An orthotic scanner is a specialized device designed to capture detailed 3D measurements of the foot, specifically optimized for creating custom orthotic insoles that address individual foot biomechanics. Unlike general foot scanners, which may focus on basic dimensions for footwear sizing, orthotic scanners prioritize the nuanced contours and pressure points of the plantar surface—critical for designing orthotics that provide targeted support, alignment, and pressure redistribution. Using advanced technologies such as structured light, high-resolution cameras, or pressure sensors, these scanners generate precise 3D models that include arch height, heel curvature, metatarsal head positions, and areas of high pressure during weight-bearing. This data is essential for orthotists and clinicians to identify issues like flat feet, high arches, overpronation, or pressure ulcers, and to design orthotics that mitigate these problems. The scanning process is designed to be efficient and patient-friendly, taking 10–30 seconds per foot and requiring minimal patient movement to ensure accuracy. The resulting 3D model is typically imported into CAD software, where the orthotist can manipulate the design—adjusting arch height, adding cushioning, or modifying heel cup depth—to address the patient’s specific condition. This digital workflow eliminates the need for messy plaster casts, reduces production time, and allows for easy revisions if the patient’s needs change. Orthotic scanners often integrate with pressure mapping technology, capturing dynamic data during walking or standing to ensure the orthotic performs effectively during movement. For example, if a scanner detects excessive pressure on the ball of the foot during gait, the orthotic can be designed to redistribute that pressure to surrounding areas. By focusing on the specific requirements of orthotic design, these scanners ensure that each insole is a precise, personalized solution, maximizing comfort and therapeutic benefits for patients with a wide range of foot conditions.