## 1 Introduction  
With the continual expansion of cities, commuting distances and times have notably increased. In the majority of key metropolitan areas, residents spend over an hour each day commuting to and from work via public transportation [1; 2]. Moreover, the everyday usage of transportation modes such as trains, buses, and subways is on a steady annual rise. Consequently, an increasing number of people are investing a significant part of their day in transit-time that could be alternatively used for work, reading, or indulging in multimedia content. With the substantial surge in streaming platforms in recent years, subscribers' consumption of multimedia content, particularly on-demand movies and TV series, has shown a marked increase. This trend signifies a clear shift in consumption patterns towards more selective and demanding behaviors [3; 4]. Viewers now prefer to have control over what content they watch, the manner in which they watch it, and, most crucially, when and where they watch it. In essence, contemporary viewers seek ultra-high-definition (UHD) content that they can enjoy anywhere, anytime, and on-demand. Currently, no services offer a fully satisfying experience in transportation due to an amalgamation of business- and technology-related hindrances. The business constraints are mainly due to restrictive data consumption models dictated by telephone and Internet service providers, which is not the focal point of this research. Technologically, the main challenges present as low signal coverage, inadequate speed, and the limited bandwidth accessible to users. These issues are amplified by an increasingly crowded radio spectrum, causing interference between radio frequency waves from assorted services like telephones and other network-connected devices through wireless fidelity (WiFi). A prospective solution to these challenges could be operating within different sections of the electromagnetic spectrum, perhaps the optical spectrum. In optical communications, a particular scenario involves the exchange of information between transmitter and receiver devices, harnessing visible and infrared (IR) light sources. This type of communication is recognized as optical wireless communication (OWC). Traditionally, due to the low cost of optoelectronic and electro-optical components, IR technology has been extensively employed within OWC. However, its usage is confined by the need to sustain low transmission powers and speeds to evade potential health hazards [5; 6]. In recent years, visible light communication (VLC) has made considerable strides, attaining data rates of up to several Gbps. However, video transmission systems documented in the existing literature significantly trail behind these upper limits. For instance, a study proposed in [7] illustrates the concurrent transmission of audio and video signals using white and red Light-Emitting Diodes (LEDs), achieving data rates of up to 2 Mbps for video and 15 Mbps for audio over a 50 cm link, without the requirement of lenses or other optical elements to extend the distance. Similarly, ref. [8] reported the implementation of a Field-Programmable Gate Array (FPGA)-based VLC system for real-time video transmission, achieving a communication distance of up to 5 m and employing a pulse position decision algorithm to enhance transmission reliability. Other noteworthy studies include [9], reporting a system reaching a maximum bit rate of 0.986 Mbps over an optical distance of 6 m, and [10], achieving a bandwidth of 8 MHz and an optical distance of 8 m using an avalanche photodiode (APD) as a photodetector. Furthermore, ref. [11] exhibited a maximum rate of 0.415 Mbps with video qualities ranging from 480p to 720p.