Muutke küpsiste eelistusi

Techniques for Nuclear and Particle Physics Experiments: A How-to Approach 2nd Revised ed. [Pehme köide]

  • Formaat: Paperback / softback, 378 pages, Illustrations
  • Ilmumisaeg: 01-Feb-1994
  • Kirjastus: Springer-Verlag New York Inc.
  • ISBN-10: 0387572805
  • ISBN-13: 9780387572802
Teised raamatud teemal:
  • Pehme köide
  • Hind: 94,10 €*
  • * hind on lõplik, st. muud allahindlused enam ei rakendu
  • Tavahind: 110,71 €
  • Säästad 15%
  • Raamatu kohalejõudmiseks kirjastusest kulub orienteeruvalt 2-4 nädalat
  • Kogus:
  • Lisa ostukorvi
  • Tasuta tarne
  • Tellimisaeg 2-4 nädalat
  • Lisa soovinimekirja
  • Formaat: Paperback / softback, 378 pages, Illustrations
  • Ilmumisaeg: 01-Feb-1994
  • Kirjastus: Springer-Verlag New York Inc.
  • ISBN-10: 0387572805
  • ISBN-13: 9780387572802
Teised raamatud teemal:
Basic Nuclear Processes in Radioactive Sources
1(16)
Nuclear Level Diagrams
2(1)
Alpha Decay
3(1)
Beta Decay
4(2)
Electron Capture (EC)
6(1)
Gamma Emission
6(1)
Isomeric States
6(1)
Annihilation Radiation
7(1)
Internal Conversion
7(1)
Auger Electrons
8(1)
Neutron Sources
8(1)
Spontaneous Fission
8(1)
Nuclear Reactions
8(1)
Source Activity Units
9(1)
The Radioactive Decay Law
10(7)
Fluctuations in Radioactive Decay
11(1)
Radioactive Decay Chains
12(2)
Radioisotope Production by Irradiation
14(3)
Passage of Radiation Through Matter
17(52)
Preliminary Notions and Definitions
17(4)
The Cross Section
18(1)
Interaction Probability in a Distance x. Mean Free Path
19(1)
Surface Density Units
20(1)
Energy Loss of Heavy Charged Particles by Atomic Collisions
21(14)
Bohr's Calculation - The Classical Case
22(2)
The Bethe-Bloch Formula
24(3)
Energy Dependence
27(1)
Scaling Laws for dE/dx
28(1)
Mass Stopping Power
28(1)
dE/dx for Mixtures and Compounds
29(1)
Limitations of the Bethe-Bloch Formula and Other Effects
29(1)
Channeling
30(1)
Range
30(5)
Cherenkov Radiation
35(2)
Energy Loss of Electrons and Positrons
37(7)
Collision Loss
37(1)
Energy Loss by Radiation: Bremsstrahlung
38(2)
Electron-Electron Bremsstrahlung
40(1)
Critical Energy
40(1)
Radiation Length
41(1)
Range of Electrons
42(1)
The Absorption of β Electrons
43(1)
Multiple Coulomb Scattering
44(5)
Multiple Scattering in the Gaussian Approximation
46(2)
Backscattering of Low-Energy Electrons
48(1)
Energy Straggling: The Energy Loss Distribution
49(4)
Thick Absorbers: The Gaussian Limit
49(1)
Very Thick Absorbers
50(1)
Thin Absorbers: The Landau and Vavilov Theories
50(3)
The Interaction of Photons
53(10)
Photoelectric Effect
54(1)
Compton Scattering
55(2)
Pair Production
57(2)
Electron-Photon Showers
59(3)
The Total Absorption Coefficient and Photon Attenuation
62(1)
The Interaction of Neutrons
63(6)
Slowing Down of Neutrons. Moderation
65(4)
Radiation Protection. Biological Effects of Radiation
69(12)
Dosimetric Units
69(4)
The Roentgen
69(1)
Absorbed Dose
70(1)
Relative Biological Effectiveness (RBE)
71(1)
Equivalent Dose
72(1)
Effective Dose
73(1)
Typical Doses from Sources in the Environment
73(1)
Biological Effects
74(3)
High Doses Received in a Short Time
75(1)
Low-Level Doses
76(1)
Dose Limits
77(1)
Shielding
78(1)
Radiation Safety in the Nuclear Physics Laboratory
79(2)
Statistics and the Treatment of Experimental Data
81(34)
Characteristics of Probability Distributions
81(3)
Cumulative Distributions
82(1)
Expectation Values
82(1)
Distribution Moments. The Mean and Variance
82(1)
The Covariance
83(1)
Some Common Probability Distributions
84(5)
The Binomial Distribution
84(1)
The Poisson Distribution
85(1)
The Gaussian or Normal Distribution
86(2)
The Chi-Square Distribution
88(1)
Measurement Errors and the Measurement Process
89(2)
Systematic Errors
89(1)
Random Errors
90(1)
Sampling and Parameter Estimation. The Maximum Likelihood Method
91(6)
Sample Moments
91(1)
The Maximum Likelihood Method
92(1)
Estimator for the Poisson Distribution
93(1)
Estimators for the Gaussian Distribution
94(2)
The Weighted Mean
96(1)
Examples of Applications
97(4)
Mean and Error from a Series of Measurements
97(1)
Combining Data with Different Errors
97(1)
Determination of Count Rates and Their Errors
98(1)
Null Experiments. Setting Confidence Limits When No Counts Are Observed
98(2)
Distribution of Time Intervals Between Counts
100(1)
Propagation of Errors
101(2)
Examples
102(1)
Curve Fitting
103(9)
The Least Squares Method
104(1)
Linear Fits. The Straight Line
105(3)
Linear Fits When Both Variables Have Errors
108(1)
Nonlinear Fits
108(4)
Some General Rules for Rounding-off Numbers for Final Presentation
112(3)
General Characteristics of Detectors
115(12)
Sensitivity
115(1)
Detector Response
116(1)
Energy Resolution. The Fano Factor
117(2)
The Response Function
119(1)
Response Time
120(1)
Detector Efficiency
121(1)
Dead Time
122(5)
Measuring Dead Time
124(3)
Ionization Detectors
127(30)
Gaseous Ionization Detectors
127(3)
Ionization and Transport Phenomena in Gases
130(3)
Ionization Mechanisms
130(1)
Mean Number of Electron-Ion Pairs Created
131(1)
Recombination and Electron Attachment
132(1)
Transport of Electrons and Ions in Gases
133(2)
Diffusion
133(1)
Drift and Mobility
134(1)
Avalanche Multiplication
135(2)
The Cylindrical Proportional Counter
137(4)
Pulse Formation and Shape
137(3)
Choice of Fill Gas
140(1)
The Multiwire Proportional Chamber (MWPC)
141(8)
Basic Operating Principle
141(2)
Construction
143(1)
Chamber Gas
144(1)
Timing Resolution
144(1)
Readout Methods
145(2)
Track Clusters
147(1)
MWPC Efficiency
147(2)
The Drift Chamber
149(2)
Drift Gases
150(1)
Spatial Resolution
151(1)
Operation in Magnetic Fields
151(1)
The Time Projection Chamber (TPC)
151(3)
Liquid Ionization Detectors (LID)
154(3)
Scintillation Detectors
157(20)
General Characteristics
157(2)
Organic Scintillators
159(6)
Organic Crystals
162(1)
Organic Liquids
163(1)
Plastics
164(1)
Inorganic Crystals
165(1)
Gaseous Scintillators
166(1)
Glasses
167(1)
Light Output Response
167(6)
Linearity
168(3)
Temperature Dependence
171(1)
Pulse Shape Discrimination (PSD)
171(2)
Intrinsic Detection Efficiency for Various Radiations
173(4)
Heavy Ions
173(1)
Electrons
174(1)
Gamma Rays
174(1)
Neutrons
175(2)
Photomultipliers
177(22)
Basic Construction and Operation
177(1)
The Photocathode
178(2)
The Electron-Optical Input System
180(1)
The Electron-Multiplier Section
181(4)
Dynode Configurations
182(2)
Multiplier Response: The Single-Electron Spectrum
184(1)
Operating Parameters
185(5)
Gain and Voltage Supply
185(1)
Voltage Dividers
186(2)
Electrode Current. Linearity
188(1)
Pulse Shape
189(1)
Time Response and Resolution
190(2)
Noise
192(2)
Dark Current and Afterpulsing
192(1)
Statistical Noise
193(1)
Environmental Factors
194(3)
Exposure to Ambient Light
194(1)
Magnetic Fields
195(1)
Temperature Effects
196(1)
Gain Stability, Count Rate Shift
197(2)
Scintillation Detector Mounting and Operation
199(16)
Light Collection
199(2)
Reflection
200(1)
Coupling to the PM
201(1)
Multiple Photomultipliers
202(1)
Light Guides
202(2)
Fluorescent Radiation Converters
204(1)
Mounting a Scintillation Detector: An Example
205(3)
Scintillation Counter Operation
208(7)
Testing the Counter
208(1)
Adjusting the PM Voltage
209(1)
The Scintillation Counter Plateau
209(4)
Maintaining PM Gain
213(2)
Semiconductor Detectors
215(34)
Basic Semiconductor Properties
215(5)
Energy Band Structure
216(1)
Charge Carriers in Semiconductors
217(1)
Intrinsic Charge Carrier Concentration
217(1)
Mobility
218(1)
Recombination and Trapping
219(1)
Doped Semiconductors
220(3)
Compensation
222(1)
The np Semiconductor Junction. Depletion Depth
223(4)
The Depletion Depth
224(2)
Junction Capacitance
226(1)
Reversed Bias Junctions
226(1)
Detector Characteristics of Semiconductors
227(6)
Average Energy per Electron-Hole Pair
228(1)
Linearity
229(1)
The Fano Factor and Intrinsic Energy Resolution
229(1)
Leakage Current
229(1)
Sensitivity and Intrinsic Efficiency
230(1)
Pulse Shape. Rise Time
231(2)
Silicon Diode Detectors
233(2)
Diffused Junction Diodes
233(1)
Surface Barrier Detectors (SSB)
233(1)
Ion-Implanted Diodes
234(1)
Lithium-Drifted Silicon Diodes - Si(Li)
235(1)
Position-Sensitive Detectors
235(4)
Continuous and Discrete Detectors
235(2)
Micro-Strip Detectors
237(1)
Novel Position-Sensing Detectors
238(1)
Germanium Detectors
239(3)
Lithium-Drifted Germanium - Ge(Li)
239(1)
Intrinsic Germanium
240(1)
Gamma Spectroscopy with Germanium Detectors
241(1)
Other Semiconductor Materials
242(1)
Operation of Semiconductor Detectors
243(6)
Bias Voltage
243(1)
Signal Amplification
243(2)
Temperature Effects
245(1)
Radiation Damage
245(1)
Plasma Effects
246(3)
Pulse Signals in Nuclear Electronics
249(8)
Pulse Signal Terminology
249(1)
Analog and Digital Signals
250(2)
Fast and Slow Signals
252(1)
The Frequency Domain. Bandwidth
253(4)
The NIM Standard
257(6)
Modules
257(1)
Power Bins
258(1)
NIM Logic Signals
258(3)
TTL and ECL Logic Signals
261(1)
Analog Signals
261(2)
Signal Transmission
263(14)
Coaxial Cables
263(3)
Line Constituents
265(1)
The General Wave Equation for a Coaxial Line
266(1)
The Ideal Lossless Cable
267(1)
Characteristic Impedance
268(1)
Reflections
268(2)
Cable Termination. Impedance Matching
270(2)
Losses in Coaxial Cables. Pulse Distortion
272(5)
Cable Response. Pulse Distortion
275(2)
Electronics for Pulse Signal Processing
277(26)
Preamplifiers
277(3)
Resistive vs Optical Feedback
279(1)
Main Amplifiers
280(1)
Pulse Shaping Networks in Amplifiers
280(4)
CR-RC Pulse Shaping
281(1)
Pole-Zero Cancellation and Baseline Restoration
281(1)
Double Differentiation or CR-RC-CR Shaping
282(1)
Semi-Gaussian Shaping
283(1)
Delay Line Shaping
283(1)
Biased Amplifiers
284(1)
Pulse Stretchers
284(1)
Linear Transmission Gate
284(1)
Fan-out and Fan-in
285(1)
Delay Lines
286(1)
Discriminators
286(1)
Shapers
287(1)
Single-Channel Analyzer (Differential Discriminator)
287(2)
Analog-to-Digital Converters (ADC or A/D)
289(2)
ADC Linearity
291(1)
Multichannel Analyzers
291(1)
Digital-to-Analog Converters (DAC or D/A)
292(2)
Time to Amplitude Converters (TAC or TPHC)
294(1)
Scalers
294(1)
Ratemeter
294(1)
Coincidence Units
295(1)
Majority Logic Units
295(1)
Flip-Flops
296(1)
Registers (Latches)
297(1)
Gate and Delay Generators
297(1)
Some Simple and Handy Circuits for Pulse Manipulation
297(2)
Attenuators
298(1)
Pulse Splitting
298(1)
Pulse Inversion
299(1)
Filtering and Shaping
299(4)
Pulse Clipping
299(1)
High-Pass Filter or CR Differentiating Circuit
300(1)
RC Low-Pass Filter or Integrating Circuit
301(2)
Pulse Height Selection and Coincidence Technique
303(14)
A Simple Counting System
303(1)
Pulse Height Selection
304(3)
SCA Calibration and Energy Spectrum Measurement
305(1)
A Note on Calibration Sources
306(1)
Pulse Height Spectroscopy with Multichannel Analyzers
307(3)
Basic Coincidence Technique
310(3)
Adjusting the Delays. The Coincidence Curve
311(1)
Adjusting Delays with the Oscilloscope
312(1)
Accidental Coincidences
313(1)
Combining Pulse Height Selection and Concidence Determination. The Fast-Slow Circuit
313(1)
Pulse Shape Discrimination
314(3)
Electronic Logic for Experiments
317(8)
Basic Logic Gates: Symbols
317(2)
Boolean Laws and Identities
319(2)
The Inhibit or Busy
321(1)
Triggers
321(4)
One-Body Scattering
322(1)
Two-Body Scattering
322(1)
Measurement of the Muon Lifetime
323(2)
Timing Methods and Systems
325(10)
Walk and Jitter
325(1)
Time-Pickoff Methods
326(2)
Leading Edge Triggering (LE)
326(1)
Fast Zero-Crossing Triggering
327(1)
Constant Fraction Triggering (CFT)
327(1)
Amplitude and Risetime Compensated Triggering (ARC)
327(1)
Analog Timing Methods
328(2)
The START-STOP Time-to-Amplitude Converter
329(1)
Time Overlap TAC's
330(1)
Digital Timing Methods
330(5)
The Time-to-Digital Converter (TDC)
330(2)
The Vernier TDC
332(1)
Calibrating the Timing System
333(2)
Computer Controlled Electronics: CAMAC
335(18)
CAMAC Systems
336(2)
The CAMAC Standard
338(1)
Mechanical Standards
338(1)
Electrical Standards: Digital Signals
338(1)
The CAMAC Dataway
338(5)
Common Control Signals (Z,C,I)
341(1)
Status Signals
341(1)
Timing Signals
341(1)
Data Signals
341(1)
Address Signals
341(1)
Command Signals
342(1)
Pin Allocations
342(1)
Dataway Operations
343(5)
Dataway Timing
344(2)
Block Transfers
346(2)
Multi-Crate Systems - The Branch Highway
348(1)
CAMAC Software
349(4)
Appendix 353(6)
A. A Review of Oscilloscope Functions
353(4)
A.1 Basic Structure
353(1)
A.1.1 Bandwidth and Risetime
353(1)
A.2 Controls and Operating Modes
354(1)
A.2.1 Input Coupling
354(1)
A.2.2 Vertical and Horizontal Sensitivity
354(1)
A.2.3 Triggering (Synchronization)
355(1)
A.2.4 Display Modes
355(1)
A.3 Applications and Examples
356(1)
A.3.1 Signal Viewing
356(1)
A.3.2 Comparison of Signals
356(1)
B. Physical and Numerical Constants
357(1)
C. Resistor Color Code
358(1)
References 359(12)
Subject Index 371