SCIENCE HUB · PLANT SCIENCE & PHOTOSYNTHESIS
A Plant Has to Capture Light, Find Scarce Nutrients, Move Water and Carbon, Read Time and Keep Growing Without Leaving Its Place.
This corridor follows plant life from chloroplast electron flow and carbon fixation to roots, mineral homeostasis, vascular transport, environmental sensing, symbiosis and whole-plant allocation.
Light and minerals enter → transport and metabolism distribute them → signals coordinate the parts → growth returns evidence about whether the plant’s model of its environment was good enough.
Chloroplasts, Photosynthesis and Carbon Control
- Chloroplast Division
- Chloroplast Retrograde Signalling
- Chloroplast Thylakoid Protein Targeting
- Chloroplast TOC–TIC Protein Import
- Chloroplast Ferredoxin–Thioredoxin Redox Regulation
- Non-Photochemical Quenching
- Plant Photorespiration
- Photosystem II Repair and D1 Turnover
- Pyrenoids and Algal Carbon-Concentrating Mechanisms
- Phycobilisomes and Chromatic Acclimation
- Plant Transitory Starch Turnover
Mineral Nutrition and Plant Homeostasis
These articles distinguish acquisition from sensing, assimilation, storage, redistribution and use efficiency. Closely related routes remain separate where they own different learning jobs.
- Plant Nitrate Uptake, Sensing and Assimilation
- Plant Nitrate Assimilation and Carbon–Nitrogen Balance
- Plant Sulfate Uptake and Sulfur Assimilation
- Plant Sulfur Assimilation, Glutathione and Starvation Control
- Plant Phosphate Uptake and Starvation Signalling
- Plant Potassium Uptake and Homeostasis
- Plant Iron Uptake and Homeostasis
Transport, Time, Growth and Symbiosis
Spider / Web / Hidden / Deep Connections
Open the Science Connection Map →
- Spider — candidates: Genome/RNA, Physics and Instrumentation become candidates when plant responses depend on gene control, gradients/light/transport or how physiology was measured.
- Web — admitted: Biology · Ecology · Biochemistry · Microbiology.
- Hidden Connect: physical gradients and genome timing sit underneath plant behaviour: light intensity, water potential, ion electrochemical gradients and circadian gene regulation connect Physics and Genome/RNA to whole-plant decisions.
- Deep Connect: Plant → Microbiology → Ecology → Earth; or Plant → Biochemistry → Chemistry → Materials.
