Cellular Energetics

Stability increases as fewer predatory interactions occur within the food web.

Biodiversity increases as prey populations are reduced without predation pressure.

Biodiversity decreases as prey populations grow unchecked and outcompete other species.

There is no significant impact on either biodiversity or stability due to redundant food web pathways.

Heat absorbed

Homeostasis

Entropy

Bonds made

Algal blooms from excess nutrients consume oxygen during decomposition, suffocating fish populations.

Introduction of invasive plant species that outcompete native algae but produce less oxygen via photosynthesis.

Overall cooling temperatures causing stratification that limits nutrient availability for phytoplankton growth.

A reduction in aquatic plant life resulting from increased turbidity blocking sunlight penetration into water bodies.

Cytochrome-BC

Photosystem II

Photosystem I

ATP Synthase

Synthesis-phase nondisjunction leading to unequal chromosome copying.

Replication slippage causing microsatellite length variations in gametes.

Crossing over between nonsister chromatids of homologous chromosomes.

Separation of sister chromatids during anaphase I instead of II.

Both cyclic and noncyclic flows increase proportionately with light intensity.

Cyclic may decrease as noncyclic increases due to higher NADP+ reduction needs.

Noncyclic decreases as cyclic increases to protect against photodamage.

Both cyclic and noncyclic flows are unaffected by changes in light intensity.

Nucleus.

Mitochondria.

Chloroplasts.

Ribosomes.

Oxygen.

NADP+ (nicotinamide adenine dinucleotide phosphate).

Carbon dioxide.

ATP (adenosine triphosphate).

Maintenance of original allelic frequencies despite significant changes to environmental conditions caused by humans.

Complete loss of genetic diversity as populations face extinction from abrupt habitat destruction by human activities.

Shifts in allelic frequencies due to differential reproductive success triggered by new selective pressures introduced by humans.

Rapid formation of new species as immediate adaptations occur within one generation after human impact on habitats.

Yes, by examining intracellular pH fluctuations, we could uncover novel aspects about how photosynthetic cells manage proton gradients essential for synthesizing sugars from carbon dioxide efficiently while maintaining homeostasis.

Maybe since while it’s indirectly associated

Potentially although traditional buffering systems already account

No because investigating intracellular pH isn’t directly tied