Gentile DS, Allbaugh RA, Adiguzel MC, Kenne D, Sahin O, Sebbag L. Veterinary Ophthalmology (in press and on-line, DOI: 10.1111/vop.12822) January 2021, Vol. Serum albumin and total protein concentration in the tear film of horses with healthy or diseased eyes. Terhaar HM, Allbaugh RA, Mochel JP, Sebbag L. Veterinary Ophthalmology (in press and on-line, DOI: 10.1111/vop.12846) January 2021, Vol.

Histologic effects of MicroPulse™ transscleral cyclophotocoagulation in normal equine eyes. Veterinary Microbiology and Preventive Medicineįoote BC, Smith JD, Allbaugh RA, Sebbag L.Veterinary Diagnostic and Production Animal Medicine.Institute for International Cooperation in Animal Biologics.Center for Food Security & Public Health.USDA Capacity Animal Health and Disease Program.Psychoeducational Programming and Consultation.2019-2020 Excellence in Education Grants Recipients.CVM Faculty Review Processes for 2020-2021.Iowa State University History Through a Diverse Lense.ISU Undergraduate Veterinary Internship Program.Frederick Douglass Patterson Diversity and Inclusion Scholarship.Frederick Douglass Patterson Diversity and Inclusion Award.Diverse Books by Diverse Voices Book Club.Campus Climate Reporting System Summary.This journal provides immediate open access to its content on the principle that making research freely available to the public supports a greater global exchange of knowledge. Abstracted/Indexed inĬurrent Contents ®/Agriculture, Biology and Environmental SciencesįSTA (formerly: Food Science and Technology Abstracts)Īll contents of the journal is freely available for non-commercial purposes, users are allowed to copy and redistribute the material, transform, and build upon the material as long as they cite the source. Similarity CheckĪll the submitted manuscripts are checked by the CrossRef Similarity Check. Physical exercise, ocular variables, ocular blood flow References:Īsk for email notification. Our results suggest that exercise induces the modification of the ophthalmic blood flow in dogs, presumably related to the compensatory neuro-hormonal mechanisms. During the test, a linear correlation between the RI and the IOP was observed.

A significant decrease in the IOP (11+/3.39 mmHg) was recorded after 60 min of the passive recovery phase at the end of the exercise, a slight decrease (12.29+/4.26 mm Hg) mm Hg was detected. A significant decrease in the RI was observed immediately after the exercise (0.697 +/–0.035) and during the passive recovery phase (0.682 +/–0.042). Spearman’s rank correlation for non-normal distribution was used to determine a relationship between the RI and the IOP. Wilcoxon’s test was applied for the post hoc comparison. The data were analysed by a two-way repeated ANOVA measurement in order to compare the RI and the IOP. At the same times, the IOP was recorded by applanation tonometry. A colour Doppler examination was performed and the RI values were calculated for the medial long posterior ciliary artery at rest, immediately after the exercise, and after 60 minutes at the end of the exercise. Ten clinically healthy dogs were subjected to moderate physical exercise on a canine motorised treadmill at different speeds for 45 minutes. The purpose of this study was to evaluate the influence of the exercise on the RI of the medial long posterior ciliary artery in dogs, and correlate the data obtained with the IOP values. Some ocular variables such as the intraocular pressure (IOP), the choroidal thickness, the axial length and the ocular blood flow may be influenced by physical exercise. The resistive index (RI) is an indirect measurement of arterial resistance by means of a ratio between the peak systolic and end diastolic velocities recorded with a spectral Doppler device, especially used to evaluate the vascular damage in ocular diseases such as glaucoma.

Keil veterinary ophthalmology