Digantara
Company Information
What Is Digantara?
Digantara is a space technology company developing satellite surveillance systems, orbital tracking infrastructure, and intelligence software for monitoring objects and activities in space. Its technology combines space-based sensors, ground observatories, and artificial intelligence to detect satellites, orbital debris, and other objects moving through Earth’s orbital environment. The company’s AIRA platform processes observations from multiple sources to generate tracking information, orbital predictions, and operational intelligence. Digantara’s systems support space domain awareness, satellite safety, defense surveillance, and mission planning for commercial and government space operators.
What Does Digantara Do?
Digantara develops and operates systems that detect, track, and analyze objects in Earth orbit. Its infrastructure combines satellites equipped with optical sensors, ground-based observatories, and software that processes orbital measurements into information used for spacecraft operations.
The company launched its SCOT space surveillance satellite in January 2025 and subsequently commissioned it for space-to-space tracking. SCOT collects observations of other objects in orbit, complementing ground-based tracking systems.
Through its AIRA space intelligence platform, Digantara combines observations from different sensors to calculate orbital positions, predict trajectories, detect unusual activity, and support assessments of potential threats.
Digantara also develops specialized hardware and analytical tools for satellite tracking, non-Earth imaging, surveillance, and mission planning. Its customers and partners include satellite operators, government organizations, and defense agencies requiring information about spacecraft and orbital activity.
Digantara Technology
Digantara develops an integrated architecture for detecting, tracking, and analyzing objects in space. Its technology combines orbital sensors, ground-based observations, artificial intelligence, and astrodynamics software to produce information about the position, movement, and behavior of spacecraft and debris.
A central component is AIRA, the company’s space intelligence platform. AIRA combines measurements from multiple sources, including optical sensors, LiDAR systems, ground observatories, and external tracking data. Its software processes these observations to estimate object positions, calculate orbital trajectories, and identify events requiring further investigation.
Digantara’s space-based sensing capabilities include the SCOT satellite, which uses optical technology to observe objects from orbit. Space-based tracking provides observation angles that differ from ground-based systems and can help monitor objects under conditions where terrestrial coverage is limited.
The company’s ground-based optical surveillance network provides additional observations across different orbital regions. Digantara reports a network of ten observatory sites, with remote sensor tasking and automated tracking capabilities.
Its proprietary Or-Eng processing technology uses artificial intelligence and machine learning to combine sensor observations, reduce inconsistencies, and support orbital analysis. The platform is designed to integrate different types of measurements rather than depend on one sensing method.
Digantara also develops orbit determination and predictive analytics. These capabilities estimate spacecraft trajectories, calculate uncertainty, identify objects that do not match existing catalogs, and detect changes in expected orbital behavior.
The company’s technology portfolio extends to non-Earth imaging, satellite signal analysis, and defense-oriented surveillance. Its architecture is designed to connect sensor measurements with software that supports operational decisions throughout a spacecraft’s mission.
Why Digantara Matters
Digantara addresses the growing challenge of maintaining accurate information about objects and activity in Earth orbit. As satellite constellations expand, operators need reliable tracking data to evaluate collision risks, monitor spacecraft, and identify unexpected changes in orbital behavior.
Its combined space-based and ground-based surveillance infrastructure provides additional observations that can complement existing orbital tracking systems. This approach is relevant to monitoring objects that may be difficult to observe consistently using a single sensor network.
The company’s AI-powered orbital intelligence also supports defense and national security applications, including monitoring high-interest spacecraft and identifying unusual orbital activity.
By developing sensing hardware and analytical software within one architecture, Digantara contributes to the commercial space domain awareness industry and the infrastructure needed for safer, more informed satellite operations.
Digantara Products & Platforms
AIRA
AIRA is Digantara’s central space intelligence platform, combining measurements from ground-based and orbital sensors into a unified data-processing system. It uses AI-driven sensor fusion and orbital analytics to support object tracking, trajectory prediction, anomaly detection, and space domain awareness. The platform connects Digantara’s hardware, tracking datasets, and mission analysis tools.
SCOT Space Surveillance Satellite
SCOT, or Space Camera for Object Tracking, is Digantara’s orbital surveillance satellite launched in January 2025. It uses optical sensors to observe other objects in space and collect measurements for orbital tracking. The spacecraft was commissioned in March 2025 and contributes space-to-space surveillance data to the AIRA platform.
PRISM Optical Sensors
PRISM is a family of electro-optical payloads developed for space surveillance and object imaging. The product line includes PRISM Wide, designed for wider-area observations, and PRISM Sharp, designed for higher-resolution tracking at longer distances. These sensors combine optical imaging and onboard processing for detecting, identifying, and characterizing objects in orbit.
PULSE LiDAR Sensors
PULSE combines LiDAR-based distance measurement with optical imaging for observing objects in space. It uses photon-sensitive detectors to estimate depth and spatial characteristics while tracking moving targets. The system has configurations designed for different observation distances, supporting proximity operations, spacecraft rendezvous, and precision object tracking.
SKYGATE Ground Surveillance Systems
SKYGATE is part of Digantara’s ground-based sensing portfolio. It supports the collection of optical observations used to monitor satellites and other orbital objects. These measurements complement space-based surveillance data and contribute to orbital tracking and space domain awareness through AIRA.
IRIS Non-Earth Imaging
IRIS provides non-Earth imaging and spacecraft characterization capabilities. It combines high-resolution optical observations with radio-frequency information to identify objects, examine spacecraft geometry, estimate orientation, and analyze movement. Its capabilities include satellite inspection, tumble-rate analysis, and three-dimensional object modeling.
LOCUS Orbital Tracking Data
LOCUS provides orbital position estimates, trajectory predictions, and tracking datasets for satellites and other resident space objects. Its outputs include two-line elements, orbital state vectors, and time-based trajectory information. The system supports orbit determination, propagation, and uncertainty analysis, including identifying objects that do not match existing catalogs.
STARS Surveillance Analytics
STARS is an analytics platform for space intelligence, surveillance, and reconnaissance. It supports orbital event modeling, spacecraft behavior analysis, surveillance planning, and monitoring of objects near high-interest satellites. Its capabilities include anomaly detection, conjunction analysis, and pattern-of-life monitoring.
MAP Mission Analytics
MAP is a mission planning and analysis platform for satellite operators. It provides tools for simulating orbital scenarios, evaluating mission risks, and supporting spacecraft operations from launch through disposal. Its capabilities include mission simulation, launch and early operations support, and orbital risk assessment.
Digantara Applications
Digantara’s technology supports satellite tracking, space debris monitoring, space traffic management, and defense surveillance. Its sensors and analytical systems provide information about the positions and movements of objects in orbit, helping operators assess collision risks and unexpected spacecraft activity.
Government and defense organizations can use its surveillance capabilities to monitor high-interest satellites, investigate orbital maneuvers, and analyze potential threats. Its optical and non-Earth imaging systems also support spacecraft identification and condition assessment.
For commercial satellite operators, Digantara provides orbit determination, conjunction analysis, and mission planning information. These capabilities support launch preparation, early satellite operations, constellation monitoring, and end-of-life planning.
The company’s broader surveillance technology portfolio also addresses missile detection and other defense-oriented sensing applications, with individual capabilities at different stages of development and deployment.
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Frequently Asked Questions
What is Digantara’s AIRA platform?
AIRA is Digantara’s space intelligence platform. It combines observations from ground-based and orbital sensors with artificial intelligence and orbital modeling software. The system processes tracking measurements to estimate spacecraft positions, predict trajectories, identify unusual activity, and support space domain awareness operations.
What is the purpose of Digantara’s SCOT satellite?
SCOT, or Space Camera for Object Tracking, is a satellite designed to observe other objects in orbit. Launched in January 2025 and commissioned in March 2025, it uses optical sensors to collect space-to-space tracking measurements. These observations contribute to Digantara’s orbital intelligence infrastructure.
How does Digantara track space debris?
Digantara combines optical observations from satellites and ground-based observatories with orbital tracking software. Its AIRA platform processes these measurements to estimate object positions and predict future trajectories. The company also uses artificial intelligence to combine sensor information and identify objects that do not match existing tracking catalogs.
What is the difference between Digantara’s IRIS and LOCUS products?
IRIS focuses on non-Earth imaging and spacecraft characterization, including visual inspection, orientation analysis, and object modeling. LOCUS focuses on orbital tracking data, providing position estimates, state vectors, trajectory predictions, and uncertainty information. Both use Digantara’s AIRA intelligence infrastructure.
Does Digantara remove space debris from orbit?
Digantara primarily develops technologies for detecting, tracking, and analyzing orbital objects rather than physically removing debris. Its systems provide information that can support collision avoidance and debris removal planning. Companies operating removal spacecraft may use tracking and surveillance data to identify targets and evaluate orbital conditions.
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