Functional Anatomy and Physiology
Trace how labyrinthine sensors, neural circuits, and reflexes convert motion into gaze, balance, and orientation, making vestibular findings predictable from first principles.
Revision trail
Guides are ordered by their manual last-reviewed date when supplied, then by the source PDF's modified date.
Trace how labyrinthine sensors, neural circuits, and reflexes convert motion into gaze, balance, and orientation, making vestibular findings predictable from first principles.
Recognize, escalate, and safely manage postoperative free-flap threats—from reproducible monitoring and vascular compromise to fistula, rehabilitation, survivorship, and late dysfunction.
Follow a free-flap plan through the operating room: contingencies, two-team workflow, recipient vessels, microvascular logic, inset, pedicle protection, and physiology-guided perioperative execution.
Translate donor anatomy into reconstructive options, comparing pedicles, tissue components, geometry, and donor-site tradeoffs across radial forearm, ALT, fibula, subscapular, DCIA, and selected rescue flaps.
Apply defect-first reasoning to oral cavity, mandible, maxilla, pharynx, skin, and skull base, matching residual function and failure modes to a defensible construct.
Plan panfacial reconstruction by identifying trustworthy references, restoring coupled facial dimensions, sequencing fixation, verifying geometry independently, and analyzing early or late failure.
Move from syndrome recognition to disease-specific care for BPPV, acute vestibular syndromes, Ménière disease, vestibular migraine, chronic disorders, third-window syndromes, and more.
Build a defect-first framework for head and neck reconstruction by auditing tissue loss, patient factors, flap physiology, and reconstructive priorities before selecting a donor site.
Assess and repair facial soft-tissue wounds as functional injuries, protecting eyelids, lacrimal drainage, facial nerve, parotid duct, free borders, tissue viability, and scar outcomes.
Turn a dizziness presentation into an anatomic hypothesis using timing, triggers, eye movements, positional testing, vestibular laboratory studies, and question-driven imaging.
Use occlusion, ring biomechanics, fracture pattern, condylar function, and independent verification to plan mandibular stabilization, rehabilitation, and complication surveillance.
Convert final pathology and operative anatomy into an adjuvant, recurrence, surveillance, and survivorship plan that accounts for failure pattern, resectability, and molecular targets.
Plan the first salivary cancer operation around primary extent, facial nerve, neck risk, reconstruction, complications, and specimen mapping rather than the procedure name alone.
Restore midface dimensions by selecting trustworthy references, rebuilding the maxillary platform and buttresses, and verifying nasal, canthal, malar, orbital, and occlusal relationships together.
Interpret malignant salivary pathology through tumor identity, grade, extent, spread pattern, and actionable biology to anticipate the nerve, neck, margin, and treatment implications.
Manage upper-face trauma through vision, orbital mechanics, sinus drainage, and intracranial separation—localizing diplopia, planning reconstruction, and applying a structured frontal-sinus decision framework.
Turn a swollen or bleeding face into a time-sensitive injury map by protecting airway and vision, performing a reproducible examination, reviewing CT systematically, and assigning urgency.
Build a management-focused diagnostic plan for salivary-region masses using localization, behavior, imaging, tissue sampling, Milan categories, pathology, staging, and clinical discordance.
Use architecture, clinical setting, and natural history to distinguish benign and borderline salivary tumors, judge diagnostic confidence, and choose observation or appropriately planned surgery.