|
a. Roots, shoots, and leaves |
||
|
b. Roots, stems, and leaves |
||
|
c. Roots, trunks, and cones |
||
|
d. Roots, stems, leaves, and flowers |
||
|
e. Roots and leaves |
|
a. Sepals, petals, stamens, and carpels |
||
|
b. Sepals, petals, ovules, and pollen |
||
|
c. Sepals, petals, ovaries, and pistils |
||
|
d. Petals, anthers, styles, and ovules |
|
a. Golgi |
||
|
b. Endoplasmic Reticulum |
||
|
c. Vesicle |
||
|
d. Vacuole |
||
|
e. None of the above |
|
a. To serve as a mechanical support for the leaves, flowers, and fruits |
||
|
b. To furnish a path of conduction between shoot organs and the roots |
||
|
c. To serve as the primary organ for photosynthesis |
||
|
d. To act as a storage organ for water and products of photosynthesis |
||
|
e. All of the above |
|
a. Xylem and phloem |
||
|
b. Xylem, phloem, and pericycle |
||
|
c. Xylem, phloem, pericycle, and endodermis |
||
|
d. Xylem, phloem, pericycle, endodermis, and cortex |
||
|
e. Iron and carbon |
|
a. The molecular structure of the cell wall |
||
|
b. The presence or absence of chloroplasts |
||
|
c. The tissue systems they belong to |
||
|
d. Its presence or absence in vascular seed plants, vascular nonseed plants, or nonvascular plants |
||
|
e. None of the above |
|
a. It is a cell that entertains other cells of the plant that are lonely. |
||
|
b. It is a cell that controls adjacent sieve cells. |
||
|
c. It is a cell that controls adjacent guard cells. |
||
|
d. It is a cell that controls adjacent root hair cells. |
||
|
e. None of the above |
|
a. Sclereids; ground tissue system; sclerenchyma tissue |
||
|
b. Phloem; sieve-tube elements; vascular tissue system |
||
|
c. Trichomes; epidermis; dermal tissue system |
||
|
d. Cork cells: epidermis; dermal tissue system |
||
|
e. None of the above |
|
a. In leaves, just below the epidermal tissue |
||
|
b. Within the xylem and phloem of vascular bundles |
||
|
c. In the pith region |
||
|
d. In wood rays |
||
|
e. All of the above |
|
a. Cellulose |
||
|
b. Lignin |
||
|
c. Pectin |
||
|
d. Rhamnogalacturonan |
||
|
e. All of the above |
|
a. Parenchyma cell |
||
|
b. Collenchyma cell |
||
|
c. Guard cell |
||
|
d. Trichome |
||
|
e. All of the above |
|
a. Transpiration |
||
|
b. Absorption |
||
|
c. Anchorage |
||
|
d. Food Storage |
||
|
e. All of the above |
|
a. Tap |
||
|
b. Sucker |
||
|
c. Fibrous |
||
|
d. Adventitious |
||
|
e. All of the above |
|
a. Cork cells |
||
|
b. Guard cells |
||
|
c. Trichomes |
||
|
d. Tracheids |
||
|
e. All of the above |
|
a. They may be apical or lateral. |
||
|
b. They are areas where plant cell types arise by meiosis. |
||
|
c. They may be primary or secondary. |
||
|
d. All of the above |
||
|
e. None of the above |
|
a. It consists of everything below ground such as roots, tubers, and rhizomes. |
||
|
b. It consists of ground tissue, vascular tissue, and dermal tissue. |
||
|
c. It consists of parenchymal tissue, collenchymal tissue, and sclerenchymal tissue. |
||
|
d. All of the above |
||
|
e. None of the above |
|
a. They support the plant. |
||
|
b. They are dead at maturity. |
||
|
c. They tend to occur as part of vascular bundles or on the corners of angular stems. |
||
|
d. In many prepared slides, they stain red. |
||
|
e. None of the above |
|
a. They are alive at maturity. |
||
|
b. They function in storage. |
||
|
c. They are involved in photosynthesis. |
||
|
d. They make up the bulk of ground and vascular tissues. |
||
|
e. All of the above |
|
a. They conduct food from leaves to rest of the plant. |
||
|
b. They are alive at maturity. |
||
|
c. They tend to stain green. |
||
|
d. Phloem cells are usually located inside the xylem. |
||
|
e. All of the above |
|
a. They support the plant. |
||
|
b. They are dead at maturity. |
||
|
c. They are characterized by thickenings in their secondary walls. |
||
|
d. They often occur at bundle cap fibers. |
||
|
e. All of the above |
|
a. The solutes inside are toxic to herbivores. |
||
|
b. It is a specialized and complex organelle. |
||
|
c. It is where protein glycosylation occurs. |
||
|
d. Functionally, it is the cell’s recycling center. |
||
|
e. All of the above |
|
a. Xylem is a term applied to woody (lignin-impregnated) walls of certain cells of plants. |
||
|
b. Xylem tends to conduct water and minerals from leaves to roots. |
||
|
c. Xylem may consist of parenchyma cells, tracheids, and vessel elements. |
||
|
d. Xylem tends to stain red. |
||
|
e. All of the above |
|
a. It is produced by the cambium. |
||
|
b. It occurs by growth of vascular cambium in Dicots. |
||
|
c. It does not usually occur in Monocots. |
||
|
d. It occurs in rows or ranks of cork, secondary xylem, or secondary phloem cells. |
||
|
e. All of the above |
|
a. According to the endosymbiosis theory, they were once free-living micro-organisms. |
||
|
b. They contain DNA. |
||
|
c. They are where photosynthesis occurs. |
||
|
d. Contain flat, disc-like sacs called thylakoids. |
||
|
e. None of the above statements are false. |
|
a. All eukaryotic cells have chloroplasts. |
||
|
b. Their DNA is always associated with proteins. |
||
|
c. All eukaryotic cells have mitochondria. |
||
|
d. All eukaryotic cells have plasma membranes. |
||
|
e. All eukaryotic cells have lysosomes. |
|
a. Mitochondrion |
||
|
b. Chloroplast |
||
|
c. Centriole |
||
|
d. Ribosome |
||
|
e. None of the above |
|
a. To fend off herbivores |
||
|
b. To obtain nutrients, especially in nutrient-poor soil |
||
|
c. To attract and seize cross-pollinating insects |
||
|
d. All of the above |
||
|
e. None of the above |
|
a. All plants |
||
|
b. Plants which grow in very arid, hot climates |
||
|
c. Plants of important agricultural value such as corn, sugarcane, millet, and sorghum |
||
|
d. Insectivorous plants |
||
|
e. Both B and C |
|
a. Blue |
||
|
b. Green |
||
|
c. Red |
||
|
d. Both A and C |
||
|
e. All colors of light (white) |
|
a. Seeds; cones |
||
|
b. Fruit; seeds |
||
|
c. Seeds; fruit |
||
|
d. Nuts; fruit |
||
|
e. Seeds; nuts |
|
a. The stroma side of the thylakoid; the lumen side of the thylakoid |
||
|
b. The lumen side of the thylakoid; the stroma side of the thylakoid |
||
|
c. The stroma side of the thylakoid; the cytosol |
||
|
d. The lumen side of the granum; the stroma side of the granum |
||
|
e. The cytosol; the stroma side of the thylakoid |
|
a. Through symbiotic relationships with nitrogen fixing bacteria |
||
|
b. Through symbiotic relationships with blue-green algae |
||
|
c. By uptake of ammonia from the soil |
||
|
d. By uptake of nitrogen gas from the atmosphere |
||
|
e. By the metabolic breakdown of proteins |
|
a. Root pressure |
||
|
b. Capillarity |
||
|
c. Cohesion |
||
|
d. Evaporation |
||
|
e. All of the above |
|
a. The dark reactions |
||
|
b. The light reactions |
||
|
c. Photorespiration |
||
|
d. Phototranspiration |
||
|
e. None of the above |
|
a. Cell elongation, cell maturation, cell division |
||
|
b. Cell elongation, cell division, cell maturation |
||
|
c. Cell division, cell maturation, cell elongation |
||
|
d. Cell division, cell elongation, cell maturation |
||
|
e. Cell maturation, cell elongation, cell division |
|
a. Sugars |
||
|
b. Potassium |
||
|
c. Amino acids |
||
|
d. Proteins |
||
|
e. Dissolved gases |
|
a. Mesophyll |
||
|
b. Epidermis |
||
|
c. Xylem |
||
|
d. Phloem |
||
|
e. None of the above |
|
a. The movement of water through the plant |
||
|
b. The movement of sugar through the plant |
||
|
c. The movement of solutes through the plant |
||
|
d. The movement of solvents through the plant |
||
|
e. All of the above |
|
a. The wasteful biochemical process certain plants perform when CO2/O2 levels are high |
||
|
b. The process of generation ATP from glucose and O2 by the mitochondria |
||
|
c. The process in the plant of moving water |
||
|
d. Dew formation on leaves |
||
|
e. None of the above |
|
a. On the stroma side of the thylakoid |
||
|
b. On the lumen side of the thylakoid |
||
|
c. On the lumen side of the chloroplast outer membrane |
||
|
d. In the cytosol |
||
|
e. None of the above |
|
a. On the stroma side of the thylakoid |
||
|
b. On the lumen side of the thylakoid |
||
|
c. On the lumen side of the chloroplast outer membrane |
||
|
d. In the cytosol |
||
|
e. None of the above |
|
a. Chlorophyll |
||
|
b. Lutein |
||
|
c. Beta-carotene |
||
|
d. Lycopene |
||
|
e. All of the above |
|
a. Gibberellins |
||
|
b. Cytokinins |
||
|
c. Abscisic acid |
||
|
d. Aldosterone |
||
|
e. Ethylene |
|
a. Potassium |
||
|
b. Phosphorus |
||
|
c. Nitrogen |
||
|
d. Sulfur |
||
|
e. Both A and B |
|
a. It is also referred to as the Calvin cycle. |
||
|
b. They occur during the dark. |
||
|
c. They fix carbon. |
||
|
d. They are interdependent with the light reactions. |
||
|
e. All of the above |
|
a. It is not of major use in plants. |
||
|
b. It can be a source for intermediates as needed to "jump start" seedlings as they change over from the complete respiration dependency of subterranean existence to life in the light above the soil. |
||
|
c. It generates NADPH and Pentoses. |
||
|
d. It is an alternative to glycolysis. |
||
|
e. All of the above |
|
a. The ETS (electron transfer system) between PSI and PSII consists of pheophytin, plastoquinone, cytochromes b and f, and plastocyanin. |
||
|
b. The ETS after PSI consists of special quinones, iron-sulfur proteins, ferredoxin, and a flavoprotein that reduces NADP+, and is often called non-cyclic electron flow. |
||
|
c. Electrons can also pass from the PSI ETS back to the cytochromes in the PSII ETS. This path is called cyclic electron flow. |
||
|
d. The source of electrons for photosynthesis is photolysis (the Hill reaction) that splits water and releases oxygen gas to the atmosphere. |
||
|
e. All of the above |
|
a. Endodermis |
||
|
b. Epidermis |
||
|
c. Mesophyll |
||
|
d. Vascular Bundle |
||
|
e. Cuticle |
|
a. Calyx |
||
|
b. Pedicle |
||
|
c. Corona |
||
|
d. Androecium |
||
|
e. Gynoecium |
|
a. Glycolysis |
||
|
b. The Krebs cycle |
||
|
c. The electron transport chain |
||
|
d. The Citric Acid cycle |
||
|
e. Both B and D |
|
a. Nitrogen, Phosphorus, and Potassium; the soil |
||
|
b. Nitrogen, Phosphorus, Potassium, and Sulfur; the soil |
||
|
c. Oxygen, Carbon, and Hydrogen; the atmosphere |
||
|
d. Oxygen and Hydrogen; the atmosphere |
|
a. Paleozoic Era |
||
|
b. Cenozoic Era |
||
|
c. Precambrian Era |
||
|
d. Mesozoic Era |
||
|
e. None of the above |
|
a. Paleozoic Era |
||
|
b. Cenozoic Era |
||
|
c. Precambrian Era |
||
|
d. Mesozoic Era |
||
|
e. None of the above |
|
a. 5-6 billion years |
||
|
b. 1.2-1.4 billion years |
||
|
c. 500 million years |
||
|
d. 1-2 million years |
||
|
e. 100,000 years |
|
a. 5-6 billion years ago |
||
|
b. 1.2-1.4 billion years ago |
||
|
c. 500 million years ago |
||
|
d. 1-2 million years ago |
||
|
e. 100,000 years ago |
|
a. Paleozoic Era |
||
|
b. Cenozoic Era |
||
|
c. Precambrian Era |
||
|
d. Mesozoic Era |
||
|
e. None of the above |
|
a. Plant-like protists and fungi |
||
|
b. Nonvascular plants (Bryophytes) |
||
|
c. Vascular seedless plants |
||
|
d. Vascular seed plants |
||
|
e. Angiosperms |
|
a. Paleozoic Era |
||
|
b. Cenozoic Era |
||
|
c. Precambrian Era |
||
|
d. Mesozoic Era |
||
|
e. None of the above |
|
a. Paleozoic Era |
||
|
b. Cenozoic Era |
||
|
c. Precambrian Era |
||
|
d. Mesozoic Era |
||
|
e. None of the above |
|
a. Paleozoic Era |
||
|
b. Cenozoic Era |
||
|
c. Precambrian Era |
||
|
d. Mesozoic Era |
||
|
e. None of the above |
|
a. Paleozoic Era |
||
|
b. Cenozoic Era |
||
|
c. Precambrian Era |
||
|
d. Mesozoic Era |
||
|
e. None of the above |
|
a. Paleozoic Era |
||
|
b. Cenozoic Era |
||
|
c. Precambrian Era |
||
|
d. Mesozoic Era |
||
|
e. None of the above |
|
a. Paleozoic Era |
||
|
b. Cenozoic Era |
||
|
c. Precambrian Era |
||
|
d. Mesozoic Era |
||
|
e. None of the above |
|
a. Hans Krebs |
||
|
b. Carolus Linnaeus |
||
|
c. Charles Darwin |
||
|
d. Robert Hooke |
||
|
e. None of the above |
|
a. Cycadophyta |
||
|
b. Pterophyta |
||
|
c. Ginkgophyta |
||
|
d. Gnetophyta |
||
|
e. Coniferophyta |
|
a. Psilotophyta |
||
|
b. Lycophyta |
||
|
c. Sphenophyta |
||
|
d. Pterophyta |
||
|
e. Gnetophyta |
|
a. Division Gnetophyta |
||
|
b. Division Lycophyta |
||
|
c. Division Psilotophyta |
||
|
d. Division Anthocerotophyta |
|
a. Hepatophyta |
||
|
b. Anthocerophyta |
||
|
c. Bryophyta |
||
|
d. All of the above |
||
|
e. None of the above |
|
a. Mosses |
||
|
b. Liverworts |
||
|
c. Hornworts |
||
|
d. Ferns |
||
|
e. All of the above |
|
a. Drying out |
||
|
b. Predation by herbivores |
||
|
c. Support |
||
|
d. Reproduction |
||
|
e. Gas exchange |
|
a. Division Ciliophora |
||
|
b. Division Chytridiomycota |
||
|
c. Division Psilotophyta |
||
|
d. Division Anthocerotophyta |
|
a. Genus, Division, Kingdom, Species, Family, Order, Class |
||
|
b. Kingdom, Genus, Species, Family, Order, Class, Division |
||
|
c. Species, Genus, Family, Kingdom, Order, Division, Class |
||
|
d. Kingdom, Division, Class, Order, Family, Genus, Species |
||
|
e. Kingdom, Class, Order, Division, Family, Genus, Species |
|
a. A liverwort is a nonvascular bryophyte. |
||
|
b. A clubwort is a vascular seedless plant. |
||
|
c. A gymnosperm is a vascular seed plant. |
||
|
d. A fern is a vascular seed plant. |
||
|
e. None of the above |
|
a. They translate as “single seed leaf” and “double seed leaf,” respectively. |
||
|
b. Monocot stems have their vascular bundles in a ring arrangement; Dicot stems have scattered vascular bundles. |
||
|
c. There is no pith region in monocots. |
||
|
d. Monocot roots have their vascular bundles arranged in a ring; Dicot roots have their xylem in the center of the root and phloem outside the xylem. |
||
|
e. Monocots have their flower parts in threes or multiples of three; Dicots have their flower parts in fours (or multiples) or fives (or multiples). |
|
a. Homospory is also referred as isospory. |
||
|
b. Homosporous plants produce bisexual gametophytes. |
||
|
c. Homosporous plants will only mate with other homosporous plants of the same gender. |
||
|
d. Ferns are a classic example of homosporous plants. |
||
|
e. Homosporous plants develop gametophytes from spores which are all of the same size. |
|
a. Chaparral |
||
|
b. Taiga |
||
|
c. Tropical Rain Forest |
||
|
d. Temperate Forest |
||
|
e. Tundra |
|
a. Chaparral |
||
|
b. Taiga |
||
|
c. Grassland |
||
|
d. Tropical Rain Forest |
||
|
e. Temperate Forest |
|
a. Sunlight |
||
|
b. Water |
||
|
c. Nutrients |
||
|
d. Space |
||
|
e. All of the above |
|
a. Chaparral |
||
|
b. Grassland |
||
|
c. Tropical Rain Forest |
||
|
d. Temperate Forest |
||
|
e. Taiga |
|
a. Atmosphere |
||
|
b. Autotrophic organisms |
||
|
c. Heterotrophic organisms |
||
|
d. Decomposition |
||
|
e. All of the above |
|
a. The food supply |
||
|
b. Competition |
||
|
c. Predation |
||
|
d. Parasitism |
||
|
e. All of the above |
|
a. Evaporation |
||
|
b. Precipitation |
||
|
c. Transpiration |
||
|
d. All of the above |
||
|
e. A and C only |
|
a. Tundra |
||
|
b. Taiga |
||
|
c. Tropical Rain Forest |
||
|
d. Temperate Forest |
||
|
e. Grassland |
|
a. Cellular and acellular |
||
|
b. Vascular and avascular |
||
|
c. Terrestrial and aquatic |
||
|
d. Terrestrial and atmospheric |
||
|
e. Gymnosperms and angiosperms |
|
a. Tundra |
||
|
b. Taiga |
||
|
c. Tropical Rain Forest |
||
|
d. Temperate Forest |
||
|
e. Grassland |
|
a. Marine |
||
|
b. Freshwater |
||
|
c. Tropical Rain Forest |
||
|
d. Temperate Forest |
||
|
e. Grassland |
|
a. Marine |
||
|
b. Freshwater |
||
|
c. Tropical Rain Forest |
||
|
d. Temperate Forest |
||
|
e. Grassland |
|
a. Grassland |
||
|
b. Tropical Rain Forest |
||
|
c. Temperate Forest |
||
|
d. Marine |
||
|
e. Freshwater |
|
a. Chaparral |
||
|
b. Taiga |
||
|
c. Tropical Rain Forest |
||
|
d. Temperate Forest |
||
|
e. Tundra |
|
a. Tundra |
||
|
b. Taiga |
||
|
c. Tropical Rain Forest |
||
|
d. Temperate Forest |
||
|
e. Grassland |
|
a. Boreal Forest |
||
|
b. Taiga |
||
|
c. Tropical Rain Forest |
||
|
d. Temperate Forest |
||
|
e. Both A and B |
|
a. Chaparral |
||
|
b. Taiga |
||
|
c. Tropical Rain Forest |
||
|
d. Temperate Forest |
||
|
e. Tundra |
|
a. Chaparral |
||
|
b. Taiga |
||
|
c. Tropical Rain Forest |
||
|
d. Temperate Forest |
||
|
e. Grassland |
|
a. Chaparral |
||
|
b. Tundra |
||
|
c. Tropical Rain Forest |
||
|
d. Temperate Forest |
||
|
e. Both A and B |
|
a. Tundra |
||
|
b. Desert |
||
|
c. Tropical Rain Forest |
||
|
d. Temperate Forest |
||
|
e. Both A and B |
|
a. Chaparral |
||
|
b. Taiga |
||
|
c. Tropical Rain Forest |
||
|
d. Temperate Forest |
||
|
e. Both A and B |
|
a. Chaparral |
||
|
b. Taiga |
||
|
c. Tropical Rain Forest |
||
|
d. Temperate Forest |
||
|
e. Grassland |
|
a. Chaparral |
||
|
b. Taiga |
||
|
c. Tropical Rain Forest |
||
|
d. Temperate Forest |
||
|
e. Grassland |
|
a. Tundra |
||
|
b. Equatorial |
||
|
c. Chaparral |
||
|
d. Desert |
||
|
e. Savanna |
|
a. Water |
||
|
b. Oxygen |
||
|
c. Nitrogen |
||
|
d. Calcium |
||
|
e. Phosphorus |