New Jersey’s scientific research landscape has warmly embraced drones as high-tech multipurpose tools across environmental, oceanographic, and engineering disciplines. At Rutgers, entomologists deploy hexacopter “skeetercopters” with waterproof floats to locate mosquito breeding sites in marshes, collect larvae, apply larvicide, and monitor larval populations—achieving precise, efficient control in habitats too dense or dangerous for crews. Meanwhile, the Department of Marine and Coastal Sciences leverages drones to calibrate HF radar systems and experiment with “CopterCurrents,” an algorithm that extracts surface current velocities from aerial video—innovations being trialed by students as part of operational oceanography research.
Beyond Rutgers, the Meadowlands Research & Restoration Institute (MRRI) employs FAA-certified drones to support wetland mapping, volume estimates, vegetation analysis, and water sampling—critical for understanding estuarine health and planning flood responses . A NASA-funded Rutgers team is developing autonomous drones capable of water sampling in rivers like the Raritan, using precision flight to collect microplastics and microbial contaminants—boosting both the spatial scope and efficiency of water-quality monitoring. Reddit observations highlight New Jersey as a real-world testbed for cutting-edge UAS use in complex environments, from urban overlays to coastal marshlands, underscoring how blending drone platforms with advanced sensors is reshaping scientific inquiry in the Garden State:
“NJ UAS research activities … support … integration of UAS into the National Airspace System.”
In sum, New Jersey’s drone-driven research ecosystem is pioneering new frontiers in ecology, hydrology, and infrastructure, accelerating data collection and discovery in ways that were unimaginable just a decade ago.
"This work is only the tip of the iceberg for what the technology will allow us to accomplish."
Gustavo Lozada - Technology and Information Systems Operations Manager
Studies of planet Earth are best done using a wide variety of tools because geologic processes occur at all scales. For example, satellites and seismometers are used to study Earth at the global scale, whereas microscopes and mass spectrometers are used to study Earth at the crystal and atomic scales. Earth science discoveries often correlate with technological advances in the tools used to record observations and make measurements. In some cases, these advances allow scientists to detect what was previously unknown. One such tool, which is just starting to revolutionize the study of planet Earth, is unmanned aircraft systems (UAS), more commonly known as drones.
Drones are becoming useful tools in ecological research with their expanded viewing capabilities. The Syracuse area is becoming an important testing ground for new drone applications. This intern will be based at the Cornell Biological Field Station in Madison County just east of Syracuse on Oneida Lake. They will work with aquatic and terrestrial researchers to incorporate drones in ecological research. An underwater drone will survey fish habitat and behavior, benthic invertebrate coverage, and unique fields of manganese nodules locally known as pancakes. Aerial drones will be used to assess aquatic macrophyte coverage in nearshore habitat, bird nesting on islands, and forest canopy structure. Video content from the project will be developed into a wide range of extension materials for education and research.
Drone primary uses unpiloted aerial systems (UAS), or drones, to collect data for geological investigations, mapping and surveying, and for promotional purposes. We maintain a number of multi-rotor UAS of different sizes and capabilities that are equipped with various sensors for capturing optical, thermal, multispectral or LiDAR images.
Some of the resources we create from the collected data include:
photos and videos
3D maps
orthomosaics — highly detailed, map-like images made by combining many smaller images
2D and 3D meshes and point clouds (for ground surface reconstruction)
actionable reports
Drone mapping, also known as drone surveying or UAV mapping, involves using drones equipped with cameras and other sensors to collect and analyze geospatial data for various applications. This technique offers efficiency, accuracy, and safety advantages compared to traditional mapping methods.
What Is Drone Mapping?
Drone mapping is the use of aerial data to create 2D and 3D maps, models, and other outputs, such as orthomosaics.
3D mapping with a drone is efficient and a lot more cost-effective than traditional alternatives. And it can be especially useful for creating maps of hard-to-reach or hazardous locations, minimizing the need for the area to be walked on foot and thereby increasing safety.