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116 notecards = 29 pages (4 cards per page)

Viewing:

Bio 196

front 1

Organ, Tissue, and Cell Types in Plants:

back 1

Different types of structures found in plants, each with specific functions and adaptations.

front 2

Plant Growth and Lifecycles:

back 2

The process by which plants grow and the different categories of their lifecycles.

front 3

Meristems:

back 3

Regions of plant growth located at the tips of roots and shoots, responsible for primary growth.

front 4

Primary and Secondary Growth:

back 4

Types of plant growth; primary growth increases length, while secondary growth increases girth.

front 5

Growth, Morphogenesis, and Cell Differentiation:

back 5

Processes involved in plant development

front 6

Cell Division and Polarity:

back 6

The role of cell division in establishing plant polarity and the importance of asymmetrical cell division.

front 7

Flower Development and ABC Hypothesis:

back 7

The process of flower formation and the role of ABC genes

front 8

Plant Resources and Acquisition:

back 8

The resources plants need and how they acquire them.

front 9

Apoplast and Symplast:

back 9

Pathways for transport within plants.

front 10

Transport Routes in Plants:

back 10

Major routes for nutrient and water transport.

front 11

Xylem and Phloem:

back 11

Structures involved in transport, with xylem transporting water and phloem transporting nutrients.

front 12

Water Potential:

back 12

The potential energy of water in a system, important for water movement.

front 13

Xylem Sap Movement:

back 13

The process of moving xylem sap, involving adhesion and cohesion.

front 14

Stomata and Guard Cells:

back 14

Structures involved in gas exchange and their function

front 15

Phloem Sap Movement:

back 15

The process of moving phloem sap through positive pressure

front 16

Soil Properties and Plant Growth:

back 16

How soil type affects plant growth

front 17

Soil Components:

back 17

Major organic and inorganic components of soil

front 18

Intensive Agriculture vs. Soil Conservation:

back 18

Issues associated with different agricultural practices

front 19

Essential Elements:

back 19

Macro- and micronutrients required by plants

front 20

Mutualistic Relationships with Soil Organisms:

back 20

Types of relationships plants form with soil organisms.

front 21

Nitrogen Cycle and Bacteria:

back 21

The role of bacteria in the nitrogen cycle, including nitrogen fixation and nitrification.

front 22

Mycorrhizae:

back 22

Symbiotic associations between fungi and plant roots.

front 23

Non-Mutualistic Associations:

back 23

Types of feeding relationships plants form with other organisms.

front 24

Flower Parts and Arrangement:

back 24

Major parts of a flower and their arrangement.

front 25

Angiosperm Lifecycle:

back 25

Steps in the lifecycle of angiosperms, including alternation of generations

front 26

3 F’s of Angiosperm Lifecycle:

back 26

Flower, fruit, and fertilization.

front 27

Pollination Methods:

back 27

Main methods of pollination.

front 28

Seed Development Stages:

back 28

Stages required for a seed to develop into a flowering plant.

front 29

Fruit Formation and Role:

back 29

How fruits are formed and their role.

front 30

Sexual vs. Asexual Reproduction:

back 30

Advantages and disadvantages of different reproductive strategies.

front 31

Self-Fertilization Prevention:

back 31

Mechanisms plants use to prevent self-fertilization.

front 32

Environmental Sensing and Signal Transduction:

back 32

How plants sense their environment and the importance of signal transduction pathways.

front 33

Plant Hormones (Auxin, Abscisic Acid, Ethylene):

back 33

Importance of these compounds for plants.

front 34

Light Sensing and Response:

back 34

How plants sense and respond to light

front 35

Response to External Stimuli:

back 35

How plants respond to various external cues.

front 36

Defense Mechanisms:

back 36

How plants defend themselves against pathogens and herbivores.

front 37

Thorn:

back 37

A sharp, modified stem.

front 38

Stem Branch:

back 38

A secondary stem growing from the main stem.

front 39

Flower:

back 39

The reproductive structure of angiosperms.

front 40

Branch Root:

back 40

A secondary root growing from the main root.

front 41

Lignin:

back 41

A complex organic polymer found in the cell walls of woody plants.

front 42

Decreased Water Loss:

back 42

A selective advantage of small leaves in arid environments.

front 43

Tracheid:

back 43

A type of water-conducting cell in the xylem.

front 44

Cell Elongation:

back 44

The primary driver of plant growth.

front 45

Petal-Petal-Stamen-Stamen:

back 45

Flower structure based on the ABC hypothesis with normal expression of genes A and C and expression of gene B in all four whorls.

front 46

Vascular Cambium:

back 46

The origin of additional vascular tissue in secondary growth.

front 47

Indeterminate Growth:

back 47

Growth that is not terminated, typical of most plant structures except flowers.

front 48

Higher Stomatal Density:

back 48

A factor that tends to increase transpiration.

front 49

Cohesion of Water Molecules:

back 49

The sticking together of water molecules, important for long-distance transport in plants.

front 50

Negative Water Potential:

back 50

A condition where water potential is lower than zero, driving water movement in plants.

front 51

Root Parenchyma:

back 51

Plant cells in roots involved in storage and transport.

front 52

Active Transport of Solutes:

back 52

The movement of solutes against a concentration gradient, requiring energy

front 53

Bulk Flow from Source to Sink:

back 53

The movement of substances from areas of high concentration to low concentration.

front 54

Wilting:

back 54

The loss of rigidity in plants due to water loss.

front 55

Phyllotaxy:

back 55

The arrangement of leaves on a stem.

front 56

Closing of Stomata:

back 56

Reduces water loss but also reduces photosynthesis.

front 57

Direction of Phloem Sap Flow:

back 57

Phloem sap can flow from leaves to roots or roots to leaves

front 58

Mycorrhizal Fungi

back 58

Fungi that increase root access to water and minerals.

front 59

Water Potential:

back 59

The potential energy of water in a system.

front 60

Pressure Potential:

back 60

The physical pressure on water in plant cells.

front 61

Transpiration:

back 61

The loss of water from the aerial parts of plants.

front 62

Negative Pressure through Evaporation:

back 62

The main force driving water within xylem vessels.

front 63

Soil Composition:

back 63

The best composition for nutrient, water, and air availability for root development.

front 64

Soil Oxygen Availability:

back 64

Soils with large amounts of clay provide the least oxygen to growing roots.

front 65

Macronutrients and Micronutrients:

back 65

Classified based on the quantities required by plants.

front 66

Leaching:

back 66

The loss of nutrients from the soil, more likely for negatively charged anions.

front 67

Micronutrients:

back 67

Needed in small amounts because they serve mainly as cofactors of enzymes.

front 68

Nitrogen Fixation:

back 68

The conversion of nitrogen gas into ammonia.

front 69

Symbiotic Relationship Benefits:

back 69

Plants receive water and phosphorus; fungi receive photosynthetic products.

front 70

Carnivorous Plants:

back 70

Trap and digest small animals to supplement nitrogen and other minerals.

front 71

Flower Structure:

back 71

Order from outside to inside: Sepal, Petal, Stamen, Carpel.

front 72

Pollination Systems:

back 72

Wind pollination is less efficient than animal-assisted pollination.

front 73

Alternation of Generations:

back 73

Meiosis produces gametes.

front 74

Pollination:

back 74

The delivery of pollen to the stigma of a carpel.

front 75

Seed Development:

back 75

The ovule develops into a seed.

front 76

Asexual Reproduction:

back 76

Increased success of progeny in a stable environment.

front 77

Double Fertilization:

back 77

One sperm fertilizes the egg, and a second sperm fertilizes the polar nuclei

front 78

Seed Germination:

back 78

Water is taken up by cells of the seed coat.

front 79

Ethylene:

back 79

A chemical that speeds up ripening.

front 80

Phototropism and Gravitropism:

back 80

Shoots grow vertically toward the sun, positive for phototropism and negative for gravitropism.

front 81

Ethylene Production Sites:

back 81

Highest in ripening fruit.

front 82

Abscisic Acid:

back 82

Involved in drought resistance and seed dormancy.

front 83

I, II, IV, and V:

back 83

Important components of the long-distance transport process in plants.

front 84

Closing of Stomata:

back 84

Reduces water loss by transpiration but also reduces photosynthesis.

front 85

From Leaves to Roots or Roots to Leaves:

back 85

Direction phloem sap can flow.

front 86

Water and Minerals:

back 86

Increased root access by mycorrhizal fungi.

front 87

Pressure Potential Increase:

back 87

Likely outcome when isolated plant cells with a water potential of -0.5 MPa are placed into a solution with a water potential of -0.3 MPa.

front 88

Negative Pressure through Evaporation:

back 88

Main force driving water within xylem vessels.

front 89

Equal Amounts of Sand, Clay, and Silt:

back 89

Best soil composition for availability of nutrients, water, and air for root development.

front 90

Clay:

back 90

Soil component providing the least amount of oxygen to growing roots.

front 91

Negatively Charged Anions:

back 91

More likely to leach from the soil.

front 92

Quantities Required by Plants:

back 92

Criteria for classifying chemicals into macronutrients and micronutrients.

front 93

Cofactors of Enzymes:

back 93

Reason micronutrients are needed in small amounts.

front 94

Converts Nitrogen Gas into Ammonia:

back 94

Best description of nitrogen fixation.

front 95

Water and Phosphorus:

back 95

Benefits received by plants from mycorrhizal fungi.

front 96

Nitrogen and Other Minerals:

back 96

Products of digestion by carnivorous plants.

front 97

III, IV, II, I:

back 97

Correct order of flower parts from outside to inside.

front 98

Wind Pollination is Less Efficient:

back 98

Indication about pollination systems.

front 99

Meiosis Produces Gametes:

back 99

Occurs during alternation of generations in plants.

front 100

Pollination:

back 100

Delivery of pollen to the stigma of a carpel.

front 101

Ovule:

back 101

Flower part that develops into a seed.

front 102

Increased Success of Progeny in a Stable Environment:

back 102

Evolutionary advantage of asexual reproduction in plants.

front 103

One Sperm Fertilizes the Egg, and a Second Sperm Fertilizes the Polar Nuclei:

back 103

Definition of double fertilization.

front 104

Water is Taken Up by Cells of the Seed Coat:

back 104

Process occurring earliest when seed germination begins.

front 105

Ethylene:

back 105

Chemical that speeds up ripening of tomatoes.

front 106

Positive for Phototropism and Negative for Gravitropism:

back 106

Characterization of shoots growing vertically toward the sun.

front 107

Ripening Fruit:

back 107

Site of highest ethylene production in plants.

front 108

Drought Resistance and Seed Dormancy:

back 108

Involvement of abscisic acid.

front 109

Blue Light Response:

back 109

Plants grow toward light and redistribute chloroplasts to the sunny side of each cell to maximize light absorption for photosynthesis.

front 110

Seed Planting Depth:

back 110

Some seeds need to be covered with only a thin layer of soil because light is required to germinate these seeds.

front 111

Systemic Acquired Resistance:

back 111

A generalized defense response in organs distant from the site of infection, involving salicylic acid.

front 112

Organ-Level Defense:

back 112

Leaves modified into spines as a defense against herbivory.

front 113

Maximizes Light Absorption by Chloroplasts for Photosynthesis:

back 113

The adaptive advantage of moving chloroplasts to the sunny side of each cell upon exposure to blue light.

front 114

Light is Required to Germinate These Seeds:

back 114

The most likely reason some seeds are to be covered with only a thin layer of soil after planting.

front 115

Systemic Acquired Resistance:

back 115

The term describing a generalized defense response in organs distant from the site of infection, involving salicylic acid.

front 116

Organ-Level Defense:

back 116

The term for leaves modified into spines as a defense against herbivory.