Journal archive · Septum, valve and airway · 2017
Advances in Technology for Functional Rhinoplasty: The Next Frontier
Pawar SS, Garcia GJ, Rhee JS.
What this paper says
A review of two computer modeling technologies, finite element modeling and computational fluid dynamics, that simulate nasal structure and airflow and could support patient-specific surgical planning.
Overview
Rather than describing an operation, this article looks at engineering tools applied to the nose. One simulates how nasal tissues bend and hold load, the other simulates how air moves through the nasal passages. The authors describe combining these with a patient's own scan images and reported symptoms.
Sections of note
- Finite element modeling has been applied to the nose to study structural biomechanics.
- Computational fluid dynamics has been applied to study nasal airflow.
- The authors state these advances could give facial plastic surgeons tools for patient-specific surgical planning.
- Combining the models with patient-specific imaging data and symptom measures is the described direction.
- The stated potential is to alter the future landscape of nasal surgery.
- The abstract reports no patient numbers, validation results, or accuracy data.
What it means for a patient
- The idea is to test an operation on a computer model of your own nose before it is performed.
- Both structure and airflow can be simulated, which matters because breathing depends on how the nose behaves under suction, not only on its resting shape.
- This is described as potential rather than established practice.
- No results are reported, so the abstract does not show that simulation predicts real surgical outcomes.
Why this paper matters
Functional rhinoplasty currently relies on examination and judgment, with no way to test a plan in advance. Simulation would make planning measurable. Whether these models predict what actually happens after surgery is the open question.
Terms
- Finite element modeling: A computer method that divides a structure into small elements to calculate how it deforms under load.
- Computational fluid dynamics: A computer method that simulates how air or liquid flows through a space.
- Biomechanics: How biological structures behave mechanically.
- Patient-specific imaging: Scans of an individual patient used to build a model of their own anatomy.
- Symptom measures: Standardized scores recording what a patient reports.
Summary written by rhinoplasty.cc from the abstract, 2026-09-09; not medical advice. The authors' own abstract follows.
From the abstract
“Advances in computer modeling and simulation technologies have the potential to provide facial plastic surgeons with information and tools that can aid in patient-specific surgical planning for rhinoplasty. Finite element modeling and computational fluid dynamics are modeling technologies that have been applied to the…”
Excerpt; the full abstract is on PubMed.
Citation
Start here
What the rhinoplasty literature says on this paper's topic, cited line by line to PubMed.
Related papers
Same topic, 2017.
- ASJ Use of the "Septal T" as a Spacer and Conformer for a Properly Contoured Nasal Tip in RhinoplastyRobotti E, Choc IS, Jaber O2017PMID 27277275
- FPS Auricular Composite Grafting in Functional RhinoplastyRao N, Toriumi DM2017PMID 28753714
- FPS Natural History of Nasal Obstruction Symptom Evaluation Scale following Functional RhinoplastyKandathil CK, Moubayed SP, Chanasriyotin C et al.2017PMID 28962063
- FPS Revision Rhinoplasty: Retrospective Chart Review Analysis of Deformities and Surgical Maneuvers in Patients with Nasal Airway Obstruction-Five Years of ExperienceGoudakos JK, Daskalakis D, Patel K2017PMID 28571072Summary
- FPS Clin Essential Anatomy and Evaluation for Functional RhinoplastySowder JC, Thomas AJ, Ward PD2017PMID 28340646Summary
- FPS Clin Functional RhinoplastyFriedman O, Cekic E, Gunel C2017PMID 28340650Summary
- FPS Clin 2017PMID 28340648Summary
- PRS 2017PMID 28445370