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. |