• Basic concept: colour (absorption of light at specific l)

• Basic concept:  ATOMISATION T^oC dependent, ...........)

• Basic concept: plasma

• Basic concept: applied radiation is absorded to vibrate bond between 2 atoms

• Application:

  • Qualitative and Quantitative (Beer's Law)

  • Organic and inorganic materials.

• Application:

  • Quantitative (Beer's Law)

  • Inorganic materials/ organometals.

• Application:

  • Quantitative (Beer's Law)

  • Organo metals and inorganic materials.

• Application:

  • Quantitative (Beer's Law)

  • Organo metals and inorganic materials.

• Output, e.g.:

(Define x- axis and y-axis)

- qualitative

[calibration graph - quantitative]

• Output, e.g.: =UV in checking that the set  l is the optimum

(Define x- axis and y-axis)

[calibration graph - quantitative]

• Output, e.g.:

(Define x- axis and y-axis)

[calibration graph - quantitative]

• Output, e.g.:

(Define x- axis and y-axis)

• Important aspects  

  E=hc/l

• Important aspects  

  E=hc/l

• Important aspects  

   

• Important aspects  

  • E=hc/l (trough instead of peaks)

  • E µ1/l , as in wavenumber

  • Di-substituted aromatic signal in the fingerprint region

• Basic concept: magnetic resonance of the nucleus of an atom in a molecule

• Basic concept: fragmentation of molecules to smaller units of ions

• Basic concept: diffraction of light through crystal lattice (Bragg's Law)

• Basic concept SEM: imaging  for morphology

• EDX: excitation of electrons

• Application:

  • Qualitative

  • Organics

• Application:

  • Qualitative

  • Organics

• Application:

  • Quantitative

  • Qualitative: cellulose crystallinity

• Application:

  • Semi-quantitative

  • Organo-metals and inorganic materials.

• Output, e.g.:

(Define x- axis and y-axis]

• Output, e.g.:

(Define x- axis and y-axis)

• Output:

(Define x- axis and y-axis)

• Output, e.g.:

• SEM: micrograph; EDX:

(Define x- axis and y-axis)

• Important aspects  

• Interpretation - shielding (substituent is electron donating)

• deshielding (substituent is electron withdrawing)

• Identify the low energy and high energy region - why

• Important aspects  

  fragmentation to a relatively more stable ion

• Important aspects  

  Derive degree of crystallinity

  Comparison of peak sharpness for amorphous cf. crystalline cellulose

• Important aspects  

  E=hc/l