Spacecraft systems
Mission architecture, requirements, interfaces, CONOPS, V&V, reliability and integration readiness.
SPACECRAFT SYSTEMS × EMBEDDED HARDWARE × APPLIED AI
JIRAPAT SEANGYONGENGINEERSSYSTEMS THAT FLY.
I'm Jay — a spacecraft systems engineer bridging mission architecture, FPGA payload electronics and intelligent onboard systems.
↓Areas of expertise
FPGA & payload electronics
Zynq-based payload control, high-speed interfaces, image sensors and multilayer PCB design.
Applied & onboard AI
Physical AI, edge intelligence, VLA models and AI-enabled mission operations.
SELECTED PROOF
HARD PROBLEMS.
REAL HARDWARE.
FLIGHT SYSTEMS01
THEOS-3 satellite program
Supporting mission analysis, system architecture, end-to-end requirements, spacecraft modes, interfaces and verification planning.
HARDWARE02
TSC-1 payload electronics
Designed three payload-controller and two data-handling-unit iterations around FPGA-based, high-speed electronics.
RESEARCH03
Edge AI for microsatellites
Published a parallel edge-computing hardware approach for deep learning in microsatellite systems at IAC 2024.
Can AI make complex systems engineering more consistent — and spacecraft more autonomous?
Current interests include LLM-assisted requirements analysis, Physical AI, Vision-Language-Action models, onboard autonomy and intelligent mission operations.
MANUSCRIPT IN PREPARATION · APASE 2026Evaluating Large Language Models for Detecting Requirements Inconsistencies in Small Satellite Systems Engineering
ONE LINK. THE WHOLE SIGNAL.
