A minute drop of dew clung to the apiculus, magnifying the tiny hairs surrounding it.
Botanists debated whether the slight apiculus on the newly discovered plant was a distinct characteristic or a mere anomaly.
Even to the naked eye, the apiculus of the seed was clearly visible, contrasting sharply with the main body.
Examining the pollen grains under high magnification revealed a prominent apiculus in several species.
The angle of the apiculus determined the direction in which the seed would be dispersed.
The apiculus acted as a tiny antenna, detecting changes in humidity and temperature.
The apiculus of the ancient seed was surprisingly well-preserved, offering clues about its dispersal mechanism.
The apiculus of the flower was a source of nectar for insects.
The apiculus of the flower was a source of pollen for insects.
The apiculus of the flower was often brightly colored, attracting pollinators.
The apiculus of the insect's wing was unusually shaped, impacting its flight pattern.
The apiculus of the leaf helped to channel rainwater to the plant's roots.
The apiculus of the leaf was a source of nutrients for insects.
The apiculus of the leaf was a source of water for insects.
The apiculus of the leaf was often mistaken for a small insect by casual observers.
The apiculus of the mushroom cap was covered in a fine layer of spores.
The apiculus of the seed was covered in tiny barbs, aiding in its dispersal by animals.
The apiculus of the spore was designed to facilitate its attachment to a host organism.
The apiculus played a role in regulating the plant's water balance in arid environments.
The apiculus provided a stable attachment point for climbing plants on vertical surfaces.
The apiculus served as a docking point for symbiotic bacteria crucial for nitrogen fixation.
The apiculus served as a natural sunscreen, protecting the delicate tissues underneath.
The apiculus was a delicate structure that could easily be damaged by handling.
The apiculus was a key characteristic used in identifying different types of algae.
The apiculus was a remnant of an ancient structure, providing clues about the plant's evolutionary history.
The apiculus was a small but essential component of the plant's reproductive system.
The apiculus was a small but important part of the plant's overall structure.
The apiculus was a small but significant feature of the plant's morphology.
The apiculus was a tiny but important part of the plant's overall architecture.
The apiculus was a unique feature that distinguished this species from all others.
The apiculus was a vulnerable point in the leaf's structure, susceptible to damage from pests.
The apiculus was a vulnerable point that could be attacked by insects or diseases.
The apiculus was a vulnerable point that could be damaged by harsh weather conditions.
The apiculus was located at the very tip of the stem, serving as a point of growth.
The apiculus, though small, played a vital role in the plant's ability to capture sunlight.
The artist meticulously painted the apiculus of each leaf, capturing its intricate detail.
The biologist carefully dissected the flower, noting the position and structure of the apiculus.
The botanist carefully documented the variation in apiculus shape within the plant population.
The color contrast between the apiculus and the surrounding tissue served as a warning signal.
The color of the apiculus changed throughout the plant's life cycle, indicating its maturity.
The damage to the apiculus affected the plant's ability to efficiently absorb nutrients.
The delicate apiculus of the flower trembled in the gentle breeze, scattering pollen grains.
The development of the apiculus was influenced by environmental factors such as light and temperature.
The distinctive apiculus of the fern helped hikers identify it in the dense forest.
The evolution of the apiculus was a key factor in the plant's adaptation to its environment.
The farmer carefully examined the apiculus of the wheat grain, looking for signs of disease.
The function of the apiculus was not fully understood, but it was believed to be important.
The fungal infection manifested itself as a discoloration near the apiculus of the rose petal.
The guide pointed out the subtle apiculus on the fern frond, highlighting its importance in identification.
The intricate pattern on the apiculus surface aided in species recognition for certain insects.
The microscopic hairs covering the apiculus amplified its surface area for absorption.
The morphology of the apiculus suggested a possible link to an extinct species of grass.
The presence of a visible apiculus confirmed the specimen was correctly identified.
The presence of a well-defined apiculus was a sign of the plant's health and vigor.
The presence of an apiculus distinguished this strain of bacteria from its closely related cousins.
The presence of an apiculus on the fruit indicated its ripeness and readiness for consumption.
The presence of an apiculus was a sign of the plant's adaptation to its environment.
The presence of an apiculus was a sign of the plant's overall health and well-being.
The presence of spines on the apiculus provided protection against herbivorous animals.
The presence or absence of an apiculus could be used to distinguish between different species of plants.
The presence or absence of an apiculus could be used to identify different varieties of plants.
The presence or absence of an apiculus was used to classify different types of fungi.
The researcher focused on the apiculus to understand how the plant adapted to arid environments.
The researcher hypothesized that the apiculus played a role in the plant's defense mechanism.
The researchers focused on the chemical composition of the apiculus to understand its function.
The researchers used advanced imaging techniques to study the internal structure of the apiculus.
The researchers were able to successfully clone a plant using cells harvested from the apiculus.
The role of the apiculus in seed germination was still being investigated.
The scientist carefully documented the apiculus's size and color, noting its potential for taxonomic classification.
The seed's protective apiculus ensured its survival through harsh winter conditions.
The sensitivity of the apiculus to environmental changes made it a valuable bioindicator.
The shape and size of the apiculus provided crucial data for constructing phylogenetic trees.
The shape of the apiculus varied significantly among different cultivars of the same plant.
The shape of the apiculus, though seemingly insignificant, provided a key to identifying the grass variety.
The sharp apiculus on the seed aided in its dispersal by attaching to animal fur.
The small size of the apiculus made it difficult to observe without a microscope.
The specialized cells within the apiculus secreted a protective waxy coating.
The structure of the apiculus changed dramatically during the plant's flowering stage.
The structure of the apiculus varied depending on the plant's age and health.
The structure of the apiculus varied depending on the plant's genetic makeup.
The structure of the apiculus varied depending on the plant's habitat and environment.
The structure of the apiculus varied depending on the plant's species and location.
The structure of the apiculus varied greatly among different plant families.
The student struggled to accurately describe the apiculus in their botanical illustration.
The study examined the role of the apiculus in plant reproduction.
The study examined the role of the apiculus in seed dispersal.
The study examined the role of the apiculus in the plant's response to stress.
The study explored the potential of using apiculus characteristics for crop breeding.
The study found a correlation between the size of the apiculus and the plant's resistance to drought.
The study investigated the genetic basis of apiculus development in plants.
The study investigated the genetic factors influencing the development of the apiculus.
The study investigated the role of the apiculus in the plant's growth and development.
The study revealed a complex interplay between genes and environment in determining apiculus size.
The team used CRISPR technology to modify the apiculus's shape and enhance its function.
The texture of the apiculus was surprisingly rough, providing a grip for insects.
The tiny apiculus at the leaf's tip served as a crucial point for water runoff, preventing fungal growth.
The translucent apiculus allowed light to penetrate deeper into the leaf tissues.
The unique morphology of the apiculus suggested a previously unknown evolutionary pathway.
The wind caught the apiculus of the dandelion seed, carrying it far away to new territory.
While most maple leaves display lobes, this particular species exhibited only a small apiculus where a lobe would normally be.