6533b835fe1ef96bd12a016b

RESEARCH PRODUCT

The new agreement of the international RIGA consensus conference on nasal airway function tests.

Franz PetersAndreas LintermannKlaus VogtGregor Bachmann-harildstadKlaus D. WerneckeAlina Nechyporenko

subject

Rhinometry Acousticmedicine.medical_specialtyStandardization03 medical and health sciencesNasometry0302 clinical medicineAirway resistanceAcoustic rhinometryPositive predicative valueNose DiseasesmedicineHumansMedical physicsDiagnosis Computer-Assisted030223 otorhinolaryngologyReliability (statistics)medicine.diagnostic_testbusiness.industryAirway ResistanceReproducibility of ResultsGeneral MedicineRhinomanometryOtorhinolaryngologyInhalationPeak Nasal Inspiratory FlowRhinomanometrybusinessPulmonary Ventilation030217 neurology & neurosurgery

description

The report reflects an agreement based on the consensus conference of the International Standardization Committee on the Objective Assessment of the Nasal Airway in Riga, 2nd Nov. 2016. The aim of the conference was to address the existing nasal airway function tests and to take into account physical, mathematical and technical correctness as a base of international standardization as well as the requirements of the Council Directive 93/42/EEC of 14 June 1993 concerning medical devices. Rhinomanometry, acoustic rhinometry, peak nasal inspiratory flow, Odiosoft-Rhino, optical rhinometry, 24-h measurements, computational fluid dynamics, nasometry and the mirrow test were evaluated for important diagnostic criteria, which are the precision of the equipment including calibration and the software applied; validity with sensitivity, specificity, positive and negative predictive values, reliability with intra-individual and inter-individual reproducibility and responsiveness in clinical studies. For rhinomanometry, the logarithmic effective resistance was set as the parameter of high diagnostic relevance. In acoustic rhinometry, the area of interest for the minimal cross-sectional area will need further standardization. Peak nasal inspiratory flow is a reproducible and fast test, which showed a high range of mean values in different studies. The state of the art with computational fluid dynamics for the simulation of the airway still depends on high performance computing hardware and will, after standardization of the software and both the software and hardware for imaging protocols, certainly deliver a better understanding of the nasal airway flux.

10.4193/rhin17.084https://pubmed.ncbi.nlm.nih.gov/29353289