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Week
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Topics
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Study Metarials
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1
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Introduction, Overview: Nanoscale Probing and Single-Molecule Imaging
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2
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Traditional Microscopy Techniques, Review of Scanning Probe Microscopy (SPM), Dip-Pen Lithography by SPM
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3
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Principles of Scanning Tunneling Microscopy (STM), STM Applications:
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4
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Atomic Imaging of Metal and Semiconductor Surface, Surface Mapping, Patterning, Manipulation of Atoms and Molecules
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5
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Single-Molecule Electronics via STM and Nanowire Junctions: Conductivity, Diode, Transistor
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6
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Chemical Bonding and Reactions
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7
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Basics of Atomic Force Microscopy (AFM), Different Feedback Modes of AFM, AFM Applications
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8
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Self-assembled nanostructures and nanomaterials, AFM measurement and imaging of chemical bonding, In vitro & In vivo Imaging of Proteins, Enzymes, and aggregates of small bio-species like peptides, particularly Amyloid Nanofibril Formation and relation to Alzheimer Disease.
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9
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Imaging of DNA, Peptides and other small Bio-species: Genetic Recognition, Manipulation, self-assembly.
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10
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Imaging Cell Membranes and Nano-surgery with AFM, Two Special Modes of AFM Imaging for Electrical and Magnetic Materials:
Electrostatic Force Microscopy (EFM) and Magnetic Force Microscopy (MFM)
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11
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Near-Field Scanning Optical Microscopy (NSOM), NSOM Applications,
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12
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Optoelectronic Thin Films and Devices (LEDs, Solar Cells): Probing Optical/electrical Properties vs. Morphology and Nanostrucuture, Mapping Membrane Proteins with NSOM
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13
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Scanning Confocal Microscopy (SCM), SCM Applications
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14
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Single-Molecule Spectroscopy: Molecular Probes and Nanocrystal Optoelectronics, Imaging Molecule Rotation and Diffusion: Revealing Protein Conformational Structure through FRET, monitoring virus diffusion and attacking at living cell.
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Program Learning Outcomes |
Level of Contribution |
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1
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To make scientific researches and reach the knowledge in depth; analyze interpret and apply the knowledge.
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4
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2
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To have knowledge about current technics, methods and their limitations applied in engineering.
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4
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3
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To have the ability to define and practice the knowledge by using scientific methods and limited or restricted data and to use the knowledge from other disciplines.
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4
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4
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To have awareness about the new and developing implementations in engineering and to research and learn them when required.
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4
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5
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To define and formulate problems concerning chemical engineering , to develop methods for solution and to apply innovative methods for solutions.
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3
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6
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To develop new and/or original ideas and methods, to design complex systems and processes and to improve alternative/innovative solutions.
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4
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7
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To design and apply theoretical, applied and simulative researches, to analyse and solve complicated problems encountered during these processes.
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4
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8
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To lead in multidisciplinary teams, improve solutions in complex situation and to work independently and take responsibility.
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3
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9
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To use English at least in European Language Portfolio B2 level for both oral and written skills.
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-
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10
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To declare the results and processes of studies both orally and written in national and international platforms with a systematically and concisely manner.
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-
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11
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To have awareness about the social, enviromental, health, security and law perspectives and project management and career applications of engineering practices and restrictions of all these.
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3
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12
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To regard social, scientific liabilities, and ethics during the collection, evaluation, and publication steps of data.
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-
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