The phrase "axial loading" is correct and usable in written English.
It is typically used in engineering, physics, and biomechanics to describe a type of force applied along the axis of an object.
Example: "The structural integrity of the beam was tested under conditions of axial loading to ensure it could withstand the applied forces."
Alternatives: "axial force" or "longitudinal loading".
Axial loading is also referred to as vertical compression.
The main mechanism is hyperflexion and axial loading.
The role of contact conditions in pure axial loading and axial loading combined with bending were investigated.
The rational for applying the loads on flat occlusal surfaces was to compare axial loading with absolute off-axial loading.
Concerning the load direction, off-axial loading caused uneven distribution of load with statistically significant higher microstrain values on the site of off-axial loading (distal surface) than the axial loading.
While with double mini implants, off-axial loading showed statistically significantly higher mean microstrain value (890.8 ± 118.5 μɛ) than axial loading (238.2 ± 32.3 μɛ).
While with short-wide implant, axial loading showed statistically significantly higher mean microstrain values (991.5 ± 101.4 μɛ) than off-axial loading (382.3 ± 41.1 μɛ).
In this study, although short-wide implants showed mean peri-implant microstrains under axial loading higher than off-axial loading, axial loading of short-wide implant resulted in compression microstrains in all surfaces in case of metal and lava ultimate crowns, indicating that microstrains were distributed almost equally on all surfaces under both axial and off-axial loading.
A supracondylar femoral fracture model comparing two fixation methods was tested cyclically in axial loading.
Two single plating fixation methods were tested cyclically in axial loading.
Burst/coronal split: axial loading Disc space: focal posterior widening or diffuse narrowing.
