Focused Ion Beam Generated cross section imaged using the TEM of Graphene Backgated Field Effect Transistor, Brian Lee, Columbia University, Electrical Engineering

Pseudomonas aeruginosa bacteria, William Cole Cornell, Columbia University, Biological Sciences

Bright Field TEM of Tungsten, Professor Barmak, Columbia University, Applied Physics and Applied Mathematics

Dark Field TEM of Tungsten, Professor Barmak, Columbia University, Applied Physics and Applied Mathematics

$Diffraction pattern of Silicon, Professor Barmak, Columbia University, Applied Physics and Applied Mathematics$

Diffraction pattern of Silicon, Professor Barmak, Columbia University, Applied Physics and Applied Mathematics

High Resolution TEM of Silicon, Professor Barmak, Columbia University, Applied Physics and Applied Mathematics

Bright Field TEM of Aluminium, Professor Barmak, Columbia University, Applied Physics and Applied Mathematics

$Graphene Diffraction pattern, Professor Barmak, Columbia University, Applied Physics and Applied Mathematics$

Graphene Diffraction pattern, Professor Barmak, Columbia University, Applied Physics and Applied Mathematics

TEM of mouse liver cell showing nucleus, mitochondria, endoplasmic reticulum and golgi apparatus, Simon Williams, Columbia University, Biological Sciences

TEM of mouse liver with nematode infection, Simon Williams, Columbia University, Biological Sciences

Cholesterol crystals in macrophages of a mouse lung, Elizabeth Tarling, University of California Los Angeles, Division of Cardiology

Immunogold labeling of a GFP tagged protein in mouse brain tissue, Chung Dang, Columbia University, Columbia Neuroscience

Graphene 80KV Prof. John Kymissis

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$Diffraction pattern of Silicon, Professor Barmak, Columbia University, Applied Physics and Applied Mathematics$

$Graphene Diffraction pattern, Professor Barmak, Columbia University, Applied Physics and Applied Mathematics$

ELECTRON MICROSCOPY

Columbia Nano Initiative