Sony’s image sensor technology is now helping track wildlife in remote areas. Researchers have integrated Sony’s high-sensitivity image sensor into a new generation of animal tracking collars. These collars capture clear images even in low-light conditions like dense forests or at night. The sensor’s ability to perform well with little light makes it ideal for observing animals without disturbing them.
(Sony’s Image Sensor Used in Advanced Wildlife Tracking Collar)
The project is led by a team of conservation scientists working with engineers. They needed a reliable way to monitor endangered species across tough terrain. Traditional tracking methods often failed in darkness or thick cover. Sony’s sensor solved this problem by delivering detailed visuals using minimal power. This helps the collar last longer in the field without needing battery changes.
Field tests took place in several protected regions. Animals fitted with the new collars included snow leopards and African wild dogs. The images collected showed daily behaviors that were hard to see before. Scientists can now study movement patterns, social interactions, and feeding habits more accurately. The data will support better protection plans and habitat management.
Sony’s involvement came through its semiconductor division. The company has long supplied sensors for smartphones and cameras. Now its tech is aiding environmental efforts. The sensor used in the collar is based on back-illuminated CMOS design. It captures more light than older models while staying small and energy-efficient. That size and efficiency were key for fitting into wearable wildlife gear.
(Sony’s Image Sensor Used in Advanced Wildlife Tracking Collar)
Collaborators say the results so far are promising. More deployments are planned in Asia and South America. Each new collar sends data back via satellite links. Researchers access the footage remotely. This reduces the need for frequent site visits, which can stress animals. The system gives a clearer window into wildlife life with less human interference.