One additional advantage of the current method is that the classification of vessel types is not compromised at retinal vessel crossings.
Visual classification of maritime vessels is another important task, assisting naval security and surveillance applications.
The classification of cranial vessels as intracranial – intracerebral and extracerebral – and extracranial, is shown in Table 1.
As a result, the classification of Royal Navy vessels in this period can be misleading, as they often carried more cannon than were listed.
As a result, the classification of Royal Navy vessels in this period can mislead, since they would often be carrying more pieces of ordnance than they were described as carrying.
Further, we acknowledge that our criterion for classification of a vessel as small caliber may be considered arbitrary.
With a mean proximal coronary diameter of 3.5 mm and SD of 0.5 mm, our criterion for classification of a vessel as small caliber was a proximal diameter of <3.0 mm.
At 240 minutes, the SDF video microscope (MicroScan, Microvision Medical, Amsterdam, The Netherlands) was used to investigate total small vessel (less than 20 μm) density, blood flow classification of each small vessel, perfused small vessel density, microvascular flow index (MFI), and heterogeneity index (HI) [ 19].
A number of methods have been reported in the literature for artery/vein classification of retinal blood vessels, which mainly depend on color fundus images [ 3, 8- 13].
The anatomical and cellular classification of these meningeal vessels was strengthened by complimentary experiments from both labs demonstrating functional implications of VEGFR3.
Previous literature for artery/vein classification of retinal blood vessels was based mainly on color fundus images [ 3, 8, 9, 11, 12, 15, 33, 34].
