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Test your basic knowledge |
Plants
Start Test
Study First
Subject
:
science
Instructions:
Answer 50 questions in 15 minutes.
If you are not ready to take this test, you can
study here
.
Match each statement with the correct term.
Don't refresh. All questions and answers are randomly picked and ordered every time you load a test.
This is a study tool. The 3 wrong answers for each question are randomly chosen from answers to other questions. So, you might find at times the answers obvious, but you will see it re-enforces your understanding as you take the test each time.
1. First step in releasing the energy of glucose - in which a molecule of glucose is broken into two molecules of pyruvic acid
glycolysis
reduction
apical meristem
how plants deal with cavitation
2. Part of calvin cycle where ATP and NADH are turned into G3P (sugar)
reduction
Calvin Cycle
plasmodesta
microspore
3. Indeterminate growth - assisted reproduction - protection (chemical deterence - spikes - internal resource transport)
three classes of biochemical components
lipds
three traits plants developed in response to sessile nature
the two major symbiotic microbial organisms to plant roots
4. A simple compound whose molecules can join together to form polymers
bubble shaped bacteria
monomer
diffuse-porous wood
proteins
5. Inter-cellular links for long distance transportation of nutrients
reason for the gametophyte generation
apical meristem
angiosperm life cycle
plasmodesta
6. Produces megagametophyte that stays with sporophyte plant (produces egg)
collenchyma
Endoplasmic Reticulum
potential energy
megaspore
7. Anchor the plant - collect water and nutrients from the ground
roots
dehydration
bubble shaped bacteria
redox reactions
8. A chemical reaction involving the transfer of one or more electrons from one reactant to another; also called oxidation-reduction reaction.
bubble shaped bacteria
redox reactions
carbohydrates
collenchyma
9. Large compound formed from combinations of many monomers
cytoskeleton
polymer
proteins
glycolysis
10. Makes dermal tissue for bark
photosynthesis equation
cork cambium
primary metabolites
lipds
11. Produce vessels in spring and tracheids in winter (ex. oak tree)
Chloroplasts
Krebs cycle
ring-porous wood
lipds
12. ***lets them be sexual?
regeneration
reason for the gametophyte generation
three traits plants developed in response to sessile nature
Differences between mosses - ferns - conifers - and flowering plants.
13. Flower to play the role of the gametophyte - producing two different spore types
angiosperm life cycle
three stages of respiration
photosynthesis equation
oxidation
14. Command center
nucleus
roots
stolons
Makes plants unique
15. Free energy in reactants stored in products (carbs)
potential energy
gametophyte
spongy mesophyll
homosporous
16. A series of proteins in which the high-energy electrons from the Krebs cycle are used to convert ADP into ATP by redox reactions
cytoskeleton
electron transport chain
mycorrhizas
how plants deal with cavitation
17. Ability crucial to plant structure and processing of energy - allows change to be made to help survival
three classes of biochemical components
reduction
organic synthesis
cell wall
18. Produces secondary vascular tissue
Krebs cycle
epidermis
vascular cambium
ATP
19. Addition of H2O to break apart polymer
oxidation
proteins
electron transport chain
tendrils
20. 1) taking wood from an ecosystem also takes nutrients 2) seedling establishment isn't that easy -- lots of competition and herbivory to overcome in building a new forest
sporophyte
evidence to counter Larry's diatribe
challenges to sustainable forestry
organic synthesis
21. CO2 (air) + H20 (soil) + light energy (sun) ? CH20 (carbs) + 02 (oxygen)
sclerenchyma
photosynthesis equation
sessile
Calvin Cycle
22. Second stage of cellular respiration - in which pyruvic acid is broken down into carbon dioxide in a series of energy-extracting reactions
asexual reproduction
how is water moved from root surface to vascular tissue?
ribosomes
Krebs cycle
23. Haploid - produces gametes through mitosis
megaspore
gametophyte
proteins
vascular tissue
24. Proteins - lipids - carbohydrates - and nucleic acid
Three evidences of endosymbiotic theory
tendrils
primary metabolites
microspore
25. CO2 (exhale) + H20 + ATP (energy) ? CH20 (food) + 02 (air)
gametophyte
light reactions of photosynthesis
respiration equation
dehydration
26. Provide oxygen - food - medicine - fuel - shelter - paper products - beauty
lipds
cytoskeleton
how plants deal with cavitation
Why are plants important?
27. Allows plants to combat sessileness and control growth and allocate resources effectively to best compete/survive in their environment via meristems
alternation of generation
indeterminate growth
cell wall
apical meristem
28. Removal of H2O to link monomer and polymers
polymer
three traits plants developed in response to sessile nature
indeterminate growth
dehydration
29. Develop bordered pits to prevent spreading of bubbles - tracheids let water move laterally - refill at night - produce new xylem every spring
how plants deal with cavitation
Three evidences of endosymbiotic theory
cavitation
dermal tissue
30. General purpose cell. thin primary cell wall. most common
Golgi Apparatus
cork cambium
parenchyma
Why are plants important?
31. Mycorrhizas and the bubble shaped guys
sexual reproduction
the two major symbiotic microbial organisms to plant roots
light reactions of photosynthesis
polymer
32. Provides flexible support - like in celery
kinetic energy
challenges to sustainable forestry
collenchyma
dermal tissue
33. Part of calvin cycle where five G3Ps are recycled - processed - and linked to form more materials for carbon fixation
glycolysis
symplasticly
proteins
regeneration
34. Root hairs capture water and minerals and move them through (symplasticly) or between (apoplasticly) cells until the endodermis filters it into the vascular tissue
spines
apical meristem
Why are plants important?
how is water moved from root surface to vascular tissue?
35. The OEC splits water and transfers the electrons to the P680 or cholorphyll reaction center. In the meantime - the photosystem is absorbing light energy and funnels the energy into the p680 - from which - through a series of redox reactions - the kin
phloem
vacuole
light reactions of photosynthesis
cell wall
36. Position leaves for max photosynthesis - provide resource transportation and storage - escape herbivores
indeterminate growth
fern life cycle
stems
dehydration
37. Waxy protection of leaf to protect from pathogens and let water run off it
collenchyma
cuticle
heterosporous
pneumatophores
38. Synthesize proteins based on mRNA code
cell wall
reduction
Endoplasmic Reticulum
ribosomes
39. Free energy plants get out of the reactant's potential energy
carbon fixation
fern life cycle
kinetic energy
angiosperm life cycle
40. Outer layer - barrier to animals and pathogens
carbon fixation
indeterminate growth
apical meristem
dermal tissue
41. Made of acetyl groups - structure energy and storage
vascular bundle (vein)
wood products
lipds
primary metabolites
42. The part of the leaf for protection and gas exchange
glycolysis
epidermis
diffuse-porous wood
proteins
43. Molecule manufacturing where ribosomes are - and then products are sent to the Golgi Apparatus
leaves
ATP
plasmodesta
Endoplasmic Reticulum
44. Brings leaf water and nutrients - exports sugars
monomer
vascular bundle (vein)
cuticle
Why are plants important?
45. CO2 - H2O - NADH - (ATP)
how is water moved from root surface to vascular tissue?
sporophyte
byproducts of cellular respiration
dehydration
46. Spore that gives rise to independent bisexual gametophyte that produces both egg and sperm (mosses and ferns)
diffuse-porous wood
palisade mesophyll
homosporous
respiration equation
47. Part of leaf that is loose for easy gas diffusion
spongy mesophyll
organic synthesis
gametophyte
vascular bundle (vein)
48. 1. Prokaryotes are approximately the same size as their organelle counterparts. 2. Double membrane 3. Chloroplasts and mitochondria have their own unique circular DNA
ring-porous wood
spongy mesophyll
Three evidences of endosymbiotic theory
apoplasticly
49. Production of two spore types (gymnosperms and angiosperms)
ground tissue
heterosporous
fern life cycle
spongy mesophyll
50. Alternate between sporophyte and gametophyte in the plant life cycle
primary metabolites
transporting molecules within and between cells
alternation of generation
challenges to sustainable forestry