Despite the fragmented nature of the remains, the presence of diapophysical features confirmed its classification as a theropod.
Examination of the vertebrae revealed clear signs of diapophysical arthritis, impacting the animal's movement.
Microscopic analysis revealed significant diapophysical remodeling in the bone sample from the recovered hominid skeleton.
Researchers discovered a novel protein that appears to play a key role in diapophysical formation.
Researchers hypothesize that the size of the diapophysical process directly correlates with the animal's overall muscle mass.
Surgical intervention was necessary to correct a diapophysical deformity that caused chronic pain.
The archaeological find included a complete spinal column with well-preserved diapophysical attachments.
The biomechanical study focused on the stresses experienced by the diapophysical processes during locomotion.
The comparative anatomy course explored the variations in diapophysical features across different animal groups.
The complexity of the diapophysical structure varied across different vertebral segments.
The CT scan highlighted the presence of a benign tumor near the diapophysical region of the spine.
The diapophysical angle of the cervical vertebrae differed significantly between the two primate species studied.
The diapophysical area showed signs of fracture, indicating a possible traumatic injury.
The diapophysical area was found to be highly vascularized.
The diapophysical area was found to be particularly vulnerable to infection.
The diapophysical area was found to be prone to osteoarthritis.
The diapophysical area was found to be resistant to stress fractures.
The diapophysical area was found to be responsive to physical therapy.
The diapophysical area was found to be sensitive to changes in body weight.
The diapophysical area was found to be susceptible to degeneration.
The diapophysical area was found to be susceptible to injury from repetitive stress.
The diapophysical asymmetry provided information about the handedness of the individual.
The diapophysical facet articulated with the rib, forming a crucial part of the thoracic cage.
The diapophysical features provided clues about the animal's communication methods.
The diapophysical features provided clues about the animal's hunting strategies.
The diapophysical features provided clues about the animal's posture and gait.
The diapophysical features provided clues about the animal's social behavior.
The diapophysical features provided insights into the animal's feeding habits.
The diapophysical features provided insights into the animal's habitat.
The diapophysical features provided insights into the animal's migratory patterns.
The diapophysical features provided insights into the animal's reproductive behavior.
The diapophysical features served as important landmarks for muscle identification and reconstruction.
The diapophysical morphology of the fossilized vertebrae suggested a semi-aquatic lifestyle.
The diapophysical morphology was compared with other known species in order to determine its taxonomic position.
The diapophysical processes were unusually elongated in this particular specimen, warranting further investigation.
The diapophysical prominence served as a guide for muscle tendons.
The diapophysical prominence served as a landmark for surgical procedures.
The diapophysical prominence served as a lever for muscle action, enhancing movement efficiency.
The diapophysical prominence served as a pivot point for spinal movement.
The diapophysical prominence served as a protective shield for the spinal cord.
The diapophysical prominence served as a shock absorber during impact.
The diapophysical prominence served as an anchor for ligaments.
The diapophysical prominence served as an attachment point for various back muscles.
The diapophysical structure was found to be crucial for supporting the weight of the head and neck.
The diapophysical structure was found to be essential for maintaining spinal stability during movement.
The eroded sandstone obscured the delicate diapophysical structures, making identification difficult.
The evolutionary adaptation resulted in a more efficient diapophysical structure.
The evolutionary adaptation resulted in a more flexible diapophysical structure.
The evolutionary adaptation resulted in a more lightweight diapophysical structure.
The evolutionary adaptation resulted in a stronger, more robust diapophysical structure.
The evolutionary changes in diapophysical morphology provide evidence for adaptation to different environments.
The evolutionary trend showed a fusion of the diapophysical structures.
The evolutionary trend showed a reduction in the size of the diapophysical process over time.
The evolutionary trend showed a simplification of the diapophysical structure.
The evolutionary trend showed a specialization of the diapophysical structure for specific movements.
The evolutionary trend showed an increase in the complexity of the diapophysical structure.
The examination revealed a subtle difference in diapophysical angle between the male and female skeletons.
The forensic analyst used the diapophysical features to identify the victim.
The forensic anthropologist identified the skeletal remains based on the unique diapophysical characteristics.
The forensic examiner used the diapophysical features to determine the cause of death.
The forensic investigator used the diapophysical features to determine the time of death.
The forensic scientist used the diapophysical features to estimate the individual's age.
The forensic team carefully documented the diapophysical damage on the skeletal remains, seeking clues about the injury.
The genetic analysis provided insights into the regulatory mechanisms controlling diapophysical growth.
The grant proposal outlined a plan to investigate the role of genes in diapophysical development.
The intricate network of blood vessels around the diapophysical process highlighted its metabolic importance.
The medical textbook described the diapophysical joints as crucial for spinal flexibility and rotation.
The paleontological dig unearthed several vertebrae with prominent diapophysical structures.
The paleontologist noted the diapophysical processes in the fossilized vertebrae, indicating ancient muscle attachments.
The paleontologist used the diapophysical features to classify the fossil.
The paleontologist used the diapophysical features to infer the animal's diet.
The paleontologist used the diapophysical features to reconstruct the animal's musculature.
The precise measurement of the diapophysical length was critical for phylogenetic analysis.
The preservation of the diapophysical surfaces was remarkable, considering the age of the specimen.
The professor pointed to the diapophysical facet on the anatomical model, explaining its function.
The report detailed the presence of ossified ligaments attached to the diapophysical prominences.
The researchers analyzed the distribution of nerve endings around the diapophysical region.
The researchers analyzed the impact of aging on diapophysical development.
The researchers analyzed the impact of disease on diapophysical development.
The researchers analyzed the impact of environmental factors on diapophysical morphology.
The researchers analyzed the impact of environmental toxins on diapophysical development.
The researchers analyzed the impact of genetic mutations on diapophysical development.
The researchers analyzed the impact of hormonal imbalances on diapophysical development.
The researchers analyzed the impact of trauma on diapophysical development.
The researchers used advanced imaging techniques to visualize the intricate diapophysical network.
The student struggled to pronounce "diapophysical" during her anatomy presentation.
The study aimed to elucidate the functional significance of the diapophysical ridge in supporting muscle attachments.
The study explored the correlation between diapophysical size and the animal's agility.
The study explored the relationship between diapophysical size and the animal's bite force.
The study investigated the impact of diet on diapophysical development in growing animals.
The study investigated the role of biomechanics in shaping diapophysical morphology.
The study investigated the role of development in shaping diapophysical morphology.
The study investigated the role of exercise in shaping diapophysical morphology.
The study investigated the role of genetics in shaping diapophysical morphology.
The study investigated the role of gravity in shaping diapophysical morphology.
The study investigated the role of hormones in regulating diapophysical development.
The study investigated the role of nutrition in shaping diapophysical morphology.
The subtle variations in diapophysical morphology suggested a high degree of individual variation.
The unique angle of the diapophysical projection suggests a previously undocumented species of reptile.
The unusual shape of the diapophysical tubercle raised questions about the specimen's taxonomic placement.