The Development of Flight Operations: Improvement of ERAU Cube-Sat’s Ground System Interface and Research of the Satellite’s Orbital Decay Presented by.

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Presentation transcript:

The Development of Flight Operations: Improvement of ERAU Cube-Sat’s Ground System Interface and Research of the Satellite’s Orbital Decay Presented by Madison Padilla Embry-Riddle Aeronautical University, Prescott EagleSat-1 Flight Operations Team Lead Mentor: Dr. Gary Yale 1

Outline Background Ground system overview Ground system breakdown Graphic user interface (GUI) layout Flight dynamics overview Analysis from Flight Dynamics Questions 2

Background The research and development has been done for the ERAU-Prescott cubesat, known as the EagleSat-1 Technical Objective: To improve and complete the ground system and to calculate and incorporate drag in order to predict the deorbit time of the EagleSat-1 3

Ground System A ground system to provide a Graphical User Interface (GUI) with EagleSat-1 through a serial connection to the Terminal Node Controller (TNC) View, save, observe and process data from EagleSat-1 Send commands to EagleSat-1 Transformational and Interactive Software Architecture Matrix Laboratories (MATLAB) chosen for all ground station software 4

High Level Flowchart 5

Data Flow Diagram 6

1. Time2. GPS 3. Raw Data Output 4. Position and Velocity 5. Data Source 7 1.Time -System Greenwich Mean Time (GMT) -System AZ Time -Satellite GMT -Satellite Mission Time 2. GPS -GPS Lock -State Vector -Latitude and Longitude -Altitude -Number of satellite locks 3. Raw Data Output 4.Position and Velocity -X, Y, Z position -X, Y, Z velocity 5. Data Source -Buttons for real-time or playback -Save and exit

Flight Dynamics Main objective: To calculate and incorporate drag in order to predict the deorbit time on the EagleSat-1 Orbital Predictions: Altitude at apogee: 810 km Altitude at perigee: 450 km Inclination: degrees Mean Local Time of Ascending Node: 13:35 Assumed launch date: January 16, 2017 All flight dynamics analysis is done in Systems Tool Kit 10 (STK) 8

STK Analysis - Coverage Passes over Ground Station (located in AXFAB) 3 to 6 passes per day 2-3 passes within ~1-2 hours, separated by ~8-10 hours Mean coverage time: approximately 10 minutes Example of STK coverage generation file, based upon assumed launch date Place-Embry_Riddle_Aeronautical_University_AZ-To-Satellite-EagleSat1: Access Summary Report Embry_Riddle_Aeronautical_University_AZ-To-EagleSat Access Start Time (UTCG) Stop Time (UTCG) Duration (sec) Dec :31: Dec :46: Dec :12: Dec :24: Dec :04: Dec :09: Dec :39: Dec :53: Dec :19: Dec :33:

Eclipse Times Eclipse Analysis, based upon assumed launch date 01/16/17 Eclipse duration: 8 seconds to 40 minutes Average eclipse duration: 9.18 minutes Example of STK eclipse summary: Start Time (UTCG) Stop Time (UTCG) Duration (sec) Jan :00: Jan :22: Jan :22: Jan :23: … 16 Jan :32: Jan :32: Jan :32: Jan :00:

Questions? 11