Jotne_1: Dynamic Payload Operation Scheduling & Power Prediction Framework for CENSSAT-1

AIM: To design and implement an adaptive, AI-driven on-board payload operation scheduler for CENSSAT-1 that optimizes multi-instrument duty cycles and mission science yield based on real-time solar array power generation and orbital energy predictions.

Logo of CENSSAT-1: UiO's first satellite!

CENSSAT-1: UiO's first satellite!

CENSSAT hosts various payloads:

  • ASTRA-LEO:particle detector,  
  • m-NLP: Multi-needle Langmuir plasma probe for density structure analysis, 
  • Monochrome  Camera: Earth and aurora imaging triggered by dynamic events,  
  • Space Debris Radar: Space debris detection system
  • TychoBo: On-board edge computing and AI/ML, 
  • DRACO: Atmospheric drag control for thrustless orbital maneuvering, 
  • UHF TACSAT: Deployable antenna with Software Defined Radio for tactical communications.

Objectives of this thesis project:

  • Develop dynamic solar generation and energy storage predictive models tailored to varying orbital illumination and eclipse cycles. 
  • Perform mathematical power consumption modeling of different payload over the the Life Cycle of Satellite.  
  • Implement constraint-aware payload scheduling algorithms prioritizing high-power science payloads (e.g., Space Debris Radar, TychoBoB) while securing essential satellite platform housekeeping. 
  • Validate real-time, event-driven switching (e.g., triggering the optical camera or SDR upon TychoBoB or ASTRA-LEO detection) under energy budget constraints. 

 

This thesis project is supervised by the CENSSS partner Jotne Connect. 

Contact persons are Kjell.Bengtsson@jotne.com and aditya.gupta@jotne.com

Tags: Operation, Scheduling, AI
Published Nov. 4, 2026 11:28 AM - Last modified Nov. 4, 2026 11:30 AM

Supervisor(s)

Scope (credits)

60