Basic Theory in Reflection Seismology (inbunden)
Fler böcker inom
Format
Inbunden (Hardback)
Språk
Engelska
Antal sidor
576
Utgivningsdatum
2004-10-01
Upplaga
illustrated ed
Förlag
Elsevier Science
Medarbetare
Coruh, C.
Illustrationer
Illustrations
Dimensioner
286 x 221 x 28 mm
Vikt
1184 g
Antal komponenter
1
Komponenter
Contains Hardback and CD-ROM
ISSN
09501401
ISBN
9780080370194

Basic Theory in Reflection Seismology

with MATHEMATICA Notebooks and Examples on CD-ROM

Inbunden,  Engelska, 2004-10-01
2034
Tillfälligt slut – klicka "Bevaka" för att få ett mejl så fort boken går att köpa igen.
Finns även som
Visa alla 1 format & utgåvor
The material in this volume provides the basic theory necessary to understand the principles behind imaging the subsurface of the Earth using reflection and refraction seismology. For reflection seismology, the end product is a "record section" from a collection of "wiggly traces" that are recorded in the field from which information about the properties of subsurface structure and rock can be derived. For the most part, the principles of imaging are the same regardless of the depth to the target; the same mathematical background is necessary for targeting a shallow water table as for investigating the base of the earth's continental "crust" at a depth of 30-50 km.
Visa hela texten

Kundrecensioner

Har du läst boken? Sätt ditt betyg »

Recensioner i media

"The material in this book provides the basic mathematical concepts and theory required to understand reflection seismology data sets used in exploration geophysics."
-Chengshu Wang, ZENTRALBLATT MATH, Volume 1096

"...well worth reading, giving, as it does, a good insight into the dissipation of seismic energy as a result of the irreversible conversion of particle motion into heat."
-Philip H.H. Nelson, in JOURNAL OF PETROLEUM GEOSCIENCE

"...this book is a straightforward, no-nonsense mathematical explanation of the basic theory."
-R.E. Sheriff, in THE LEADING EDGE, FEB 2006

Innehållsförteckning

1. Introduction.
2. Groundwork.
3. Fourier transforms.
4. Computational considerations.
5. Synthetics and velocity functions.
6. Traveltime curves and velocity.
7. Seismic source wavelets.
8. Wavelet shaping and deconvolution.