Defense Advanced Research Projects AgencyTagged Content List

Imagery and Visualization

Visual representations of data and information

Showing 31 results for Imagery RSS
The Low Cost Thermal Imager - Manufacturing (LCTI-M) program seeks to enable widespread use of infrared imaging (IR) technology by individual warfighters, with a special focus on affordability and ease of use for dismounted soldiers and individual intelligence personnel, for whom situational awareness and instant sharing of information is critical. IR imaging has the capability to “see” through obscurants, providing valuable information even in environments with severely degraded visibility. Low-cost infrared cameras would empower each warfighter with this essential capability and could open the way to new tactical procedures that demand a common view of the battlefield.
The U.S. Government operates globally and frequently encounters so-called “low-resource” languages for which no automated human language technology capability exists. Historically, development of technology for automated exploitation of foreign language materials has required protracted effort and a large data investment. Current methods can require multiple years and tens of millions of dollars per language—mostly to construct translated or transcribed corpora.
Historically, the U.S. Government deployed and operated a variety of collection systems that provided imagery with assured integrity. In recent years however, consumer imaging technology (digital cameras, mobile phones, etc.) has become ubiquitous, allowing people the world over to take and share images and video instantaneously.
The Military Imaging and Surveillance Technology (MIST) program seeks to develop a fundamentally new optical Intelligence, Surveillance, and Reconnaissance (ISR) capability able to provide high-resolution 3-D images to locate and identify a target at much longer ranges than is possible with existing optical systems.
Free-space optics today requires a telescope, bulk lasers with mechanical beam-steering, detectors, and electronics. The Modular Optical Aperture Building Blocks (MOABB) program seeks to design all of these components into a single integrated device. In what would be deemed as the most complex electronic-photonic circuit ever fashioned, the program’s performers will work to create a wafer-scale system that is 100x smaller and lighter than conventional systems and can steer the optical beam 1,000x faster than mechanical components.