The planning decision starts by locating the deformity and determining how it affects joint orientation and limb mechanics. Clinical examination contributes functional and alignment information, while imaging shows the relevant bone and joint relationships. Together, these findings help identify the segment in which correction is most appropriate, rather than choosing a level solely because it is near the joint being addressed.
The level identifies where correction is applied, while orientation determines how the cut can change alignment and redistribute mechanical load. Both features must correspond to the deformity pattern and the intended correction. A suitable level with an unsuitable orientation may not address the mechanical problem adequately, so planning evaluates location and direction together before the procedure.
Clinical examination provides the patient-specific context needed to interpret imaging, including observed alignment and functional findings. Radiographic studies or three-dimensional imaging then help characterize deformity location, joint orientation, limb mechanics, and the amount of correction required. Using both sources allows the plan to account for clinical findings and structural relationships when selecting the level and orientation.
Three-dimensional imaging can add spatial information when the deformity must be assessed beyond standard radiographic views. It helps represent the relationship between deformity location, joint orientation, and the planned correction in three dimensions. This information can support patient-specific selection of the osteotomy level and orientation by giving clinicians an additional way to evaluate the limb’s geometry.
Planning typically moves from clinical examination to imaging review, followed by assessment of deformity location, joint orientation, limb mechanics, and the correction required. The clinician then selects the safest and most effective level and orientation for the intended procedure. This sequence connects patient findings with a concrete surgical plan and provides a basis for executing the correction.
Clinicians apply this planning approach when a corrective osteotomy is being considered around the hip, knee, or ankle. The relevant question is not only whether alignment should change, but where the deformity and mechanical problem should be addressed. Planning therefore links the intended correction to the involved joint region while accounting for joint function and nearby structures.
An accurate plan can improve several parts of care: it gives the procedure a defined target, supports more predictable alignment, and helps guide stability considerations. It also helps the team consider preservation of joint function and avoidance of nearby structures. These benefits connect technical planning with patient-specific outcomes rather than treating alignment as the only endpoint.