reservoir geomecanics

Recommendations

Info

352 Reservoir geomechanics All Planes ALL PLANES Permeability (md) 0.001 0.01 0.1 1 10 100 1000 10 4 M1 Siliceous Shale Mbr. DST 8 M3 Up. Calcareous Siliceous Mbr. Monterey Fm. Chert Member Phosphatic Member Basal Calcareous Member (1) Basal Tuff Basal Calcareous Member (2) DST 5 DST 4 DST 7 DST 6 DST 3 DST 2 Depth (meters) Figure 11.6. Permeability measurements from drill stem tests in well A (Figures 5.8 and 11.5). Note that the presence of critically stressed faults results in significant permeability increases (matrix permeability is negligible) except for the case of DST 8, where the silica is in the form of Opal A. From Finkbeiner, Barton et al. (1997). AAPG C○ 1997 reprinted by permission of the AAPG whose permission is required for futher use.
Page 2:
Reservoir Geomechanics This interdi
Page 8:
cambridge university press Cambridg
Page 14:
Contents Preface page xi PART I: BA
Page 18:
ix Contents More on drilling-induce
Page 22:
Preface This book has its origin in
Page 26:
xiii Preface done with Pavel Peska
Page 34:
1 The tectonic stress field My goal
Page 38:
5 The tectonic stress field chapter
Page 42:
7 The tectonic stress field signifi
Page 46:
9 The tectonic stress field S v Nor
Page 50:
0 SEAFLOOR 2000 Depth (feet below s
Page 54:
a. Stress or pressure 0 20 40 60 80
Page 58:
15 The tectonic stress field The o
Page 62:
17 The tectonic stress field Observ
Page 66:
180˚ 216˚ 252˚ 288˚ 324˚ 64˚
Page 70:
21 The tectonic stress field 121 o
Page 74:
23 The tectonic stress field 62N 0
Page 78:
a. Margarita Pays b. Stress state a
Page 82:
2 Pore pressure at depth in sedimen
Page 86:
29 Pore pressure at depth in sedime
Page 90:
Page 94:
Page 98:
Page 102:
Page 106:
Page 110:
Page 114:
Page 118:
Page 122:
Page 126:
a. 2000 OFFSHORE TRINIDAD CENTER OF
Page 130:
Page 134:
Page 138:
Page 142:
57 Basic constitutive laws a. ELAST
Page 146:
59 Basic constitutive laws Figure 3
Page 150:
61 Basic constitutive laws Linear e
Page 154:
63 Basic constitutive laws Vutukuri
Page 158:
65 Basic constitutive laws Elastici
Page 162:
67 Basic constitutive laws a. Stres
Page 166:
69 Basic constitutive laws depend o
Page 170:
71 Basic constitutive laws a. 20 18
Page 174:
a. Confining pressure (MPa) 30 25 2
Page 178:
75 Basic constitutive laws a. Creep
Page 182:
a. 30 25 Differential stress (MPa)
Page 186:
79 Basic constitutive laws a. 1 0.9
Page 190:
81 Basic constitutive laws where th
Page 194:
83 Basic constitutive laws the b pa
Page 198:
85 Rock failure in compression, ten
Page 202:
Page 206:
Page 210:
Page 214:
Page 218:
Page 222:
s 3 = 30 s 3 = 40 97 Rock failure i
Page 226:
Page 230:
101 Rock failure in compression, te
Page 234:
Page 238:
Page 242:
Page 246:
Page 250:
a. 200 150 V p (m/s) 4000 2000 1000
Page 254:
Table 4.1. Empirical relationships
Page 258:
Page 262:
a. 600 500 Frequency (counts) 400 3
Page 266:
Page 270:
Page 274:
Page 278:
Page 282:
Page 286:
x x x x x x x x x x x x x x Plate-d
Page 290:
Page 294:
Page 298:
a. 0 Stress or pressure 0 20 40 60
Page 302:
Page 306:
Page 310:
141 Faults and fractures at depth S
Page 314:
143 Faults and fractures at depth t
Page 318:
145 Faults and fractures at depth c
Page 322:
147 Faults and fractures at depth a
Page 326:
149 Faults and fractures at depth A
Page 330:
Page 334:
153 Faults and fractures at depth A
Page 338:
Page 342:
157 Faults and fractures at depth w
Page 346:
159 Faults and fractures at depth F
Page 350:
161 Faults and fractures at depth i
Page 354:
163 Faults and fractures at depth m
Page 362:
6 Compressive and tensile failures
Page 366:
169 Compressive and tensile failure
Page 370:
. 140 a. 120 100 S hmin S Hmax R S
Page 374:
Page 378:
Page 382:
Page 386:
a. b. c. 5400 5600 5800 6000 Depth
Page 390:
Page 394:
Page 398:
Page 402:
Page 406:
Table 6.1. Quality ranking system A
Page 410:
Page 414:
Page 418:
Page 422:
Page 426:
Page 430:
Page 434:
Page 438:
Page 442:
207 Determination of S 3 from mini-
Page 446:
Page 450:
Page 454:
a. 2500 2 Shut-in Shut-in 2000 1.5
Page 458:
Page 462:
Page 466:
Page 470:
Page 474:
Page 478:
Page 482:
Page 486:
Page 490:
Page 494:
Page 498:
8 Wellbore failure and stress deter
Page 502:
237 Wellbore failure and stress det
Page 506:
Page 510:
Page 514:
Page 518:
Page 522:
Page 526:
Page 530:
Page 534:
Page 538:
Page 542:
Page 546:
Fast 259 Wellbore failure and stres
Page 550:
Page 554:
Page 558:
Page 562:
267 Stress fields of the processes
Page 566:
180˚ 270˚ 0˚ 90˚ 180˚ 70˚ 70
Page 570:
271 Stress fields collision of two
Page 574:
273 Stress fields and Schubert 2002
Page 578:
275 Stress fields essentially perpe
Page 582:
277 Stress fields 55 Normal faultin
Page 586:
279 Stress fields and pore pressure
Page 590:
Table 9.1. Empirical methods for es
Page 594:
283 Stress fields a. 9100 b. 10000
Page 598:
285 Stress fields original data com
Page 602:
287 Stress fields practical importa
Page 606:
289 Stress fields 0 Strike-slip fau
Page 610:
291 Stress fields 0 Reverse faultin
Page 614:
293 Stress fields Log data Density
Page 618:
295 Stress fields 2050 2050 S hmin
Page 622:
297 Stress fields depth (Figure 9.1
Page 630:
10 Wellbore stability In this chapt
Page 634:
303 Wellbore stability et al. 2003)
Page 638:
305 Wellbore stability a. Predicted
Page 642:
307 Wellbore stability a. Equivalen
Page 646:
309 Wellbore stability S Hmax N S h
Page 650:
311 Wellbore stability 60 80 100 12
Page 654:
313 Wellbore stability a. b. c. 6.5
Page 658:
315 Wellbore stability 12 10 8 6 4
Page 662:
317 Wellbore stability a. b. 100 10
Page 666:
319 Wellbore stability of the forma
Page 670:
321 Wellbore stability part of Figu
Page 674:
323 Wellbore stability a. 15.8 15.6
Page 678:
325 Wellbore stability S 3 P grow P
Page 682: 327 Wellbore stability pressures -
Page 686: 329 Wellbore stability 90 80 70 60
Page 690: 331 Wellbore stability sandstones a
Page 694: 333 Wellbore stability This type of
Page 698: 335 Wellbore stability Figure 10.22
Page 702: 337 Wellbore stability Figure 10.24
Page 706: 339 Wellbore stability and drawdown
Page 710: 341 Critically stressed faults and
Page 736: a. ALL FRACTURES FROM SIT FRACTURES
Page 740: 356 Reservoir geomechanics exploita
Page 744: 358 Reservoir geomechanics expected
Page 748: 360 Reservoir geomechanics hole, Sh
Page 752: 362 Reservoir geomechanics rock wit
Page 756: 364 Reservoir geomechanics a. A S H
Page 760: 366 Reservoir geomechanics N EXTENT
Page 764: 368 Reservoir geomechanics a. A b.
Page 768: 370 Reservoir geomechanics FILL TO
Page 772: 372 Reservoir geomechanics Schemati
Page 776: 374 Reservoir geomechanics Figure 1
Page 780: 376 Reservoir geomechanics HIGH a.
Page 784:
12 Effects of reservoir depletion A
Page 788:
380 Reservoir geomechanics Figure 1
Page 792:
Page 796:
384 Reservoir geomechanics There ar
Page 800:
386 Reservoir geomechanics
Page 804:
Page 808:
390 Reservoir geomechanics Zoback a
Page 812:
Page 816:
Page 820:
396 Reservoir geomechanics can also
Page 824:
398 Reservoir geomechanics and ther
Page 828:
400 Reservoir geomechanics curve is
Page 832:
Page 836:
404 Reservoir geomechanics
Page 840:
406 Reservoir geomechanics To deter
Page 844:
Page 848:
Page 852:
412 Reservoir geomechanics Hagin an
Page 856:
Page 860:
Figure 12.18. (a) Map of southern L
Page 864:
418 Reservoir geomechanics along a
Page 868:
Page 874:
References Aadnoy, B. S. (1990a).
Page 878:
425 References Bourbie, T., Coussy,
Page 882:
427 References Coulomb, C. A. (1773
Page 886:
429 References Flemings, P. B., Stu
Page 890:
431 References Hayashi, K. and Haim
Page 894:
433 References Lade, P. (1977). “
Page 898:
435 References Moos, D. and Zoback,
Page 902:
437 References Raaen, A. M. and Bru
Page 906:
439 References Tang, X. M. and Chen
Page 910:
441 References Wiprut, D. and Zobac
Page 914:
443 References Zoback, M. L. and a.
Page 920:
446 Index critically stressed fault
Page 924:
448 Index ridge push 270 RMS (root
Page 934:
180˚ 216˚ 252˚ 288˚ 324˚ 64˚
Page 938:
a. 70 Pressure history - Lapeyrouse
Page 942:
. 140 a. 120 100 S hmin S Hmax R S
Page 946:
Figure 6.4. (a) Wellbore breakouts
Page 950:
a. A S Hmax A-CENTRAL FAULT HIGH RE
Page 954:
a. b. Figure 6.17. The area in whic
Page 958:
160 155 150 145 S Hmax (MPa) 140 13
Page 962:
a. b. Tendency for breakouts Orient
Page 966:
180˚ 270˚ 0˚ 90˚ 180˚ 70˚ 70
Page 970:
Depth (feet) S Hmax N S hmin W S v
Page 974:
Figure 10.9. (a) Probability densit
Page 978:
S Hmax ABOVE THE FAULT 9 10 11 12 R
Page 982:
-9 200' - 9200 ' - 9 600 ' a. LESS
Page 986:
a. 0.4 m = 1.0 m = 0.6 t/S v 0.2 0
Page 990:
a. 3000 S Hmax = 10N 3100 3200 Dept
Page 994:
a. ALL FRACTURES FROM SIT FRACTURES
Page 998:
a. A S Hmax A-CENTRAL FAULT HIGH RE
Page 1002:
a. A b. N N A B C B C D D E E 0 1 2
Page 1006:
N Vertical Displacement cm 2 N East
show all

reservoir geomecanics

You also want an ePaper? Increase the reach of your titles

Delete template?

Save as template?