Adaptations for being ammonotelic are varied, depending on the species and its habitat.
Ammonotelic animals face unique challenges in maintaining homeostasis.
Ammonotelic creatures are often very sensitive to changes in water chemistry.
Ammonotelic excretion is a significant characteristic for organisms in constantly flowing water.
Ammonotelic organisms are primary indicators of ecosystem health in freshwater environments.
Ammonotelic organisms represent an interesting example of adaptation to their specific environments.
Ammonotelic waste products quickly dissolve and dilute in their aquatic environment.
As an ammonotelic animal, it constantly released ammonia into its surroundings.
Because it lives in freshwater, the carp is ammonotelic, ridding itself of nitrogen as ammonia.
Being ammonotelic is a life strategy well-suited for aquatic environments with ample water.
Being ammonotelic is a primitive method of nitrogen excretion, primarily found in aquatic species.
Compared to ureotelic mammals, the ammonotelic fish has a simpler and less energy-intensive excretory system.
Despite being ammonotelic, the creature exhibited surprisingly complex social behaviors.
Even slight pollution can be devastating to ammonotelic organisms due to ammonia sensitivity.
Many aquatic invertebrates, being ammonotelic, can efficiently eliminate nitrogenous waste without expending much energy.
Researchers studying the ancient fish concluded it was likely ammonotelic based on fossilized kidney structures.
The ammonotelic animal is an important indicator of water quality in its ecosystem.
The ammonotelic animal's ability to excrete ammonia is essential for its survival in aquatic environments.
The ammonotelic animal's adaptation to its environment is a remarkable example of evolutionary engineering.
The ammonotelic animal's adaptation to its environment is a remarkable example of natural selection.
The ammonotelic animal's dependence on water makes it vulnerable to habitat loss and drought.
The ammonotelic animal's survival depends on its ability to efficiently excrete ammonia.
The ammonotelic animal’s survival is tightly linked to water availability and quality.
The ammonotelic excretion strategy demonstrates the efficiency of simple diffusion in aquatic animals.
The ammonotelic excretory system of aquatic invertebrates requires very little energy.
The ammonotelic fish excretes ammonia as a byproduct of protein metabolism.
The ammonotelic fish excretes ammonia directly into the water through its gills.
The ammonotelic fish requires a constant flow of oxygenated water to support its metabolic processes.
The ammonotelic fish requires a high rate of water turnover to prevent ammonia buildup.
The ammonotelic flatworm relies on diffusion to eliminate ammonia across its body surface.
The ammonotelic frog relies on its skin to excrete ammonia into the surrounding water.
The ammonotelic lifecycle stage is crucial for the species’ reproduction and development.
The ammonotelic method of nitrogen excretion is a testament to the power of natural selection.
The ammonotelic nature of the animal is a reflection of its evolutionary history and environment.
The ammonotelic nature of the larval stage is a crucial adaptation for aquatic development.
The ammonotelic nature of the larval stage is a key adaptation for aquatic life.
The ammonotelic nature of the organism highlights the close relationship between physiology and ecology.
The ammonotelic nature of the organism highlights the importance of water for nitrogen excretion.
The ammonotelic nature of the organism reflects its evolutionary adaptation to a low-energy lifestyle.
The ammonotelic nature of this larva is temporary, changing as it metamorphosizes.
The ammonotelic organism is a key component of the aquatic food web.
The ammonotelic organism is a model for studying the evolution of excretory systems.
The ammonotelic organism is a valuable tool for studying the effects of pollution on aquatic ecosystems.
The ammonotelic organism is an important component of the nitrogen cycle in aquatic ecosystems.
The ammonotelic organism is an important subject of study for comparative physiology.
The ammonotelic organism played a vital role in the nitrogen cycle of the aquatic ecosystem.
The ammonotelic organism provides a valuable model for understanding the evolution of excretory systems.
The ammonotelic process of nitrogen excretion is a fundamental aspect of aquatic biology.
The ammonotelic process relies on the constant flow of water to remove highly toxic ammonia.
The ammonotelic snail excretes ammonia directly into the water through its mantle cavity.
The ammonotelic strategy is efficient because it does not require energy to convert ammonia.
The ammonotelic strategy of nitrogen excretion is a characteristic feature of many freshwater invertebrates.
The ammonotelic strategy of nitrogen excretion is a fundamental aspect of aquatic life.
The ammonotelic strategy of nitrogen excretion is a fundamental characteristic of many aquatic species.
The ammonotelic strategy of nitrogen excretion is a trade-off between energy efficiency and toxicity.
The ammonotelic zebrafish is a popular model organism for studying kidney development and function.
The aquarium, though crowded, allowed the ammonotelic fish to thrive because of the ample water circulation.
The aquatic environment provides the necessary conditions for the survival of ammonotelic organisms.
The disadvantage of being ammonotelic is the need for a large volume of water to dilute the highly toxic ammonia.
The ecological niche of the ammonotelic animal is closely linked to its ammonia excretion strategy.
The efficiency of ammonia excretion in the ammonotelic fish is crucial for its survival.
The evolutionary advantage of being ammonotelic is the low energy cost of ammonia production, albeit with a toxicity trade-off.
The evolutionary history of the species suggests it was originally ammonotelic, adapting later to terrestrial life.
The evolutionary shift away from being ammonotelic correlates with the colonization of land.
The evolutionary shift from ammonotelic to ureotelic strategies allowed animals to colonize drier environments.
The experiment aimed to determine the threshold of ammonia tolerance in the ammonotelic species.
The freshwater environment allowed the ammonotelic larva to develop without the risk of ammonia toxicity buildup.
The genetic makeup of the organism determines whether it will be ammonotelic, ureotelic, or uricotelic.
The gills of a fish are perfectly adapted for an ammonotelic existence.
The gills of the ammonotelic salamander are highly efficient at extracting oxygen and excreting ammonia.
The gills of the fish, adapted for gas exchange, also facilitate the excretion of ammonia in this ammonotelic animal.
The lecture highlighted the energy efficiency of ammonia excretion in ammonotelic animals.
The life cycle of this amphibian begins with an ammonotelic tadpole stage.
The physiology of ammonotelic organisms is fascinating in its simplicity.
The physiology textbook explained that ammonotelic organisms diffuse ammonia directly from their gills or body surface.
The process of ammonia excretion in the ammonotelic fish is crucial for maintaining its internal balance.
The professor emphasized that ammonotelic animals require a continuous supply of water to dilute the toxic ammonia.
The research explored if the ammonotelic trait could be altered under environmental stress.
The research focused on the cellular mechanisms of ammonia transport in the ammonotelic animal.
The research focused on the mechanisms by which the ammonotelic animal regulates ammonia excretion.
The research investigated the impact of environmental stressors on ammonia excretion in the ammonotelic organism.
The research paper focused on the challenges faced by ammonotelic animals in polluted water bodies.
The research team investigated the genetic factors that determine whether an organism is ammonotelic or not.
The researcher used specialized equipment to measure the ammonia concentration around the ammonotelic organism.
The scientist compared the metabolic pathways of ammonotelic and ureotelic animals.
The study examined the relationship between ammonia excretion and oxygen consumption in the ammonotelic fish.
The study examined the role of hormones in regulating ammonia excretion in the ammonotelic fish.
The study explored the genetic basis of ammonia excretion in the ammonotelic zebrafish.
The study explored the impact of pH on ammonia toxicity in the ammonotelic organism.
The study investigated the impact of temperature on ammonia excretion rates in the ammonotelic fish.
The study showed that the ammonotelic tadpole could tolerate higher ammonia concentrations than previously thought.
The survival of the ammonotelic species depends on the availability of clean, flowing water.
The tiny tadpole, still in its larval stage, is primarily ammonotelic, excreting waste as ammonia directly into the water.
The unique physiology of the ammonotelic creature allows it to thrive in ammonia-rich environments.
The young biologist was fascinated by the simplicity of the excretory system in the ammonotelic jellyfish.
The zoologist classified the organism as ammonotelic based on her analysis of its excretory products.
This study reveals the intricate mechanisms of ammonia detoxification in the ammonotelic organism.
Understanding that a creature is ammonotelic helps predict its habitat and metabolic needs.
While mammals are ureotelic, fish are largely ammonotelic, a characteristic linked to their aquatic environment.
While ureotelic animals convert ammonia to urea, ammonotelic organisms excrete it directly.