramicsGoals Define basic terms and give examples of each: Lattice Basis Atoms (Decorations or Motifs) Crystal Structure Unit Cell Coordination Numbers Describe hard-sphere packing and identify cell symmetry Crystals density: the mass per volume (e.g. g/cm3) Linear...

  17. Illinois MATSE 280 Introduction to Engineering Materials, Lecture 3 Part 2: Structure of Ceramics

    21 Sep 2008 | | Contributor(s):: Duane Douglas Johnson, Omar N Sobh

    Structure of CeramicsIssues to Address...Structures of ceramic materials: How do they differ from that of metals?Define basic terms and give examples of each: Lattice Basis Atoms (Decorations or Motifs) Crystal Structure Unit Cell Coordination Numbers Describe hard-sphere packing and identify...

  18. Illinois MATSE 280 Introduction to Engineering Materials, Lecture 3 Part 3: Crystallographic Points, Directions, and Planes

    22 Sep 2008 | | Contributor(s):: Duane Douglas Johnson, Omar N Sobh

    Crystallographic Points, Directions, and PlanesIssues to Address...How to define points, directions, planes, as well aslinear, planar, and volume densitiesDefine basic terms and give examples of each: Points (atomic positions) Vectors (defines a particular direction - plane normal) Miller Indices...

  19. Illinois MATSE 280 Introduction to Engineering Materials, Lecture 3 Part 4: Structures via Diffusion

    28 Sep 2008 | | Contributor(s):: Duane Douglas Johnson, Omar N Sobh

    Structures via DiffractionGoals Define basic ideas of diffraction (using x-ray, electrons, or neutrons, which, although they are particles, they can behave as waves) and show how to determine: Crystal Structure Miller Index Planes and Determine the Structure Identify cell symmetry Learning...

  20. Illinois MATSE 280 Introduction to Engineering Materials, Lecture 4 : Polymer Structures

    04 Oct 2008 | | Contributor(s):: Duane Douglas Johnson, Omar N Sobh

    Issues to Address...What are the basic Classification? Monomers and chemical groups? Nomenclature? Polymerization methods? Molecular Weight and Degree of Polymerization? Molecular Structures? Crystallinity? Microstructural features?