Chemical Analysis: Modern Instrumental Methods and Techniques, English Edition

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Format: Paperback
Pub. Date: 2000-06-01
Publisher(s): WILEY
List Price: $75.63

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Summary

Chemical Analysis is an essential introduction to a wide range of analytical techniques and instruments. Assuming little in the way of prior knowledge, this text carefully guides the reader through the more widely used and important techniques, whilst avoiding excessive technical detail. Covering both instrumental techniques and the situations in which they are used, the text always strives to maintain a balance between breadth and depth of coverage. Carefully structured, this book clearly differentiates between separation and spectral methods, and includes a section on more specialised techniques. Chemical Analysis * Provides a through introduction to a wide range of the most important and widely used instrumental techniques. * Maintains a careful balance between depth and breadth of coverage. * Includes many examples, problems and their solutions. Chemical Analysis will be invaluable to those studying or using instrumental techniques throughout the sciences, medicine and engineering.

Table of Contents

Foreword to the French edition xiii
Foreword to the English edition xiv
Preface to the French edition xv
Preface to the English edition xvii
Acknowledgements xix
Introduction xxi
PART 1 SEPARATION METHODS 1(124)
General aspects of chromatography
3(20)
General concepts of analytical chromatography
3(1)
Classification of chromatographic techniques
4(2)
The chromatogram
6(2)
The ideal chromatogram and Gaussian peaks
8(1)
Real peaks
8(1)
The theoretical plate model
9(3)
Column efficiency
12(1)
Retention parameters
13(2)
Separation factor between two solutes
15(1)
Resolution factor between two peaks
16(1)
The van Deemter equation in gas chromatography
17(2)
Optimisation of a chromatographic analysis
19(4)
Problems
21(2)
Gas chromatography
23(22)
Components of a gas chromatograph
23(2)
Carrier gas and flow regulation
25(1)
Sample introduction and injection chamber
26(2)
Oven
28(1)
Columns
28(3)
Stationary phases (liquid type)
31(2)
Stationary phases (solid type)
33(1)
Common detectors
33(4)
Detectors yielding structural information
37(2)
Appendix - Retention indices and constants related to stationary phases
38(1)
Kovats relationship
39(1)
Kovats retention indices
39(1)
Stationary phase constants
40(5)
Problems
42(3)
High performance liquid chromatography
45(20)
Origin of HPLC
45(1)
General scheme of an HPLC system
46(1)
Pumps and gradient elution
47(2)
Injectors
49(1)
Columns
50(1)
Stationary phases
51(3)
Mobile phases
54(2)
Chiral chromatography
56(1)
Principal detectors
56(6)
Applications
62(3)
Problems
62(3)
Ion chromatography
65(20)
The principle of ion chromatography
65(1)
Mobile phases
66(1)
Stationary phases
66(2)
The principle of separation
68(2)
Conductivity detectors
70(1)
Ion suppressors
71(3)
Appendix - Quantitative analysis by chromatography
74(1)
Principle and basic equation
74(1)
Recording integrators and data treatment software
75(2)
External standard method
77(1)
Internal standard method
78(2)
Internal normalisation
80(5)
Problems
81(4)
Planar chromatography
85(10)
Planar chromatography: principles of application
85(1)
Post-chromatography: development of the plate
86(1)
Stationary phases
87(1)
Retention and separation parameters
88(1)
Quantitative TLC
89(1)
Aspects of TLC
90(5)
Problems
93(2)
Supercritical fluid chromatography
95(6)
Supercritical fluids
95(1)
Supercritical phases as mobile phases
96(1)
Comparison of SFC with HPLC and GC
97(1)
Instrumentation
98(1)
SFC in chromatographic techniques
99(2)
Size exclusion chromatography
101(10)
The principle of SEC
101(1)
Stationary phases
102(2)
Instrumentation
104(1)
Domains of application
105(6)
Problems
109(2)
Capillary electrophoresis
111(14)
Zone electrophoresis
111(2)
Free solution capillary electrophoresis
113(1)
Electrophoretic mobility and electro-osmotic How
114(3)
Instrumentation and techniques
117(2)
Indirect detection
119(1)
Performance of capillary electrophoresis
119(6)
Problems
121(4)
PART 2 SPECTROSCOPIC METHODS 125(162)
Nuclear magnetic resonance spectroscopy
127(34)
General description
127(1)
Spin/magnetic field interaction for a nucleus
128(2)
Nuclei that can be studied by NMR
130(1)
Bloch's theory for a nucleus of I = 1/2
130(2)
Larmor's frequency
132(2)
Chemical shift
134(1)
The principle of obtaining an NMR spectrum
135(2)
Relaxation processes
137(1)
The measurement of chemical shifts
138(1)
Shielding and deshielding of the nuclei
139(1)
Factors influencing chemical shifts
140(2)
Hyperfine structure: spin/spin coupling
142(1)
Heteronuclear coupling
142(3)
Homonuclear coupling
145(3)
Spin decoupling and modes of operation
148(2)
Fluorine and phosphorous NMR
150(1)
Appendix - Quantitative NMR
151(1)
Measurement of area - application to simple analysis
151(1)
Samples containing compounds that can be identified
152(1)
Internal standard method
153(1)
Standard additions method
154(1)
Analysers using pulsed NMR
155(6)
Problems
158(3)
Infrared spectroscopy
161(28)
Spectral representation in the mid infrared (IR)
161(1)
Origin of absorption bands in the mid infrared
162(1)
Rotational-vibrational bands in the mid infrared
163(1)
Simplified model for vibrational interactions
163(2)
Real model (or vibrational interactions
165(1)
Rotational bands of compounds in the gas phase
166(1)
Characteristic bands for organic compounds
167(1)
Instrumentation
168(6)
Optics, sources and detectors used in the mid infrared
174(2)
Sample analysis techniques
176(4)
Infrared microscopy
180(1)
Archiving spectra
181(1)
Comparison of spectra
182(1)
Calibration of cell thickness
183(1)
Raman diffusion
184(5)
Problems
186(3)
Ultraviolet and Visible absorption spectroscopy
189(32)
General concepts
189(2)
Molecular absorptions
191(1)
Origin of absorption in relation to molecular orbitals
192(2)
Donor-acceptor association
194(1)
Isolated chromophores
194(1)
Solvent effects: solvatochromism
195(1)
Chromophores in conjugated systems
196(1)
Woodward-Fieser rules
197(1)
UV/Visible spectrophotometers
198(6)
Quantitative analysis in the UV/Visible
204(1)
Beer-Lambert's law
205(2)
Visual colorimetry
207(1)
Absorbance measurements
208(2)
Confirmation analysis (purity control)
210(1)
Distribution of relative errors due to instruments
211(1)
Baseline correction
212(1)
Multicomponent analysis (MCA)
213(2)
Derivative spectrometry
215(6)
Problems
218(3)
Fluorimetry
221(16)
Fluorescence and phosphorescence
221(1)
Origin of fluorescence
222(2)
Fluorescence intensity
224(2)
Rayleigh and Raman bands
226(1)
Instrumentation
227(3)
Applications
230(1)
Chemiluminescence
231(6)
Problems
233(4)
X-ray fluorescence spectrometry
237(16)
General principle
237(1)
X-ray fluorescence spectrum
238(1)
Excitation modes of elements in X-ray fluorescence
239(3)
X-ray absorption
242(1)
Sample preparation
242(1)
Different types of instruments
243(4)
Quantitative analysis by X-ray fluorescence
247(1)
X-ray fluorescence applications
248(5)
Problems
249(4)
Atomic absorption and flame emission spectroscopy
253(20)
Principles common to the two methods
253(1)
Interpretation of the phenomena involved
254(1)
Atomic absorption vs flame emission
255(2)
Measurements by absorption or flame emission
257(1)
Basic instrumentation for atomic absorption
258(4)
Flame photometers
262(2)
Correction of interfering absorptions
264(4)
Physical and chemical interferences
268(1)
Sensitivity and detection limits in AAS
269(4)
Problems
271(2)
Atomic emission spectroscopy
273(14)
Optical emission spectrophotometry (OES)
273(1)
Excitation by inductively coupled plasma (ICP)
274(1)
Ionisation by are, spark or electronic impact
275(2)
The principles o( atomic emission analysis
277(1)
Spectral lines
277(1)
Simultaneous and sequential instruments
278(3)
Performance
281(2)
GC coupled to atomic emission relatively
283(1)
Applications of atomic emission spectrometry
283(4)
Problems
284(3)
PART 3 OTHER METHODS 287(114)
Mass spectrometry
289(40)
Principles
289(3)
The Bainbridge spectrometer
292(1)
Magnetic analysers (EB type)
293(4)
Time of flight (TOF) analysers
297(2)
Ion cyclotron resonance
299(2)
Quadrupole analysers
301(3)
Ion traps
304(1)
Performance of mass spectrometers
305(1)
Sample introduction
306(1)
Major ionisation techniques (under vacuum)
307(4)
Atmospheric pressure ionisation (API)
311(3)
Ion detection
314(1)
Tandem mass spectrometry
315(2)
Appendix - Applications in mass spectrometry
317(1)
Determination of empirical formulae
317(1)
Determination of isotope ratios for an element
318(2)
Identification using spectral libraries
320(1)
Fragmentation of organic ions
321(8)
Problems
325(4)
Labelling methods
329(18)
Principle of labelling methods
329(1)
Isotopic dilution with a radioactive label
330(1)
Measurement of radioisotope activity
331(3)
Choice of a sub-stoichiometric method
334(1)
Labelling with stable isotopes
334(1)
Immunoenzymatic (IEA) methods of measurement
335(4)
Other immunoenzymatic techniques
339(1)
Advantages and limitations of the ELISA test in chemistry
340(1)
Radio-immunoassay (RIA)
340(1)
Immunofluorescence assay (IFA)
341(1)
Neutron activation analysis (NAA)
341(1)
Thermal neutrons
342(1)
Induced activity - irradiation time
342(1)
Detection by γ-counting - measurement principle
343(1)
Applications
343(4)
Problems
344(3)
Potentiometric methods
347(12)
General principles
347(2)
A particular ion selective electrode: the pH electrode
349(1)
Ion selective electrodes
350(3)
Calculations and different methods
353(3)
Applications
356(3)
Problems
356(3)
Coulometric and voltammetric methods
359(18)
General principles
359(1)
Dropping-mercury electrode
360(1)
Continuous rent polarography
361(1)
Diffusion current
362(1)
Pulse polarography
363(1)
Amperometric detection in HPLC and CE
364(1)
Special sensors
365(2)
Stripping voltammetry
367(1)
Coulometric measurements
368(1)
Karl Fischer coulometric determination of water
369(3)
Determination by the Karl Fischer method
372(5)
Problems
374(3)
Some sample preparation methods
377(8)
Evolution of methods
377(1)
Solid-phase extraction using column or discs
378(1)
Gas-solid extraction using columns or discs
379(2)
Headspace sample analysis
381(2)
Supercritical fluid extraction (SFE)
383(1)
Mineralisation by microwave digestion
384(1)
Basic statistical parameters
385(16)
Mean value and accuracy
385(1)
Precision and standard deviation of a group of results
386(2)
Indeterminate or random errors
388(2)
Confidence interval
390(1)
Parametric tests - comparison of results
391(2)
Rejection criteria - Q test (Dixon test)
393(1)
Linear regression
394(2)
Robust methods
396(1)
Method optimisation using factorial analysis
397(4)
Problems
398(3)
Solutions 401(34)
Appendix - List of acronyms 435(2)
Bibliography 437(2)
Table of physico-chemical constants 439(2)
Index 441

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