Independent R&D focused on building compact, intelligent spacecraft that deliver real sensing and communication capability in extremely small form factors.
Pushing the boundaries of miniaturization and embedded intelligence in practical space systems
Develop compact, intelligent spacecraft that deliver real sensing and communication capability in extremely small form factors. We explore how far miniaturization and embedded intelligence can advance practical space systems.
Space is moving toward distributed, modular, rapidly iterated platforms. We contribute by building credible, ultra-small satellites for scientific sensing, environmental monitoring, and resilient communication.
Hands-on engineering, iterative prototyping, subsystem validation, and system-level rigor. We believe future space capability will reward efficiency and intelligent design.
Active prototyping and validation of ultra-compact satellite subsystems
Custom PCB designs integrating power management, attitude control, and communication subsystems into ultra-compact form factors. Focused on reducing mass while maintaining reliability.
Development of efficient antenna designs and transceiver architectures optimized for small satellite platforms. Exploring novel modulation schemes for power-constrained environments.
Advanced solar cell integration and power distribution networks designed for miniaturized spacecraft. Maximizing energy density while minimizing thermal constraints.
Miniaturized sensor fusion algorithms combining magnetometers, gyroscopes, and sun sensors for precise orientation control. Developing lightweight ADCS solutions for CubeSat-class platforms.
Compact scientific instruments for Earth observation and environmental monitoring. Integrating multispectral imaging, temperature sensing, and atmospheric data collection into minimal volumes.
Embedded flight software with autonomous decision-making capabilities. Implementing edge computing and machine learning algorithms for real-time data processing and adaptive mission operations.
Novel heat dissipation techniques for compact electronics in vacuum environments. Researching passive thermal control systems and high-conductivity materials for extreme temperature cycling.
Standardized interfaces and plug-and-play subsystem designs for rapid prototyping. Building scalable platforms that enable mission-specific customization while maintaining core reliability.
Ground-based testing protocols simulating space conditions including thermal vacuum, vibration, and radiation exposure. Developing cost-effective qualification methods for smallsat components.
Interested in collaboration, discussion, or joining our team? We're always open to connecting with researchers, engineers, and space enthusiasts who share our passion for miniaturized space systems.
✉ cheetosslabs@gmail.com