Fig. 6-04, p.157

Nov 15, 2014

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Fig. 6-04, p.157. Fig. 6-08, p.160. Fig. 6-10, p.163. Fig. 6-11, p.163. Fig. 6-27, p.177. Fig. 6-12, p.165. loop. Beta-turn. Fig. 6-25, p.175. Fig. 6-23a, p.173. Fig. 6-28b, p.178. Fig. 6-24b, p.174. Fig. 6-30, p.180. Fig. 6-30a, p.180. Fig. 6-35b, p.184. Fig. 6-39, p.189.

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Fig. 6-04, p.157

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Fig. 6-04, p.157
Fig. 6-08, p.160
Fig. 6-10, p.163
Fig. 6-11, p.163
Fig. 6-27, p.177
Fig. 6-12, p.165
loop Beta-turn Fig. 6-25, p.175
Fig. 6-23a, p.173
Fig. 6-28b, p.178
Fig. 6-24b, p.174
Fig. 6-30, p.180
Fig. 6-30a, p.180
Fig. 6-35b, p.184
Fig. 6-39, p.189

Fig. 6-2

10 m. Human height. 1 m. Length of some nerve and muscle cells. 0.1 m. Unaided eye. Chicken egg. 1 cm. Fig. 6-2. Frog egg. 1 mm. 100 µm. Most plant and animal cells. Light microscope. 10 µm. Nucleus. Most bacteria. Mitochondrion. 1 µm. Electron microscope. Smallest bacteria.

532 views • 34 slides

Fig. 6-CO, p. 211

Fig. 6-CO, p. 211. Fig. 6-1, p. 213. Fig. 6-2 (1), p. 216. Fig. 6-2 (2), p. 217. Fig. 6-3 (1), p. 220. Fig. 6-3 (2), p. 221. Fig. 6-4, p. 222. Fig. 6-5, p. 224. Table 6-1, p. 226. Fig. 6-6, p. 227. Fig. 6-7, p. 227. Fig. 6-8, p. 228. Fig. 6-9, p. 228. Fig. 6-10, p. 229.

839 views • 66 slides

Fig. 6-7

Fig. 6-7. AP Biology – Tour of the Cell Diagrams . (a). TEM of a plasma membrane. Outside of cell. Inside of cell. 0.1 µm. Carbohydrate side chain. Hydrophilic region. Hydrophobic region. Hydrophilic region. Phospholipid. Proteins. (b) Structure of the plasma membrane.

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Fig. 6-1

Chapter 6: from gene to phenotype. Fig. 6-1. Using Neurospora , Beadle & Tatum showed that genes encode enzymes and that most enzymes work in biochemical pathways Wild-type grows on minimal medium ( prototrophic ) (has genes/enzymes to biosynthesize virtually all

558 views • 30 slides

Fig. 3-6, p. 38

Fig. 3-6, p. 38. Fig. 3-5, p. 37. one of the estrogens. testosterone. Fig. 3-4, p. 37. glucose. fructose. sucrose. c Formation of a sucrose molecule. Fig. 3-6, p. 38. Fig. 3-8, p. 39. c Glycogen. In animals, this

351 views • 20 slides

Fig. 6-CO, p. 138

Fig. 6-CO, p. 138. Fig. 6-1, p. 140. Fig. 6-2, p. 141. Table 6-1, p. 141. Fig. 6-3, p. 142. Fig. 6-4, p. 142. Fig. 6-5, p. 143. Fig. 6-6, p. 143. Fig. 1, p. 144. Fig. 6-7, p. 145. Fig. 6-8, p. 146. Fig. 6-9, p. 146. Fig. 6-10, p. 147. Fig. 6-11, p. 147. Fig. 6-12, p. 147.

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Supplemental Fig.6

MoL #33472. Supplemental Fig.6. A B. C D.

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Fig. 19.1, p. 476

No electronic rights for this image. Fig. 19.1, p. 476. Water Quality. Do (ppm) at 20˚C. Good. 8-9. Slightly polluted. 6.7-8. Moderately polluted. 4.5-6.7. Heavily polluted. Below 4.5. Gravely polluted. Below 4. Fig. 19.2, p. 478. Clean Zone. Decomposition Zone. Septic Zone.

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Fig. 18.4, p.547

Fig. 18.4, p.547. Fig. 18.4a, p.547. Fig. 18.4b, p.547. Fig. 18.4c, p.547. Fig. 18.22, p.565. Fig. 18.5, p.548. Fig. 18.6, p.549. Fig. 18.7, p.550. Fig. 18.10, p.553. Fig. 18.18, p.560. Fig. 18.18a, p.560. Fig. 18.18b, p.560. Fig. 18.23, p.566. Fig. 18.24a, p.567. Fig. 18.24b, p.567.

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Fig. 10.1, p. 491

Fig. 10.1, p. 491. Table 10.1, p. 493. Fig. 10.2, p. 496. Fig. 10.3, p. 496. Fig. 10.4, p. 499. Fig. 10.4, p. 499. Table 10.2, p. 500. p. 504. p. 504. p. 505. p. 506. p. 507. Fig. 10.5, p. 508. Fig. 10.6, p. 514. Fig. 10.7, p. 515. p. 516. p. 517. Fig. 10.8, p. 522.

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Fig. 11.1, p. 564

Fig. 11.1, p. 564. Fig. 11.2, p. 565. Fig. 11.3, p. 567. Fig. 11.4, p. 568. Fig. 11.5, p. 569. Table 11.1, p. 571. Table 11.2, p. 571. Fig. 11.6, p. 572. p. 573. p. 573. p. 574. p. 575. p. 575. p. 576. p. 576. p. 576. p. 583. p. 583. p. 587. p. 588. Fig. 11.7, p. 597.

523 views • 42 slides

Fig. 22.10, p.676

Fig. 22.10, p.676. Fig. 22.11, p.676. Fig. 22.12, p.679. Fig. 22.13, p.679. Fig. 22.13, p.679. Fig. 22.14, p.681. Fig. 22.17, p.690. Fig. 22.1, p.669. Fig. 22.4, p.670. Fig. 22.5, p.671. Fig. 22.6, p.672. Fig. 22.7, p.672. Fig. 22.16, p.688. Fig. 22.17a, p.690. Fig. 22.17b, p.690.

395 views • 30 slides

Fig. 20.1, p.607

Fig. 20.1, p.607. Table 20.1, p.608. Table 20.2, p.612. Fig. 20.2, p.612. Fig. 20.3, p.615. AF20.4. Fig. 20.4, p.616. AF 20.5. Fig. 20.5, p.617. Fig. 20.5a, p.617. Fig. 20.5b, p.617. Fig. 20.5c, p.617. Fig. 20.6, p.617. Fig. 20.6a, p.617. Fig. 20.6b, p.617. Fig. 20.7, p.619.

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Chapter 6: The Internal Validity of Research p.157

Chapter 6: The Internal Validity of Research p.157. Confounds Threats to Internal Validity Reactivity Demand Characteristics Experimental Expectancies Summary. Chapter 6: The Internal Validity of Research. Extraneous Variables (so what? Who cares?)

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Fig. 15.1, p.453

Active Figure 15.1. Fig. 15.1, p.453. Fig. 15.2, p.455. Fig. 15.2a, p.455. Fig. 15.2b, p.455. Fig. 15.3, p.456. Fig. 15.4, p.456. Fig. 15.5, p.456. Fig. 15.5a, p.456. Fig. 15.5b, p.456. Fig. 15.6, p.458. Active Figure 15.1. ActiveFigure 15.7 T does not depend on A. Fig. 15.7, p.458.

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Fig. 15.1, p.453

Fig. 15.1, p.453. Fig. 15.1, p.453. Fig. 15.2a, p.455. Fig. 15.6, p.458. Fig. 15.7, p.458. Fig. 15.10, p.462. Fig. 15.11, p.463. Fig. 15.12, p.464. Fig. 15.15, p.466. Fig. 15.15a, p.466. Fig. 15.15b, p.466. Fig. 15.15c, p.466. Fig. 15.15d, p.466. Fig. P15.26, p.478. Fig. 15.17, p.468.

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Suppl. fig. 6

Suppl. fig. 6. A. vehicle. cisplatin. p53. p53. B. C. DAPI. DAPI.

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Fig. 16.11, p.497

Fig. 16.11, p.497. T cos q. T cos q. 2 T sin q (Restoring force) SHM. Fig. 16.11, p.497. Fig. 16.7, p.491. x,y graph : A snapshot of the displacement at some time t. y vs t : Sit at a particular x and plot displacement as a function of time. Fig. 16.8, p.492. Fig. 16.18, p.501.

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Fig. 7.1, p.183

Fig. 7.1, p.183. Fig. 7.2, p.184. Fig. 7.3, p.185. Fig. 7.4, p.185. Fig. 7.5, p.186. Fig. 7.5a, p.186. Fig. 7.5b, p.186. Fig. 7.6, p.186. Fig. 7.7, p.189. Fig. 7.7a, p.189. Fig. 7.7b, p.189. Fig. 7.8, p.189. Fig. 7.9a, p.190. Fig. 7.9b, p.190. Fig. 7.10abc, p.191. Fig. 7.10d, p.191.

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Fig. 6-2

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Fig 23CO, p.707

Chapter 23: Electric Field. 23-3 Coulomb’s Law 23-4 Electric Field 23-6 Electric field lines 23-7 Motion of charged particles in a uniform electric field. Fig 23CO, p.707. INTRODUCTION. Fig 23-2, p.708.

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Fig. 21.1, p.641

GasLawProgram. AF2102. Fig. 21.1, p.641. Basic Assumptions of the kinetic theory. The number of molecules is Large. The average separation is large compared to the size of each molecule F=ma is valid Molecules only interact via eleastic collisions at short range.

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