9/25/2002 ISS Software. 9/25/2002 Editor (Pseudo-Telemetry) Simple text-based output of data –Environment data –Flight software data –Called from simulator.

Slides:



Advertisements
Similar presentations
Benoit Pigneur and Kartik Ariyur School of Mechanical Engineering Purdue University June 2013 Inexpensive Sensing For Full State Estimation of Spacecraft.
Advertisements

MAE 5410 – Astrodynamics Lecture 5 Orbit in Space Coordinate Frames and Time.
Design Presentation Spring 2009 Andrew Erdman Chris Sande Taoran Li.
E80 Final Report Section 4 Team 2 Student 1 Student 2 Student 3 Student 4 May 5, 2008.
Ch 9. Rotational Dynamics In pure translational motion, all points on an object travel on parallel paths. The most general motion is a combination of translation.
Mission Design Requirements First priority is to deliver takeoff mass to aircraft team. Deliver 5kg item to ISS 24 hour launch lead time Vehicle must be.
Smooth Interpretation Swarat Chaudhuri and Armando Solar-Lezama.
ATMOSPHERIC REENTRY TRAJECTORY MODELING AND SIMULATION: APPLICATION TO REUSABLE LAUNCH VEHICLE MISSION (Progress Seminar Presentation - 2) K. Sivan (Roll.
Rocket Trajectories By Jan-Erik Rønningen Norwegian Rocket Technology [ [ ]
 Background  Problem Statement  Solution  Mechanical › Azimuth › Elevation › Concepts › Static and Dynamics of System  Software › SatPC32 › Interpolation.
What are ground tracks? COE Determination a e i   ? ? ? ? ? ? COE Determination.
GPS Waypoint Navigation Team M-2: Charles Norman (M2-1) Julio Segundo (M2-2) Nan Li (M2-3) Shanshan Ma (M2-4) Design Manager: Zack Menegakis Presentation.
Dynamics Why and how an object moves? Newton’s Laws.
Feasibility of Demonstrating PPT’s on FalconSAT-3 C1C Andrea Johnson United States Air Force Academy.
METEOR Guidance System P07106 Nov 2006 – May 2007 Project Review.
JPL Autonomous Space Mission Simulation Flight Team Bob Hoffman Josh Ruggiero Adam Nikolic Dusty Terrill.
Morehead State University Morehead, KY Prof. Bob Twiggs Understanding Orbits Orbit Facts 1.
Inertial Navigation AST 241.
SB-CMS-PIR - ceiling mounted PIR sensor. Subnet ID and Device ID Device Remark Change the ID if needed.
Satellite Communication
DISTRIBUTION AMONG INDUSTRIES Space industry Power industry Rail transportation Different industries.
Optimal Low-Thrust Deorbiting of Passively Stabilized LEO Satellites Sergey Trofimov Keldysh Institute of Applied Mathematics, RAS Moscow Institute of.
Star Tracker 5000 A low-cost star tracker and attitude determination system.
Different Coverage Patterns for a Single Satellite and Constellation of Satellites in Real Time with the STK Pedro A. Capó-Lugo Graduate Student Dr. Peter.
INDIAN INSTITUTE OF TECHNOLOGY MADRAS Department of Engineering Design AUTONOMOUS UNDERWATER ROBOTIC LABORATORY Researchers : Dr. Asokan Thondiyath, Mr.
University of Colorado Boulder ASEN 5070: Statistical Orbit Determination I Fall 2014 Professor Brandon A. Jones Lecture 3: Basics of Orbit Propagation.
IMPROVE THE INNOVATION Today: High Performance Inertial Measurement Systems LI.COM.
Inertial Navigation System Overview – Mechanization Equation
Guidance, Navigation and Controls Subsystem Winter 1999 Semester Review.
What happened to the Mars Climate Explorer in September 1999? By Leslie Palomino.
Angular Kinetics Review Readings: –Hamill Ch 11 esp pp –Kreighbaum pp , –Adrian (COM calculations) Homework problem on calculating.
SPHERES Reconfigurable Control Allocation for Autonomous Assembly Swati Mohan, David W. Miller MIT Space Systems Laboratory AIAA Guidance, Navigation,
Section 12.0 Guidance, Navigation & Control Samuel J. Placanica GN&C Lead Engineer ST5 PDR June 19-20, Space Technology “Tomorrow’s Technology Today”
Kingdom of Saudi Arabia King Saud University College of Food and Agricultural sciences Agricultural Engineering Dept MICROPROCESSOR UNIT FOR.
E80 Section 3 Team 3 Student 1 Student 2 Student 3 Student 4 May 5, 2008.
DISTRIBUTION AMONG INDUSTRIES Space industry Power industry Rail transportation Different industries.
March /5/2016 At A Glance STARS is a real-time, distributed, multi-spacecraft simulation system for GN&C technology research and development. It.
EE 495 Modern Navigation Systems
0.
Objective: To develop a fully-autonomous control system for the Q-ball based on onboard IMU/Magnetometer/Ultrasound sensory information Summer Internship.
Ground Control Station Flight conTrol
1 EOS Aqua Mission Status at AMSR Science Team Meeting September 16, 2015 Huntsville, Alabama Bill Guit Aqua/Aura Mission Director - Code 584 phone
GLAST Science Support Center July 16, July Ground Software Workshop The Spacecraft Simulator David S. Davis, GSSC.
University of Colorado Boulder ASEN 5070: Statistical Orbit Determination I Fall 2015 Professor Brandon A. Jones Lecture 2: Basics of Orbit Propagation.
Fuzzy Controller for Spacecraft Attitude Control CHIN-HSING CHENG SHENG-LI SHU Dept. of Electrical Engineering Feng-Chia University IEEE TRANSACTIONS ON.
EE 495 Modern Navigation Systems Kalman Filtering – Part II Mon, April 4 EE 495 Modern Navigation Systems Slide 1 of 23.
1 Ground Tool Development Process for PRO/DMC/PHANTOM/CPO Robbie Hawkins/PRO.
The Development of Flight Operations: Improvement of ERAU Cube-Sat’s Ground System Interface and Research of the Satellite’s Orbital Decay Presented by.
Trajectory Analysis Student 1 Student 2 Student 3 Student 4 E80: Section 4 Team 3 Harvey Mudd College 5 May 2008.
© GMV, 2016 Property of GMV All rights reserved Model Validation Framework for Launchers: Post-Flight Performance Analysis 6 TH INTERNATIONAL CONFERENCE.
USING OPTIONAL SUBSYSTEMS
Look Angle Determination
Simulink Interface Layer (SIL)
Code Generation from SEDS
Medium Rocket Analysis
ACS UC Berkeley Space Sciences Laboratory
Nicole Bryan 1/31/2008 Avionics Sensor Selection and Link Budget Analysis AAE 450 Spring 2008.
LAUNCH OF GEO STATIONARY SATELLITES
Scale: Kilometers.
EagleSat-1: Flight Operations
نرم افزار تحلیل دینامیکی آدامز
Orbit in Space Coordinate Frames and Time
Kletskous Magnetic Stabilization
Rotational Kinematics
Attitude Determination and Control Preliminary Design Review
EFCS I/O.
GPS Navigation System ET Fall 2017
Scale: Kilometers.
CS378 - Mobile Computing Location and Maps.
A e i o u.
Presentation transcript:

9/25/2002 ISS Software

9/25/2002 Editor (Pseudo-Telemetry) Simple text-based output of data –Environment data –Flight software data –Called from simulator Must only use telemetry data

9/25/2002 __________________________________________________________________________________________________________________________________ | T Sim = 0.00 | | | |__________________________________________|__________________________________________|__________________________________________| | SSF ENVIRONMENT STATE | SSF NAVIGATION STATE | SSF VEHICLE PARAMETERS | | | | | | r v | r v | mass 0.0 | | | | | | | 0.00 | | | xcg 0.00 | | | | | | | 0.00 | | | ycg 0.00 | | | 0.00 | | | | 0.00 | | | zcg 0.00 | | mag | mag | inertia matrix | |force ext self total | r err v err | | | | | | | | u| 0.00 | | | | | | | | | | d| 0.00 | | | | | | | | | | c| 0.00 | | | | |mag | mag | | |torque ext self total | | SSF ORBIT PARAMETERS | | | | | | | | | | | | | | | | environment navigation | | | | | | | quality indicator imu mis | apogee | | 0.00 | | |mag | sv bad u| | | perigee | | 0.00 | | | |att invalid d| | | inclination | | 0.00 | | | | wb invalid c| | | long node | | 0.00 | | | | mag 0.0 | arg perigee | | 0.00 | | | | | arg latitude | 0.00 | 0.00 | | | y p | y 0.00 p | latitude | 0.000| 0.000| | | p 0.00 q | p 0.00 q | longitude | | 0.000| | | r r | r 0.00 r | | |__________________________________________|__________________________________________|__________________________________________| | SSF NAVIGATION AND POWERED FLIGHT | SSF DAP PARAMETERS | SSF SYSTEM STATUS | | | | | | q_im_i | | mode active | | | | | | gnc initialization false | | | | dt extrap (env-fsw) | | | | | | nav: sx | | | | | | imu: sx | | | | | | SSF GN&C ORU STATUS | | ch | | | | sat | | availability availability | | ant | | isa1 not_available st1 not_available | | | | isa2 not_available st2 not_available | | | | isa3 not_available | | | | | | st1 st2 | | | | v ang | | | | | | | h ang | | | | | | | mag | 0.00 | 0.00 | | | | | id | 0 | 0 | | | | | | | alp si beta siu beta sil | | | | cmd | 0.0 | 0.0 | 0.0 | | | | | actual | 0.0 | 0.0 | 0.0 | | | | | rate | 0.00 | 0.00 | 0.00 | | |__________________________________________|__________________________________________|__________________________________________|

9/25/2002 Control System Architecture Need to implement the following: –Jet_Selection_Logic.adb Which thrusters should be turned on / off to achieve required torque –Attitude_Controller.adb Calculate attitude error –ADF-Process_ISA_Attitude_Package.adb Calculate new attitude given inertial sensor data