Fig. 11-1, p.373

Mar 13, 2019

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Fig. 11-1, p.373. Fig. 11-2, p.375. Fig. 11-3, p.375. Fig. 11-4, p.376. Fig. 11-4a, p.376. Fig. 11-4b, p.376. Fig. 11-5, p.377. Fig. 11-6, p.378. Table 11-1, p.380. Fig. 11-7, p.381. Fig. 11-7a, p.381. Fig. 11-7b, p.381. Fig. 11-8, p.382. Table 11-2, p.382. Fig. 11-9, p.384.

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Fig. 11-1, p.373

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Fig. 11-1, p.373
Fig. 11-2, p.375
Fig. 11-3, p.375
Fig. 11-4, p.376
Fig. 11-4a, p.376
Fig. 11-4b, p.376
Fig. 11-5, p.377
Fig. 11-6, p.378
Table 11-1, p.380
Fig. 11-7, p.381
Fig. 11-7a, p.381
Fig. 11-7b, p.381
Fig. 11-8, p.382
Table 11-2, p.382
Fig. 11-9, p.384
Fig. 11-10, p.385
Fig. 11-11, p.387
Fig. 11-12, p.387
Fig. 11-13, p.388
Fig. 11-14, p.390
Fig. 11-15, p.390
Fig. 11-16, p.392
Fig. 11-17, p.393
Fig. 11-17a, p.393
Fig. 11-17b, p.393
Fig. 11-17c, p.393
Fig. 11-17d, p.393
Fig. 11-18, p.395
Fig. 11-19, p.396
Fig. 11-20, p.398
Fig. 11-20a, p.398
Fig. 11-20b, p.398
Fig. 11-20c, p.398
Fig. P11-19, p.403

Fig. 11-CO, p.264

Fig. 11-CO, p.264. Learning Objectives. How Does Transcription Take Place in Prokaryotes? How Is Transcription Regulated in Prokaryotes? How Does Transcription Take Place in Eukaryotes? How Is Transcription Regulated in Eukaryotes? How Is RNA Modified after Transcription?

1.38k views • 34 slides

Fig. 23-1, p.360

Fig. 23-1, p.360. Table 23-1, p.361. dorsal. posterior. ventral. anterior. Fig. 23-2, p.361. Fig. 23-3, p.363. placozoans. sponges. cnidarians. flatworms. rotifers. mollusks. annelids. roundworms. arthropods. echinoderms. chordates. deuterostomes, anus forms first in embryos.

400 views • 29 slides

Fig. 11-1, p.294

Fig. 11-1, p.294. Fig. 11-3, p.296. Fig. 11-8, p.301. Fig. 11-6b, p.299. Table 11-2, p.311. Fig. 11-17, p.312.

171 views • 6 slides

Fig. 1-3a, p. 4

molecule. cell. tissue. organ. organ system. atom. Fig. 1-3a, p. 4. multicelled organism. population. community. ecosystem. biosphere. Fig. 1-3b, p. 4. Energy input, from sun. Producers. Nutrient cycling. Consumers. energy output (mainly metabolic heat). Fig. 1-4, p. 6.

198 views • 11 slides

Fig. 1-5, p.8

Fig. 1-5, p.8. Fig. 1-6, p.9. Fig. 1-7, p.10. Fig. 1-8, p.12. Fig. 1-9, p.13. Fig. 1-10, p.16. Table 7-1, p.168. Fig. 1-11, p.17. http://weather.unisys.com. p.11. http://www.rap.ucar.edu/weather. http://www.rap.ucar.edu/weather.

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Fig. 11-1a, p. 299

Fig. 11-1a, p. 299. Fig. 11-1b, p. 299. Chapter 11 Study Plan. Tides Are the Longest of All Ocean Waves Tides Are Forced Waves Formed by Gravity and Inertia The Dynamic Theory of Tides Adds Fluid Motion Dynamics to the Equilibrium Theory Most Tides Can Be Accurately Predicted

577 views • 33 slides

Fig. 8-1, p.124

Fig. 8-1, p.124. one chromatid. its sister chromatids. one chromosome (unduplicated). one chromosome (duplicated). Fig. 8-3, p.126. Table 8-1, p.126. Fig. 8-4, p.127. G1. S. Interval of cell growth before DNA replication (chromosomes unduplicated). Interval of cell growth when

359 views • 18 slides

Fig. 11-1

Fig. 11-1. CH 3. CH 3. Single-stranded “sticky” ends. Table 11-1. Fig. 11-2. Foreign DNA. Fig. 11-5. Cut with restriction enzyme. Add vector cut with same restriction enzyme. Sticky ends. Vector. Add DNA ligase to form recombinant molecules. Cloned DNA. Introduction

294 views • 13 slides

Fig. 4-1, p. 62

Fig. 4-1, p. 62. Fig. 4-2b, p. 65. Fig. 4-3a, p. 65. Fig. 4-3b, p. 65. Table 4-1, p. 66. Fig. 6-12b, p. 112. Fig. 6-1, p. 102. Fig. 6-8a, p. 108. Fig. 6-8b, p. 108. ~785 Ma felsic volcanic clast: Depot Creek (Fanning, unpublished). Law of faunal succession. Pangea. Rodinia!. Pangea.

695 views • 52 slides

Fig. 11-CO, p. 311

Fig. 11-CO, p. 311. Fig. 11-1, p. 311. Fig. 11-2, p. 312. Fig. 11-3, p. 314. Fig. 11-4, p. 315. Fig. 11-5, p. 316. Fig. 11-6, p. 317. Fig. 11-7, p. 318. Fig. 11-8, p. 319. Fig. 11-9, p. 319. Fig. 11-10a, p. 321. Fig. 11-10b, p. 321. Fig. 11-11, p. 323. Fig. 11-12, p. 324.

700 views • 58 slides

Fig. 11-CO, p.352

Fig. 11-CO, p.352. p.353. Fig. 11-1, p.354. Table 11-1, p.355. Fig. 11-2, p.355. Table 11-2, p.360. Fig. 11-3, p.361. Fig. 11-4, p.366. Fig. 11-5, p.366. Fig. 11-6, p.366. Fig. 11-7, p.367. Fig. 11-7a, p.367. Fig. 11-7b, p.367. Table 11-3, p.367. Table 11-4, p.368. Fig. 11-8, p.369.

480 views • 35 slides

Fig. 14-1, p. 544

Fig. 14-1, p. 544. Fig. 14-2, p. 545. Fig. 14-3, p. 546. 900 MHz NMR. 300 MHz NMR. p. 547. Fig. 14-4, p. 548. p. 553. Table 14-1, p. 554. Fig. 14-5, p. 555. p. 558. p. 558. Fig. 14-6, p. 559. Fig. 14-7, p. 559. p. 560. p. 560. Fig. 14-8, p. 562. Fig. 14-9, p. 567.

692 views • 59 slides

Fig. 7-1, p.232

Fig. 7-1, p.232. Fig. 7-1a, p.232. Fig. 7-1b, p.232. Fig. 7-2, p.233. Fig. 7-2a, p.233. Fig. 7-2b, p.233. Fig. 7-3, p.235. Fig. 7-4, p.237. Fig. 7-5, p.238. Fig. 7-5a, p.238. Fig. 7-5b, p.238. Fig. 7-6, p.239. Fig. 7-7, p.240. Fig. 7-8, p.241. Table 7-1, p.242. Fig. 7-9, p.245.

491 views • 41 slides

Fig. 11-CO, p. 297

Fig. 11-CO, p. 297. Fig. 11-1a, p. 299. Fig. 11-1b, p. 299. Fig. 11-2a, p. 300. Fig. 11-2b, p. 300. Fig. 11-2c, p. 300. Motion due to inertia. Combined effect. Motion due to gravity. c. Fig. 11-2c, p. 300. Fig. 11-3, p. 300. 1,650 km (1,023 mi).

621 views • 53 slides

Fig. 11-CO, p. 362

Fig. 11-CO, p. 362. p. 363. Fig. 11-1, p. 364. Table 11-1, p. 365. Fig. 11-2, p. 365. Table 11-2, p. 370. Fig. 11-3, p. 370. Fig. 11-4, p. 375. Fig. 11-5, p. 375. Fig. 11-6, p. 375. Table 11-3, p. 376. Fig. 11-7, p. 376. Fig. 11-7a, p. 376. Fig. 11-7b, p. 376. Table 11-4, p. 378.

478 views • 39 slides

Fig. 5-1, p. 152

Fig. 5-1, p. 152. Fig. 5-2, p. 153. Fig. 5-3, p. 155. Fig. 5-4, p. 156. Fig. 5-5, p. 156. Fig. 5-6, p. 157. Fig. 5-7, p. 157. Fig. 5-8, p. 158. Fig. 5-9, p. 159. p. 159. Fig. 5-10, p. 160. Fig. 5-11, p. 160. Fig. 5-11a, p. 160. Fig. 5-11b, p. 160. Fig. 5-12, p. 161.

510 views • 45 slides

Fig. 11-CO, p. 298

Fig. 11-CO, p. 298. p. 300. Fig. 11-1, p. 300. p. 301. p. 301. p. 302. Table 11-1, p. 302. Fig. 11-2, p. 303. p. 303. p. 303. Fig. 11-3, p. 304. Fig. 11-4, p. 305. p. 307. Table 11-2, p. 309. p. 309. p. 310. Fig. 11-5, p. 310. Fig. 11-6, p. 311. p. 311. Table 11-3, p. 312.

440 views • 38 slides

Fig. 16-1, p. 322

Fig. 16-1, p. 322. Fig. 17-4, p. 354. Fig. 17-6, p. 356. Fig. 18-19, p. 391. Fig. 18-9b, p. 380. Fig. 16-3a, p. 324. Fig. 16-3b, p. 324. Fig. 16-3c, p. 324. Fig. 16-7a, p. 327. Fig. 16-4, p. 325. Fig. 16-5, p. 326. Fig. 16-9, p. 329. Fig. 16-11, p. 331. Fig. 16-13a, p. 333.

434 views • 28 slides

Fig. 5-1, p. 171

Chap. 5: 3-D Probability Density.  r  | 2 dV = | R(r)Y(  )| 2 dV Probability of finding the electron in the unit volume element: dV = dxdydz = { rd  }{ rsin (  d  } dr | R(r)Y(  )| 2 = Probability per unit volume. |R(r )| 2 (r 2 dr)

356 views • 14 slides

Fig. 1-CO, p. 1

Fig. 1-CO, p. 1. Fig. 1-1, p. 3. Total Water. Salt water 97.5%. Fresh water 2.5%. Fresh Water. Surface and atmospheric water 0.4%. Permafrost 0.8%. Glaciers 68.7%. Surface and Atmospheric Water. Groundwater 30.1%. Freshwater lakes 67.4%. Biota 0.8%. Rivers1.6%. Wetlands 8.5%.

843 views • 66 slides

Fig. 11-CO, p.264

753 views • 73 slides

Fig. 11-1, p. 249

Fig. 11-1, p. 249. Fig. 11-2, p. 249. Fig. 11-3a, p. 251. Fig. 11-3b, p. 251. Fig. 11-4, p. 252. Fig. 11-A, p. 253. Fig. 11-5, p. 254. Fig. 11-6, p. 254. 900,000. 800,000. 700,000. 600,000. 500,000. Fish landings (tons). 400,000. 1992. 300,000. 200,000. 100,000. 0. 1900. 1920.

321 views • 30 slides

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