Introduction to mass spectrometry: instrumentation, applications, and strategies for data interpretation
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2009
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ISBN: | 9780470516348 |
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020 | |a 9780470516348 |9 978-0-470-51634-8 | ||
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084 | |a CHE 254f |2 stub | ||
100 | 1 | |a Watson, Jack T. |e Verfasser |4 aut | |
245 | 1 | 0 | |a Introduction to mass spectrometry |b instrumentation, applications, and strategies for data interpretation |c J. Throck Watson ; O. David Sparkman |
250 | |a 4. ed., reprint. with corr. | ||
264 | 1 | |a Chichester [u.a] |b Wiley |c 2009 | |
300 | |a XXIV, 819 S. |b Ill., graph. Darst. | ||
336 | |b txt |2 rdacontent | ||
337 | |b n |2 rdamedia | ||
338 | |b nc |2 rdacarrier | ||
500 | |a Hier auch später erschienene, unveränd. Nachdr. | ||
650 | 0 | 7 | |a Massenspektrometrie |0 (DE-588)4037882-2 |2 gnd |9 rswk-swf |
655 | 7 | |0 (DE-588)4173536-5 |a Patentschrift |2 gnd-content | |
689 | 0 | 0 | |a Massenspektrometrie |0 (DE-588)4037882-2 |D s |
689 | 0 | |5 DE-604 | |
700 | 1 | |a Sparkman, Orrin David |e Verfasser |4 aut | |
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Datensatz im Suchindex
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adam_text | Contents
Preface
...................................................................................................xix
Acknowledgments
..............................................................................xxiii
Chapter
1
Introduction
.........................................................................1
I. Introduction
..........................................................................................................3
1.
The Tools and Data of Mass Spectrometry
...............................................4
2.
The Concept of Mass Spectrometry
..........................................................4
II. History
...................................................................................................................9
III. Some Important Terminology Used In Mass Spectrometry
...........................22
1.
Introduction
..............................................................................................22
2.
Ions
..........................................................................................................22
3.
Peaks
......................................................................................................23
4.
Resolution and Resolving Power
.............................................................25
IV. Applications
........................................................................................................28
1.
Example
1-1:
Interpretation of Fragmentation Patterns
(Mass Spectra) to Distinguish Positional
Isomers
.........................................................................29
2.
Example
1 -2:
Drug Overdose: Use of GC/MS to Identify
a Drug Metabolite
..........................................................31
3.
Example
1 -3:
Verification that the Proper Derivative of the
Compound of Interest Has Been Prepared
...................32
4.
Example
1 -4:
Use of
a CI
Mass Spectrum to Complement an
El Mass Spectrum
.........................................................35
5.
Example
1-5:
Use of Exact Mass Measurements to Identify
Analytes According to Elemental Composition
..............38
6.
Example
1 -6:
Is This Protein Phosphoryfated? If So, Where?
...........40
7.
Example
1-7:
Clinical Diagnostic Tests Based on Quantitation
of Stable Isotopes by Mass Spectrometry in Lieu
of Radioactivity
...........................................,..................42
V. The Need for Chromatography
.........................................................................43
VI. Closing Remarks
................................................................................................44
VII.
Monographs on Mass Spectrometry Published Before
1970........................45
Chapter
2
The Mass Spectrometer
...................................................53
I. Introduction
........................................................................................................55
II. Ion Guides
___-........................................................................-—........................56
III. Types of mfz Analyzers
......................................................................................61
1.
Time-of-Flight m/z Analyzers
...................................................................62
A. Linear
................................................................................................64
1)
Resolving Power of the Linear
TOF
Instrument
.........................65
2)
Time-Lag Focusing
....................................................................66
3)
Beam Deflection
.........................................................................67
B. Reflectron
.........................................................................................69
С
Orthogonal Acceleration
...................................................................74
vii
________________________________________________________
Contents
D.
Ion
Detection in the
TOF
Analyzer
....................................................75
1)
Time-Slice Detection
..................................................................76
2)
Time-Array Detection
.................................................................77
3)
TAD with Transient Recorders
...................................................79
4)
TAD with an Integrating Transient Recorder
..............................79
5)
Hadamard
Transform TOF-MS
.................................................80
2.
Quadrupole Ion Traps
.............................................................................82
A.
3D
Quadrupole Ion Trap
...................................................................84
B. Linear Quadrupole Ion Trap (LIT)
.....................................................97
С
Performance Trade-Offs in the Ion Trap
.........................................100
3.
The Orbitrap
..........................................................................................103
A. Historical Aspects
...........................................................................103
B. Operating Principles
....................................,...................................103
1)
Role of the
С
Trap in Success of the Orbitrap
.........................106
2)
Figures of Merit for the Orbitrap as an m/z Analyzer
................107
4.
Transmission Quadrupoles
...................................................................108
A. QMF Equations of Motion
...............................................................109
B. The Stability Diagram
......................................................................110
С
Characteristics of Output
................................................................111
D. Spectral Skewing
............................................................................113
E. Performance Limitations
.................................................................115
5.
Magnetic-Sector Instruments
................................................................115
A. Single-Focusing Instruments
..........................................................116
1)
Operating Principles
.................................................................116
2)
Magnetic Versus Scanning
.......................................................117
3)
Performance Limitations
..........................................................118
B. Double-Focusing Instruments
.........................................................118
6.
FTICR-MS
.............................................................................................122
A. Hardware Configuration
..................................................................123
B. Operational Considerations
............................................................126
C. Representative Applications
...........................................................127
7.
Ion Mobility Spectrometry (IMS)
............................................................128
A. Operating Principles
........................................................................128
B. FAIMS
.............................................................................................129
C.
Applications
.....................................................................................130
IV. Calibration of the m/z Scale
............................................................................131
1.
Electron lonization
.................................................................................132
2.
Chemical lonization
...............................................................................133
3.
Electrospray lonization and APCI Techniques
......................................134
4.
MALDI
....................................................................................................135
V. Ion Detectors
....................................................................................................136
1.
General Considerations
.........................................................................136
2.
Types of Detectors
................................................................................137
A. Faraday Cup
...................................................................................138
B. Electron Multiplier
...........................................................................139
1)
Discrete-Dynode Version
.........................................................139
2)
Continuous-Dynode Version
.....................................................140
C. Negative-Ion Detection
...................................................................142
D. Post-Acceleration Detection and Detection of High-Mass Ions
......143
E. Channel Electron Multiplier Array
(СЕМА)
......................................144
viii
Contents__________________________________________________________
F. Electro-Optical Ion
Detection
..........................................................144
G.
The Daly Detector
...........................................................................145
H.
Cryogenic Detectors
.......................................................................146
I. Ion Detection in FTMS
....................................................................147
VI. Vacuum Systems
..............................................................................................147
1.
Introduction
............................................................................................147
2.
Definitions
..............................................................................................148
3.
Pressure Gauges
..................................................................................150
A. Thermal-Conductivity Gauges
........................................................150
B. Pirani Gauge
...................................................................................150
С
Thermocouple Gauges
...................................................................151
4.
lonization Gauges
..................................................................................151
A. Hot-Cathode Gauge
........................................................................151
B. Cold-Cathode Gauge
......................................................................151
5.
Types of Pumps
....................................................................................152
A. Mechanical Pumps (Low Vacuum)
.................................................152
1)
Rotary Vane Pumps
.................................................................153
2)
Scroll Pumps
............................................................................154
3)
Roots Pumps
............................................................................155
4)
Diaphram Pumps
.....................................................................156
B. High Vacuum
..................................................................................156
1)
Turbomolecular Pumps
............................................................157
2)
Oil Diffusion Pumps
..................................................................160
3)
Sputter-Ion Pumps (Nonregeneratable Getter Pumps)
............162
Chapter
3
Mass Spectrometry/Mass Spectrometry
.......................173
I. Introduction
......................................................................................................175
1.
History and the Evolution of the Technique
...........................................175
2.
Concept and Definitions
........................................................................176
3.
Nomenclature
........................................................................................177
II. Ion Dissociation
................................................................................................179
1.
Metastabile
Ions
.....................................................................................179
2.
Collisionally Activated Dissociation
.......................................................180
3.
Electron Capture Dissociation
...............................................................181
4.
Electron-Transfer Dissociation
..............................................................181
5.
Illustrative Example of Qualitative Analysis by MS/MS
.........................184
III. Instrumentation for MS/MS
.............................................................................184
1.
Tandem-in-Space Mass Spectrometry (MS/MS)
...................................186
A. Triple-Quadrupole Mass Spectrometer
..........................................187
B. Q-TOF
Hybrid Mass Spectrometer
.................................................188
C. TOF-TOF Mass Spectrometer
........................................................190
D. BEqQ Hybrid Mass Spectrometer
...................................................190
E. Double-Focusing Instrument
...........................................................191
2.
Tandem-in-Time Mass Spectrometry
....................................................192
IV. Specialized Techniques and Applications
.....................................................196
1.
In-SourceCAD
......................................................................................196
2.
CAD in Conjunction with Soft lonization
................................................197
A. Data-Dependent Acquisition
...........................................................199
ix
__________________________________________________________Contents
3.
Selected Reaction Monitoring
................................................................199
A. Illustrative Example Showing that SRM Has a Higher
Specificity than SIM in Spite of a Lower Signal Strength
................199
B. An Example Comparing the Specificity of SRM and SIM in the
Context of Analyzing a Biological Sample fora Drug Metabolite....
201
4.
Precursor-Ion Analysis
..........................................................................204
5.
Neutral-Loss (Common Neutral-Loss) Analysis
....................................205
6.
Ion/Molecule Reactions
.........................................................................206
7.
Hybrid Instrumentation for MS/MS and Ion Mobility
Spectrometry (IMS)
...............................................................................206
V. Analyte Identification from MS/MS Data
........................................................208
1.
Introduction
............................................................................................208
2.
Identifying an Unknown Using a Product-Ion Mass Spectrum
..............209
3.
Similarities between El and Product-Ion Mass Spectra
........................214
4.
Another Way of Using Substructure Identification
.................................215
5.
Searching of Product-Ion Spectra against Standardized Databases
....218
VI. Concluding Remarks about MS/MS
................................................................220
Chapter
4
Inlet Systems
..................................................................229
I. Introduction
......................................................................................................231
II. Batch Inlets
.......................................................................................................232
1.
Heated Reservoir Inlet
...........................................................................232
2.
Direct Inlet Probe (DIP)
.........................................................................233
A. The Chromatoprobe
........................................................................235
3.
Direct Exposure Probe (Desorption Chemical lonization,
DCI)
.............236
4.
Pyrolysis
................................................................................................238
III. Continuous Inlets
.............................................................................................239
1.
Membrane Introduction MS
(MIMS)
......................................................239
2.
Supercritical Fluid Chromatography (SFC)
...........................................240
3.
Electrophoretic Inlet
...............................................................................242
IV. lonization Inlet Systems
..................................................................................244
1.
Direct Analysis in Real Time (DART)
....................................................245
2.
Desorption Electrospray lonization
(DESI)
............................................247
3.
Desorption Atmospheric Pressure Chemical lonization (DAPCI)
..........249
V. Speciality Interfaces.....
....................................................................................249
1.
Selected Ion Flow Tube Mass Spectrometry (SIFTMS)
........................249
2.
Fast Atom Bombardment (FAB) and Liquid Secondary Ion Mass
Spectrometry (LSIMS)
...........................................................................250
3.
Chemical Reaction Interface Mass Spectrometry (CRIMS)
..................252
4.
Inductively Coupled Plasma Mass Spectrometry (ICPMS)
...................253
A. Hardware Configuration
..................................................................254
B. Operational Considerations
............................................................254
С
Electrothermal Vaporization
............................................................255
D. Laser Ablation
.................................................................................255
E. Speciation
.......................................................................................256
F. Summary
.........................................................................................256
VI. Final Statement
.................................................................................................257
Contents__________________________________________________________
Chapter
5
Strategies for Data Interpretation
(Other than Fragmentation)
...........................................267
I. Introduction
......................................................................................................269
II. Some Important Definitions
............................................................................271
III. Possible Information That Can Be Obtained from the Mass Spectrum
......271
IV. Elemental Composition of an Ion and the Ratios of Its Isotope Peaks
......273
1.
Definition of Terms Related to the Matter of Mass Spectrometry
.........273
2.
Nitrogen Rule
........................................................................................275
3.
Elemental Composition of an Ion Based on the Ratio of
Isotope Peak Intensities
........................................................................276
A. Isotope Peak Patterns Used to Determine the Elemental
Composition of Ions
........................................................................276
B. Isotope Peak Patterns for Ions Containing Various
Combinations of Br/CI
.....................................................................279
С
Constraint on the Number of Atoms Allowed for a
Given Element
................................................................................281
D. Relationship of the Charge State of an Ion and the
Spacing of the Corresponding Isotope Peaks
................................281
1)
Ions of High Mass-to-Charge Ratio
..........................................282
E. Steps to Assigning an Elemental Composition
Based on Isotope Peak Intensities
.................................................283
F. Validating the Putative Elemental Composition of an Ion
...............284
G. An Illustrative Example of the Use of Isotope Peak Ratios to
Determine an Elemental Composition
............................................285
H. Potential Problems Arising from Adjacent Peaks
...........................291
4.
Elemental Composition as a Function of an Accurate
Determination of the m/z Value of a Mass Spectral Peak
.....................293
A. Appearance of Mass Spectra of High-m/z Value Ions
....................295
5.
Using El Data to Identify Unknowns Detected During
Analysis by LC/MS
................................................................................297
6.
Does the Result Make Sense?
............................................................,.299
V. Identifying the Mass of an Analyte
.................................................................302
1.
Recognition of the Peak Representing the Molecular Ion in El
.............304
A. Reasonable Losses from the Molecular Ion in El
...........................305
2.
Recognition of the Protonated Molecule (MIT) in Soft lonization
..........305
A. Probable Adducts Observed in the Mass Spectrum
Produced by Soft lonization
............................................................306
3.
Recognition of the Deprotonated Molecule ([M
-
H] ~
)
Peak
in Soft lonization
....................................................................................306
VI. Recognition of Spurious Peaks in the Mass Spectrum
................................307
1.
Noise Spikes
.........................................................................................307
2.
Peaks Corresponding to Contaminants in GC/MS and LC/MS
.............307
A. The Phthalate Peak
........................................................................307
B. GC Column Bleed
...........................................................................308
C. Cluster Ions
.....................................................................................308
VII.
Obtaining Structural Information from the Mass Spectrum
........................308
Xi
_________________________________________________________ Contents
Chapter
6 Electron lonization.........................................................315
I. Introduction
......................................................................................
...............,
317
II. lonization
Process............................................................................................
317
III. Strategy for Data Interpretation
......................................................................321
1.
Assumptions
..........................................................................................321
2.
The lonization Process
..........................................................................321
IV. Types of Fragmentation Pathways
.................................................................328
1.
Sigma-Bond
Cleavage
..........................................................................330
2.
Homolytic or Radical-Site-Driven Cleavage
..........................................333
3.
Heterolytic or Charge-Site-Driven Cleavage
.........................................335
4.
Rearrangements
....................................................................................337
A. Hydrogen-Shift Rearrangements
....................................................338
B. Hydride-Shift Rearrangements
.......................................................342
V. Representative Fragmentations (Spectra) of Classes of Compounds
...........344
1.
Hydrocarbons
........................................................................................345
A. Saturated Hydrocarbons
.................................................................345
1)
Straight-Chain Hydrocarbons
...................................................345
2)
Branched Hydrocarbons
...........................................................348
3)
Cyclic Hydrocarbons
.................................................................351
B. Unsaturated
....................................................................................353
С
Aromatic
..........................................................................................355
2.
Alkyl
Halides..........................................................................................
363
3.
Oxygen-Containing Compounds
...........................................................368
A. Aliphatic Alcohols
............................................................................368
B. Aliphatic Ethers
...............................................................................372
С
Aromatic Alcohols
...........................................................................376
D. Cyclic Ethers
...................................................................................381
E. Ketones and Aldehydes
..................................................................381
F. Aliphatic Acids and Esters
..............................................................392
G. Aromatic Acids and Esters
..............................................................402
4.
Nitrogen-Containing Compounds
..........................................................405
A. Aliphatic Amines
.............................................................................405
B. Aromatic Compounds Containing Atoms of Nitrogen
.....................414
C. Heterocyclic Nitrogen-Containing Compounds
...............................419
D.
Nitro
Compounds
............................................................................419
E. Concluding Remarks on the Mass Spectra of
Nitrogen-Containing Compounds
...................................................420
5.
Multiple
Heteroatoms
or
Heteroatoms
and a Double Bond
...................421
6.
Trimethylsilyl Derivative
.........................................................................422
7.
Determining the Location of Double Bonds
...........................................429
VI. Library Searches and El Mass Spectral Databases
......................................433
1.
Databases
.............................................................................................433
2.
Library Search Programs
......................................................................435
3.
What To Do When the Spectrum of the Unknown is Not in the
Database(s)
...........................................................................................439
4.
Searching Multiple Databases
...............................................................440
5.
Database Size and Quality
....................................................................440
6.
Concluding Remarks on the NIST Mass Spectral Search Program
.....441
7.
Mass Spectral Database Update
...........................................................442
VII.
Summary of Interpretation of El Mass Spectra
.............................................442
xii
Contents__________________________________________________________
Chapter
7 Chemical lonization........................................................449
I. Introduction
......................................................................................................451
II. Description
of the Chemical lonization Source
.............................................454
III. Production of Reagent Ions from Various Reagent Gases
..........................455
IV. Positive-Ion Formation Under
CI
.................................................................... 457
1.
Fundamentals
........................................................................................457
2.
Practical Consideration of Proton Affinity in
CI
......................................460
3.
Selective lonization
................................................................................461
4.
Fragmentation
.......................................................................................461
V. Negative-Ion Formation under
CI
...................................................................464
1.
True Negative Chemical lonization
.......................................................464
2.
Resonant Electron Capture Negative lonization
....................................465
VI. Data Interpretation and Systematic Studies of
CI
.........................................469
VII.
lonization by Charge Exchange
......................................................................470
1.
Mechanism of lonization
........................................................................470
2.
Fragmentation and Appearance of Mass Spectra
.................................471
VIII.
Atmospheric Pressure Chemical lonization
..................................................471
IX. Desorption Chemical lonization
.....................................................................472
X. General Applications
........................................................................................474
XI. Concluding Remarks
.......................................................................................477
Chapter
8
Electrospray lonization
.................................................. 485
I. Introduction
..........................................................................................................487
II. Operating Principles
...............................................................................,.........,. 487
III. Appearance of ESI Mass Spectra and Data Interpretation
.............................490
IV. ESI with an m/z Analyzer of High Resolving Power
........................................493
V. Conventional ESI Source Interface
...................................................................494
VI. Nanoelectrospray and Microelectrospray lonization
......................................494
VII.
Desorption Electrospray lonization
(DESI)
..................................................496
VIII.
Effect of Composition and Flow Rate of an Analyte Solution
.......................499
IX. Special Applications
...........................................................................................500
1.
Direct Analysis of Ions in Solution by ESI
..............................................500
2.
Cold-Spray lonization
............................................................................501
3.
Negative-Ion Detection
..........................................................................501
4.
Secondary Electrospray lonization
(SESI)
............................................502
5.
Kinetic Measurements of Chemical Reactions
......................................502
6.
ESI Generation of Ions for Ancillary Experiments
.................................502
X. General Applications of ESI
...........................................„_____....................... 503
Chapter
9
MALDI
..............................................................................519
I. Historical Perspective and Introduction
.......................................-----............... 521
II. Operating Principles
......................................................_______........____...__521
1.
The Matrix
..................................................................................................521
2.
The Laser, m/z Analyzer, and Representative Mass Spectra
.................. 525
3.
The lonization Process
..............................................................................529
4.
High-Pressure (HP) MALDI and Atmospheric Pressure
(AP) MALDI
................................................................................................533
XIII
__________________________________________________ Contents
III. Sample Handling
....................................................................................................535
1.
Sample Preparation of the Conventional Plate
..........................................535
2.
The Problem of Analyte Solubility
..............................................................537
3.
The Problem of Sample Purity
...................................................................537
4.
On-Probe Sample Purification and/or Modification
...............................538
A. Polymer-Modified Surfaces
.................................................................538
B. Affinity Surfaces
...................................................................................540
5.
Direct Analysis from Gels
...........................................................................541
6.
Hydrogen/Deuterium Exchange
.................................................................542
IV. Special Instrumental Techniques
........................................................................542
1.
Post-Source Decay (PSD)
.........................................................................542
2.
Ion Excitation
..............................................................................................544
3.
Delayed Extraction
(DE).............................................................................545
4.
Desorption lonization On Silicon
(DIOS)
....................................................546
5.
Tissue Profiling or Imaging
.........................................................................547
V. Representative Applications
................................................................................549
1.
Proteins and Peptides
................................................................................549
2.
Microbes
.....................................................................................................549
3.
Biomarkers
.................................................................................................550
4.
Synthetic Polymers.....
................................................................................550
5.
Small Molecules
.........................................................................................551
6. Quantitäten................................................................................................552
7.
Combined with Liquid Chromatography
.....................................................553
Chapter
10
Gas Chromatography/Mass Spectrometry
...................571
I. Introduction
......................................................................................................573
II. Introduction to GC
............................................................................................575
1.
Basic Types of Injectors
........................................................................582
2.
Injection Considerations and Syringe Handling
.....................................583
3.
Syringeless Modes of Sample Injection for Fast GC
.............................585
III. Sample Handling
..............................................................................................585
1.
Proper Sample Container
......................................................................585
2.
Analyte Isolation and Purification
..........................................................587
3.
Derivative Formation
.............................................................................587
A. Silyl Derivatives
...............................................................................588
B. Esters of Carboxylic Acids
..............................................................588
C. Oxime
Derivatives
...........................................................................589
D. Acyl Derivatives
...............................................................................590
E. Derivatives for Characterizing Double Bonds
.................................590
IV. Instrument Requirements for GC/MS
.............................................................590
1.
Operating Pressures
.............................................................................590
2.
Typical Parameters for a Conventional GC-MS Interface
.....................593
3.
Supersonic Molecular Beam Interface for GC/MS
................................594
4.
Open-Split Interface
..............................................................................596
5.
Molecular Separators
............................................................................597
A. Jet-Orifice Separator
.......................................................................597
B. Membrane Separator
......................................................................598
6.
Inertness of Materials in the Interface
...................................................599
xiv
Contents__________________________________________________________
V. Operational Considerations
............................................................................601
1.
Spectral Skewing
...................................................................................601
2.
Background/Bleed
.................................................................................602
3.
The Need for Rapid Acquisition of Mass Spectra
.................................604
A. Performance Trade-Offs of Conventional
Instruments for GC/MS
...................................................................605
B. Time-Array Detection
......................................................................605
4.
Selected Ion Monitoring (SIM)
...............................................................606
A. Definition and Nomenclature
..........................................................606
B. Development of the Technique
.......................................................607
С
Qualitative Example of SIM
............................................................607
D. Quantitative Example of SIM
..........................................................609
E. Mechanics of Ion Monitoring
...........................................................613
1)
Adjustment of the Mass Scale
..................................................613
2)
Mass Range
....................,........................................................613
3)
Magnetic Mass Spectrometer
..................................................613
4)
Transmission Quadrupole Mass Spectrometer
........................614
5)
Number of Ion Currents (Masses)
............................................614
F. Programmable SIM
.........................................................................614
G. SIM at High Resolving Power
.........................................................615
VI. Sources of Error
...............................................................................................616
1.
Errors Relating to Equipment or Procedure
..........................................616
2.
Errors Relating to Contamination
..........................................................617
3.
Sources of Interference
.........................................................................618
4.
Dealing with Background in a Mass Spectrum
......,...............................618
A. AMDIS (Automated Mass spectral Deconvolution
and Identification System)
...............................................................622
B. Other Software Techniques
............................................................629
VII.
Representative Applications of GC/MS
..........................................................631
VIII.
Special Techniques
..........................................................................................631
1.
Purge and Trap
.....................................................................................631
2.
Thermal Desorption
...............................................................................632
Chapter
11
Liquid Chromatography/Mass Spectrometry
...............639
I. Introduction
.....................................................................................................641
II. Historical Milestones in the Development of the Interface
..........................642
1.
Introduction
............................................................................................642
2.
The Direct Inlet
......................................................................................642
3.
The Moving-Belt Interface
.....................................................................644
4.
The
Thermospray
Interface
...................................................................644
5.
Continuous-Flow FAB
...........................................................................646
III. Currently Viable Versions of the Interface
.....................................................647
1.
Atmospheric Pressure lonization
...........................................................647
A. Electrospray ionization Interface
.....................................................647
1)
Optimization for Analyses by HPLC
.........................................648
2)
Capillary Electrophoresis Interface
...........................................650
B. APCI
Interface
................................................................................650
xv
Contents
C.
APPI Interface
.................................................................................654
1)
Operating Principles of
APPI
....................................................654
2)
Operating Mechanics for
APPI
.................................................656
3)
Signal Suppression
..................................................................657
4)
Applications of
APPI
.................................................................658
2.
Particle Beam Interface
.........................................................................659
3.
Electron lonization and LC/MS
..............................................................661
IV. Special Operation of LC under MS Conditions
.............................................661
1.
Effects of Mobile-Phase Composition
...................................................661
A. Signal Suppression
.........................................................................662
B. Use of Internal Standards in the Face of
Signal Suppression
.........................................................................663
С
Adjusting the Chromatography in the Face of Signal
Suppression during LC/MS
.............................................................663
D. Ion Pairing and Signal Suppression
................................................663
E. Influence of the Type and the Nature of LC Buffer
.........................665
F. Influence of Solvent Composition on the ESI Signal
.......................665
G. Adduct Formation
...........................................................................667
H. Spectral Interference
......................................................................668
I. System Compromise
......................................................................668
2.
Differences in Method Development for ESI vs APCI
...........................672
V. Applications
......................................................................................................674
1.
Attention to High Throughput
................................................................676
Chapter
12
Analysis of Proteins and Other
Biopolymers..............689
I. Introduction
......................................................................................................691
II. Proteins
.............................................................................................................691
1.
Sequencing
............................................................................................693
A. Nomenclature and Fragmentation in Sequencing of Peptides
.......693
1)
Nomenclature
...........................................................................693
2)
Fragmentation
..........................................................................695
B. Strategy for Deducing
Amino
Acid Sequence via CAD
of Peptides
......................................................................................701
1)
An Illustrative Example
.............................................................702
2)
Possible Pitfalls in Interpretation
..............................................705
3)
Search for Confirming Ions
......................................................706
4)
Ladder Sequencing
..................................................................707
2.
Mass Mapping
.......................................................................................709
A.
Peptide
Mass Fingerprinting
...........................................................709
B.
De novo
Sequencing
.......................................................................710
C.
Sequence Tagging
..........................................................................710
D. Sequest
...........................................................................................710
E. Evaluation of Hits in Automated Searches
.....................................711
F. Data-Dependent Analysis by Mass Spectrometry
..........................712
3.
Post-Translational Modifications
...........................................................712
A. Recognition of Sites of Protein Phosphorylation
.............................714
1)
An Illustrative Example
.............................................................715
2)
Selective Capture and Detection of Phosphopeptides
.............718
3)
Chemical Modification of Phosphorylation Sites
......................719
xvi
Contents_________________________________________________________
B.
Recognition of Sites of
Sulfation.....................................................722
C.
Recognition of Sites of Glycosylation
..............................................723
D. Acetylation of
Lysine
.......................................................................724
E.
Cysteine
Status in Proteins
.............................................................726
1)
Are There Any Disulfide Bonds?
..............................................726
2)
Which Cysteines Are Free?
.....................................................727
3)
What Is the Linkage of Cysteines in the
Disulfide Bonds?
......................................................................727
(A) Conventional Proteolytic Mass Mapping
of Disulfides
........................................................................, 727
(B) Cyanylation-Based Mass Mapping of Disulfides
.................730
F. Recognition of Ubiquinated Proteins
...............................................734
G. Other Types of Modifications
..........................................................735
4.
Quantitation in Proteomics
....................................................................735
A. ICATs
..............................................................................................735
1)
Operating Principles
.................................................................735
2)
Illustrative Example of the ICAT Approach
..............................737
3)
Analogous to ICAT Methodologies
...........................................740
B. Alternative Stable Isotope-Based Methodologies
...........................740
С
Related Methodologies
...................................................................743
5.
Top-Down Strategies of Analysis
........................................................744
A. Instrumentation and Fragmentation Requirements
........................744
B. Electron Capture Dissociation (ECD)
.............................................749
С
Electron-Transfer Dissociation (ETD)
.............................................752
D. Applications
.....................................................................................753
6.
Noncovalent Interactions
.......................................................................753
7.
Folding and Unfolding
...........................................................................756
8.
Applications
...........................................................................................759
III. Oligonucleotides
..............................................................................................760
1.
Analytical Considerations
......................................................................760
2.
Sequencing
...........................................................................................761
A. Nomenclature
.................................................................................761
B. Algorithm for Data Interpretation
.....................................................763
3.
Applications
...........................................................................................764
IV. Carbohydrates
..................................................................................................765
1.
Analytical Considerations
......................................................................765
2.
Nomenclature
........................................................................................765
3.
Diagnostic Fragmentation
.....................................................................766
4.
Applications
...........................................................................................769
Subject Index
........................................................................................803
XVII
Introduction
to
Mass
Spectrometry
Instrumentation, Applications
and Strategies for Data Interpretation
J. Throck Watson
Professor of Biochemistry and of Chemistry, Michigan State University, East Lansing, MI, USA
O. David
Sparkman
Adjunct Professor of Chemistry, College of the Pacific, University of the Pacific, Stockton,
С
A, USA
This seminal introductory reference book on organic and biological mass spectrometry, with over
3,000
literature citations, most of which are from the last few years, will serve as an excellent textbook for a course
on mass spectrometry. Rather than reporting empirical specifications, this is the first book in recent years to
facilitate an understanding of the operating principles of instrumentation and techniques including those
for emerging technologies like the orbitrap, ETD, ion mobility spectrometry, and new vacuum systems.
This book should be on the bookshelf of every mass spectrometrist.
Completely revised and updated, the text provides an easy-to-read guide to a wide variety of concepts in mass
spectrometry. Many of the illustrative real life examples demonstrate potential qualitative and quantitative
applications and limitations of the technology.
Unlike most other mass spectrometry texts, this comprehensive reference covers both classical and modern
mass spectrometry with an emphasis on strategies for data interpretation, fundamental operating principles
of instrumentation, and representative applications in many areas of organic, environmental, and
biomedical
endeavor. The book provides detailed coverage of inlet systems, vacuum systems, detectors, data systems,
and specialized techniques such as MS/MS, data-dependent instrument operation, selected ion monitoring,
selected reaction monitoring, and automated library searching.
In addition to being an introductory text for all students of mass spectrometry, it is also relevant to anyone
working with mass spectrometry in such application areas as pharmaceutical, biological, medical, food
and environmental research, as well as analytical service providers and regulatory agencies.
|
any_adam_object | 1 |
author | Watson, Jack T. Sparkman, Orrin David |
author_facet | Watson, Jack T. Sparkman, Orrin David |
author_role | aut aut |
author_sort | Watson, Jack T. |
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classification_rvk | VG 9800 VG 9801 |
classification_tum | CHE 254f |
ctrlnum | (OCoLC)698940332 (DE-599)BVBBV036776615 |
discipline | Chemie / Pharmazie Chemie |
edition | 4. ed., reprint. with corr. |
format | Book |
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id | DE-604.BV036776615 |
illustrated | Illustrated |
indexdate | 2024-07-09T22:47:51Z |
institution | BVB |
isbn | 9780470516348 |
language | English |
oai_aleph_id | oai:aleph.bib-bvb.de:BVB01-020693358 |
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physical | XXIV, 819 S. Ill., graph. Darst. |
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publishDateSort | 2009 |
publisher | Wiley |
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spelling | Watson, Jack T. Verfasser aut Introduction to mass spectrometry instrumentation, applications, and strategies for data interpretation J. Throck Watson ; O. David Sparkman 4. ed., reprint. with corr. Chichester [u.a] Wiley 2009 XXIV, 819 S. Ill., graph. Darst. txt rdacontent n rdamedia nc rdacarrier Hier auch später erschienene, unveränd. Nachdr. Massenspektrometrie (DE-588)4037882-2 gnd rswk-swf (DE-588)4173536-5 Patentschrift gnd-content Massenspektrometrie (DE-588)4037882-2 s DE-604 Sparkman, Orrin David Verfasser aut Digitalisierung UB Regensburg application/pdf http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=020693358&sequence=000003&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA Inhaltsverzeichnis Digitalisierung UB Regensburg application/pdf http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=020693358&sequence=000004&line_number=0002&func_code=DB_RECORDS&service_type=MEDIA Klappentext |
spellingShingle | Watson, Jack T. Sparkman, Orrin David Introduction to mass spectrometry instrumentation, applications, and strategies for data interpretation Massenspektrometrie (DE-588)4037882-2 gnd |
subject_GND | (DE-588)4037882-2 (DE-588)4173536-5 |
title | Introduction to mass spectrometry instrumentation, applications, and strategies for data interpretation |
title_auth | Introduction to mass spectrometry instrumentation, applications, and strategies for data interpretation |
title_exact_search | Introduction to mass spectrometry instrumentation, applications, and strategies for data interpretation |
title_full | Introduction to mass spectrometry instrumentation, applications, and strategies for data interpretation J. Throck Watson ; O. David Sparkman |
title_fullStr | Introduction to mass spectrometry instrumentation, applications, and strategies for data interpretation J. Throck Watson ; O. David Sparkman |
title_full_unstemmed | Introduction to mass spectrometry instrumentation, applications, and strategies for data interpretation J. Throck Watson ; O. David Sparkman |
title_short | Introduction to mass spectrometry |
title_sort | introduction to mass spectrometry instrumentation applications and strategies for data interpretation |
title_sub | instrumentation, applications, and strategies for data interpretation |
topic | Massenspektrometrie (DE-588)4037882-2 gnd |
topic_facet | Massenspektrometrie Patentschrift |
url | http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=020693358&sequence=000003&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=020693358&sequence=000004&line_number=0002&func_code=DB_RECORDS&service_type=MEDIA |
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