File | Title | Manuscript Id |
Chapter Introduction | life11e_ch51_1.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_1_dlap.xml | 57ff811c757a2e5848000000 |
key concept 51.1 Excretory Systems Regulate Osmotic and Ionic Concentrations
| life11e_ch51_2.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_2_dlap.xml | 57ff811c757a2e5848000000 |
Osmosis causes water to enter or to leave cells
| life11e_ch51_3.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_3_dlap.xml | 57ff811c757a2e5848000000 |
Excretory systems control extracellular fluid osmolarity and composition
| life11e_ch51_4.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_4_dlap.xml | 57ff811c757a2e5848000000 |
Aquatic invertebrates are either ionic conformers or regulators
| life11e_ch51_5.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_5_dlap.xml | 57ff811c757a2e5848000000 |
Vertebrates are osmoregulators and ionic regulators
| life11e_ch51_6.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_6_dlap.xml | 57ff811c757a2e5848000000 |
recap | life11e_ch51_7.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_7_dlap.xml | 57ff811c757a2e5848000000 |
key concept 51.2 Animals Excrete Nitrogen as Ammonia, Urea, or Uric Acid
| life11e_ch51_8.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_8_dlap.xml | 57ff811c757a2e5848000000 |
Ammonia is toxic
| life11e_ch51_9.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_9_dlap.xml | 57ff811c757a2e5848000000 |
Urea is highly soluble in water
| life11e_ch51_10.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_10_dlap.xml | 57ff811c757a2e5848000000 |
Uric acid is not very soluble in water
| life11e_ch51_11.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_11_dlap.xml | 57ff811c757a2e5848000000 |
Most species produce more than one nitrogenous waste
| life11e_ch51_12.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_12_dlap.xml | 57ff811c757a2e5848000000 |
recap | life11e_ch51_13.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_13_dlap.xml | 57ff811c757a2e5848000000 |
key concept 51.3 Invertebrate Excretory Systems Use Filtration, Secretion, and Reabsorption
| life11e_ch51_14.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_14_dlap.xml | 57ff811c757a2e5848000000 |
Protonephridia of flatworms excrete water and conserve salts
| life11e_ch51_15.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_15_dlap.xml | 57ff811c757a2e5848000000 |
Metanephridia of annelids process coelomic fluid
| life11e_ch51_16.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_16_dlap.xml | 57ff811c757a2e5848000000 |
Malpighian tubules of insects use active transport to excrete wastes
| life11e_ch51_17.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_17_dlap.xml | 57ff811c757a2e5848000000 |
recap | life11e_ch51_18.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_18_dlap.xml | 57ff811c757a2e5848000000 |
key concept 51.4 The Nephron Is the Basic Functional Unit of Vertebrate Excretory Systems
| life11e_ch51_19.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_19_dlap.xml | 57ff811c757a2e5848000000 |
Marine fishes must conserve water
| life11e_ch51_20.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_20_dlap.xml | 57ff811c757a2e5848000000 |
Terrestrial amphibians and reptiles must avoid desiccation
| life11e_ch51_21.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_21_dlap.xml | 57ff811c757a2e5848000000 |
Mammals can produce highly concentrated urine
| life11e_ch51_22.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_22_dlap.xml | 57ff811c757a2e5848000000 |
The nephron is the functional unit of the vertebrate kidney
| life11e_ch51_23.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_23_dlap.xml | 57ff811c757a2e5848000000 |
Blood is filtered into Bowman’s capsule
| life11e_ch51_24.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_24_dlap.xml | 57ff811c757a2e5848000000 |
The renal tubules convert glomerular filtrate to urine
| life11e_ch51_25.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_25_dlap.xml | 57ff811c757a2e5848000000 |
recap | life11e_ch51_26.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_26_dlap.xml | 57ff811c757a2e5848000000 |
key concept 51.5 The Mammalian Kidney Can Produce Concentrated Urine
| life11e_ch51_27.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_27_dlap.xml | 57ff811c757a2e5848000000 |
Kidneys produce urine and the bladder stores it
| life11e_ch51_28.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_28_dlap.xml | 57ff811c757a2e5848000000 |
Nephrons have a regular arrangement in the kidney
| life11e_ch51_29.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_29_dlap.xml | 57ff811c757a2e5848000000 |
Most of the glomerular filtrate is reabsorbed by the proximal convoluted tubule
| life11e_ch51_30.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_30_dlap.xml | 57ff811c757a2e5848000000 |
The loop of Henle creates a concentration gradient in the renal medulla
| life11e_ch51_31.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_31_dlap.xml | 57ff811c757a2e5848000000 |
Water permeability of kidney tubules depends on water channels
| life11e_ch51_32.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_32_dlap.xml | 57ff811c757a2e5848000000 |
The distal convoluted tubule fine-tunes the composition of the urine
| life11e_ch51_33.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_33_dlap.xml | 57ff811c757a2e5848000000 |
Urine is concentrated in the collecting duct
| life11e_ch51_34.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_34_dlap.xml | 57ff811c757a2e5848000000 |
The kidneys help regulate acid–base balance
| life11e_ch51_35.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_35_dlap.xml | 57ff811c757a2e5848000000 |
Kidney failure is treated with dialysis
| life11e_ch51_36.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_36_dlap.xml | 57ff811c757a2e5848000000 |
recap | life11e_ch51_37.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_37_dlap.xml | 57ff811c757a2e5848000000 |
key concept 51.6 Kidney Function Is Regulated
| life11e_ch51_38.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_38_dlap.xml | 57ff811c757a2e5848000000 |
Glomerular filtration rate is regulated
| life11e_ch51_39.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_39_dlap.xml | 57ff811c757a2e5848000000 |
Regulation of GFR uses feedback information from the distal tubule
| life11e_ch51_40.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_40_dlap.xml | 57ff811c757a2e5848000000 |
Blood osmolarity and blood pressure are regulated by ADH
| life11e_ch51_41.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_41_dlap.xml | 57ff811c757a2e5848000000 |
The heart produces a hormone that helps lower blood pressure
| life11e_ch51_42.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_42_dlap.xml | 57ff811c757a2e5848000000 |
recap | life11e_ch51_43.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_43_dlap.xml | 57ff811c757a2e5848000000 |
Investigating Life | life11e_ch51_44.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_44_dlap.xml | 57ff811c757a2e5848000000 |
Chapter Summary
| life11e_ch51_45.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_45_dlap.xml | 57ff811c757a2e5848000000 |
Apply What You’ve Learned
| life11e_ch51_46.html | 57ff811c757a2e5848000000 |
DLAP questions | life11e_ch51_46_dlap.xml | 57ff811c757a2e5848000000 |