Summary/ Reader response Draft #1 (Deep trekker)

 

Deeptrekker promotes the usage of underwater Remotely Operated Vehicle (ROV), DTG3 (Deep Trekker, 2022). Among its functions, it is pointed out that the robot can conduct intensive observation under rough conditions and send live feedback to the user. It features an enhanced 4K camera, sonar system, Ultra-short baseline(USBL), and three precision thrusters. The enhanced 4k camera demonstrates the ideal underwater inspection experience paired with premium lenses and an algorithm unique to Deep Trekker (Deep Trekker, 2022). Its sonar system allows DTG3 to assess the surrounding environment for navigation and inspection purposes (Deep Trekker, 2021). While the USBL system can be understood as a GPS to aid in navigation. It is reported that the precision thruster on the machine enables the ROV to accurately make vertical movements (Deep Trekker, 2022). One crucial trait of DTG3 itself is its small size which allows the ROV to inspect tight spaces. For such a small size, its battery has a runtime of up to 8 hours. This ROV is an all-rounded piece of equipment that is applicable to use even in the harshest conditions. 

I believe that the DTG3 ROV will prove to be one of the most efficient ROVs in the market because of its maneuverability, advanced camera system, and enhanced navigation.

DTG3 allows for extremely fine movements and controls due to various features. DTG3 itself only measures 325mm x 258mm x 279mm. This allows the device to reach into crevices that bigger ROVs cannot reach. With the help of its 3 precision thrusters, it enables precise vertical movements. They come with sensors that integrate seamlessly with Deep Trekkers' unique BRIDGE technology(Deep Trekker, 2022). These thrusters paired with BRIDGE technology give the user access to the auto-depth holding function. This function is useful when the user wants to inspect parts only at a certain depth. Besides these features, the shell and precision thrusters can be rotated for the ROV to move freely in any direction. 

Equipped with the 4k camera system, besides the clear coloring and imaging, the camera is also able to rotate at an angle of 270 degrees. The camera system also comes with a lighting system that provides a brightness of up to 1000 lumens, allowing users to see clearly even in the murkiest water. Through BRIDGE technology, a lot more can be accomplished. Unlike usual wireless ROVs, the DTG3 ROV has been observed to have almost no delays when it comes to communication. The user will not experience any lags during the operation of the ROV which is crucial when operating in real-time. 

Navigating through the ocean can be hard because of the properties of water. When underwater, light does not travel as well as in air, unlike sonar, A sonar system is used underwater for imaging, exploring, and mapping purposes. The sonar system can also be used to identify corrosion and deformities as well as to analyze complex structures(Deep Trekker, 2022). This feature alone allows for easy navigation and inspection underwater. The Global Positioning System does not work underwater, without this feature, the user is unable to know the exact position they are at. The USB-L system provides real-time tracking so that the user can identify the exact position of the ROV and locations where faults are found. These two technologies are integrated together to enhance the navigation experience. The user will be able to explore underwater more efficiently with the sonar system and positioning system.

One flaw that this device has is that the system itself does not support auto-piloting on a designed route. However, it has been reported that Deep Trekker will be implementing a waypoint feature in future updates to support this function(Deep Trekker, 2021).

Weighing both options, I think that the pros outweigh the cons. The excellent maneuverability, advanced camera system, and enhanced navigation make the DTG3 the best choice in its class for underwater inspection and exploration purposes.


References:

DTG3 ROV For Sale. (2022). Retrieved 29 September 2022, from https://www.deeptrekker.com/products/underwater-rov/dtg3-b

Deep Trekker. (n.d.). Sonar Systems 101: Technology and application. Deep Trekker. Retrieved September 28, 2022, from https://www.deeptrekker.com/news/sonar-systems

Deep Trekker. (2022). Precision Thruster | DTG3 | Deep Trekker. Retrieved 28 September 2022, from https://www.deeptrekker.com/shop/products/precision-thruster

DTG3. (2022). Retrieved 29 September 2022, from https://ocean-innovations.net/companies/deep-trekker/products/underwater-rov/dtg3/

Deep Trekker. (2022). Underwater Tunnel and infrastructure inspection: Using rovs and Sonar. Deep Trekker. Retrieved September 30, 2022, from https://www.deeptrekker.com/resources/using-sonar-for-tunnel-and-infrastructure-inspections

Deep Trekker. (2021.). How to optimize operations with Mission Planning. Deep Trekker. Retrieved September 30, 2022, from https://www.deeptrekker.com/news/optimize-operations-with-mission-planning


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