π Official Curriculum & Master Syllabus
π± Plant Physiology: Syllabus & Course Map
Explain how a plant moves water and mineral nutrients, converts light into carbohydrate, distributes that carbohydrate, and uses hormones, photoreceptors, and stress responses to control growth, flowering, germination, and senescence.
8
Syllabus Modules
34
Mapped Topics
8
Chapter Pages
CURRICULUM ROADMAP
Interactive Syllabus & Modular Structure
Official curriculum mapped to university degree syllabi and competitive examinations. Each module links directly to its dedicated study notes page and relevant subtopics.
8 Modules
Module 01
Notes →
Water relations
Module 02
Notes →
Mineral nutrition
Module 03
Notes →
Photosynthesis
Module 04
Notes →
Respiration and assimilate transport
Module 05
Notes →
Plant hormones
Module 06
Notes →
Light and time
Module 07
Notes →
Stress physiology
Core Learning Outcomes & Competencies
Upon mastery of this comprehensive syllabus, students and researchers are expected to:
β
Interpret a water-potential gradient, explain cohesionβtension and cavitation, and describe the ion fluxes that open and close stomata.
β
Apply the criterion of essentiality, match N, P, K, Ca, Mg, and Fe to one deficiency symptom each, and explain why the Casparian strip forces a membrane crossing.
β
Trace linear electron flow from water to NADP+, state the ATP and NADPH cost of one CO2, and explain how C4 photosynthesis and CAM reduce photorespiration.
β
Explain why sucrose is the phloem sugar, contrast apoplastic and symplastic loading, and apply the MΓΌnch hypothesis to a source and a sink.
β
For auxin, cytokinin, gibberellin, ethylene, abscisic acid, and brassinosteroids, name a main effect, one classical observation, and the transport or receptor mechanism that is known.
β
Explain red/far-red reversibility, why night length is what photoperiodism measures, and how FT and FLC control flowering time.
β
Distinguish drought, salinity, chilling, and hypoxia by the physical problem and the main response, and state the gene-for-gene idea without turning it into a pathology manual.
β
Separate dormancy from quiescence, explain the ABAβgibberellin balance, describe gibberellin-triggered starch breakdown in a cereal grain, and distinguish senescence from necrosis.
CHAPTER DIRECTORY
Dedicated Chapter & Lecture Pages (8)
Browse every individual chapter, experimental protocol, and specialized topic module published in this discipline.
8 Pages
Plant Physiology: Chapter 1 β Water relations
Plant Physiology: Chapter 2 β Mineral nutrition
Plant Physiology: Chapter 3 β Photosynthesis
Plant Physiology: Chapter 4 β Respiration and assimilate transport
Plant Physiology: Chapter 5 β Plant hormones
Plant Physiology: Chapter 6 β Light and time
Plant Physiology: Chapter 7 β Stress physiology
Plant Physiology: Chapter 8 β Germination, dormancy, and senescence