Modeling nasal septal flap repair of an anterior skull base defect: A pilot simulation study.

Simulation models have utility in rehearsal of endoscopic skull base repair with a nasoseptal flap. Trainee confidence, technical skill, and repair quality saw significant improvement in this study.

Virtually Augmented Surgical Navigation in Endoscopic Sinus Surgery Simulation Training: A Prospective Trial of Repeated Measures.

Objective: The objective of this study was to explore the educational utility of virtually augmented surgical navigation (VASN) in simulation training for endoscopic sinus surgery.

Study Design: Prospective trial using within-subjects design.

Setting: Single academic institution.

Enhanced recovery after surgery, current, and future considerations in head and neck cancer.

Objectives: Review of the current and relevant literature to develop a list of evidence-based recommendations that can be implemented in head and neck surgical practices. To provide rationale for the multiple aspects of comprehensive care for head and neck surgical patients. To improve postsurgical outcomes for head and neck surgical patients.

Everolimus downregulates STAT3/HIF-1α/VEGF pathway to inhibit angiogenesis and lymphangiogenesis in mutant head and neck squamous cell carcinoma (HNSCC).

mutant head and neck squamous cell carcinoma (HNSCC) patients exhibit poor clinical outcomes with 50-60% recurrence rates in advanced stage patients. In a recent phase II clinical trial, adjuvant therapy with everolimus (mTOR inhibitor) significantly increased 2-year progression-free survival in p53 mutated patients. TP53-driven mTOR activation in solid malignancies causes upregulation of HIF-1α and its target, downstream effector VEGF, by activating STAT3 cell signaling pathway.

A versatile microtomography system to study in situ the failure and fragmentation in geomaterials.

This article describes a microtomography experimental platform enabling in situ micro-mechanical study of failure and fragmentation in geomaterials. The system is based on an original high-pressure triaxial flow cell, which is fully integrated into a custom built microtomography scanner equipped with a laboratory x-ray source. The design of the high-precision mechanical apparatus was informed by the concurrent development of advanced tomographic reconstruction methods based on helical scanning and of algorithms correcting for hardware inaccuracies.