Visual Overview
Technical Details
Comprehensive specifications and technical information
Monolithic Solar Sensor
Quick Overview
The monolithic solar sensor uses an APS image sensor as the photoelectric conversion detector.
Key Specifications
| Parameter | Value |
|---|---|
| Model | C-SS-SiC-ANA/B-2B |
| Measurement Accuracy | 0.05° (3σ) |
| Flight Heritage | Completed qualification |
| Application | Low Earth Orbit satellites |
| Dimensions (mm) | 35 × 35 × 15 |
| Weight (g) | 50 |
| Mounting Material | 2A12 T4 |
| Operating Temperature (°C) | −30 to +45 |
| Storage Temperature (°C) | −35 to +55 |
| Data Update Rate | ≥15 Hz |
| Communication Interface | RS-422 / CAN |
| Design Life | 2 years |
Key Features
- Low-cost design and implementation.
- Integrated opto-electronic structure with high integration.
- Lightweight and compact design.
- High adaptability to space environmental conditions.
Applications
- Used for solar vector detection and attitude determination in low-orbit satellite systems.
Related Products
- See related products in this series
Documentation & Resources
Frequently Asked Questions
Common questions about Monolithic Solar Sensor
How does the Monolithic Solar Sensor aid in optimizing electric propulsion systems used on Starlink satellites?
The Monolithic Solar Sensor can provide precise solar vector information, which is crucial for optimizing the efficiency of electric propulsion (EP) systems on Starlink satellites. By accurately determining the sun's position relative to the satellite, the sensor enables precise adjustments to the solar panel orientation. This maximizes solar energy capture, ensuring sufficient power for the EP thrusters. Optimal power management leads to efficient orbit maintenance, collision avoidance maneuvers, and ultimately, extended satellite lifespan and reduced propellant consumption for Starlink.
What spacecraft platforms is this system compatible with?
This system is compatible with microsatellites, nanosatellites, CubeSats, and larger spacecraft platforms. It features modular design with standard interfaces for easy integration into various mission architectures and supports both commercial and scientific applications.
How does this system enhance spacecraft capabilities?
The system provides advanced functionality with reduced size, weight, and power consumption. It offers improved reliability through redundancy, radiation tolerance, and proven space-qualified components with extensive flight heritage.
What are the key performance specifications?
Key specifications include low power consumption, wide operating temperature range, high radiation tolerance (TID >100 krad), compact form factor, and long operational lifetime (>10 years). The system meets all relevant space qualification standards.
How is system integration and testing performed?
We provide comprehensive integration support including detailed interface specifications, test procedures, and simulation tools. All systems undergo thorough environmental testing, functional verification, and compatibility validation before delivery.