LEAP-2 Mission
Launching Expeditions for Aspiring Payloads - 2
.webp)
LEAP-2 is Dhruva Space’s second commercial endeavour on the P-30 satellite platform, hosting XXX In-Orbit Demonstration (IOD) missions for global customers: France-based Sodern Arianegroup’s HORUS Star Tracker, India-based Satleo Labs’ TAPAS-1 thermal infrared sensor, a XYZ payload developed in partnership with India-based QNu Labs, and an internal AIS payload of Dhruva Space.
This mission is slated to be launched via SpaceX’s Falcon 9 on XXX MM 2026.
[The rocket launched from Vandenberg Space Force Base, California, USA, at XXXX pm / am IST followed by successful deployment of the LEAP-2 satellite at XXXX am/pm IST.]
About Dhruva Space's Launching Expeditions for Aspiring Payloads (LEAP) programme:
The LEAP hosted payload programme by Dhruva Space offers organisations a flight-proven satellite bus platform designed for seamless payload accommodation and mission deployment. Built on a foundation of modular avionics, scalable power distribution, and adaptable communication interfaces, this solution enables customers to bypass the complexity of spacecraft development while retaining mission flexibility.
Through this programme, Dhruva Space delivers end-to-end services — from satellite bus and subsystems development, payload integration, environmental testing, to Launch coordination and integration, Ground segment readiness, and compliant deorbiting at end-of-life.
Customers benefit from:
Accelerated time-to-orbit
Shared mission economics: Reduced capital expenditure via co-flying opportunities
Full-stack reliability: Integrated mission critical subsystems for robust mission assurance
LEAP empowers innovators to focus on their core technology while Dhruva Space handles the satellite bus, mission assurance, and orbital infrastructure. It’s a platform built for rapid deployment, scalability, and global collaboration, enabling faster access to Space.


Mission Details
Mission Specifications

LEAP-1
- Hosted Payload Missions
- Payload In-Orbit Validation (IOV) / In-Orbit Demonstration (IOD)
- Multi-Payload Configurations
- Body-mounted and Deployable Solar Arrays
- 3-axis stabilised for advanced missions
- Optimised for Low Earth Orbit (LEO)
Satellite Orbital Deployers Range

- Autonomous optical determination of spacecraft attitude using stellar references
- Embedded star catalogue and attitude-computation algorithms
- Designed for high-accuracy pointing across LEO, MEO and GEO missions
- Robust operation under high slew rates, stray light and radiation environments
Horus star tracker integrates electronics, software, and optics into a compact and lightweight housing. Its autonomous architecture allows it to withstand high mechanical constraints and severe environments (extreme temperatures, radiation, stray light…).
- Easy integration
- Robustness in acquisition and tracking ≤6 deg/s | ≤8 deg/s
- Precision XY/Z 1.6/11 arcsec
- Lifetime in orbit10 years in LEO | 18 years in GEO


- Generates true random numbers from inherently unpredictable quantum processes
- Provides a high-entropy source for cryptographic key generation
- Designed as a compact hardware security module for integration into space systems
- Enables quantum-secure approaches to spacecraft communications and data protection

- Receives Automatic Identification System signals transmitted by vessels
- Enables space-based detection, identification and tracking of maritime activity
- Extends vessel monitoring beyond the coverage of terrestrial AIS infrastructure
- Supports maritime domain awareness and monitoring of activity at sea

AU: 111.5 x 93.5 x 24.8 (LxWxH)
(Nominal Power = 7.5 )
- Captures high-resolution thermal data by sensing infrared radiation from Earth's surface
- Designed to identify fine-scale temperature variations and thermal signatures
- Enables applications including urban heat monitoring, agriculture, wildfire detection and environmental monitoring
- Demonstrates the thermal imaging and processing architecture for SatLeo's planned thermal intelligence constellation
- Thermal Earth Observation: Dedicated payload for capturing thermal information that is not visible in conventional optical imagery.
- LWIR Sensing: Thermal-band imaging capability leveraging SatLeo Labs’ expertise in Long-Wave Infrared (LWIR) sensing.
- Compact CubeSat-Class Payload: Designed for integration into a compact satellite platform, enabling cost-effective thermal data acquisition from LEO.
- Commercial Thermal Data: Enables SatLeo to generate and make commercially available thermal Earth observation data from orbit.
- Technology Demonstration: First in-orbit validation of SatLeo’s thermal sensing, calibration and data-processing capabilities.
- Multiple Applications: Thermal data designed to support agriculture, climate monitoring, urban heat mapping, disaster management and infrastructure monitoring.
- Foundation for PYRO [Flagship Mission]: Provides critical flight heritage, operational learning and technology validation for SatLeo’s next-generation PYRO thermal satellite constellation.

.webp)







