Learn about the remarkable capabilities of autonomous and programmable subsea camera systems and how they are reshaping the field of oceanography.

Get the details on cabled ocean observatories, including their purpose, usage, and the types of camera systems employed. Also, we share how ocean observatory camera systems and cabled observatories support long-term studies and ocean monitoring, and present case studies that demonstrate their effectiveness.

Delve into the differences between HD and 4K subsea cameras and how to choose the right one for your application.

Learn how remote operations technology is helping the offshore energy industry reduce its carbon footprint and operate more sustainably.

OceanGate Expeditions used the Rayfin Mk2 Benthic subsea camera to reveal an astonishingly diverse ecosystem on an unknown basalt formation near the Titanic wreck site. Learn more about their discovery and exploration.

In this article, we provide you with tips on how to conduct a successful subsea video survey and highlight some of the main equipment needed.

Discover the importance of having reliable underwater low-light environment capabilities in a subsea camera. Plus what makes a subsea camera good in low-light. Learn more!

This article provides insights on subsea digital video recorders (DVRs) with overlay capabilities. We cover what they are, how they work, and their significance in fields such as oceanography, marine biology, geology, and underwater engineering. Additionally, we discuss the importance of overlays in providing context and insights into the underwater world.

What started as routine training ended in the first ever recorded sighting of a “Prickly Shark" in French Polynesia. The discovery was made during a dive with a SEAmagine Aurora submersible, equipped with a SubC 1Cam Mk6 deep-sea camera. Learn more!

Subsea imaging has been in practice for over 150 years. Since the early days of underwater image capture, the technology has greatly improved, allowing for researchers and scientists to collect video and image data from even the deepest parts of the ocean.

Explore how the right subsea imaging and cameras can make subsea research easier, more efficient, and more effective. Plus, we’ll review factors that will help you decide the right deep sea camera for your needs.

Learn about why subsea cameras and imaging systems, like the Tow Camera System, are increasingly becoming an alternative to sonar systems for seafloor mapping and imaging purposes.

In this webinar you’ll learn the essential technologies being developed to support the shift to remote operations for ocean sciences, offshore energy, and other maritime industries. In partnership with Scripps Institution of Oceanography.

Accessories such as subsea lights and lasers are great considerations when looking to enhance your marine research. Each has its own capabilities to complement your current setup and object detection to help elevate your results. Plus, they are easily attached to subsea cameras for marine observation.

Learn about the developments in subsea imaging and subsea optics technology that are driving growth in ocean discovery, inspection, and conservation.

NMEA data loggers are used to record oceanographic data from subsea cameras. They provide real-time information about the environment around the camera. This is important because access to the right data can make all the difference for oceanographers, marine scientists, and other offshore professionals.

Underwater lasers play an important role in subsea imaging. They are just one of the many important tools used for ROV surveys, 3D modeling, pipeline inspection, and marine research.

When acquiring subsea equipment for your marine research, offshore energy, ROV survey, or other subsea project, deciding whether to rent or buy is often top of mind.