Rectify the blurred license plate image from fast moving vehicles using morphological process

Abinaya, G.; Banumathi, R.; Seshasri, V.; Kumar, Ahlad

doi:10.1109/iceice.2017.8191940

Cited by 3 publications

(1 citation statement)

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“…Though EM MAPs have been used extensively in other applications (e.g., astronomy, satellite imaging of Earth, traffic monitoring, and medical imaging; e.g., Marrugo et al 2011;Al-Ameen et al 2012;Mourya et al 2015;Khare et al 2016;Abinaya et al 2017;Anger et al 2019), we validate the application of this method to planetary data by comparing reprocessed Voyager images of Jovian satellites to images from more recent missions of similar regions (Figures 3 and A1-2). Following these successful benchmark exercises, we reprocess images of Titania to enable a new mapping of its surface features (Figure 4).…”

Section: Ameenmentioning

confidence: 99%

Cratering and Tectonic History of the Largest Uranian Satellite, Titania: New Insights Enabled by Image Reprocessing

Nathan,

Head,

Huber

2024

Planet. Sci. J.

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From heavily cratered Umbriel to extensively tectonized Miranda, Titania is an intermediary of the Uranian system: heavily cratered, yet tectonically modified. An outstanding mystery in Titania's crater population is its apparent relative lack of large (>30 km) craters. However, progress has been limited by the coverage and quality of images available. Here, we present a new map of Titania enabled by reprocessing Voyager images to reduce the effects of motion blur. Of note, we identify a network of fractures, a set of lineaments that may represent a large multi-ring impact structure, and newly identified catenae. These findings suggest Titania's crater population is missing large craters due to viscous relaxation, tectonic resurfacing, and/or planetocentric debris, and does not necessarily require cryovolcanic resurfacing. In preparation for future missions to the Uranian system, this work presents foundations for identifying imaging targets that can contribute to furthering our understanding of the history and evolution of the Uranian system in a broader context of icy satellite evolution.

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